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4th Engineering Education Forum 2005-2006 – College <strong>of</strong> Engineering - <strong>University</strong> <strong>of</strong> <strong>Sharjah</strong><br />

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UNIVERSITY OF<br />

SHARJAH<br />

BOOK OF ABSTRACTS<br />

4 TH INTERNATIONAL FORUM ON<br />

ENGINEERING EDUCATION<br />

INTEGRATION OF TEACHING<br />

& RESEARCH WITH<br />

COMMUNITY SERVICE<br />

25-27 April 2006<br />

Organized by:<br />

College <strong>of</strong><br />

Engineering<br />

SPONSORS<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

i


4th Engineering Education Forum 2005-2006 – College <strong>of</strong> Engineering - <strong>University</strong> <strong>of</strong> <strong>Sharjah</strong><br />

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4 TH NTERNATIONAL FORUM ON<br />

ENGINEERING EDUCATION<br />

SPONSORS<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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4th Engineering Education Forum 2005-2006 – College <strong>of</strong> Engineering - <strong>University</strong> <strong>of</strong> <strong>Sharjah</strong><br />

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<strong>University</strong> City Pr<strong>of</strong>essional<br />

Network<br />

Background…..<br />

<strong>University</strong> City Pr<strong>of</strong>essional Network (UCPN) was founded in 1999 with the aim to<br />

encourage, establish and create pr<strong>of</strong>essional interests and dialogue across <strong>Sharjah</strong>,<br />

<strong>University</strong> City. UCPN is a non-pr<strong>of</strong>it group that looks after the interest <strong>of</strong> promoting<br />

pr<strong>of</strong>essional development and growth across a wide spectrum <strong>of</strong> disciplines.<br />

The Network is represented by two representative members from each institution. The aim<br />

<strong>of</strong> the Network is to be ‘proactive’ and represent the interest <strong>of</strong> its members. This has so<br />

far been achieved by joint participation from the five educational institutions’ that are<br />

represented: The American <strong>University</strong>, The Police Sciences Academy, The Higher<br />

Colleges <strong>of</strong> Technology, <strong>Sharjah</strong> Men’s College, <strong>Sharjah</strong> Women’s College and The<br />

<strong>University</strong> <strong>of</strong> <strong>Sharjah</strong>. Together these institutions promote a shared a vision <strong>of</strong> supporting<br />

and fostering excellence for ‘learning’, ‘knowledge’, ‘training’ and ‘research’ across<br />

<strong>Sharjah</strong> <strong>University</strong> City and the United Arab Emirates that gives recognition to its staff,<br />

students and community.<br />

Mission……<br />

UCPN aims to create a tapestry <strong>of</strong> opportunities for pr<strong>of</strong>essionals and academics with<br />

common purposes to meet and establish links for the benefit <strong>of</strong> education, research and<br />

training. We aim at creating a high standard pr<strong>of</strong>essional environment that will act as a<br />

mosaic across ministries and industries. We focus at maximising our pr<strong>of</strong>essional skills<br />

and networks to enhance a better tomorrow for the local and global communities for<br />

present and future generations.<br />

Aim…..<br />

Then aim <strong>of</strong> UCPN is to establish pr<strong>of</strong>essional academic associations across <strong>Sharjah</strong><br />

<strong>University</strong> City and the UAE that will strengthen and contribute towards the regional and<br />

global communities. UCPN aim at being strategic and innovative within the current local<br />

and global climate. UCPN aims to:<br />

<br />

<br />

<br />

<br />

<br />

<br />

Promote and expand academia, research and training opportunities for<br />

the national, regional and international knowledge community.<br />

Facilitate and work towards policy guidelines for educational interest<br />

groups and providers.<br />

Establish a local and international pr<strong>of</strong>ile <strong>of</strong> <strong>Sharjah</strong> and the UAE<br />

through pr<strong>of</strong>essional associations by way <strong>of</strong> seminars and conferences.<br />

Establish solid partnership(s) across local and global pr<strong>of</strong>essional<br />

interest groups.<br />

Strengthen the contribution <strong>of</strong> higher education towards the national<br />

infrastructure <strong>of</strong> ‘nation building’.<br />

Provide gateways to the intellectual richness <strong>of</strong> the national and<br />

international community.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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4th Engineering Education Forum 2005-2006 – College <strong>of</strong> Engineering - <strong>University</strong> <strong>of</strong> <strong>Sharjah</strong><br />

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Expo Center <strong>Sharjah</strong><br />

Building Business Relationships Since ‘77<br />

Expo Centre <strong>Sharjah</strong>, the exhibition wing <strong>of</strong> the <strong>Sharjah</strong> Chamber <strong>of</strong> Commerce and<br />

Industry (SCCI), is the UAE’s first-established Trade Exhibition Centre. The venue<br />

became a booming centre for international trade way back in 1977. Since then it has been<br />

one <strong>of</strong> the region’s most popular trade exhibition venues and home <strong>of</strong> some <strong>of</strong> the Gulf's<br />

best attended trade shows. Since its inception, the Centre has been serving the growing<br />

trade interests <strong>of</strong> the entire MENA (Middle East and North Africa) region.<br />

In September 2002, the Middle East MICE (Meetings, Incentives, Conventions and<br />

Exhibitions) sector received a considerable boost when Expo Centre <strong>Sharjah</strong> moved to a<br />

new state <strong>of</strong> the art facility. The world class exhibition centre was inaugurated by His<br />

Highness Dr Sheikh Sultan bin Mohammed Al Qassimi, Member <strong>of</strong> the Supreme Council<br />

and Ruler <strong>of</strong> <strong>Sharjah</strong>.<br />

The new exhibition and meeting facility was a spectacular tribute to the growing<br />

importance <strong>of</strong> UAE as the commercial hub <strong>of</strong> Middle East, and the Centre soon established<br />

itself as a prime meetings destination that <strong>of</strong>fered the perfect combination <strong>of</strong> sophisticated<br />

technical facilities and pr<strong>of</strong>essional services across a broad spectrum <strong>of</strong> events.<br />

The visually striking Expo Centre <strong>Sharjah</strong>, a landscaped centerpiece <strong>of</strong> the planned “Expo<br />

City” in the Emirate, is now the most technically-advanced and user friendly exhibition,<br />

conference and event complex in the region that <strong>of</strong>fers easy access to not only the MENA<br />

region but also to the whole <strong>of</strong> Indian sub-continent and the CIS countries.<br />

Today, Expo Centre <strong>Sharjah</strong> hosts a series <strong>of</strong> highly successful B2B, B2C, and solo<br />

country shows across the year, many <strong>of</strong> them being the region’s premier events.<br />

Expo Centre <strong>Sharjah</strong> is possibly the only trade exhibition facility in the region that caters<br />

to the complete requirements <strong>of</strong> the exhibitors on site. The 128,000 square metre Centre<br />

features four halls each <strong>of</strong> gross area 4,000 square metres, a central boulevard with built-in<br />

facilities including a dedicated press centre, 6,000 square metres <strong>of</strong> out-door static park,<br />

1,300 square meters <strong>of</strong> prime conference facility, meeting rooms, and on-site parking for<br />

1,600 vehicle.<br />

The complex has its own sophisticated waste water treatment and de-centralised airconditioning<br />

systems and also <strong>of</strong>fers wireless data, internet and telephone connectivity<br />

throughout the complex thereby increasing visitor transparency.<br />

An extensive network <strong>of</strong> built-in floor ducts and trenches ensure easy access to utilities,<br />

including compressed air, data communication services, telephone and internet lines.<br />

Visitor registration is done through a state <strong>of</strong> the art system and entry is controlled through<br />

turnstiles.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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4th Engineering Education Forum 2005-2006 – College <strong>of</strong> Engineering - <strong>University</strong> <strong>of</strong> <strong>Sharjah</strong><br />

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<br />

تتمتع شركة الحنو القابضة،‏ التي تأسست قبل أكثر من ثلاثين عاما ً،‏ بمكانة متميزة في المنطقة،‏<br />

وهي إحدى شركات التطوير العقاري الكبرى في الشرق الأوسط،‏ وقد تأسست في المملكة العربية<br />

السعودية عام 1975، ولهذه المجموعة مصالح تجارية في عدد من القطاعات المهمة ومن ضمنها<br />

العقارات،‏ والإنشاءات،‏ والمقاولات،‏ والتجارة العامة،‏ بينما تهتم بصفة خاصة بمشاريع البنى<br />

التحتية الضخمة ومشاريع التطوير العقاري في السعودية والإمارات وبقية دول مجلس التعاون<br />

الخليجي.‏<br />

وقامت شركة ‏"الحنو القابضة"‏ بتنفيذ عدد من المشاريع الكبيرة،‏ التي تقدر قيمتها بمئات الملايين<br />

من الريالات،‏ ومنها مشروع مدينة الإمارات الصناعية الذي يُقام على مساحة قدرها<br />

قدم مربعا ً في إمارة الشارقة،‏ واستفاد المستثمرون في هذا المشروع من عوائد مالية عالية.‏<br />

83 مليون<br />

والمشروع الآخر هو مشروع عين التخصصي،‏ الواقع في شارع التخصصي،‏ ومشروع الياسمينة<br />

إلى الشمال من مدينة الرياض،‏ الذي يُعد من المشاريع السكنية والتجارية المهمة،‏ ومشروع تطوير<br />

جزء من منطقة مطار جدة القديم على طريق الملك عبداالله،‏ وقد طورت المنطقة لتكون المنطقة<br />

المركزية لوسط مدينة جدة النابض.‏ وتفخر شركة الحنو القابضة بسمعتها وبفلسفتها الواضحة في<br />

العمل التي ت ُشجّع على الشراكات الاستراتيجية لتقاسم مراحل التخطيط والتنفيذ في مشاريعها،‏ وفي<br />

المقابل استفادة الشركاء من العوائد العالية المحتملة من استثماراتهم.‏ ويبرز مشروع ‏"جزر النجوم"‏<br />

في الشارقة اليوم كمدينة متكاملة،‏ تحمل سمات المدينة العالمية،‏ وتوفر أسلوب الحياة الكامل لأفراد<br />

المجتمع الذي تضمه،‏ وهو يقام على مساحة ت ُقدّر ب 60 مليون قدم مربعا ً،‏ وباستثمارات تزيد<br />

على 18 مليار درهم،‏ يعد الأول من نوعه في إمارة الشارقة،‏ وقد وجد من أجل بناء مدينة<br />

عصرية سياحية متكاملة،‏ تحتوي على عدّة أحياء سكنية تتسع في مجملها ل 80 ألف نسمة.‏<br />

Al Hanoo Holding Company is one <strong>of</strong> the leading<br />

real estate developers in the Middle East.<br />

Founded in 1975 in the Kingdom <strong>of</strong> Saudi<br />

Arabia, Al Hanoo Holding Company currently<br />

has a fully paid up capital <strong>of</strong> two hundred million<br />

Saudi Riyals and diverse interests in real estate<br />

investment and development, construction and<br />

trade with a focus on large-scale infrastructure<br />

and property development projects in Saudi<br />

Arabia, United Arab Emirates and other GCC<br />

countries<br />

Al Hanoo Nujoom Island In<br />

<strong>Sharjah</strong><br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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4th Engineering Education Forum 2005-2006 – College <strong>of</strong> Engineering - <strong>University</strong> <strong>of</strong> <strong>Sharjah</strong><br />

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Tanmiyat Group<br />

The Beginnings….<br />

The first step for Tanmiyat Group in Real-Estates works started in 1402 AH,<br />

(1982), using traditional ways, which was used then. It started to develop its<br />

Real-Estate experience and deep rooted its investment programs in Real-Estate<br />

market, which has witnessed massive developments in the Kingdom. The Group<br />

management has made sure during its working years in the field <strong>of</strong> Real-Estate,<br />

to build a big and essential net <strong>of</strong> relation with all people who works in the field<br />

<strong>of</strong> Real-Estate investment. And kept moving in the field <strong>of</strong> Real-Estate<br />

investment, it firmed its steps and gained a good experience and knowledge in<br />

this field, which it used in developing its Real-Estates investments and projects.<br />

Tanmiyat Group for Real-Estates Investments started to work in institutional<br />

distinguished method in 1417 AH, Thanks to God, we have managed to use our<br />

accumulative experience, which the group has gained during two decades, to buy<br />

lands in investments attraction areas, and then we developed it in steady positive<br />

steps according future vision, using all architectural experience and possibilities<br />

to execute distinguished Real-Estate projects with unique organizational<br />

components and with the standards <strong>of</strong> modern cities, which complies with the<br />

present needs and future prospective.<br />

Mission…<br />

Is to develop Real-Estate works according to studied methodical investment<br />

plans, and to raise the standards <strong>of</strong> land plans in civilized measures, and to use<br />

the best graphical standards used locally and internationally to serve the basic<br />

structure in the residential areas, and to enhance the concept <strong>of</strong> comprehensive<br />

development <strong>of</strong> the plans, in a comprehensive vision that take in consideration<br />

the building and environmental development <strong>of</strong> the residential and public places.<br />

Future Vision…..<br />

Tanmiyat launches from correct vision and a look to the future prospects, and<br />

looking for occupying a leading place in the field <strong>of</strong> Real-Estates development<br />

and investment, inside and outside Saudi Arabia according to institutional<br />

planning, to create the highest points in investment and create latest Real-Estate<br />

development components, which is distinguished by its complying to the needs,<br />

requirements and powers <strong>of</strong> the expected future markets, and the needs <strong>of</strong><br />

constructions in the residential areas.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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INTEGRATING TEACHING AND RESEARCH WITH<br />

COMMUNITY SERVICE<br />

Teaching, research, and community service are the main duties <strong>of</strong> universities. The purpose <strong>of</strong><br />

teaching is to facilitate learning <strong>of</strong> knowledge and the purpose <strong>of</strong> research is to increase<br />

knowledge and identify its useful applications. The mission <strong>of</strong> universities is to serve the<br />

community through teaching and research. The university mission is mainly accomplished by<br />

the efforts <strong>of</strong> its faculty.<br />

The traditional career model for faculty has been to pursue all three functions; teaching,<br />

research and service. The service component includes university development, pr<strong>of</strong>essional<br />

practice, and community service. With constantly shrinking resources, faculty find themselves<br />

pulled in various directions due to external and internal expectations and pressures. Students<br />

expect and deserve quality teaching time, both inside and outside the classroom. The public<br />

expects faculty to excel in teaching and to contribute to the development <strong>of</strong> the community.<br />

<strong>University</strong> administration demands excellence in teaching, research and service. Accreditation<br />

and funding agencies and reviewers also require excellence in teaching, research and service.<br />

Faculty members expect a fair system that is based on merit, rewards contributions, allocates<br />

appropriate workloads, and balances resources with expectations.<br />

The above are highlights <strong>of</strong> some <strong>of</strong> the issues and challenges that relate to the role <strong>of</strong><br />

universities in the community and the role <strong>of</strong> academics in universities. In response to these<br />

changes, academia is evolving in many ways, including:<br />

(1) Integration <strong>of</strong> teaching, research and community service. This approach saves time and<br />

efforts by integrating all three functions into multi-purpose activities without<br />

compromising quality.<br />

(2) Redefining scholarship in universities. Excellence in teaching, university development,<br />

pr<strong>of</strong>essional practice, and community service is being gradually recognized alongside<br />

research excellence.<br />

(3) Some universities have opted to give faculty the choice to focus efforts on one or two <strong>of</strong><br />

the three university functions (teaching, research and service) and the flexibility to change<br />

the focus with time. This way, not all faculty are required to contribute equally well to<br />

all functions. Research mainly, teaching mainly or service mainly faculty positions are<br />

sometimes created with appropriate incentives <strong>of</strong>fered in each track.<br />

(4) The distinction between teaching, research and service universities is being examined.<br />

The purpose <strong>of</strong> this forum is to discuss, from an engineering perspective, all issues relevant to<br />

the mission <strong>of</strong> universities in terms <strong>of</strong> teaching, research, and service, and how best to integrate<br />

teaching and research into community service. The forum topics are:<br />

Topic 1.<br />

Topic 2.<br />

Topic 3.<br />

Topic 4.<br />

Topic 5.<br />

Topic 6.<br />

Topic 7.<br />

Philosophies, rational and objectives for integrating teaching and research with<br />

community service.<br />

Strategies for integrating teaching and research with community service.<br />

Examples and case studies <strong>of</strong> successful integration <strong>of</strong> teaching and research with<br />

community service.<br />

Partnership <strong>of</strong> stakeholders for successful integration.<br />

Incentives and rewards for integrating teaching and research with community<br />

service.<br />

Balancing teaching, research and community service.<br />

Other related topics.<br />

For the organizing committee<br />

Abdallah Shanableh, Ph.D.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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4th Engineering Education Forum 2005-2006 – College <strong>of</strong> Engineering - <strong>University</strong> <strong>of</strong> <strong>Sharjah</strong><br />

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TABLE OF CONTENTS<br />

Page<br />

1<br />

2<br />

Keynote Sessions<br />

Trends and Drivers in Biomedical Engineering Training, Research and Investment, Mostafa<br />

Analoui<br />

From Temples <strong>of</strong> Knowledge to Supermarkets <strong>of</strong> Ideas: Universities and their Third Mission in<br />

Search <strong>of</strong> a Role in the Community, Tariq Durrani<br />

Page<br />

Session Title: Integration Issues and Strategies<br />

3 ED-157 Principles <strong>of</strong> Excellence in Engineering Education, Boualem Boashash<br />

4 ED-35<br />

Strategies for integrating teaching and research with community service, H.<br />

Meliani and Rachid Djoudjou<br />

5 ED-108<br />

Strategies For Integrating Teaching Excellence, Scholarly Research, And<br />

Community Service, Boukelif Aoued<br />

6 ED-53<br />

Challenges For Integrating Teaching And Research With Community Services:<br />

A View From Developing Countries, Saied Ali Hassan and Seraj Yousef Abed<br />

7 ED-90<br />

A Practical Way To Integrate Teaching And Research With Community Service,<br />

Dr.Najeh S. Haj-Ali<br />

8 ED-60<br />

Thoughts on Integration <strong>of</strong> Teaching and Research with Community Service,<br />

Mamdouh T. Ghannam<br />

9 ED-84<br />

Reflections On Integrating Teaching And Research With Community Service,<br />

Ahmed M. Khan<br />

Page<br />

10 ED-23<br />

11 ED-85<br />

Session Title: Enhancing Community Engagement<br />

Flexibility And Community Engagement In The Delivery Of Engineering<br />

Education For Regional Australia, Steve Hall<br />

Relevance Of Engineering Education Service-Learning And Community Needs,<br />

Dr. Majid Al-Dabbagh<br />

13 ED-149 Enhancing <strong>University</strong> Community Engagement, S.A.M. Said<br />

14 ED-110<br />

How to Improve the Quality <strong>of</strong> Learning at Universities?, Hamid Hassanpour &<br />

Ebrahim Hallajian<br />

15 ED-160 Integrating Teaching and Community Service, Dr. Nabil Kallas<br />

16 ED-44<br />

An Experience In Community Service, M. J. Al-Khishali H. M. Daoud Z. T.<br />

Al-Dahan<br />

17 ED-114<br />

Teaching And Research Sharing With Community Service, Dr.Loay Tawfik Al-<br />

Bahrany<br />

Page<br />

18 ED-15<br />

19 ED-1<br />

20 ED-118<br />

21 ED-24<br />

22 ED-78<br />

23 ED-61<br />

Session Title: Integration Approaches from Around the World<br />

Optimizing Engineering Education in Arab Universities – Towards Industry-<br />

Oriented Outcomes, Abdallah I. Husein Malkawi & Mohammed A. Khasawneh<br />

Adapting Engineering Curricula Design in the Gulf Countries, Ibrahim Al<br />

Hammad<br />

Integrated Engineering Teaching, Research And Community Service In Sudan,<br />

Khalid A. Fattah<br />

Integrating Teaching And Research With Community Service – The Case For<br />

Australia's Cooperative Research Centers, Rudolph Frederick Stapelberg<br />

Factors Influencing The Success And Failure Of Quality Assurance System And<br />

Their Implementation In The Libyan Higher Education System, Elmehdi M.<br />

Elmehdi1 And Shtawa Nasr<br />

How Does the Arab World Compare in Engineering Education? A Comparative<br />

Study between the Arab World and the Rest <strong>of</strong> the World<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Page<br />

24 ED-123<br />

26 ED-25<br />

27 ED-87<br />

28 ED-94<br />

29 ED-9<br />

30 ED-145<br />

32 ED-63<br />

Session Title: Community Needs and Service<br />

On The Relationship Between Research And Community Needs Among The<br />

Arab-Muslim Civilization Heritage: An Example In Cryptology, Atef Mermoul,<br />

And A. Mourad Absi<br />

Role <strong>of</strong> Students' Scientific Societies in Community Service, Pr<strong>of</strong>. Mustahsan<br />

Mir<br />

Effective Attributes Toward A Stronger Diversified Social Fabric, Ali H. Al-<br />

Gadhib<br />

An Information Arm <strong>of</strong> <strong>University</strong>; Technology Citizen Advisor and Second<br />

Opinion Centers, Amir J. Majid<br />

Motivating the minority students to study Engineering: A LAMP-LEGO<br />

Experience, Dr. Uvais Qidwai<br />

Applying Information Technology in Measuring Changing Quality <strong>of</strong> Life<br />

“From Nomad to Urban", Dr. Omar Musa Amireh<br />

Suitability <strong>of</strong> Women as Candidates for an Environmental Education Program in<br />

Libya, Mansoor Saleem and Qahtan Al-Nallar<br />

Page<br />

33 ED-134<br />

34 ED-132<br />

35 ED-5<br />

36 ED-155<br />

37 ED-59<br />

39 ED-40<br />

Session Title: Faculty, Industry and Society Interactions<br />

Challenges Facing the Merger <strong>of</strong> Engineering Education Outcome And Industry<br />

Requirement in the Region, Mufid A. Samarai<br />

Effective Industry-Academia Cooperation, Abdelaziz Al-Khlaifat1 and Taha Al-<br />

Khamis<br />

Public Service In The State <strong>University</strong> System Of Florida: Mission And<br />

Practices, Salah Aziz<br />

Pr<strong>of</strong>essional Development Of Faculty Through Consulting And Networking,<br />

Amde M. Amde & Gajanan Sabnis<br />

A Feedback Model To Improve The Performance Of Engineering Faculties In<br />

The Service Of Society , Haldun Abdullah, Abdullah Mimaroğlu, Etem<br />

Köklükaya, Murat Yildiz, Nükhet Sazak<br />

Conceptualization and implementation <strong>of</strong> a center <strong>of</strong> entrepreneurial<br />

development for nurturing small business in the Mena region., Tahir Ayar & M-<br />

Said Oukil<br />

Page<br />

Session Title: Technology & Engineering Education - I<br />

40 ED-125<br />

Technology Development in Computer and Information Technology, Dr.<br />

Ibrahim Kamel<br />

41 ED-115 The integration <strong>of</strong> technology into teaching and research, Amna H. Sirelkhatim,<br />

42 ED-137<br />

An Educational Collaborative Learning Model ECLM, Amar BALLA,<br />

Abdelkarim AIT HAMOUDA, El Hadj Abdelmalek ARBAOUI<br />

44 ED-133<br />

Qtel 3G Collaboration Project: A Step in Bridging the Gap between Academia<br />

and Workplace, Abdulaziz Fakhroo, Khalid A. Qaraqe, Mazen O. Hasna, and<br />

Mohamed-Slim Alouini,<br />

46 ED-82<br />

How Technical College Courses become Successfull Web-Based e-Learning<br />

Models Through the Integration <strong>of</strong> Teaching, Research and Community Services<br />

Activities, Dr Mohamed Aichouni and Soraya Benchicou<br />

48 ED-29<br />

Technology Education Using a Novel Approach in e-Learning—Towards<br />

Optimizing the Quality <strong>of</strong> Learning Outcomes, Mohammad I. Malkawi, SUN<br />

Microsystems, and Mohammed A. Khasawneh, IEEE<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Page<br />

50 ED-161<br />

51 ED-143<br />

52 ED-79<br />

53 ED-89<br />

55 ED-156<br />

Session Title: Benchmarking & Quality<br />

A Comprehensive Proposal for <strong>University</strong>-Industry Collaboration, Maamar<br />

Bettayeb<br />

Benchmarking King Fahd <strong>University</strong> Community Service With Leading<br />

Universities, S. O. Duffuaa And U. Al-Turki<br />

A Comparison Study Between Local And Abroad Experiences In Knowledge<br />

Transfer Partnership, Dr. Amer D. Zmat<br />

Quality Assurance Indicators In The Engineering Education In The Gaza Strip ,<br />

Pr<strong>of</strong> Dr Mohamed A. Awad & Dr Hatem Elaydi<br />

Job Perspective Of Engineers In Various Private & Public Sectors And Reforms<br />

In Engineering Education In Pakistan, A.R Ghumman1, F. Shabbir2, Malik<br />

N.E.3<br />

Page<br />

Session Title: Curricula Issues<br />

56 ED-18 Teaching Unified Engineering at Durham <strong>University</strong>, Pr<strong>of</strong>. K. H. Bennett<br />

57 ED-153<br />

Blurring the Academic boundaries at Universities: Producing Sustainable<br />

Competitive Advantage, Tareq Y. Al-Naffouri<br />

59 ED-76<br />

Analyzing the Depth and Breadth <strong>of</strong> the Electrical Engineering Curriculum: A<br />

United Arab Emirates, Qurban A Memon, Habib-ur-Rehman and Abdul Khaliq<br />

60 ED-49<br />

Restructuring the Undergraduate Engineering Education in the Arab World,<br />

Muhammad Taher Abuelma'atti<br />

61 ED-17<br />

Developing Transfer Engineering Diploma Programs for Community College<br />

Students: KAAU Experience, Abdulmalik A. Aljinaidi, Ameen Y. Noaman and<br />

Atiq A. Alghamdi<br />

Page<br />

62 ED-159<br />

Session Title: Arabic Session - I<br />

نحو تطوير و تأصيل مناهج التعليم الهندسي لخدمة الاحتياجات اجملتمعية في الوطن العربي ,<br />

الأمين أبو جوخ<br />

محمد<br />

تكامل التعليم والبحث مع خدمة اجملتمع في التعليم الهندسي فوائده ، آليته ومعوقاته , محمد رحومة الحسناوي ED-131 63<br />

65 ED-97<br />

,<br />

تجربة وزارة النفط العراقية بآلية التعاون مع الجامعات والمعاهد الفنية,‏<br />

الدباس<br />

الدكتور حكمت سعيد السالم<br />

فائق<br />

الجودة والاعتماد في التعليم الهندسي , عبد الحكيم بنود ED-124 66<br />

انماط التعليم الهندسي وعلاقتها بحاجة القطر , مظفر انور النعمه ED-22 67<br />

Page<br />

68 ED-57<br />

69 ED-4<br />

70 ED-95<br />

71 ED-96<br />

72 ED-138<br />

73 ED-19<br />

Session Title: Integration within Specific Courses - I<br />

Integrating Teaching with Community Service: The Design Project Case, El-<br />

Amin El-Kanzi1, Bassam Al-Hamad1, Shuzo Matsumura2 and Nader Al-<br />

Bastaki1*<br />

Applying the Value Management Concepts in Graduation Projects <strong>of</strong><br />

Undergraduate Students at College <strong>of</strong><br />

Engineering and Petroleum at Kuwait <strong>University</strong> , Fawaz S. Al-Anzi, Ph.d.,<br />

AVS,<br />

Student Graduation Projects and Field Training in Serving the Community,<br />

Amir J. Majid<br />

Integration <strong>of</strong> Field Trips into Selected Electrical Engineering Courses, Kifah<br />

Al-ansari and Anas N. Ali<br />

Developing Capstone Project as a Platform Integrating Teaching, Research and<br />

Community Service, Fahar Hayati<br />

Integrating Teaching, Research and Community Service-Case Studies from<br />

<strong>Sharjah</strong>, UAE, A. Shanableh and M.Omar<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Page<br />

Session Title: Arabic Session - II<br />

تدريس العلوم الهندسية باللغة العربية هل يمكن تطبيقه؟,‏ عبداالله بن إبراهيم المهيدب ED-77 74<br />

75 ED-27<br />

الذكاء الاقتصادي,‏ وسيلة لإدماج البحث و التطور ضمن منظومة الخدمات<br />

واقعه وآفاقه في الجزائر ,<br />

:<br />

تير رضا<br />

تجربة جامعة العلوم والتكنولوجيا الأردنية في مجال التدريب الهندسي عمر المغيض او نوار بشابشه ED-158 76<br />

77 ED-102<br />

,<br />

دور الخدمات المقدمة للمجتمع في رفد الجوانب العلمية والإنسانية في قسم الهندسة الميكانيكية في جامعة الموصل,‏<br />

غالب يونس القهوجي ,<br />

موفق محمد علي الحاج يونس<br />

البحوث المعمارية اجملتمعية تسهم في تحقيق هنضة حضارية,‏ حفصة رمزي ألعمري ED-126 78<br />

79 ED-14<br />

تدريس مادة الميكانيكا في أقسام كلية الهندسة من وجهة نظر الطلبه,‏<br />

محمد الاسدي<br />

محمد جاسم محمد ولي و اسماعيل باقي<br />

Page<br />

80 ED-6<br />

81 ED-99<br />

82 ED-10<br />

83 ED-65<br />

84 ED-3<br />

85 ED-64<br />

Session Title: Specific Systems & Tools<br />

Manufacturing A Low Cost Digital Voltmeter As Test Platform For A Basic<br />

Electrical Measurements Laboratory, Dr. Mohammed J. Alawi, Dr. Hamza A.<br />

Ghulman<br />

Virtual Learning Environment For Electric Machines Laboratory Application ,<br />

E.Tanyildizi1 And A.Orhan<br />

Opto-Digital Holography: A Suitable Technique For Teaching, Researching And<br />

Industrial Testing, L. Bouamamaa, M. Bouafiaa And G. Wernickeb<br />

Design And Development Of A Hydraulic Circuit Bench For Education<br />

Purposes, A. F. Kheiralla*, O. A. Rahama, A. A. A. Saadelnoor, Dina, M. Abd-<br />

Alkareem, Ghada M. Nasr<br />

A Flexible And User-Friendly Information Theory Online-Lab Based On Java<br />

Technology, Thorsten Hehn, Susan Linke-Wangerow, And Johannes B. Huber<br />

A Microcontrollet Experiment Set For Undergraduate Students At Electrial<br />

Deptmt, Hasan Çimen, Mustafa Nartkaya, Ismail Yabanova, Mahmut Çinar<br />

Page<br />

86 ED-151<br />

87 ED-116<br />

89 ED-70<br />

90 ED-51<br />

Session Title: Electrical, Electronics and Computer Engineering Education<br />

General Guidelines for Teaching Signal Processing Basics, Karim Abed-Meraim<br />

and Adel Beloucuchrani<br />

The Integration <strong>of</strong> Signal Procesing And Multimedia Research In Undergraduate<br />

Teaching And Community Service At Etisalat <strong>University</strong> College, Hussain Al<br />

Ahamad, Mohammed Al-Mualla and Ali Al-Qayedi<br />

History <strong>of</strong> Engineering Education in Turkey, Todays Situation and Electrial-<br />

Electronics Engineering Education at Karadeniz Techincal <strong>University</strong>, Adnan<br />

Cora<br />

Using Technology for Continuous Improvement in Engineering Education: A<br />

Real-Time Appraoch, Dr. Elyse Bdira<br />

Page<br />

91 ED-20<br />

92 ED-38<br />

93 ED-47<br />

94 ED-117<br />

96 ED-81<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

Session Title: Engineering Education and Stakeholders<br />

Stakeholders Integration in Higher Education: Supply Chain Approach, Umar<br />

Al-Turki, Salih Duffuaa and Tahir Ayar<br />

Bridging the Gap Between Education in the UAE and Local Industry, Mohamed<br />

Taki Al Kamil<br />

Integrating Education with Research Towards better Community Service, Anand<br />

Kumar, Hamad Odhabi, Senthil Nathan<br />

qHE 2 I- A New Mechanism to Produce Integrated Quality Teaching and Delivery<br />

System to Overcome the Scarcity <strong>of</strong> Quality Technical Human Resources in<br />

Arab World, Ali Abdulkareim Ali and Nadeem Yousuf Khan<br />

Enhancing the Understanding <strong>of</strong> Linkages Among Engineering Education and<br />

Industry, Zahid Ali<br />

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97 ED-39<br />

Cairo <strong>University</strong> –Egypt Alum Cooperation in Development <strong>of</strong> Aluminum<br />

Electrolysis<br />

Page<br />

Session Title: Integration within Specific Courses - II<br />

98 ED-100<br />

Establishing a method <strong>of</strong> measurement towards developing prerequisite students’<br />

generic skills development, Rozeha A Rashida and Mohd Saidfudin Masodib<br />

99 ED-128<br />

Developing Technologies to Foster <strong>of</strong> <strong>University</strong>-Research-Community Service<br />

Interaction, Florian Techel<br />

100 ED-80<br />

Study and design <strong>of</strong> a system which improves the education <strong>of</strong> the dumb deaf<br />

children, TABA Mohamed Tahar<br />

101 ED-122<br />

Intro-Physics for Engineering Students: it’s difficulty versus it’s relevance and<br />

impact on research: a statistical survey, 1,2Elmehdi, H. M, and 2,3Pistorius, S.<br />

102 ED-7<br />

Assessment <strong>of</strong> the Heat Transfer Course taught at UAE <strong>University</strong> According to<br />

ABET 2000 Criteria., Dr. Ayoub Kazim<br />

Mechanical Engineering Workshop: A Platform to Integrate Teaching, Research<br />

103 ED-91 and Community Service, Anwar K. Sheikh, Faleh Al-Sulaiman and Mohiuddin<br />

Ahmed<br />

Page<br />

105 ED-54<br />

106 ED-71<br />

108 ED-31<br />

109 ED-139<br />

110 ED-98<br />

104 ED-162<br />

Page<br />

Session Title: Knowledge, Technical Education & Pr<strong>of</strong>essional Partnerships<br />

Quality <strong>of</strong> Technical Education, Traditional Training and Distance Learning, Dr.<br />

Abdullah UZUN & Dr. Fahri VATANSEVER<br />

Research-led Teaching: Moving From a Push to Pull Approach, Dr. Mohammed<br />

Arif<br />

From the practice <strong>of</strong> a design knowledge to the design <strong>of</strong> new knowledge in<br />

architectural and urban designs, Bouzid. BOUDIAF<br />

Partnership with Stakeholder and Architectural Education : The Case <strong>of</strong> PARCS<br />

Project in Palestine., Eman Assi<br />

Identification <strong>of</strong> Training Requirements and Imparting Training to Community,<br />

Ravi Kumar Sharma<br />

Sharing Experience From A Senior Design Course – Converting An Old Landfill<br />

Into An Environmentally Friendly Residential Area, Omar Habouch<br />

Session Title: Civil Engineering Education<br />

111 ED-50 Civil Engineer Of 2020, Gajanan Sabnis & Elias B. Sayah<br />

112 ED-75<br />

Sustainability Teaching Curriculum and Its Role in Forming Architecture<br />

Students’ Environmental Awareness, Maha S. Al-Zubaidi<br />

113 ED-121<br />

New Trends In Civil Engineering Education And Its Role In Infrastructural<br />

Development, Faisal Shabbir1, Naveed Ahmad2<br />

114 ED-13<br />

The Application Of Geographic Information System (Gis) In Civil Engineering ,<br />

Dr. Asma Thamir Ibraheem<br />

115 ED-104<br />

Community Service And Scholarship: Case Study Of The Balamand <strong>University</strong><br />

Gis Center, Oussama C. Jadayel And Rita Y. Ibrahim<br />

ED-147 Trend in Environmental Engineering Education in Australia, Atuar Rahman<br />

Page<br />

116<br />

118<br />

119<br />

120<br />

121<br />

ED-48<br />

ED-141<br />

ED-55<br />

ED-112<br />

ED-111<br />

Session Title: Postgraduate Engineering Education<br />

Postgraduate Engineering Education in the Arab World: What is really needed?,<br />

Muhammad Taher Abuelma'atti<br />

Initiation <strong>of</strong> Postgraduate Studies in a New Private Foreign <strong>University</strong> - An<br />

update Case Study, Sarim N. Al-Zubaidy, George Y. B. Bakose, Waseem<br />

Ahmed, Zeya OO<br />

Global Cooperation for graduate studies in the USA, J. P. Mohsen1, Gajanan M.<br />

Sabnis2 and Elias B. Sayah3<br />

Post Graduate Chemical Engineering Education in Saudi Arabia: Integrating<br />

Research, Teaching and Community Service, Habib Daoud Zughbi<br />

How postgraduate students can be further supported: Based on interviewing the<br />

postgraduate students, Hamid Hassanpour<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Global Trends And Drivers In Biomedical Engineering Training,<br />

Research And Investment<br />

Mostafa Analoni<br />

Senior Director and Site Head for Groton/New London,<br />

Global Clinical Technology at Pfizer Global Research and Development in USA Connecticut,<br />

mostafa.analoui@pfizer.com<br />

Conventional educational tracks within higher education tend to draw<br />

educational boundaries around distinct scientific major areas, such as engineering, life<br />

sciences, business, and humanities. While such model has been effective in producing<br />

workforce for traditional industrial, educational and societal demands in the past,<br />

graduates and employers are increasingly facing new challenges that require a broad<br />

background to address them. Graduates tend to broaden their background and expertise<br />

through personal initiatives, on-job training and additional academic work. However, due<br />

to increased complexity in industrial and business models, as well as competitive<br />

pressure to increase productivity and unique research opportunities, there has been a<br />

strong shift toward a multidisciplinary training and education to prepare workforce.<br />

Biomedical Engineering (BME) field is one <strong>of</strong> the most rapidly evolving<br />

multidisciplinary areas combining engineering, life sciences, and business areas to<br />

address global needs in healthcare. In this presentation, background in recent trends in<br />

biomedical training programs, as well as research areas will be <strong>of</strong>fered. Local and global<br />

science and business drivers in past 30 years will be described. Additionally, examples <strong>of</strong><br />

educational and research trends in this area will be described, along with new<br />

developments in this field. Considering the regional and global opportunities and<br />

challenges in this field, a series <strong>of</strong> key questions will be drawn for future assessment <strong>of</strong><br />

BME education and research in UAE and the region.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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From Temples Of Knowledge To Supermarkets Of Ideas:<br />

Universities And Their Third Mission In Search Of<br />

A Role In The Community<br />

Tariq S Durrani<br />

Deputy Principal<br />

<strong>University</strong> <strong>of</strong> Strathclyde<br />

Glasgow G1 1XW Scotland UK<br />

e-mail: durrani@strath.ac.uk<br />

Traditionally academic institutions have seen their raison d’etre as sources <strong>of</strong> knowledge<br />

creation through research and scholarship, and as vessels for the imparting <strong>of</strong> knowledge<br />

and the nurturing <strong>of</strong> minds, through teaching. While dissemination <strong>of</strong> research and<br />

scholarship has always been achieved through national and international networks,<br />

tertiary education has largely been delivered as a much more localised process. Academic<br />

institutions have, in the main, been funded by the tax payer, and have traditionally been<br />

seen as a public good. More recently, with the escalating costs <strong>of</strong> higher education, there<br />

has been a lack <strong>of</strong> political will to continually fund institutions, and throughout Europe,<br />

governments are seeking ways to ameliorate this burden.<br />

In addition politicians perceive an increasing role for universities as catalysts, if not<br />

drivers, for economic growth. In response, the role <strong>of</strong> universities has been changing,<br />

from an isolated community <strong>of</strong> scholars, into key players in the region, supportive <strong>of</strong> the<br />

regional economy, and well-embedded in the local community.<br />

Almost all universities now see their mission as three-fold – conducting research and<br />

scholarship; providing teaching and learning, and maintaining a strong outreach to the<br />

local community. To encourage this multifarious role, governments through their funding<br />

agencies are supporting universities’ activities by providing grants for research, teaching<br />

and knowledge transfer.<br />

This presentation will explore how universities are addressing their role in the community<br />

– their Third Mission, coupled with the need for maintaining and enhancing their research<br />

pr<strong>of</strong>iles and the delivery <strong>of</strong> innovative teaching; and will assess the impact on academics<br />

in their efforts to meet and satisfy the demand for a multiplicity <strong>of</strong> outcomes, duties and<br />

responsibilities. The presentation will cover institutional approaches for engagement with<br />

the community through links to business and industry, provision <strong>of</strong> lifelong learning and<br />

continuing pr<strong>of</strong>essional development, knowledge transfer; and the strategic role <strong>of</strong> higher<br />

education in regional regeneration and cultural enrichment, effected by means <strong>of</strong><br />

gateways to universities’ activities and expertise.<br />

Through examples from UK institutions, and the use <strong>of</strong> socio-economic levers and<br />

financial incentives by funding organisations, illustrations will be presented on ways in<br />

which universities are meeting their mission, and the role that academics are playing in<br />

the success <strong>of</strong> universities in meeting these diverse challenges.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Principles Of Excellence In Engineering Education: Application<br />

To The Formulation Of A Strategic Plan For The College Of<br />

Engineering At The <strong>University</strong> Of <strong>Sharjah</strong><br />

Pr<strong>of</strong>essor Boualem Boashash, Fellow IEEE<br />

Dean, College <strong>of</strong> Engineering<br />

<strong>University</strong> <strong>of</strong> <strong>Sharjah</strong><br />

P.O. Box 27272 <strong>Sharjah</strong><br />

boualem@sharjah.ac.ae<br />

Engineering is one <strong>of</strong> the most important fields <strong>of</strong> education and research, as it is<br />

closely related to the needs <strong>of</strong> the community such as food, shelter, transport and<br />

communications. In other words, Community Service is one <strong>of</strong> the key areas <strong>of</strong> good<br />

activity within a College <strong>of</strong> Engineering, and it follows that the local culture needs to be<br />

taken into account in the formulation <strong>of</strong> a good Engineering program..<br />

Engineering education should therefore have a focus on identifying the key<br />

priorities <strong>of</strong> the local community where a College <strong>of</strong> Engineering is established.<br />

Understanding these priorities will lead to the definition <strong>of</strong> clear direction for emphasis<br />

<strong>of</strong> the effort <strong>of</strong> the staff <strong>of</strong> the College. This is the objective No1 <strong>of</strong> a good Engineering<br />

education program.<br />

Having understood the priorities <strong>of</strong> the local community, there is the need next to<br />

establish a program <strong>of</strong> action to proceed speedily and effectively in the design and<br />

development <strong>of</strong> a engineering program that will ensure those needs and priorities are met,<br />

using the most recent technologies and principles <strong>of</strong> efficient management and decision<br />

making. This is the objective No 2 <strong>of</strong> a good Engineering education program.<br />

The two objectives described above are basic and complementary aspects <strong>of</strong> an<br />

engineer’s responsibility and need to be balanced in both curriculum and staff allocation<br />

<strong>of</strong> duties ie both teaching and research.<br />

Teaching allows the transfer to the students <strong>of</strong> existing knowledge which is relevant to<br />

the defined priorities, while research activity is used to stimulate the performance <strong>of</strong><br />

academics and students by searching for new knowledge, leading to a vibrant intellectual<br />

and social atmosphere in the College.<br />

Community Service will ensure that the key relevance to the basic needs <strong>of</strong> humans is<br />

maintained.<br />

The principles for developing a plan <strong>of</strong> action to achieve the above objectives within<br />

the defined criteria will be described in the presentation.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Strategies For Integrating Teaching And Research With<br />

Community Service<br />

Dr H. Meliani & Dr Rachid Djoudjou<br />

Members <strong>of</strong> teaching staff at Al-Ahsa College <strong>of</strong> technology K.S.A<br />

H<strong>of</strong>uf: P.O. Box (804) – P. code (31982)<br />

e-mail: melianih@hotmail.com<br />

External and internal expectations and pressures are increasing on universities to<br />

better address their community needs and student's needs through service, research,<br />

learning and teaching. It is common nowadays that universities set up strategic plans to<br />

face these pressures. Generally, these strategic plans set out the mission and core values<br />

<strong>of</strong> the university, along with goals, strategies and performance indicators to guide the<br />

decisions <strong>of</strong> the university as a whole and its staff individually. Most <strong>of</strong> these plans are<br />

built around four pillars: learning and teaching – research – community engagement –<br />

resource generation and management. It is admitted that both research and teaching<br />

continue to dominate the activities <strong>of</strong> most academics and their institutions, whereas<br />

community service is behind them and should receive more attention.<br />

This communication first, explains why universities should integrate education,<br />

research and service community to achieve its mission secondly, it explores the strategies<br />

<strong>of</strong> universities and how the integration has been taken into consideration in fulfilling the<br />

university's mission. The benefits gained by the university, students, and the community<br />

as a whole are cited. At the end some examples are given to emphasize on the impact <strong>of</strong><br />

this integration on education, research economy and community service.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Strategies For Integrating Teaching Excellence, Scholarly<br />

Research, And Community Service<br />

Dr. Boukelif Aoued<br />

<strong>University</strong> <strong>of</strong> SBA<br />

Laboratoire : &#8217; Réseaux de Communication ,<br />

Architectures et Multimédia (RCAM)&#8216;&#8217;<br />

Tel. :213 72 13 10 21<br />

e-mail : aboukelif@yahoo.fr<br />

Website: http://www.association-francemed.org/boukelif/<br />

Each <strong>of</strong> the strategies ( teaching and research , teaching and service , research<br />

and service , ‘’service, research and teaching’’ ) blends permutations <strong>of</strong> teaching,<br />

research, and service. Thus, the activity is doing "double or triple duty" and, hopefully,<br />

saving you time and energy.<br />

Some universities have opted to give faculty the choice to focus efforts on one or<br />

two <strong>of</strong> the three university functions (teaching, research and service) and the flexibility to<br />

change the focus with time.<br />

Integrating these activities is especially appropriate for those who work in<br />

Doctoral-Research Intensive institutions where strong emphasis is on both teaching and<br />

research, and where there are <strong>of</strong>ten multipurpose missions. Of key importance for faculty<br />

evaluation is to document such activity with outcomes and products that "count." This<br />

way, not all faculty are required to contribute equally well to all functions.<br />

These strategies emphasize how teaching, research, and service are<br />

interdependent and how they compliment each other. By planning interrelated forms <strong>of</strong><br />

scholarly work, you will feel a greater sense <strong>of</strong> the whole and be less fragmented. You<br />

may also better serve the students as well as meet department and institutional missions.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Challenges For Integrating Teaching And Research With<br />

Community Services:<br />

A View From Developing Countries<br />

Saied Ali Hassan & Seraj Yousef Abed<br />

Department <strong>of</strong> Industrial Engineering,<br />

King Abdulaziz <strong>University</strong>, Kingdom <strong>of</strong> Saudi Arabia<br />

Teaching, research, and community service are aiming at helping human being in<br />

different areas <strong>of</strong> applications to analyze, solve, control, and/or improve real life systems<br />

in various local, national, and international level organizations. The cultural status and<br />

the surrounding conditions in most <strong>of</strong> the developing countries make it difficult to set up,<br />

integrate, and apply scientific founding in all fields at various levels. The levels<br />

considered include the national, the enterprise, the team, and the individual levels.<br />

Challenges for the integration <strong>of</strong> teaching and research with the community service,<br />

relate to various factors.<br />

The purpose <strong>of</strong> this paper is to name, clarify, and determine the characteristics <strong>of</strong><br />

different challenge factors facing the integration <strong>of</strong> teaching and research with<br />

community service for different considered levels. Also, to identify various measures and<br />

recommendations that should be taken to bridge these challenges so as to ensure rapid<br />

developing <strong>of</strong> the related countries.<br />

The challenge factors include among others: problem and reality secretion,<br />

attitude, environmental conditions, motivation, communication, education, training,<br />

immigrants isolation, foreigners complex, shortage in research and development, lack in<br />

s<strong>of</strong>tware, incorrect team leader and team formation, unavailability <strong>of</strong> data, and top<br />

management interference. The responsibility level for each challenge factor is estimated<br />

and its intensity for different fields <strong>of</strong> applications is rated. Real life examples for some<br />

<strong>of</strong> these factors in the Egyptian / Saudi Arabian environment are stated to clarify these<br />

obstacles.<br />

Findings in this paper are based on interviews, questionnaires, and opinions <strong>of</strong><br />

selected expertise in different organizations and institutions at various levels and<br />

specializations.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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A Practical Way To Integrate Teaching And Research With<br />

Community Service<br />

Dr.Najeh S. Haj-Ali<br />

Chemical Engineering Department<br />

<strong>University</strong> <strong>of</strong> Jordan<br />

e-mail: n.hajali@ju.edu.jo<br />

e-mail: n_hajali@yahoo.com<br />

Teaching, research and community service are three primary functions <strong>of</strong> any<br />

engineering education institution. Each <strong>of</strong> these functions can be provided as an<br />

independent activity in itself. This article treats the subject <strong>of</strong> integrating the three<br />

elements as a process that needs development. Community needs are viewed as the<br />

primary target which will dictate the teaching and research required to address these<br />

needs. Impediments will be highlighted, remedy actions will be suggested and an<br />

example will be presented.<br />

Jordan has vast reserves <strong>of</strong> oil shale. Hydrocarbons constitute about 10% <strong>of</strong> this<br />

oil shale and until now, no economically proven process can be used to extract these<br />

hydrocarbons as a conventional fuel source. Furthermore, Jordan produces lots <strong>of</strong> olive<br />

oil which has a significant amount <strong>of</strong> wet solid waste called (Jift). Freshly produced Jift<br />

can be harmful to the environment. But when dry, Jift can be used as a solid fuel.<br />

According to the latest census, Jordan has a population <strong>of</strong> 5.35 million and 17.7%<br />

<strong>of</strong> them live in rural areas where conventional energy sources are not readily available<br />

or have become very expensive for such a poor community due to the recent hikes in fuel<br />

prices. A cheap source <strong>of</strong> energy will be <strong>of</strong> great service for such community.<br />

In this paper, we shall use this community need as a case study to demonstrate<br />

how a 3-credit hour course at the undergraduate level can be utilized effectively as a<br />

starting point for addressing such community service issues which require an engineered<br />

solution. This course is titled “practical project” and is <strong>of</strong>fered as an elective course for<br />

individual senior level students at the chemical engineering department <strong>of</strong> the <strong>University</strong><br />

<strong>of</strong> Jordan. The project allows an element <strong>of</strong> original work by each student, and a full<br />

report covering all aspects <strong>of</strong> the work must be submitted. The participating students will<br />

learn a lot about the subject issues, and they will acquire important research skills, as they<br />

try to come up with a practical solution to the problems <strong>of</strong> the community. Furthermore,<br />

their report paves the way for any future work that may be required.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Thoughts On Integration Of Teaching And Research With<br />

Community Service<br />

Mamdouh T. Ghannam<br />

Department <strong>of</strong> Chemical & Petroleum Engineering<br />

College <strong>of</strong> Engineering, P.O. Box 17555<br />

United Arab Emirates <strong>University</strong><br />

Al Ain, United Arab Emirates<br />

Teaching and research are actively linked together, one informing and energizing<br />

the other. This strong interaction between teaching and research encourages faculty<br />

members to inspire, motivate, energize, stimulate, and promote their students to the real<br />

goals <strong>of</strong> student education. Due to the education process improvements and budget<br />

constrains, the integration <strong>of</strong> teaching and research with community service is very<br />

necessary for the advancement <strong>of</strong> the whole society. The efforts invested for the<br />

engineering education, the scientific research, and the integration <strong>of</strong> teaching & research<br />

with community service are not only essential for our industrial development, but are<br />

crucial for our life, nature, and to enhance the technological and intellectual level <strong>of</strong> the<br />

whole society. It is important for the engineering scientific community to address,<br />

discuss, and propose new ideas for the interaction <strong>of</strong> teaching and research with<br />

community service for the advancement <strong>of</strong> our country. Accordingly, this study focuses<br />

on two main points in details. The first point is to explore the benefits and challenges<br />

associated with the integration <strong>of</strong> teaching and research into community service. The<br />

second point discusses the establishment mechanism <strong>of</strong> teaching and research with the<br />

community service.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Reflections On Integrating Teaching And Research With<br />

Community Service<br />

Ahmed M. Khan<br />

Ph. D., P.E., F.I.E., M.A.S.C.E., M.A.S.E.E.<br />

Civil Engineering Department<br />

Faculty <strong>of</strong> Engineering<br />

King Abdulaziz <strong>University</strong>, P.O.Box 80204, Jeddah 21589<br />

Kingdom <strong>of</strong> Saudi Arabia<br />

The faculty members involved in teaching and research, may provide valuable<br />

community service in different forms, and the resulting experiences are mutually<br />

rewarding and beneficial. The author started teaching and research at the <strong>University</strong> <strong>of</strong><br />

Engineering Technology (UET), Lahore, Pakistan in 1970 and then joined King<br />

Abdulaziz <strong>University</strong> (KAAU), Jeddah , Saudi Arabia in 1980. The author has been<br />

actively involved in integrating engineering education and research with community<br />

service since 1970. The community services were provided in various forms which<br />

included: participation in reconstruction <strong>of</strong> a villages using innovative low cost<br />

construction materials; conducting community training <strong>of</strong> overseers under country’s<br />

peoples works program; media broadcasting for dissemination <strong>of</strong> technical knowledge;<br />

evaluation <strong>of</strong> safety and stability <strong>of</strong> public and government buildings, and providing<br />

consulting services. This paper presents the specific experiences <strong>of</strong> such integration and<br />

highlights the useful experiences over several years.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Flexibility And Community Engagement In The Delivery Of<br />

Engineering Education For Regional Australia<br />

Steve Hall<br />

School <strong>of</strong> Science and Engineering<br />

<strong>University</strong> <strong>of</strong> Ballarat<br />

Ballarat, Victoria<br />

AUSTRALIA<br />

s.hall@ballarat.edu.au<br />

Skill shortage in many areas has been identified as a significant factor limiting<br />

sustainable development in regional Australia. In engineering, this is impacting mining<br />

projects, transport and water infrastructure, and even manufacturing in regional centers. It<br />

is proving increasingly difficult to attract urban-bred and educated graduates into regional<br />

engineering careers. Many students entering <strong>University</strong> from regional Australia are from<br />

lower socio-economic groupings; meaning that the normal four-year Bachelor <strong>of</strong><br />

Engineering program is a durational and financial barrier that many fail. The <strong>University</strong><br />

<strong>of</strong> Ballarat has over the past five years moved in consultation with industry and the<br />

pr<strong>of</strong>essional body (Engineers Australia) to a linked three-year Bachelor <strong>of</strong> Engineering<br />

Science and follow-on coursework Masters <strong>of</strong> Engineering Technology (similar to the<br />

European Bologna process). These programs are accredited at Engineering Technologist<br />

and Pr<strong>of</strong>essional Engineer levels respectively. This structure allows the three-year<br />

graduates to enter the work place with a recognized award if they wish, and/or to<br />

continue their engineering education. Community engagement is an increasingly<br />

important element <strong>of</strong> the curriculum process, both in training the engineers <strong>of</strong> the future<br />

in this area together with leadership skills. Collaborative agreements with industry are<br />

also being entered into to formalize staff development through higher education programs<br />

on-site, on-campus and via distance delivery. This paper will discuss the structures <strong>of</strong> the<br />

academic programs, the modes <strong>of</strong> delivery, industry uptake <strong>of</strong> graduates, the use <strong>of</strong> single<br />

units for continuing education purposes and the potential for student exchange.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Relevance <strong>of</strong> Engineering Education Service-Learning and<br />

Community Needs<br />

Majid Al-Dabbagh<br />

School <strong>of</strong> Electrical and Computer Engineering<br />

RMIT <strong>University</strong>, Melbourne, Australia<br />

majid@rmit.edu.au<br />

Engineering teaching and research provide the foundation for building the<br />

required infrastructure representing the backbone <strong>of</strong> the economic prosperity to serve<br />

community needs. In this process, educators and researchers strive to design curriculum<br />

to meet the set objectives in considerable technical details. The developed programs are<br />

normally watched closely by pr<strong>of</strong>essional institutions and the relevant government<br />

departments to ensure high standards are kept. It is quite possible to end up with a<br />

curriculum which maintains little touch on local needs and too heavily involved in pure<br />

technical content. There is no doubt that it is important to maintain the quality <strong>of</strong> the<br />

technical content. However, this would need careful design <strong>of</strong> the whole engineering<br />

curriculum to maintain a balance between the technical engineering content and the<br />

necessity to link this with community needs. During the evolution <strong>of</strong> highly specialized<br />

engineering sub-fields, the focus on high quality content to cover the technical topics to<br />

meet market demands, genuine efforts are been made to expand the curriculum to include<br />

other topics for maintaining the linkage <strong>of</strong> the engineering discipline and the wider issues<br />

concerning the community.<br />

In order to make engineering curriculum relevant to community needs, it is<br />

important to engage engineering students in community based projects during their<br />

engineering education. In this way, engineering students would be involved in real life<br />

engineering applications to address problems concerning the community. Hence, they<br />

will be able to apply the theoretical engineering they learn in class rooms into projects<br />

serving community needs. In some engineering curriculum these concepts started taking<br />

a real momentum through so called engineering service courses [1, 2]. This would lead<br />

to students been exposed to practical engineering problems, which could further attract<br />

them to engineering programs through their experiences in such projects. Working on<br />

projects for rural electrification, micro-hydro, solar, wind and hybrid embedded electrical<br />

systems are some <strong>of</strong> the possibilities for community based projects. In addition<br />

engineering students could carry out projects for disabled people which could bring a lot<br />

<strong>of</strong> new satisfying and rewarding experiences to students who are involved in such<br />

projects. Because <strong>of</strong> the inter-disciplinary aspects <strong>of</strong> such projects, students through this<br />

service-learning education are exposed to the wider engineering material. For this, the<br />

web-resources could play a key role [3]. It is important to ensure that in order to accredit<br />

these concepts in engineering curriculum, ethical issues must be adhered to during its<br />

implementation by not compromising the fundamentals <strong>of</strong> engineering concepts and<br />

applications [4]<br />

This paper will investigate the relevance and implementation <strong>of</strong> Engineering<br />

Education Service-Learning on Engineering Programs and the benefit it brings to<br />

engineering students and the service it provides to the community.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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[1] http://www.compact.org/publications/SL_and_Engineering-WEB.pdf<br />

[2] William Oakes and et. al (2002), “Service Learning in Engineering”, Proceedings<br />

<strong>of</strong> ASEE/IEEE 2002 Frontiers in Education Conference<br />

[3] http://www.servicelearning.org/filemanager/download/174/0001558-<br />

SL%20in%20Engineering%20Education_4printing.pdf<br />

[4] http://onlineethics.org/essays/education/pritchard.html<br />

<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Enhancing <strong>University</strong> Community Engagement<br />

S.A.M. Said<br />

King Fahd <strong>University</strong> <strong>of</strong> Petroleum & Minerals<br />

KFUPM Box 4, Dhahran 31261<br />

Kingdom <strong>of</strong> Saudi Arabia<br />

e-mail: samsaid@kfupm.edu.sa<br />

Universities have historically been places where knowledge was sought by an<br />

elite few, and where it was protected and passed on as seen fit to restricted communities<br />

<strong>of</strong> interest. Recently, communities are increasingly looking to their universities to provide<br />

them with skills knowledge, research and development activities, intellectual argument<br />

and analysis. Hence, the role <strong>of</strong> university education has been extended from purely do<br />

research and to educate new academics to a more integrated role that must reach out and<br />

be more involved in the community. Such role has been referred to as part <strong>of</strong> a<br />

university’s “third role”- community engagement. Universities which understand this<br />

third role will see judgment <strong>of</strong> their success not simply in terms <strong>of</strong> the internationally<br />

accepted quality <strong>of</strong> their teaching and research, but also in terms <strong>of</strong> their role in a region’s<br />

social, economic, and cultural development. Universities are attempting to accept this<br />

enhanced role in their regions. Both, universities and the community have to experience<br />

cultural change to satisfy the requirements <strong>of</strong> the third role. They will need to cultivate<br />

mutually beneficial and lasting relationships with one another based on two-way<br />

investments <strong>of</strong> time and resources. Universities will need to leave the<br />

Campus and engage with the community.<br />

This paper addresses the benefits and obstacles <strong>of</strong> university-community<br />

engagement and presents King Fahd <strong>University</strong> <strong>of</strong> Petroleum & Minerals (KFUPM)<br />

approach towards enhancing its engagement with the community through integrating<br />

teaching and research with community service. The approach involves enhancing current<br />

venues <strong>of</strong> interaction with the three sectors (Industry/business, Government and Society)<br />

<strong>of</strong> the community as well as establishing new venues.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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How to Improve the Quality <strong>of</strong> Learning at Universities?<br />

Hamid Hassanpour & Ebrahim Hallajian<br />

Ghaemshar Branch, Islamic Azad <strong>University</strong>, Iran<br />

e-mail: h.hassanpour@nit.ac.ir<br />

Both students and lectures have a key role on the successes <strong>of</strong> education in a<br />

university. This paper point outs the remarks that students may consider to improve the<br />

quality <strong>of</strong> their education. The paper is the results <strong>of</strong> more than 10 years lecturing<br />

experience and conducting with students studying on engineering education in bachelor<br />

or master levels.<br />

During the last decade, there has been a considerable attention on effective<br />

teaching and learning, specifically in engineering education. In spite <strong>of</strong> the advance <strong>of</strong><br />

communication technology and the use <strong>of</strong> online teaching, lecturers are still considered as<br />

the greatest asset <strong>of</strong> universities. In addition, face-to-face learning is still recognized as<br />

the best way for education in both schools and universities. These indicate that students<br />

and lecturers mutually affect on the quality <strong>of</strong> education. This paper point outs helpful<br />

remarks that students can consider to improve the quality <strong>of</strong> their education. A summary<br />

<strong>of</strong> the most important remarks is briefly outlined in the following points:<br />

• Students are recommended to be aware <strong>of</strong> different facilities available in the<br />

university for the students to use as early as possible. They are also<br />

recommended to be aware <strong>of</strong> the duty <strong>of</strong> different staff in the university so<br />

that when they are in need for any assistance they can find an appropriate<br />

person.<br />

• Student union is very helpful to manage the friendly relationship among<br />

students and to convince the university about the students’ needs for any<br />

service.<br />

• Attending in the classroom on time, before the lecturer, is strongly<br />

recommended. When a student come in the lecture late, he or she may not<br />

understand the lecture very well, the same level as the other students.<br />

• Reading the lecture note in advance before the lecturer at least for scanning.<br />

This point can remarkably help the student to better understand the outlines.<br />

• IF the student could not understand the lecture at any point, he or she should<br />

ask the lecturer for assistance.<br />

• Reviewing the lecture note after the lecture as soon as the student can.<br />

• In the attempt to find the answer <strong>of</strong> a question, the student should always<br />

remember that the first idea flashing out from the mind may not be the most<br />

suitable one. Therefore, the student should look for the second and the third<br />

idea to find the most suitable answer for the question.<br />

• The students are engaged to strengthen their knowledge on all outlines <strong>of</strong> the<br />

course. This is very helpful for the case that the course is a prerequisite for<br />

any other courses.<br />

• The students are recommended to study for attaining a high quality mark, but<br />

they should be aware that if they do not concentrate on the exam they may<br />

fail.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Integrating Teaching And Community Service:<br />

Service Learning In Engineering Education<br />

Nabil Kallas<br />

Associate Pr<strong>of</strong>essor- Civil Engineering<br />

<strong>University</strong> <strong>of</strong> <strong>Sharjah</strong><br />

P. O. Box 27272 <strong>Sharjah</strong><br />

e-mail: nabil@sharjah.ac.ae<br />

Service learning in engineering education is a relatively new learning strategy<br />

born out <strong>of</strong> the desire <strong>of</strong> engineering programs to serve the community and at the same<br />

time provide students with a satisfying "Real-World," hands-on learning experience that<br />

help develop their skills and abilities. Service learning is an educational experience in<br />

which students participate in an organized service activity that meets identified<br />

community needs and reflect on the service activity in such a way as to gain further<br />

understanding <strong>of</strong> the technical content <strong>of</strong> courses, a broader appreciation <strong>of</strong> the discipline,<br />

and an enhanced sense <strong>of</strong> civic responsibility. Students may engage in service learning at<br />

the freshman level and continue to be involved throughout their college years, including<br />

their senior design project.<br />

Service learning has the ingredients to address many challenging issues in<br />

engineering education, including compliance with ABET EC2000 criteria. Also, placing<br />

engineering within the local community context broadens the view <strong>of</strong> engineering for<br />

most students and provides the potential to attract a wider pool <strong>of</strong> students to the field,<br />

including women.<br />

In this paper, the author will address the key components <strong>of</strong> service learning and<br />

how it can be integrated within the requirements <strong>of</strong> an engineering program. The paper<br />

will also include example community projects that were successfully integrated in<br />

engineering courses, implemented, and recognized.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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An Experience In Community Service<br />

M. J. AL-KHISHALI H. M. DAOUD Z. T. AL-DAHAN<br />

Laser & Optoelectronics Engineering Department<br />

College <strong>of</strong> Engineering<br />

Nahrain <strong>University</strong><br />

Al-Jadiriya, Baghdad, Iraq<br />

muthanaj2005@yahoo.com<br />

al_joboury@hotmail.com<br />

ziadaldahan@invitation.sms.ac<br />

An experience <strong>of</strong> integrating teaching and research with community service is<br />

proposed here. An automatic testing system for medical and industrial samples is<br />

designed and constructed through a Master <strong>of</strong> Science (MSc) project. It has been used for<br />

defining the contents <strong>of</strong> medical samples, and suggests corrections to the fabrication <strong>of</strong><br />

industrial samples, also a multipurpose optical detector laboratory is designed and<br />

constructed based on accumulated experience in study and research in the field and it has<br />

been used to define the quality <strong>of</strong> the fabricated optical detectors.<br />

Here we represent one side <strong>of</strong> the experience <strong>of</strong> the Laser and Optoelectronics<br />

Engineering department at the College <strong>of</strong> Engineering, Al-Nahrain <strong>University</strong>, and the<br />

first <strong>of</strong> its kind in Arab countries. The department started in 1995 and the first B.Sc.<br />

students were graduated in Laser engineering in 1998. In the year 2000 the first M.Sc.<br />

Students were graduated and first Ph.D. graduates were in 2005, all within Al-Nahrain<br />

<strong>University</strong> in Iraq.<br />

From this experience we found that the academic build-up which definitely<br />

started at the B.Sc. level needs to define some well comprehended aims for the scientific<br />

department then started in scientific research through M.Sc. and Ph.D. students as well as<br />

personal research and specialized colloquium. Also it has been found that community<br />

requirements has its effect in defining or categorizing the current research, i.e. without<br />

the need <strong>of</strong> the scientific centre to check the samples <strong>of</strong> its optical detectors we could not<br />

have the chance to build up our optical detector laboratory.<br />

We can conclude that all research centers in universities or in the field, cannot be<br />

advanced or gain experience or work within a scientific plan without the effect or the<br />

need to the community and its advancements such as specialized clinics or factories that<br />

requires advanced technology. Nevertheless researchers must always think <strong>of</strong> solving real<br />

problems <strong>of</strong> the country or community they live in not wasting their time in solving<br />

others problems.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Teaching And Research Will Be Sharing<br />

With Community Service<br />

Dr.LOAY TAWFIK AL-BAHRANY<br />

Power system modeling and simulation Eng.<br />

<strong>University</strong> <strong>of</strong> Illinois-USA<br />

Teacher in Daila <strong>University</strong>/college <strong>of</strong> Eng.<br />

Republic <strong>of</strong> IRAQ<br />

This paper will discuss the way in which the educational establishments<br />

(UNIVERSITIES) generate the three main channels teaching, research and community<br />

service.<br />

Three important parts will be observe in learning course is a learning experience<br />

designed to provide students with both theoretical and hands-on approaches to the<br />

concept <strong>of</strong> community empowerment and growth through the use <strong>of</strong> collaborative art<br />

activities.<br />

This test, the students will develop the necessary skills for working in community<br />

settings: problem solving, research, cross-cultural communication techniques, media<br />

analysis, ethical reflection techniques, simulation engineering and methods <strong>of</strong> evaluating<br />

accountability as well as project planning, revision and presentation.<br />

In this approach, students can choose to spend the test in placements with<br />

community partner organizations <strong>of</strong> the reciprocal university <strong>of</strong> the arts project and<br />

performing institutes or they find their own placements.<br />

The innovative approach to integrating community and university resources that<br />

is central to reciprocal university <strong>of</strong> the arts project will provide a unique opportunity for<br />

students to develop and facilitate practical and theoretical arts and recreational programs<br />

with local agencies. In addition to on-site placement work, class activities planned for<br />

this test include community research exercises, research projects, presentations, guest<br />

lecturers.<br />

This approach will consist <strong>of</strong> both regular in-class meetings and online meetings.<br />

We will use the online course environment for group assignment virtual<br />

meetings, check-ins and class discussions. All students will be expected to participate in<br />

class discussions, collaborative projects, and individual meetings as well participating in<br />

online discussions and “meetings”. Both in-class and online learning experiences will use<br />

a combination <strong>of</strong> collaborative and individual learning methodologies.<br />

Students are responsible for reading all the materials in the test Reader<br />

and providing quotes from them as assigned.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Optimizing Engineering Education in Arab Universities –<br />

Towards Industry-Oriented Outcomes<br />

*Mohammed A. Khasawneh & **Abdallah I. Husein Malkawi,<br />

*IEEE Senior Member,<br />

**M. ASCE, Pr<strong>of</strong>essor & Vice President<br />

Jordan <strong>University</strong> <strong>of</strong> Science & Technology<br />

Irbid 221 10 Jordan<br />

Recent years have witnessed an overall downturn in the quality <strong>of</strong> delivered<br />

product from engineering schools throughout the Arab World. People might argue that it<br />

is a global downward trend, and they cherish it as excuse to the continuing decline <strong>of</strong> the<br />

overall quality <strong>of</strong> delivered product. Worse yet, the overall product from engineering<br />

colleges have even suffered from a lack <strong>of</strong> the most basic s<strong>of</strong>t skills, which aides an<br />

engineer to move forward in a successful career.<br />

Moreover, engineering education has suffered from the lack <strong>of</strong> the proper<br />

orientation in steering its product towards fulfilling any basic industrial need in the Arab<br />

world. Towards this end, there has been little done towards any corrective measure to<br />

drive the Arab economies towards more industry-oriented economies.<br />

In this paper, we review the status <strong>of</strong> engineering education around the Arab world, we<br />

identify the staggering issues that have stood out as obstacles to any progress in related<br />

venues, and we propose methodologies to be pursued as corrective measures that would<br />

end up improving the quality <strong>of</strong> the overall engineering education at Arab universities;<br />

our propositions will take up the issues <strong>of</strong> linking academic curricula with market needs<br />

towards setting up some niche that would generate some nucleus for an Arab industry<br />

based on the outcomes <strong>of</strong> quality engineering education across the Arab world.<br />

The paper will address issues that would ultimately steer the current K – 12<br />

systems around Arab countries to provide outcomes more suited to engineering colleges<br />

in Arab countries; to this end, we will propose ideas that would bridge the divide between<br />

K – 12 systems and engineering education at the tertiary level. We will present detailed<br />

solutions that would re-design and re-tool existing engineering curricula to better suite an<br />

ambitious industry supporting economy. We will suggest plans that would better exploit<br />

student potentials to be deployed towards fulfilling the dire market needs in specific<br />

industrious venues; here, we will target student internships, capstones, and any potential<br />

coop programs all <strong>of</strong> which would ultimately move any potential for an industry-oriented<br />

economy forward.<br />

With a well designed readiness phase, that properly couples the K – 12 systems<br />

to the engineering tertiary system, augmented with engineering curricula that better suite<br />

the dire needs for aggressively industrious-oriented economies, complemented with the<br />

proper student co-op internship, capstone plans, we strongly believe that the dawning <strong>of</strong> a<br />

new era for the Arab world to become industrious is near.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Adapting Engineering Curricula Design<br />

in the Gulf Countries<br />

Ibrahim Al-Hammad<br />

Associate Pr<strong>of</strong>essor<br />

King Saud <strong>University</strong><br />

Faculty <strong>of</strong> Civil Engineering<br />

P.O.Box 800 Riyadh 11421<br />

The continuous debate on improving technical curricula for higher education has<br />

been extensively researched. By and large, the engineering curricula in the Arab Gulf<br />

countries are duplicate from developed countries which are a good way to start. The<br />

curricula are designed to serve the developed countries markets needs and<br />

industrialization which is different from the Gulf Countries. It is therefore the author<br />

advocates a 3-5 years review <strong>of</strong> the engineering curricula for junior and senior levels at<br />

the undergraduate schools while keeping the basic first 2-3 years studies <strong>of</strong> basic applied<br />

science.<br />

To demonstrate this point, a senior course curricula in the filed <strong>of</strong> cost<br />

engineering is examined. In the field <strong>of</strong> cost estimating at the colleges <strong>of</strong> Engineering in<br />

Saudi Arabia, most textbooks adapted were and are <strong>of</strong> American origins for historical<br />

reasons while practice in the engineering and contracting industry in this filed follows<br />

British way. Many books have been reviewed and one book is selected as a more<br />

suitable one.<br />

Several British and American textbooks in the field <strong>of</strong> cost estimating have been<br />

reviewed in addition to the latest literature in this field. After initial assessment <strong>of</strong><br />

several textbooks, the writer selected 6 books for evaluation and recommended one <strong>of</strong><br />

them as a substitute. Finally, recommendation on the continuation <strong>of</strong> this subject is<br />

concluded.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Integrated Engineering Teaching, Research And<br />

Community Service In Sudan<br />

Khalid A. Fattah<br />

Dean Faculty, Faculty <strong>of</strong> Engineering, Red Sea <strong>University</strong>.<br />

Tel: +249-9-12415151, Fax: +249-311827778,<br />

P.O. Box 24, Port-Sudan, Sudan.<br />

e-mail: khdfattah@hotmail.com<br />

Engineering education has a special nature, since it is directly related to social<br />

and economic aspects <strong>of</strong> the community and the corresponding developments. The prime<br />

objective <strong>of</strong> engineering faculties is to teach the essential and applied sciences and to<br />

facilitate learning <strong>of</strong> creation and execution <strong>of</strong> theories developed. Application <strong>of</strong> new<br />

theories and techniques is achieved through research, the accompanied objective <strong>of</strong><br />

teaching. Community service should an important goal to be accomplished through the<br />

different activities <strong>of</strong> the engineering faculties. In Sudan, there are more than twenty<br />

engineering Faculty and <strong>University</strong> Colleges. These institutions vary in its facilities and<br />

work experience. Consequently, they differ from each other in there objectives.<br />

The oldest faculties has almost a complete teaching and research facilities and<br />

equipments and there teaching staff is also complete. Recently established institutions<br />

have some lack <strong>of</strong> staff and education facilities. Accordingly, the integration <strong>of</strong> teaching,<br />

research and community service in Sudanese engineering institutions varies from one to<br />

another. All faculties achieve the main objective <strong>of</strong> teaching engineering sciences, while<br />

some faculties have additional pioneer research contributions. Some <strong>of</strong> engineering<br />

faculties in Sudan serve the community through productive schemes <strong>of</strong> technical<br />

maintenance and repairs, materials testing and equipments manufacturing. Additional<br />

community service is represented by the feasibility and technical studies prepared by the<br />

teaching staff.<br />

In this paper, an integral module <strong>of</strong> teaching, research and community service in<br />

engineering faculties is explored. The mission <strong>of</strong> the faculty in terms <strong>of</strong> the objectives is<br />

thoroughly discussed representing the experience <strong>of</strong> the engineering faculties in Sudan.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Integrating Teaching And Research With Community<br />

Service – The Case For Australia’s Cooperative Research Centers<br />

Dr. Rudolph Frederick Stapelberg<br />

Education and Training Manager<br />

The Cooperative Research Centre<br />

for Integrated Engineering Asset Management – Australia<br />

The Australian Cooperative Research Centers Program is a Federal Government<br />

initiative that aims to capture the benefits <strong>of</strong> research by bringing industry and research<br />

organizations closer together. Cooperative Research Centers (CRCs) are collaborative<br />

ventures between government, research and industry organizations and universities. In<br />

addition to an existing provision <strong>of</strong> $A1.08 billion, the Federal Government will<br />

contribute about $A145 million per annum to the CRC Program, whereas industry has<br />

already made commitments <strong>of</strong> more than $640 million for the term <strong>of</strong> 63 current CRCs.<br />

The Cooperative Research Centre for Integrated Engineering Asset Management<br />

(CIEAM) was initiated in 2003, and has an overall resource base over its seven year<br />

tenure <strong>of</strong> $86 million, including both cash and in-kind contributions, to deliver<br />

capabilities and technologies for integrated and sustainable asset management to a wide<br />

range <strong>of</strong> Australian industries in both the public and private sectors. Asset management in<br />

the context <strong>of</strong> physical infrastructure and industrial assets (such as roads, bridges, water<br />

facilities, power utilities, and industrial process plant) is the process <strong>of</strong> organizing,<br />

planning and controlling the acquisition, use, care, refurbishment, and/or disposal <strong>of</strong> an<br />

organization's physical assets to optimize their service delivery potential and to minimize<br />

the related risks and costs over their entire life. Asset management is fundamentally<br />

based on three disciplinary areas; business management, information technology, and<br />

engineering, including chemical, civil, electrical, electronics, industrial, mechanical, and<br />

process engineering. On a national scale, the scope <strong>of</strong> asset management is extremely<br />

wide and complex and consequently either falls short <strong>of</strong> specific requirements, or lacks<br />

application <strong>of</strong> the essential principles. There is therefore an emerging need for a<br />

significant increase in the level <strong>of</strong> competency and technological sophistication through<br />

integration <strong>of</strong> asset management decision-making across all public and private sectors.<br />

One <strong>of</strong> the primary responsibilities <strong>of</strong> the CRC, is to develop and maintain a high level <strong>of</strong><br />

knowledge and skills in all aspects <strong>of</strong> asset management technology as a service to the<br />

Australian community, firstly through technology transfer <strong>of</strong> the outcomes <strong>of</strong> the CRC's<br />

comprehensive research and development program, and secondly, by delivering quality<br />

integrated education and training for industry pr<strong>of</strong>essionals and technical staff. The<br />

education and training ranges from masters’ courses to certificated pr<strong>of</strong>essional skills<br />

training, to short workshop courses on specific topics <strong>of</strong> asset management, and provides<br />

information about integrated asset management for government, industry, and the<br />

Australian community at large. However, the reality <strong>of</strong> meeting this responsibility has<br />

several constraints. This paper considers the opportunities and hurdles encountered in<br />

integrating teaching and research with community service in the context <strong>of</strong> physical<br />

infrastructure and industrial asset management.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Factors Influencing The Success And Failure Of<br />

Quality Assurance System And Their Implementation<br />

In The Libyan Higher Education System<br />

*ELMEHDI M. Elmehdi & **Shtawa Nasr<br />

*Faculty <strong>of</strong> Engineering, <strong>University</strong> <strong>of</strong> Eljabel El-Gharbi, , Libya<br />

e-mail : eelmehdi@yahoo.com<br />

**Faculty <strong>of</strong> Engineering, <strong>University</strong> <strong>of</strong> Eljabel El-Gharbi, , Libya<br />

There is no doubt that universities in general and engineering departments in<br />

specific play an important role in society as a whole not only in educating members <strong>of</strong><br />

society, but also in contributing to research and the development <strong>of</strong> society. These noble<br />

goals may only be achieved if and only if universities produce highly qualified graduates,<br />

who are effective in providing valuable consultations, very good researches, competent in<br />

solving technical problems, and creating new Technologies. One way to ensure that<br />

gradates coming out <strong>of</strong> educational institutions armed with such high qualifications, is by<br />

introducing a Quality Assurance system (QAS), which produces a generic statement that<br />

represents general expectations including the objectives and standards that used for<br />

measuring the performance <strong>of</strong> teaching process, and deciding whether the outcomes will<br />

be according to that specifications or not. The primary purposes <strong>of</strong> theses benchmarking<br />

statements are to assist the higher education institutions in designing and validating<br />

program <strong>of</strong> study, and academic reviewers and external examiner and comparing<br />

standards. QAS envisages that institutions will make explicit the intended learning<br />

outcomes <strong>of</strong> programs <strong>of</strong> study through the production <strong>of</strong> program specifications. The<br />

completion <strong>of</strong> a program specification and the extent to which it demonstrates the<br />

relationship between the program concerned and the benchmarking statements will be <strong>of</strong><br />

benefit to prospective students and potential employers <strong>of</strong> the graduates from the<br />

program. In formulating its statements the group has drawn upon the initial guidelines on<br />

the production <strong>of</strong> program specifications.<br />

In this paper an over review <strong>of</strong> the activities pertaining to the quality <strong>of</strong> the<br />

higher education system in Libya will be presented. These quality attributes will be used<br />

as benchmark statements to provide general guidelines for articulating the learning<br />

outcomes associated with the educational programs in Libyan universities. This was done<br />

through a survey that was conducted by investigating the education program <strong>of</strong><br />

engineering collage to improve the abilities, technical skills and ensure the optimum<br />

utilization <strong>of</strong> the resources i.e. providing high quality outcomes, and build the trust<br />

between the society and the organization. Even though the results <strong>of</strong> the survey are not<br />

complete, preliminary results show that management commitment plays the main role in<br />

successes and failure <strong>of</strong> the QAS activities. Also, the contributions <strong>of</strong> the influential<br />

individuals in the organization are needed for any corrective actions. Lack <strong>of</strong> resources<br />

might decrease the probability <strong>of</strong> accomplishment <strong>of</strong> QAS objectives. In our conclusion,<br />

we will formulate recommendations and suggestions, based on the results <strong>of</strong> our survey,<br />

which will assist in bridging the gab between meeting the goals <strong>of</strong> the universities and the<br />

demands <strong>of</strong> society in the areas <strong>of</strong> education and research.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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How Does The Arab World Compare In Engineering<br />

Education? A Comparative Study Between The Arab World And<br />

The Rest Of The World<br />

Dr Abbas Berrais<br />

The Built Environment<br />

The <strong>University</strong> <strong>of</strong> Bolton<br />

Deane Road, Bolton BL3 5AB<br />

UK<br />

Tel: (44) 1204 903837<br />

Fax: (44) 1204 903441<br />

Email: A.Berrais@bolton.ac.uk<br />

According to the United Nations Development Program (UNDP) report 2004 on<br />

"Arab Human Development", the report, compiled by a "group <strong>of</strong> distinguished Arab<br />

intellectuals", with uncommon candor and a battery <strong>of</strong> statistics, the report tells a sorry<br />

story <strong>of</strong> two decades <strong>of</strong> failed planning and developmental decline. One <strong>of</strong> these<br />

development declines is in Engineering Education and its relation to the Community and<br />

Industry needs. Furthermore, the Arab world is in decline, especially in engineering<br />

education and scientific research, even relative to the developing world. In an age <strong>of</strong><br />

knowledge intensity, poor knowledge acquisition, let alone its production, is a serious<br />

shortfall. A telling indicator <strong>of</strong> the poor level <strong>of</strong> engineering educational attainment in the<br />

Arab countries is the persistence <strong>of</strong> illiteracy rates that are higher, and educational<br />

enrollment rates that are lower, than those <strong>of</strong> dynamic less developed countries in East<br />

Asia and Latin America.<br />

Technological development is rather weak in the Arab countries. This is<br />

evidenced by the relative position <strong>of</strong> Arab countries on the UNDP technology<br />

achievement index (TAI), which referred to the late 1990s. The TAI could be calculated<br />

for only five Arab countries: Algeria, Egypt, Sudan, Syria, and Tunisia—another<br />

indication <strong>of</strong> the poverty <strong>of</strong> data on knowledge acquisition in Arab countries.<br />

The objective <strong>of</strong> this paper is to review the status <strong>of</strong> the Arab World in Engineering<br />

education as a general and its relationship with research and community services. A<br />

comparative investigation on the status <strong>of</strong> engineering education in the Arab world and<br />

the rest <strong>of</strong> the world is carried out. Then, the paper goes on investigating the main reasons<br />

behind the decline <strong>of</strong> engineering education in the Arab world. The paper ends by<br />

outlining recommendations on how to improve engineering education and scientific<br />

research in the Arab world.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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On The Relationship Between Research And Community Needs<br />

Among The Arab-Muslim Civilization Heritage:<br />

An Example In Cryptology<br />

*Atef Mermoul, and **A. Mourad Absi<br />

*College <strong>of</strong> Electrical and Computer Engineering<br />

<strong>University</strong> <strong>of</strong> Sciences and Technology Houari Boumediene, Algiers<br />

P.O. Box 58, El Mouradia, Algiers, Algeria.<br />

Phone: (213)-21-247951,<br />

e-mail: ml_atef@yahoo.fr<br />

**Polytechnic National School, Algiers<br />

P.O. Box 58, El Mouradia, Algiers, Algeria.<br />

e-mail: a_absi@yahoo.com<br />

The historical background <strong>of</strong> Arab-Muslim civilization can constitute a<br />

significant element <strong>of</strong> inspiration in the design <strong>of</strong> an Arab approach for engineering<br />

education. This background shows that there were very close relationships between the<br />

society/state needs and the research area. A very interesting example relates to<br />

cryptology, a science which was, and becomes more and more, complex.<br />

The Arabic mastering <strong>of</strong> cryptography was stimulated by a pressing need<br />

expressed at the ninth century during the campaign <strong>of</strong> translation <strong>of</strong> books and<br />

manuscripts written in several difficult and old languages.<br />

Bait Al-Hikmah, founded in Baghdad during the ninth century by Al-Maamoon,<br />

was considered at that time as one <strong>of</strong> the most developed and well organized research<br />

center. The needs for translation <strong>of</strong> both manuscripts written in dead languages and<br />

encrypted paragraphs encountered in certain specialties like chemistry and magic gave<br />

rise to a new science: cryptanalysis.<br />

A research group (using modern terminology) worked under the supervision <strong>of</strong><br />

Yakoob Ibn Isaak Al-Kindi, known as Alkindus, on decrypting the encrypted paragraphs<br />

in order to complete the translation process <strong>of</strong> all the submitted manuscripts.<br />

Head <strong>of</strong> Bait Al-Hikmah, Yakoob Ibn Isaak Al-Kindi shone in philosophy,<br />

medicine, astronomy, mathematics, linguistics, music and cryptology. Among the 290<br />

manuscripts he wrote in various fields, appears the oldest one which discovered and<br />

wrote down the methods <strong>of</strong> cryptanalysis: Rissalatoon fi istikhradji al moo ‘amma (a<br />

writing in extracting the encrypted).<br />

Al-Kindi founded the principles <strong>of</strong> cryptanalysis. He proposed four methods <strong>of</strong><br />

decryption: quantitative techniques, qualitative techniques, probable word and letters<br />

combination. In his manuscript Kitaboo al-moo ‘amma (book <strong>of</strong> the encrypted), an<br />

important handbook <strong>of</strong> cryptology even centuries later, Al-Kindi proposed a<br />

classification diagram <strong>of</strong> encryption methods and their related cryptanalysis techniques.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Several other works including those <strong>of</strong> Sahib Al-Makalatayne, Mohamed Ibn<br />

Ahmed Ibn Tabataba, Ibrahim Ibn Mohamed Ibn Dounainir, Ali Afif Eddine Ibn Adlane<br />

and Ali Ibn Mohamed Ibn AD-Douraihim show that there were close interactions<br />

between research and community needs in the field <strong>of</strong> cryptology.<br />

Practical needs for translation <strong>of</strong> foreign manuscripts were decisive in stimulating<br />

Arabs to continuously develop cryptology during several centuries.<br />

This historical insight on the development <strong>of</strong> research among Arabic can be<br />

useful for us in the design <strong>of</strong> engineering in modern Arab society. Precise studies <strong>of</strong> the<br />

significant needs <strong>of</strong> Arabic society in various fields could lead to creating organized<br />

listings following sets <strong>of</strong> priorities. These priorities can be translated into plans <strong>of</strong> reorienting<br />

the efforts made in various fields <strong>of</strong> engineering towards only those which meet<br />

the pressing and significant needs <strong>of</strong> the society. These listings can be updated<br />

periodically.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Role Of Students' Scientific Societies<br />

In Community Service<br />

Mustahsan Mir<br />

Department <strong>of</strong> Electrical Engineering<br />

Ajman <strong>University</strong> <strong>of</strong> Science & Technology<br />

P.O. Box 346, Ajman, UAE<br />

e-mail: mmir@ieee.org<br />

In order to provide improved engineering education to meet the demands <strong>of</strong> the<br />

21st century, the engineering faculty must be continually involved in developing the<br />

courses, curriculum, and teaching methodologies with the ultimate goal <strong>of</strong> graduating<br />

engineers with the required skills and abilities. They must also spend considerable time in<br />

preparing their lectures for effective teaching and provide reasonable time in <strong>of</strong>fice-hours<br />

and laboratories to ensure that the desired outcomes are achieved. In addition, faculty<br />

must carry out its research activities for its own pr<strong>of</strong>essional development and as part <strong>of</strong><br />

the job requirements. With the introduction <strong>of</strong> new accreditation criteria in the 21st<br />

century, there is an additional load <strong>of</strong> time-consuming tasks directly related to outcomebased<br />

assessment. To satisfy all the above requirements and then contribute towards<br />

community service is a demanding task. This becomes a real challenge for universities<br />

that only <strong>of</strong>fer undergraduate programs. In such universities, the faculty members do not<br />

have the option <strong>of</strong> integrating teaching, research, and to a certain extent, community<br />

service because they neither have sufficient research funds nor graduate students to work<br />

on research projects. The problem is further complicated in the case <strong>of</strong> private<br />

universities with limited resources and support for integrating research with community<br />

service. Nevertheless, providing meaningful community service is one <strong>of</strong> the main<br />

purposes <strong>of</strong> an educational institution and it must be achieved.<br />

It is quite obvious that providing meaningful community service requires active<br />

participation <strong>of</strong> faculty. Yet, with limited time left after taking care <strong>of</strong> their teaching,<br />

administrative, and research activities, the faculty members are hard pressed for<br />

providing meaningful community service. One partial solution to this dilemma, at least<br />

for engineering faculty, is to get students' scientific clubs and societies actively involved<br />

in community service. With proper planning, teaching could also be integrated with<br />

community service if many members <strong>of</strong> the scientific clubs are also taking courses that<br />

require at least one course project. This strategy has an added advantage for engineering<br />

students as it provides them a rich experience <strong>of</strong> learning through doing. The mere<br />

feeling <strong>of</strong> contributing to something useful for the community would increase the<br />

students' interest in engineering practice and expose them to the challenges <strong>of</strong> real-world<br />

engineering problems.<br />

This paper presents a strategy <strong>of</strong> <strong>of</strong>fering community service through the active<br />

involvement <strong>of</strong> scientific clubs in an educational institution, thereby linking teaching with<br />

community service. It describes the activities <strong>of</strong> the Scientific Society in the Faculty <strong>of</strong><br />

Engineering and the IEEE Students Branch at Ajman <strong>University</strong> <strong>of</strong> Science &<br />

Technology (AUST) about a specific community service project. The project is<br />

interdisciplinary in nature and involves students from the Electrical Engineering and<br />

Biomedical Engineering departments. The paper concludes by presenting some<br />

recommendations for further development <strong>of</strong> this strategy.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Effective Attributes Toward A Stronger<br />

Diversified Social Fabric<br />

Ali H. Al-Gadhib<br />

Department <strong>of</strong> Civil Engineering<br />

King Fahd <strong>University</strong> <strong>of</strong> Petroleum & Minerals<br />

Dhahran 31261, Saudi Arabia<br />

Engineering education is an evolved and developed process which addresses<br />

many issues tackling various fields in engineering pr<strong>of</strong>ession. Knowledge is for all as<br />

sport is for all. It is the role <strong>of</strong> the educators, researchers and academia to bring about the<br />

benefited knowledge and make it reachable to all sectors <strong>of</strong> the society in different forms<br />

and media.<br />

The university mission is to advance science and engineering via research and<br />

produce a continuum <strong>of</strong> competent engineers. Yet, the underlying vision is to benefit the<br />

society and bring about civilized changes and achieve a stronger social fabric.<br />

Knowledge has to find itself not only on minds <strong>of</strong> scholars, but more importantly is to<br />

have it manifested in all levels <strong>of</strong> the society. This could take place only if various sectors<br />

<strong>of</strong> the society recognize and interact with the service rendered by the university. There<br />

comes the importance <strong>of</strong> community service as a complement to the knowledge seeking<br />

endeavor.<br />

This paper will address ways and means <strong>of</strong> how one can synthesize knowledge in<br />

the university and tailor it to penetrate into public brains and be a discipline irrespective<br />

<strong>of</strong> their background. The key to an effective knowledge transfer and communication in<br />

general is the interpersonal rapport which will be highlighted in this paper with advocate<br />

examples. The author will present his experience and contribution to the community<br />

including conducted public lectures and published articles in the local newspapers as well<br />

as demonstrate the role <strong>of</strong> the pr<strong>of</strong>essional societies activities in bridging the gap among<br />

various segments <strong>of</strong> the society. The author will conclude by touching upon his<br />

experience in the development <strong>of</strong> the Saudi Code for Buildings, a code which is adopted<br />

lately to serve the community as a legal document for reparation and quality control <strong>of</strong><br />

construction.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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An Information Arm <strong>of</strong> <strong>University</strong>;<br />

Technology Citizen Advisor and Second Opinion Centers<br />

Amir J. Majid<br />

Associate Pr<strong>of</strong><br />

Ajman <strong>University</strong> <strong>of</strong> Science & Technology, Abu-Dhabi<br />

Due to recent advances in many fields <strong>of</strong> engineering and the large number <strong>of</strong><br />

home and <strong>of</strong>fice appliances that use latest technology, there is a need to establish<br />

technology citizen advisor and second opinion centers by non pr<strong>of</strong>it institutions such as<br />

universities in order to :<br />

1. Helping and educating the public.<br />

2. Developing new opportunities in business and technology.<br />

3. Linking with the community and getting jobs for graduates.<br />

4. Helping distance-learning students, similar to open universities structure.<br />

5. Establishing an information arm <strong>of</strong> university.<br />

Apart from the education and business arms <strong>of</strong> universities, these centers make<br />

up the information arms <strong>of</strong> universities that will help the community in resolving daily<br />

technical problems which are currently resolved by commercial agents and monopolies.<br />

Their task is also to provide specifications, power ratings and protocols <strong>of</strong> many<br />

applications <strong>of</strong> electronic, communication and computer engineering. In this paper, the<br />

mechanisms <strong>of</strong> establishing these centers are outlined with a short feasibility study.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Motivating the minority students to study Engineering: A<br />

LAMP-LEGO Experience<br />

Uvais A Qidwai<br />

Department <strong>of</strong> Computer Science and Engineering<br />

Qatar <strong>University</strong>, Box 2713, Doha, Qatar<br />

Tel: +974 485 1336<br />

Fax: +974 485 1794<br />

e-mail: uqidwai@qu.edu.qa<br />

In this paper, I would like to share my experience with Louisiana Alliance for<br />

Minority Participation Program (LAMP) in which I participates as a Faculty mentor from<br />

Tulane <strong>University</strong> in New Orleans, Louisiana, USA. LAMP is a comprehensive,<br />

statewide, coordinated program aimed at substantially increasing the number and quality<br />

<strong>of</strong> minority students in science, technology, engineering, and mathematics (STEM)<br />

disciplines. LAMP, from its design to its implementation, has adopted the 10-strand<br />

Systemic Mentoring Model <strong>of</strong> the Timbuktu Academy.<br />

Two important steps were taken to motivate the students at High school level to<br />

go for Engineering education specially in Computer Engineering discipline. First, a set <strong>of</strong><br />

specially designed labs were organized for the students from high schools/freshman at<br />

community colleges or freshman in general at Tulane <strong>University</strong>. The purpose <strong>of</strong> these<br />

labs was to introduce the students to LEGO Mindstorm kit. This kit presents the complex<br />

ideas <strong>of</strong> kinetics, mechanical structures and programming in Robotics in the form <strong>of</strong> easy<br />

to use, step-by-step, playable fun devices. The observation was that students who have<br />

never used any mechanical toy-building opportunity were able to complete a reasonable<br />

moving robot in less than an hour! Also, the programming interface with this kit is purely<br />

graphical in nature and actually develops the logic-building among the beginners rather<br />

than intimidating them with heavy programming syntaxes. Again the observation was<br />

that students who have never used hardware programming were able to program their<br />

robot and made it move to perform certain pre-defined actions.<br />

Secondly, I started a summer-camp for LAMP-supported students to work with<br />

my Senior or even Graduate students in the lab. Students from Africa, Asia, and USA<br />

with diverse minority backgrounds attended this incentive and were able to produce some<br />

good work related to robotics, computer interfacing and design. At least one project was<br />

completed during summer 2003, and two were half completed during summer <strong>of</strong> 2004.<br />

The students working on these projects were never exposed before to computer<br />

interfacing and robotics (except for some <strong>of</strong> them who attended the LEGO labs) and were<br />

able to work on tasks like designing and building a circuit, programming in C/C++,<br />

building a mechanical structure, etc… As an outcome, one student was able to get a full<br />

scholarship from LAMP funding to complete his college education while others managed<br />

to obtain partial assistance to help them with their studies.<br />

I consider this an important experience since the students who never thought that they<br />

could even see a college due to the financial or social conditions they had in their<br />

families, or were lost in the darkness <strong>of</strong> drugs and crimes, managed to get a focus in their<br />

lives. The Robotics in general and LEGO in particular invoked in them a sense <strong>of</strong><br />

accomplishment and raised their self-esteem which enabled them to take the next step<br />

towards a better career, and a better life.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Applying Information Technology In Measuring<br />

Changing Quality Of Life<br />

“From Nomad To Urban ”<br />

Dr. Omar Musa Amireh<br />

Associate Pr<strong>of</strong>essor<br />

Department <strong>of</strong> Architecture<br />

Faculty <strong>of</strong> Engineering and Technology<br />

<strong>University</strong> <strong>of</strong> Jordan<br />

Integrating advanced and modern systems <strong>of</strong> teaching technologies with<br />

conventional systems <strong>of</strong> serving communities raises some crucial questions; what are the<br />

possibilities <strong>of</strong> bringing modern and conventional together? Which <strong>of</strong> them to change, to<br />

conventionalize technology! or to modernize communities!.<br />

It is obvious that under the current circumstances the pace <strong>of</strong> change in both<br />

systems is taking to different directions, and still moving apart. At the end any enforced<br />

change in their different directions would not only endangers each but would falsify and<br />

hybrids all.<br />

Tackling the above issue is now examined in one <strong>of</strong> semi urban, originally nomad,<br />

community at Al-Huseiniyyah, Maan, South <strong>of</strong> Jordan.<br />

The university <strong>of</strong> Jordan and part <strong>of</strong> integrating teaching and research with<br />

community services initiated a comprehensive multidisciplinary project in which to<br />

include all scientific and nonscientific colleges and research centers, and to cover and<br />

study all Al-Huseiniyyah aspect <strong>of</strong> life. In order to achieve that goal the community was<br />

first surveyed and studied in the conventional concept where services is considered as<br />

health, nutrition, education, socioeconomic, agriculture, environment, etc. Integrating all<br />

teacing disciplines with all community aspects with overlaps and links between them,<br />

prove efficient and feasible when and where community services are perceived as<br />

quantities and statistics. Surveys followed by conventional data managements and<br />

synchronized with services campaigns in health, education, urban and building<br />

maintenance ascertained that reasonable and progressive development in the type and<br />

quantities <strong>of</strong> services did not improved Al-Huseiniyyah quality <strong>of</strong> life, on the contrary<br />

numbers indicated wide spread complaint and unsatisfactory attitudes towards their life<br />

quality.<br />

People looking for quality in their urban life and environment encouraged the<br />

Architectural team, Faculty <strong>of</strong> Engineering to extend and commence their studies and<br />

surveys into the electronic and digital realm. Within that concept Al-Huseiniyyah was not<br />

only perceived as needs and services, but also in its complementary resources <strong>of</strong> safeties<br />

and hazards, and its qualitative facilities <strong>of</strong> esteems and belongings.<br />

Special teaching and training courses in advanced systems <strong>of</strong> urban surveys,<br />

analysis and synthesis, part <strong>of</strong> which were prepared in collaboration with the Royal<br />

Geographic Center, and others in the Architectural Department were implemented. GIS<br />

and CAD lab and studio were fully equipped and prepared for further data analysis and<br />

managements. Students and appointed researchers took part in; revising and applying<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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methodology; onsite digital survey; acquiring data from Arial and Satellite images and<br />

from Governmental and Nongovernmental <strong>of</strong>fices and agencies. Data classifies and cover<br />

beside all physical aspects, people way <strong>of</strong> life, in turn evolution from nomad to urban life,<br />

adaptation they do to their open and built environment and at last but not least<br />

transformation in their social and economical structure.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Suitability Of Women As Candidates For An<br />

Environmental Education Program In Libya.<br />

Mansour, A. Salem & Qahtan. A.A. Al-nallar<br />

Environmental Sciences Department<br />

Sebha <strong>University</strong><br />

B.O.Box: 53808<br />

Brack Alshati<br />

Libya<br />

e-mail. Msalem59@hotmail.com<br />

The paper attempt to objectively analyze the suitability <strong>of</strong> women in Libya for a<br />

formal environmental education program, it concerns by giving a brief introduction <strong>of</strong><br />

the deteriorating and neglected environmental situation in Libya, then it proceeds into<br />

monitoring the effect <strong>of</strong> environmental degradation on women residing, furthermore the<br />

paper attempts to gang the suitability <strong>of</strong> these women as candidates for an environmental<br />

education program, different factors favoring such a proposal such as occupational and<br />

household roles and relevance <strong>of</strong> such an education are discussed supported by relevant<br />

data.<br />

All suitability factors are supported with complete implied assistance on the<br />

governments part, i.e. provision <strong>of</strong> all necessary resources for the educational learning to<br />

be <strong>of</strong> any use. Then the paper mentions the various socio cultural constraint within the<br />

society, recommending women to be unsuitable for an environmental education program.<br />

Media's role in combating these problems is stressed. The problem <strong>of</strong> opportunity cost is<br />

described as another factor making women unsuitable for such a learning program. It is<br />

proposed that this act should not be considered as an expense; rather than it should be<br />

treated an investment in a suitable development process.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Challenges Facing The Merger Of Engineering Education<br />

Outcome And Industry Requirement In The Region<br />

Mufid A. Samarai<br />

Director, the Central Laboratories<br />

<strong>University</strong> <strong>of</strong> <strong>Sharjah</strong>, P.O.Box:27272<br />

Telephone: +971 6 5050440 / Fax number: +971 6 5050444<br />

e-mail: samarai@sharjah.ac.ae<br />

It is a well-known fact that there is a huge gap in knowledge and technology in<br />

the Arabic world, which requires sound policies to merge the teaching <strong>of</strong> knowledge and<br />

spreading and absorbing it. It is also necessary to find the approaches, strategies and<br />

tactics that will identify the practical research topic that best fit needs <strong>of</strong> industry and<br />

provide it with the full and appropriate backing it requires. Our universities are research<br />

centers and are the hope and expectations, which will initiate the path to the future, and<br />

perhaps the best mean <strong>of</strong> facing the challenges <strong>of</strong> technologies hence supporting them<br />

will give us the starting point and on assured stride towards development and serving the<br />

ambitious <strong>of</strong> the society.<br />

In the civil engineering industry, if new knowledge does not find its way into<br />

practice, or lead to subsequent developments that do, it is <strong>of</strong> little value. In the past, new<br />

knowledge was relatively quickly accepted and used by the pr<strong>of</strong>ession and codes readily<br />

embraced new developments. There is a problem in the way Civil Engineering at<br />

universities in the region is perceived and valued. There is reduction in funding which<br />

leads to fewer staff with less time and physical resources to do research. The need for<br />

support for research from industry has never been greater. In academia, researchers get<br />

most credit if their work is published in prestigious archival journals and little credit for<br />

local publications or solving industrial problems. The pr<strong>of</strong>ession tends to subscribe to<br />

local publications and not to international journals. As a consequence, much research<br />

is not directed at and not read by the pr<strong>of</strong>ession. In the past, conferences have provided a<br />

mechanism for transferring research into practice, but the papers must be <strong>of</strong> high<br />

quality and universities must accept them for promotion purpose.<br />

A modern engineer should be able to relate technical issues, problems, and<br />

solutions to developments in society. Moreover, engineers will <strong>of</strong>ten become members<br />

<strong>of</strong> multidisciplinary teams. Hence, engineering education programs need to be<br />

restructured to facilitate integrated learning. Integrated learning as opposed to discipline<br />

oriented learning occurs when problems from practice are utilized to structure the<br />

learning process. Curriculums should be redesigned so there is more design and<br />

creativity. Working in-groups and learn to exchange <strong>of</strong> ideas and knowledge. Students<br />

would like us to do more and adapt more and change more towards their needs in life<br />

This paper will review concerns over the gap between academia and industry and the lack<br />

<strong>of</strong> industry support for research. It will give solutions and recommendation so academia<br />

will be more involved supportive to the industry and society in general.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Effective Industry-Academia Cooperation<br />

*Abdelaziz Al-Khlaifat & **Taha Al-Khamis<br />

*(On sabbatical)<br />

Department <strong>of</strong> Chemical Engineering<br />

Al-Hussein Bin Talal <strong>University</strong><br />

Maan-Jordan<br />

**Department <strong>of</strong> Chemical Engineering<br />

Mutah <strong>University</strong><br />

Mutah-Jordan<br />

Email: khlaifat@ahu.edu.jo<br />

This work suggests a number <strong>of</strong> key issues to achieve successful cooperation<br />

between industry and academia in conducting research projects. To illustrate these issues,<br />

the authors describe how to integrate an academic research group and an industrial<br />

development team to generate useful research results as well as products. The joint<br />

research venture can be successful only by proper project preparation and implementation<br />

that are the main focus <strong>of</strong> this manuscript.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Public Service In The State <strong>University</strong> System Of Florida:<br />

Mission And Practices<br />

Salah Aziz<br />

Coordinator <strong>of</strong> Academic Programs<br />

FAMU-FSU College <strong>of</strong> Engineering<br />

Tallahassee, FL 32310, USA<br />

Traditionally, higher education institutions in the United States <strong>of</strong> America have<br />

aimed to prepare graduates to enter the workforce with the experience and advanced<br />

skills and to conduct research on topics which are interested to the local, national and/or<br />

international communities. Serving the local and State’s needs is obligated by the fact<br />

that public institutions are supported financially by the Stats’ tax-payers. Nevertheless,<br />

lately there have been calls for expanding the definition <strong>of</strong> the Public Service and<br />

integrates it with the Civic Engagement. Universities and academic programs, in general,<br />

and engineering programs and their faculties, in particular, are challenged by the new<br />

calls. This paper will review and share some definitions and practices <strong>of</strong> Public Service<br />

and Civic Engagement according to the State <strong>University</strong> System <strong>of</strong> Florida (SUS).<br />

Further, the paper will outline some options for engineering programs and faculty to<br />

increase their contribution to the Public Service.<br />

In the State <strong>of</strong> Florida, publicly-funded higher education institutions are<br />

obligated to document their public services which exceed teaching and research. In<br />

summer 2005, the Florida Board <strong>of</strong> Governors, BOGs, adopted “Promoting Excellence in<br />

Teaching, Research, and Public Service,” and made it part <strong>of</strong> its strategic goals to achieve<br />

them within the Strategic Plan for the period <strong>of</strong> 2005-2013. BOGs regulate and practice<br />

full control <strong>of</strong> the management <strong>of</strong> ten public universities and one public liberal arts<br />

college (they are referred to as SUS) in Florida. Therefore, BOGs’ check evidences on<br />

public services submitted by 214 Bachelor-, 265 Master-, and 144 Doctoral-programs<br />

within the SUS.<br />

The calls for Public Services for engineering programs and faculty are repeated<br />

by two prestigious organizations in the United States: The American Society for<br />

Engineering Education (ASEE) and the Accreditation Board <strong>of</strong> Engineering and<br />

Technology (ABET). Having public service as part <strong>of</strong> its mission, ASEE demands from<br />

its twelve thousand engineering-related members to fulfill it. ABET demands from the<br />

engineering programs to show evidences that their faculty members are qualified to<br />

service government agencies and industries as part <strong>of</strong> the accreditation procedure.<br />

This paper will review models that are developed by several universities and one<br />

engineering program in Florida in sponsoring to civic engagement and public services.<br />

Further, it will develop some options to be used by engineering programs and faculty to<br />

get involved in the public services.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Pr<strong>of</strong>essional Development Of Faculty Through Consulting<br />

And Networking<br />

*Amde M. Made & **Gajanan M. Sabnis<br />

*Pr<strong>of</strong>essor <strong>of</strong> Civil and Environmental Engineering, <strong>University</strong> <strong>of</strong> Maryland,<br />

College Park, MD 20742, USA<br />

e-mail: amde@umd.edu<br />

**Pr<strong>of</strong>essor <strong>of</strong> Civil Engineering, Howard <strong>University</strong>, Washington, DC, USA<br />

Consultant, Silver Spring, MD, USA<br />

e-mail: gms@sabnis.com,<br />

It is a well-known fact that university pr<strong>of</strong>essors’ salaries in the US are<br />

generally much less than their industry counterparts, whether in consulting or in<br />

manufacturing. The faculty has some freedom for consulting work, but <strong>of</strong>ten the<br />

complaint is that either such freedom is not used or, in extreme cases, misused.<br />

Pr<strong>of</strong>essional development can take place by using the talents in the academic<br />

community in several ways. The authors’ personal experiences as faculty<br />

members in civil engineering at two diverse universities located in the same<br />

metropolitan area provide case studies <strong>of</strong> two different models for balancing and<br />

integrating research, teaching and service for successful pr<strong>of</strong>essional<br />

development.<br />

The first author is at a large state supported comprehensive research<br />

university (UMD), while the second author is at a small private university (HU).<br />

UMD is one <strong>of</strong> the top state universities in the US with student population that is<br />

primarily white; while HU is a minority, historically black university (HBCU).<br />

UMD has a large PhD program including one in civil engineering. Although HU<br />

has PhD programs in several disciplines, the program in civil engineering only<br />

goes up to the MS degree and there is no PhD program as <strong>of</strong> yet in civil<br />

engineering. The paper compares the different career models followed by the two<br />

authors. The first author followed a more traditional career model for research,<br />

teaching and service; while the second author, in addition to research and<br />

teaching, was heavily involved in consulting including ownership <strong>of</strong> a successful<br />

small consulting firm and reached the highest levels <strong>of</strong> leadership in pr<strong>of</strong>essional<br />

societies. Both authors are immigrants and received their PhD’s in the US. The<br />

paper also discusses the value <strong>of</strong> networking for successful pr<strong>of</strong>essional<br />

development using as case studies the experiences <strong>of</strong> the two authors who have<br />

collaborated for more than two decades.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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A Feedback Model To Improve The Performance Of Engineering<br />

Faculties In The Service Of Society<br />

Haldun ABDULLAH, Abdullah MİMAROĞLU, Etem KÖKLÜKAYA,<br />

Murat YILDIZ, Nükhet SAZAK<br />

halduna@sakarya.edu.tr, mimarog@sakarya.edu.tr, ekaya@sakaraya.edu.tr,<br />

myildiz@sakaraya.edu.tr, nsazak@sakaraya.edu.tr<br />

Most engineering faculties in the developing world function on an “open-ended”<br />

basis. There is usually no rationale in the curriculum, no compulsory accreditation<br />

requirement for academic programs and no feedback from engineering societies that<br />

would reflect on engineering curricula and laboratory practices within the engineering<br />

departments. Very <strong>of</strong>ten a clear distinction between an “engineer” and an “engineer<br />

candidate” is not made to engineering students during their study prior to graduation and<br />

many assume that they have become “engineers” right after graduation. The public<br />

usually expects immediate satisfactory engineering performance from these graduates<br />

and when they fail to do so the public start to complain and such complaints reflect upon<br />

the teaching curricula as more course requirements and longer years for graduation. After<br />

all this is done some years pass by and no improvement in the performance <strong>of</strong> graduates<br />

can be observed and/or measured. As a result, the public bypassing engineering societies<br />

usually turn to engineering staff within a university directly seeking help in community<br />

projects. This in turn diverts the attention <strong>of</strong> engineering staff from carrying out academic<br />

research in the engineering sciences and to spend more time with their graduate students<br />

aiming for MSc. and PhD degrees.<br />

In this work we propose to establish a working model for the improvement <strong>of</strong><br />

engineering education where engineering societies also function as feedback agents that<br />

continuously observe, analyze and evaluate engineering practices through engineering<br />

design documents and field applications and then feedback their evaluation results to<br />

engineering faculties through their continued education departments. The engineering<br />

faculties in this work are those who graduate engineer candidates with a Bachelor <strong>of</strong><br />

Science (BSc) degree. We assume that the academic programs followed by such faculties<br />

are substantially equivalent to curricula <strong>of</strong> engineering faculties which have ABET<br />

accreditation in the USA. Since “engineering” is a pr<strong>of</strong>ession, it can only be mastered and<br />

perfected by practice and application. This can only be done in engineering <strong>of</strong>fices<br />

producing engineering design documents, through an appropriate apprenticeship<br />

program.<br />

In this work we base the engineering curriculum design upon the engineering<br />

“pr<strong>of</strong>ession” definition which was embedded in the ABET criteria in 1980, when ABET<br />

was first established [..]. This definition is stated [..] as follows:<br />

“Engineering is the pr<strong>of</strong>ession in which knowledge <strong>of</strong> the mathematical and<br />

natural sciences gained by study, experience and practice, is applied with judgment to<br />

develop ways to utilize, economically, the materials and forces <strong>of</strong> nature for the benefit <strong>of</strong><br />

mankind.”<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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In this definition we see that the engineering pr<strong>of</strong>ession involves the practice <strong>of</strong><br />

devising ways ( producing engineering design documents) based upon applying<br />

knowledge gained from the mathematical and natural sciences (physics, chemistry,<br />

biology, ecology[..]).<br />

The application <strong>of</strong> the knowledge thus gained with judgment is basically taught<br />

in the engineering sciences courses. The definition inherently implies that engineering<br />

students have to go through three different sets <strong>of</strong> courses, usually in three consecutive<br />

stages throughout their academic program. The first stage courses are preferably taken<br />

from courses <strong>of</strong>fered by the faculty <strong>of</strong> sciences. These courses should be prerequisites for<br />

engineering science courses <strong>of</strong>fered by the various departments <strong>of</strong> the faculty <strong>of</strong><br />

engineering. The second stage courses should establish the necessary pre-requisite and/or<br />

co-requisite courses for the engineering design courses (at least 2) and projects.<br />

The first evaluation <strong>of</strong> the quality <strong>of</strong> teaching in the mathematical and natural<br />

sciences courses should be carried out by engineering faculty responsible for the teaching<br />

<strong>of</strong> the engineering science courses. The results <strong>of</strong> the evaluation should then be fed back<br />

to the faculty <strong>of</strong> sciences. The second evaluation <strong>of</strong> the quality <strong>of</strong> teaching in the<br />

engineering sciences courses should be done by the engineering faculty staff responsible<br />

for the engineering design courses and projects and the results should be fed back to the<br />

relevant departments for evaluation and improvement. This procedure would then<br />

establish the first feedback loop (Fig.1) for the improvement <strong>of</strong> the quality <strong>of</strong> teaching<br />

through undergraduate student performance evaluation.<br />

Graduate engineering students (BSc degree) would be “engineer” candidates with<br />

a solid knowledge <strong>of</strong> the relevant engineering science courses and a sound knowledge <strong>of</strong><br />

what an engineering design document should include and preferably with the experience<br />

<strong>of</strong> one or two completed (simple) design projects in their field <strong>of</strong> specialization.<br />

Engineering graduates usually start their apprenticeship when they are employed<br />

by establishments that carry out engineering design as their major line <strong>of</strong> work where<br />

they start assisting senior engineers already qualified by engineering societies. Those<br />

senior engineers would be in an appropriate position to evaluate the performance <strong>of</strong> the<br />

newly employed engineers and feedback their findings to the engineering faculties.<br />

Finally, in order that the feedback processes are completed the local engineering<br />

societies should evaluate the performance and products <strong>of</strong> the engineering establishments<br />

which operate in accordance with the need <strong>of</strong> the public and the market, and feedback<br />

their findings to the relevant universities thus completing the outer feedback loop.<br />

We conclude by emphasizing that the process <strong>of</strong> continued assessments <strong>of</strong><br />

feedback evaluations and modifications in the educational paradigm along with the<br />

teaching and research loads are already a “full-time” load for academic staff and hence<br />

working outside the university would certainly reduce the quality <strong>of</strong> their academic<br />

performance. However, engineering faculties could make use <strong>of</strong> the experience <strong>of</strong> senior<br />

engineers who have their own practice (or employed by other firms) on a part-time basis.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Conceptualization And Implementation<br />

Of A Center Of Entrepreneurial Development<br />

For Nurturing Small Business In The Mena Region<br />

*Tahir Ayar & **M-Said Oukil,<br />

* Systems Engineering Department,<br />

College <strong>of</strong> Computer Science and Engineering, KFUPM<br />

**Department <strong>of</strong> Management and Marketing<br />

College <strong>of</strong> Industrial Management, KFUPM<br />

All economies in the Middle East and North Africa (MENA) region are classified<br />

by international organizations as developing. Paradoxically, this is against the prevailing<br />

fact that capital is quite available in most <strong>of</strong> them. In the case <strong>of</strong> those producing oil,<br />

relevant revenues have much increased and the rush <strong>of</strong> citizens towards stock exchange<br />

operations, real estate operations and investments abroad clearly indicate that private<br />

capital is, also, in surplus. However, what is necessarily crucial to enhance their<br />

sustainable growth process is but entrepreneurial dynamics.<br />

The authors <strong>of</strong> this joint-paper argue that, for that purpose, the creation <strong>of</strong> a<br />

center for entrepreneurial development (CED) is <strong>of</strong> top priority. Such an entity will allow<br />

both public and private capital to be channeled towards productive investments projects<br />

that could foster those countries’ performance and competitiveness.<br />

The basic difference between a CED and other existing similar centers, such as<br />

Science and Technology (S&T) parks, incubators and business centers or institutes,<br />

concerns the specific mission <strong>of</strong> a CED. For, its main mission is manifold. First is to<br />

provide temporary resources (liquidity). Second is to influence the environment and<br />

policies to compensate for the short term deficiencies (optimal use). Third is to help<br />

improving the capacity <strong>of</strong> entrepreneur in the long term (excellence). Fourth is to create<br />

employment opportunities (social responsibility). Fifth and above all is to create a unique<br />

Islamic ethical awareness about the “right” role <strong>of</strong> entrepreneurs, managers, businessmen,<br />

businesswomen and factually every one to be directly or indirectly involved in the<br />

development and growth process. Distinctly, the mission <strong>of</strong> a CED comes prior to that <strong>of</strong><br />

any other center and accompanies businesses throughout their whole life.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Technology Development in Computer and<br />

Information Technology<br />

Ibrahim Kamel<br />

<strong>University</strong> <strong>of</strong> <strong>Sharjah</strong><br />

<strong>Sharjah</strong>, UAE<br />

kamel@sharjah.ac.ae<br />

Technological advancement is one <strong>of</strong> the main causes for the wide gap between<br />

the industrial countries and the (so called) developing countries. Developing countries<br />

realized this fact and they are trying to bridge this gap by starting pilot programs for<br />

technology transfer. Unfortunately, there are not many success stories. In this paper, we<br />

analyze some <strong>of</strong> the reasons that caused such failure, especially in the area <strong>of</strong> computer<br />

and information technology.<br />

We discuss some <strong>of</strong> the important factors that help establishing a successful<br />

technology transfer program. The paper also stress the role <strong>of</strong> industry and the interplay<br />

between industry and academia in establishing a successful technology development<br />

program. Industry contributes significantly to the technology transfer and development<br />

programs, at the same time, it benefits from it. With the wide range <strong>of</strong> computer and<br />

information technology subfields, the paper argues that we should pick the computer<br />

security as an area <strong>of</strong> choice and direct our efforts and investment to create critical mass<br />

in this area. This choice is based on the fact that computer security is relatively new area<br />

and the fact that it is becoming strategic field.<br />

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The Integration Of Technology Into Teaching And<br />

Research<br />

Amna H. Sirelkhatim,<br />

Sudan Institute For Natural Sciences, Unit Of Research&Scientific Services,<br />

e-mail: amnasirelkhatim@yahoo.co.uk,tel:+249912206816(cell)<br />

The integration <strong>of</strong> technology into the educational processes has been an<br />

important issue <strong>of</strong> interest to an increasing number <strong>of</strong> higher institutions since the early<br />

1980s. The growth <strong>of</strong> information and communication technologies in education is a<br />

global phenomenon, the possibility <strong>of</strong> using information and communication technologies<br />

has major implications for the teaching, research and learning situation in higher<br />

education in both developed and developing countries. It constitutes a challenge to<br />

institutions worldwide to change aspects <strong>of</strong> their organization and operation. In this paper<br />

we discuss the integration technology in teaching, learning and research. It reviews some<br />

aspects <strong>of</strong> these three areas, the objectives, strategies and analyses the role <strong>of</strong> lecturers<br />

and students in new modes <strong>of</strong> teaching and learning through the modern technologies.<br />

Teaching , research and service are considered as a double or triple activity, they are<br />

independent but they compliment each other. Here, a discussion <strong>of</strong> this topic as a problem<br />

facing the development <strong>of</strong> higher education is presented. The papers also introduced an<br />

important integral part <strong>of</strong> teaching which is testing. It is considered as a tool <strong>of</strong><br />

technology that can capture what a person learns in response to questions, whether the<br />

type <strong>of</strong> the test is.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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An Educational Collaborative Learning Model<br />

ECLM<br />

*Amar Balla, **Abdelkarim Ait Hamouda, & **El Hadj Abdelmalek Arbaoui<br />

* Institut National d’Informatique (INI)<br />

BP 68M Oued-Smar, Algiers, Algeria<br />

a_balla@ini.dz<br />

** Institut National d’Informatique (INI)<br />

BP 68M Oued-Smar, Algiers, Algeria<br />

{a_aithamouda, h_arbaoui}@yahoo.fr<br />

Collaborative Learning is a philosophy <strong>of</strong> teaching. It is far from being a series <strong>of</strong><br />

techniques designed for the teacher to have less work and intended to make students'<br />

lives miserable. Our purpose is to justify the role <strong>of</strong> the chosen model among various<br />

pedagogical models. Therefore, the model which has been suggested and justified could<br />

be implemented using a multi- agent technology.<br />

Introduction<br />

A learning network is a group <strong>of</strong> persons (organizations) that come together for<br />

collaborative learning resulting in behavioural change that creates value for each person<br />

(or organization). In periods <strong>of</strong> constant discontinuous change, there is a need to manage<br />

environmental dependencies. The goal <strong>of</strong> the learning network is to move beyond "data<br />

exchange", from the transaction-based sharing <strong>of</strong> personal information, towards<br />

interactions where new knowledge is co-created and creates value for members (or<br />

firms).<br />

An “Educational Collaborative Learning Model” (ECLM) is the model <strong>of</strong><br />

instruction underlying CSCL (Computer- Supported Cooperative Learning), hence a<br />

remote teaching model which aims to improve the efficiency <strong>of</strong> a course by using<br />

computers and the Internet.<br />

As this is a very active research area, we will restart from the beginning, from<br />

generalities, by defining the terms model and learning first. The reader can get a short<br />

history <strong>of</strong> CL from [1] and [4] and some existing learning models in [2] and [3].<br />

As regards learning, we will focus on how it occurs. Our suggestion <strong>of</strong><br />

collaborative models comes from the principles and the design methods <strong>of</strong> I.S.D.<br />

Instructional System Design [5]; this collaborative model cannot be entirely new,<br />

therefore we will try to demonstrate its adaptability and usefulness to the present and<br />

future learning contexts, by presenting what the new learning process can be like, what<br />

the instructor’s pr<strong>of</strong>ile is, and describing, as to learners, the parameterization, <strong>of</strong> their<br />

characteristics, styles (learning style, thinking style) and even distinguishing adults from<br />

younger learners, and novice from expert learners.<br />

It is now admitted that ECLM is unavoidable, but the reasons why Collaborative<br />

Learning is important are not obvious.<br />

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To summarize the previous paragraph, the main requirements for a tutor in an ECLM<br />

are: the distant learner activity perception (collection, observation), lending <strong>of</strong> his support<br />

to learners, and management <strong>of</strong> the activity <strong>of</strong> following up a learning process; this is the<br />

core <strong>of</strong> an educational collaborative learning model.<br />

Our model is a basis for the design <strong>of</strong> educational environments, by providing<br />

design methodologies and system components, and/or constraining the range <strong>of</strong><br />

pedagogical contents that are available and adaptable for learners.<br />

References<br />

[1] Aimeur E., Frasson C., Duffort H. "Cooperative learning Strategies for ITS". Applied<br />

Artificial Intelligence. An International Journal, Vol 14(5), pp.465-490, 2000.<br />

[2] BALLA A. "Un modèle générique d’environnement de développement des<br />

hypermédias adaptatifs et dynamiques générant des activités pédagogiques ", thèse<br />

de doctorat d'état, INI 2005.<br />

[3] DEMBO M.H. "Applying Educational Psychology", New York: Longman The<br />

teaching learning model, 1994.<br />

[4] George S. "Apprentissage collectif à distance. SPLACH : un environnement<br />

informatique support d'une pédagogie de projet", thèse de doctorat en informatique,<br />

Université du Maine 2001.<br />

[5] McCOMBS B.L. "The instructional systems development (ISD) model: A review <strong>of</strong><br />

those factors critical to its successful implementation", Educational Communications and<br />

Technology Journal (ECTJ), 34(2), 67-81, 1986.<br />

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Qtel 3G Collaboration Project: A Step In Bridging The Gap<br />

Between Academia And Workplace<br />

*Abdulaziz Fakhroo, ** Khalid A. Qaraqe, *** Mazen O. Hasna, and<br />

**Mohamed-Slim Alouini,<br />

* Qatar Telecom, Wireless Group,<br />

e-mail: afakhroo@qtel.com.qa<br />

** Department <strong>of</strong> Electrical Engineering, Texas A&M <strong>University</strong> at Qatar,<br />

e-mail: kqaraqe@tamu.edu<br />

*** Department <strong>of</strong> Electrical Engineering, Qatar <strong>University</strong>,<br />

e-mail: hasna@qu.edu.qa<br />

The primary goals <strong>of</strong> Bridging the Gap between Academia and Workplace are (i)<br />

to attract, train and encourage talented young scholars to pursue research careers in<br />

engineering, (ii) enhance the quality <strong>of</strong> undergraduate education at the universities by<br />

expanding undergraduate research/class opportunities and making research a integral<br />

component <strong>of</strong> the undergraduate educational experience, and (iii) interact with abroad<br />

industrial to conduct the pr<strong>of</strong>essional systems.<br />

On December 20th, 2005 a memorandum <strong>of</strong> understanding was signed between<br />

Qatar Telecom (Qtel), Texas A&M at Qatar (TAMU-Q), <strong>University</strong> <strong>of</strong> Qatar (UQ), and<br />

the College <strong>of</strong> the North Atlantic Qatar (CAN-Q) to establish a mutually beneficial<br />

collaborative research into third generation (3G) networks, technologies and services.<br />

Being a network operator, Qtel is more geared towards providing new technologies as<br />

“products” in order to enhance customer’s experience and open their horizon to what is<br />

new in the wireless technologies. On the other hand, academic institutions focus on<br />

preparing the students for their pr<strong>of</strong>essional career by providing them sufficient<br />

theoretical base but, in general, limited practical experience. The two parties (i.e., Qtel<br />

and the academic institutions) can bridge the gap by working together in order to train<br />

graduates with more hands-on experience, and this will shorten the time required for<br />

these graduates to be fully functional in the workplace.<br />

This novel project is expected to last for eighteen months, and is composed <strong>of</strong><br />

three phases. In phase one, electrical engineering students from TAMU-Q, CNA-Q, and<br />

UQ as well as Qtel engineers have been going through training sessions in the form <strong>of</strong><br />

lectures provided by faculty members and 3G specialists from Qtel. The second phase <strong>of</strong><br />

the project will involve a measurements campaign conducted by the students under the<br />

guidance <strong>of</strong> Qtel engineers and the faculty members involved in the project. The students<br />

will perform various tests and measurements procedures on different functionalities to<br />

gain a better understanding <strong>of</strong> this new technology. The final phase <strong>of</strong> the project will<br />

focus on research and analysis by Ph.D. graduate students and senior undergraduate<br />

students from partnering institutions. Data from the second phase will be processed in<br />

order to develop suitable propagation models and communication techniques.<br />

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The project is expected to achieve the three following main goals:<br />

To create an opportunity for national students to get exposure to the industry and ‘realworld’<br />

activity and as such further develop their abilities. Moreover, the findings <strong>of</strong> the<br />

project will count toward their senior graduation projects.<br />

To establish a collaborative relationship between Qtel and the key local academic<br />

engineering institutions in Qatar. In addition, Qtel will establish through this partnership<br />

a better understanding <strong>of</strong> the characteristics <strong>of</strong> 3G through the development and<br />

execution <strong>of</strong> measurements and procedures, and this is expected to lead to better<br />

telecommunication services to the local community.<br />

To provide a source <strong>of</strong> (raw and processed) data as an input to various post graduate<br />

research activities. Researchers will have access to real data that can be used for network<br />

performance evaluation. The outcomes <strong>of</strong> these research studies <strong>of</strong> the research are<br />

expected to be first presented in technical conferences as well as in the standardization<br />

meetings then to be published in high-quality peer-reviewed journals.<br />

The final version <strong>of</strong> this paper will include a detailed description <strong>of</strong> the scope <strong>of</strong><br />

work, and will lay out the detailed tasks implemented in the three phases <strong>of</strong> the project.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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How Technical College Courses Become Successful<br />

Web-Based E-Learning Models Through The<br />

Integration Of Teaching, Research<br />

And Community Services Activities<br />

*Mohamed Aichouni & **Soraya Benchicou<br />

* PhD, Assistant Pr<strong>of</strong>essor<br />

** MSc in Mechanical Engineering<br />

PO Box : 7469, Hail, Kingdom <strong>of</strong> Saudi Arabia<br />

Tel : 00966 – 65317715 Ext 1356<br />

Fax :00966-65317303<br />

e-mail: m_aichouni@yahoo.co.uk<br />

Web site: http://aichouni.tripod.com<br />

One <strong>of</strong> the major characteristics <strong>of</strong> modern society is the central role <strong>of</strong><br />

knowledge in the production processes, to such an extent that the most frequent qualifier<br />

now used is that <strong>of</strong> the knowledge society.<br />

We are seeing the emergence <strong>of</strong> a new economic and productive paradigm in<br />

which the most important factor ceases to be the availability <strong>of</strong> capital, labour, raw<br />

materials or energy and becomes the intensive use <strong>of</strong> knowledge and information.<br />

Today’s most advanced economies are based on the greatest availability <strong>of</strong> knowledge.<br />

This centrality makes <strong>of</strong> knowledge a pillar <strong>of</strong> the wealth and power <strong>of</strong> nations.<br />

The World Declaration on Higher Education states clearly that "without adequate<br />

higher education and research institutions providing a critical mass <strong>of</strong> skilled and<br />

educated people, no country can ensure genuine endogenous and sustainable<br />

development and, in particular, developing countries and least developed countries<br />

cannot reduce the gap separating them from the industrially developed ones”. The<br />

Declaration affirms that “the core missions and values <strong>of</strong> higher education, in particular<br />

the mission to contribute to the sustainable development and improvement <strong>of</strong> society as a<br />

whole, should be preserved, reinforced and further expanded”. The knowledge society,<br />

implies increasing technological capacities by combining traditional and modern<br />

methodologies to stimulate scientific creation and lead to sustainable human<br />

development. The Declaration states also that there is “an increased awareness <strong>of</strong> higher<br />

education’s vital importance for sociocultural and economic development, and for<br />

building the future”. It affirms that: “Owing to the scope and pace <strong>of</strong> change, society has<br />

become increasingly knowledge-based so that higher learning and research now act as<br />

essential components <strong>of</strong> cultural, socio-economic and environmentally sustainable<br />

development <strong>of</strong> individuals, communities and nations.<br />

UNESCO has committed its self to promote the concept <strong>of</strong> knowledge societies;<br />

Three strategic objectives have been set: (a) to foster digital opportunities and social<br />

inclusion enhancing the use <strong>of</strong> ICTs for capacity-building, empowerment, governance<br />

and social participation; (b) to strengthen capacities for scientific research, information<br />

sharing and cultural creations, performances and exchanges in knowledge societies; and<br />

(c) to enhance learning opportunities through access to diversified contents and delivery<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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systems. The use <strong>of</strong> Information and Communication Technologies (ICT) should be<br />

encouraged as a means <strong>of</strong> empowering communities and help them contribute to the<br />

building <strong>of</strong> knowledge society. ICTs should contribute to enhancing the quality <strong>of</strong><br />

teaching and learning, the sharing <strong>of</strong> knowledge and information. ICTs have the potential<br />

to introduce in the educational process a higher degree <strong>of</strong> flexibility in response to<br />

societal needs. The potential <strong>of</strong> ICTs to lower the cost <strong>of</strong> education and to improve<br />

internal and external efficiencies <strong>of</strong> the education system should be grasped. Knowledge<br />

societies should <strong>of</strong>fer opportunities to use ICTs as innovative and experimental tools in<br />

the process <strong>of</strong> renewing education. The production and dissemination <strong>of</strong> educational,<br />

scientific and cultural materials are regarded to be crucial elements <strong>of</strong> knowledge<br />

societies. Networks <strong>of</strong> specialists and <strong>of</strong> virtual interest groups should be developed, as<br />

they are key to efficient and effective exchanges and cooperation in knowledge societies.<br />

The paper is dedicated to explore in details and to present an emerging model for the<br />

integration <strong>of</strong> teaching, research and community services in the educational frame work.<br />

The model which was first proposed by McMasters (2000) at the Boeing initiated<br />

Industry-<strong>University</strong>-Government roundtable for enhancing engineering education<br />

(IUGREEE) has been used in our project to integrate teaching and cutting-edge research<br />

in the area <strong>of</strong> web-based learning to link technical and engineering students, faculty<br />

members and working engineers and managers in a successful integrated educational<br />

environment. Through the results it will be shown clearly the efficiency <strong>of</strong> such an<br />

approach to promote the concept <strong>of</strong> knowledge society in Arab countries through<br />

academic teaching, research and community services. A brief summary <strong>of</strong> the project and<br />

its achievements can be seen from the mind map presented in figure 1.<br />

Figure 1 – The Mind Map <strong>of</strong> the Web-Based Learning Model showing the Integration <strong>of</strong><br />

Teaching, Research and Community Service<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Technology Education Using A Novel Approach In<br />

E-Learning—Towards Optimizing The Quality<br />

Of Learning Outcomes<br />

*Mohammad I. Malkawi & **Mohammed A. Khasawneh<br />

*SUN Microsystems &<br />

**IEEE Senior Member, Jordan <strong>University</strong> <strong>of</strong> Science & Technology<br />

Irbid 221 10 Jordan<br />

Ever since the advent <strong>of</strong> the new era in presenting taught material in Electronic<br />

Form, International bodies, academic institutions, the public sectors, as well as<br />

specialized entities in the private sectors globally, have all persevered to exploit the<br />

power <strong>of</strong> Distance Learning, and e-Learning to disseminate the knowledge in Science and<br />

Art using the Ubiquitous World Wide Web and its supporting Internet and<br />

Internetworking.<br />

Many Science & Education-sponsoring bodies, like UNESCO, the European<br />

Community, the World Bank, and others, have all been keen at funding multinational<br />

Distance Learning projects, many <strong>of</strong> which were directed at an educated audience in<br />

certain technical areas. A great many countries around the Middle East have found a<br />

number <strong>of</strong> interested European partners to launch funding requests, and were generally<br />

successful in their solicitation efforts for the needed funds from these funding bodies.<br />

Albeit their intricacies in generating a wealth <strong>of</strong> knowledge in electronic form, many <strong>of</strong><br />

the e-Learning schemas developed thus far, have only pursued their goals in the most<br />

conventional <strong>of</strong> ways; In essence, there had been little innovation introduced to gain<br />

anything, if any, above traditional classroom lecturing, other than, <strong>of</strong> course, the gained<br />

advantage <strong>of</strong> the simultaneous online testing and evaluation <strong>of</strong> the learned material by the<br />

examinees.<br />

In a sincere effort to change the way, once and for all, in which people will now<br />

on look upon the merits <strong>of</strong> e-Learning, and seek the most out <strong>of</strong> it, we shall propose a<br />

novel approach aimed at optimizing the learning outcomes <strong>of</strong> presented materials. In this<br />

paper we propose what shall henceforth be called as Iterative e-Learning. In Iterative e-<br />

Learning, as the name implies, a student uses some form <strong>of</strong> electronic media to access<br />

course material in a specific subject. At the end <strong>of</strong> each phase (Section, Chapter, Session,<br />

etc.) on a specific topic, the student is assessed online <strong>of</strong> how much he/she would have<br />

achieved before he/she would move on to the next phase. If the student fails, due to some<br />

delinquency on a particular topic, the online process <strong>of</strong> e-Learning would take the student<br />

at some more detailed and deeper level on the subject matter where he/she had failed;<br />

once the student bridges the gap, to this end, then the ongoing e-Learning process would<br />

carry him/her further up the next level <strong>of</strong> the subject matter he/she is pursuing. This<br />

process is carried on at all levels <strong>of</strong> learning, the section level, the chapter level, and all<br />

the way up to the course level. A student may not progress to the next course level before<br />

he/she would pass the entire course at 80% or more. If in the process <strong>of</strong> repeating some<br />

section, chapter, or a whole course, then the student shall be required to score a higher<br />

percentage than the mere 80% he was required to attain the first time around; say 5%<br />

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more per iteration he/she makes. Here, students going thru Iterative e-Learning shall be<br />

allowed to move on to the next level <strong>of</strong> learning sooner than others if the time that takes<br />

them to learn a particular topic is shorter than would normally require an average student<br />

to expend, provided, <strong>of</strong> course, they make it thru all the required assessment phases.<br />

Unlike the traditional ways <strong>of</strong> classroom or online lecturing, a student going thru<br />

Iterative e-Learning is expected to achieve a quality <strong>of</strong> learning the taught material, never<br />

before achieve via standard pedagogical methodologies.<br />

With Iterative E-Learning, it is expected that poorly accredited academic<br />

institutions will be able, for the first time, to produce the quality <strong>of</strong> graduates who are<br />

more capable <strong>of</strong> competing for highly paying jobs globally, and to be <strong>of</strong> the quality <strong>of</strong><br />

contributing in more industry-supported economies.<br />

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A Comprehensive Proposal for <strong>University</strong> Industry Collaboration<br />

Maamar Bettayeb<br />

Electrical and Computer Engineering Department<br />

College <strong>of</strong> Engineering, <strong>University</strong> <strong>of</strong> <strong>Sharjah</strong><br />

P.O.Box 27272, <strong>Sharjah</strong>,<br />

email: maamar@sharjah.ac.ae<br />

In this paper, a comprehensive proposal for <strong>University</strong> – Industry collaboration is<br />

presented.<br />

The proposal is based on experiences <strong>of</strong> several universities and industries in the<br />

region and abroad. Its main ingredients take into consideration the short term and long<br />

term objectives <strong>of</strong> both parties, their needs and opportunities, as well as their<br />

commitment to the society. It involves stakeholders at all levels, undergraduate students,<br />

graduate students, faculty members, university administration, and industry technical and<br />

administrative members.<br />

The collaboration starts at the early stage <strong>of</strong> freshmen students and continues<br />

with graduated students and alumni. Extensive collaboration between faculty members<br />

<strong>of</strong> the university and technical members <strong>of</strong> the industry is emphasized. This is enhanced<br />

by the various research and technical activities that are jointly organized in the form <strong>of</strong><br />

workshops, forums, technical exchange meetings and summer stays.<br />

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Benchmarking King Fahd <strong>University</strong> Community Service<br />

With Leading Universities.<br />

S. O. Duffuaa and U. Al-Turki<br />

Department <strong>of</strong> Systems Engineering<br />

King Fahd <strong>University</strong> <strong>of</strong> Petroleum and Minerals<br />

Dhahran, 31261 Saudi Arabia<br />

The mission <strong>of</strong> a university encompasses three main functions. The functions are<br />

education, research and community service. Education deals with teaching and learning<br />

and its output are graduates in various disciplines. The education processes are well<br />

established within universities and there are clear measures for the quality <strong>of</strong> education in<br />

terms <strong>of</strong> quality <strong>of</strong> graduates and the skills the graduate acquire. Research deals with<br />

creation and dissemination <strong>of</strong> knowledge. The processes for supporting and measures for<br />

enhancing research are well defined. The third part <strong>of</strong> the university mission which is<br />

community service is a bit vague and seldom well defined processes exit to facilitate it. In<br />

addition measures for the quality <strong>of</strong> community services is not well established and in<br />

many occasions ignored.<br />

In this paper the experience <strong>of</strong> King Fahd <strong>University</strong> <strong>of</strong> Petroleum and Minerals<br />

(KFUPM) in community service will be reviewed. The review will focus on the current<br />

state <strong>of</strong> community service and how it is used to enhance teaching and research. The<br />

focus <strong>of</strong> the review process is to:<br />

• Obtain the definition <strong>of</strong> community service at KFUPM and the<br />

existing community service activities.<br />

• Identify the processes for delivering community service.<br />

• Examine how it is used to enhance teaching and learning.<br />

• Obtain how the quality <strong>of</strong> community services is measured.<br />

The state <strong>of</strong> the community service at KFUPM will benchmarked with three<br />

leading universities in the United States. The purpose <strong>of</strong> benchmarking is learning and<br />

improving community services. The selected universities for benchmarking are:<br />

<strong>University</strong> <strong>of</strong> Michigan at Ann Arbor, Purdue and Stanford. Three areas will be<br />

benchmarked:<br />

• Organization within the <strong>University</strong> for delivering community services.<br />

• Main activities <strong>of</strong> community service<br />

• Processes for delivering community services.<br />

• Use <strong>of</strong> community service to enhance teaching and research.<br />

• Main measures <strong>of</strong> performance for community services.<br />

The paper will conclude with identifying current weaknesses and strengths <strong>of</strong><br />

community services at KFUPM and drafting a set <strong>of</strong> recommendations for enhancing<br />

community services and using it to enhance teaching and research.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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A Comparison Study Between Local And Abroad<br />

Experiences In Knowledge Transfer Partnership.<br />

Dr. Amer D. Zmat<br />

College <strong>of</strong> engineering, <strong>University</strong> <strong>of</strong> Al-Qadisiya<br />

Diwaniya, Iraq<br />

Assessment <strong>of</strong> an experience for knowledge transfer partnership between some<br />

Iraqi universities and the industry sector was carried out. People movement was<br />

considered the main form <strong>of</strong> knowledge transfer. Encouraging the movement <strong>of</strong> people<br />

from science base into industry was emphasized.<br />

A comparison between two case studies experienced by the author has been<br />

presented. The first was witnessed abroad when he was doing postgraduate studies at the<br />

<strong>University</strong> <strong>of</strong> Manchester, while the second was practiced when he was leading a<br />

research group in the industry sector in Iraq. The comparison has revealed that a lack <strong>of</strong><br />

pr<strong>of</strong>essional panels comprising members <strong>of</strong> the academic and industrial community may<br />

be the main reason behind the failure <strong>of</strong> such trials in Iraq. The concluded lessons may<br />

contribute in emphasizing the necessity <strong>of</strong> a national organization or board that takes this<br />

important task and devising the proper schemes for execution. However, both<br />

experiences had provided an advantage to the science base from reciprocal access to<br />

industry facilities.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Quality Assurance Indicators In The Engineering<br />

Education In The Gaza Strip<br />

*Mohamed A. Awad & Dr Hatem Elaydi<br />

Pr<strong>of</strong>essor, Civil Engineering<br />

Vice President for Information Technology Affairs<br />

The Gaza Strip was living under Occupation with very unpleasant political<br />

circumstances and difficult security situation. The Faculty <strong>of</strong> Engineering was established<br />

in 1992 during the period <strong>of</strong> the first Palestinian uprising. One <strong>of</strong> the goals <strong>of</strong> the<br />

establishment <strong>of</strong> the Engineering Faculty was to overcome the problem <strong>of</strong> travel<br />

restrictions imposed on the Palestinian by the Israeli occupation and to help building<br />

national economy based on knowledge and technology. In spite <strong>of</strong> the continuous<br />

difficult economic and political situation, the Faculty <strong>of</strong> Engineering kept growing in<br />

numbers <strong>of</strong> students and faculty members. Growing interest was obvious in the Civil and<br />

Electrical and Computer Engineering fields. This is due to the fact that current<br />

engineering activities are focused mainly on building and road constructions and due to<br />

the interests <strong>of</strong> youth in computers and communication systems. However, civil and<br />

architectural engineers have better job opportunities than electrical and computer<br />

engineers; this is due to the active construction sector in the Palestinian economy.<br />

According to IUG administration, all faculties have to implement quality<br />

assurance (QA) programs, which are <strong>of</strong> particular importance in times <strong>of</strong> ongoing<br />

structural changes in IUG educational programs. Due to current developments in the<br />

engineering education, the application <strong>of</strong> quality assurance methods was very highly<br />

recommended. In 2003, the Faculty <strong>of</strong> Engineering established a Quality Assurance Unit<br />

to review and follow up with the Faculty programs, student progress and graduates<br />

affairs. This unit is to ensure the high quality <strong>of</strong> teaching and learning activities within<br />

the Faculty. QA indicators measuring the quality <strong>of</strong> total educational performance can<br />

reflect important outcome which can significantly contribute in advancing the faculty<br />

curricula. The Computer Engineering program was evaluated by the UNDP in<br />

cooperation with the UK Quality Assurance Agency (UK-QAA), while all other<br />

programs were evaluated locally in 2004. General aims <strong>of</strong> the program include data<br />

gathering, data analysis, action, and effectiveness evaluation. The main objective was to<br />

support quality assurance in engineering education at IUG and to establish a fundamental<br />

methodology for applying quality assurance in engineering education in the Gaza Strip by<br />

defining basic minimum data and indicator sets for quality assurance. The project target<br />

was to stimulate awareness and debate towards a quality assurance approach in<br />

engineering education and to initiate development activities to support the quality<br />

assurance methodology.<br />

Although, it would appear that there is no general platform upon which quality<br />

assurance functions could be implemented in Gaza Strip, a good methodology was<br />

developed by UK-QAA with the objective <strong>of</strong> presenting several sets <strong>of</strong> indicators for<br />

improving engineering education at IUG. Several indicators for measuring total Faculty<br />

performance were used in this study. The indicators were divided into two groups: those<br />

intended to identify the faculty facilities and those intended to screen for appropriateness<br />

<strong>of</strong> academic curricula and staff. Quality assurance indicators in the engineering education<br />

focus on both technical and cognitive processes that result in a written report. The written<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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report serves as a source <strong>of</strong> information for quality assurance studies. Most <strong>of</strong> the<br />

evaluated aspects, in which appropriateness indicators were present, actually have<br />

managed to meet published criteria sets. However, the survey also showed that a need<br />

exists for further development in some educational aspects in engineering education<br />

within the Faculty. Enhancement seems primarily oriented towards academic curricula<br />

and faculty technical facilities, whereas there is room for improvement in quality<br />

assurance parameters.<br />

The graduates <strong>of</strong> the Islamic university have some advantages when compared<br />

with others; the educational curricula meet the needs <strong>of</strong> the Palestinian building sector,<br />

especially in practical areas, in more appropriate way. The graduates are very good in<br />

using computers, and they have reputation <strong>of</strong> high moral and good disciplines. But there<br />

is some deficiency in the English language skills and handling scientific research<br />

approaches. This paper gives a detailed description <strong>of</strong> the engineering education in the<br />

Gaza Strip. It shows the results <strong>of</strong> the evaluation <strong>of</strong> the engineering programs at the IUG<br />

and fully analyzes the produced data. Finally, it gives few recommendations and<br />

highlights further required steps to be taken to face the challenges that were mentioned in<br />

the evaluation studies.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Job Perspective Of Engineers In Various Private & Public<br />

Sectors And Reforms In Engineering Education In Pakistan<br />

*A.R Ghumman, **F. Shabbir, ***Malik N.E.<br />

<strong>University</strong> <strong>of</strong> Engineering and Technology, Taxila, Pakistan<br />

*Dean CED, abdulrazzaq@uettaxila.edu.pk<br />

**Teaching/research associate CED, faisalshabbiruet@yahoo.com<br />

***Teaching/research associate CED, naeemejaz_uns@hotmail.com<br />

This paper gives useful insight <strong>of</strong> various reforms taken up to improve the<br />

standard <strong>of</strong> higher education in Pakistan. In the second part, it focuses on the need<br />

assessment <strong>of</strong> engineering students and job opportunities in various emerging disciplines<br />

<strong>of</strong> engineering in public and private sectors.<br />

Universities world over serve as local resource canters providing training and<br />

support along with trained manpower. The Higher Education Commission (HEC),<br />

Pakistan facilitates the development <strong>of</strong> the universities <strong>of</strong> Pakistan to be world-class<br />

centres <strong>of</strong> education, research and development. Higher education plays a central role in<br />

the development <strong>of</strong> both human beings and modern societies as it enhances social,<br />

cultural and economic development, active citizenship and ethical values.<br />

The HEC aims to assist in building <strong>of</strong> a modern, progressive and tolerant society.<br />

Its goal is to encourage institutions to continuous improvement in the existing strengths<br />

in teaching and research, and in promoting beneficial collaboration. It also helps to<br />

address the needs <strong>of</strong> students, employers and society across local, national and<br />

international communities and to work towards equal opportunity <strong>of</strong> access to high<br />

quality higher education.<br />

Various reforms <strong>of</strong> Higher Education Commission (HEC) has been looked in to<br />

which include faculty development, higher education infrastructure development, focus<br />

area support, industrial linkages, higher education sector reforms and their impacts on<br />

UET Taxila has been evaluated.<br />

In second section, the job opportunities in various public and private sectors have<br />

also been looked in to. An extensive survey was carried out to get the job opportunities in<br />

various engineering organizations and aptitude <strong>of</strong> various students to work in various<br />

engineering sectors. It was felt that the concept <strong>of</strong> cooperative education should be<br />

promoted at undergraduate and post graduate levels and placement bureaus should be<br />

established in each university so that the students may choose the appropriate<br />

organization after their education. Job requirements <strong>of</strong> various sectors and reforms in<br />

higher education showed that engineering sector is improving day by day in Pakistan.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Teaching Unified Engineering at Durham <strong>University</strong><br />

K. H. Bennett<br />

Pr<strong>of</strong>essor, Computer Engineering<br />

School <strong>of</strong> Engineering, South Road<br />

Durham <strong>University</strong>, Durham<br />

DH1 3LE UK<br />

Tel: +44 191 334 2505<br />

Email: keith.bennett@durham.ac.uk<br />

The <strong>University</strong> <strong>of</strong> <strong>Sharjah</strong> and Durham <strong>University</strong> have recently signed a<br />

Memorandum <strong>of</strong> Understanding for collaboration especially in the engineering, IT and<br />

business fields. This paper summaries the undergraduate and postgraduate teaching in<br />

Engineering as a context for future collaboration.<br />

The School <strong>of</strong> Engineering has three key features. Firstly it adopts a unified<br />

approach to teaching and research in Engineering; we do not have separate degrees for<br />

civil, mechanical, s<strong>of</strong>tware etc engineering. This was strongly motivated by the<br />

increasing need by industry for engineers with a broad education in Engineering. Thus<br />

students study all <strong>of</strong> the Engineering disciplines at the start <strong>of</strong> their course and then<br />

choosing a discipline in which to specialize in later years. This approach equips our<br />

graduates to tackle the range <strong>of</strong> challenges which they will encounter after leaving<br />

university and it enables them to lead the interdisciplinary teams required for modern<br />

Engineering projects. The syllabus thus includes topics such as s<strong>of</strong>tware engineering, and<br />

new and renewable energy, as well as manufacturing and management.<br />

Secondly, the main undergraduate course leads to the qualification <strong>of</strong> Master <strong>of</strong><br />

Engineering (M Eng), after four years study, rather than the usual three year B Eng.<br />

These four year degrees were set up in the UK at selected universities to educate the<br />

“high flying” engineers <strong>of</strong> the future – the leaders <strong>of</strong> the pr<strong>of</strong>ession. Thirdly, we are<br />

fortunate in admitting some <strong>of</strong> the brightest and most able students in the UK, and entry<br />

is highly competitive.<br />

The School is very anxious to ensure that its courses are meeting the needs <strong>of</strong><br />

industry and society; the principal mechanism is pr<strong>of</strong>essional accreditation by the key<br />

pr<strong>of</strong>essional bodies: the IEE, the I. Mech. E and the I.C.E. This poses some issues in a<br />

unified course which are explained in the paper.<br />

The School places a major stress on the importance <strong>of</strong> research, and the interplay<br />

between research and teaching. At the most recent RAE, the School was rated grade 5.<br />

We have a range <strong>of</strong> taught Masters courses, and a strong PhD program.<br />

We describe the range <strong>of</strong> undergraduate and postgraduate courses in the School,<br />

and then address how the Memorandum <strong>of</strong> Understanding can be implemented. The main<br />

mechanism that is proposed is through collaboration at the taught M Sc and research Ph<br />

D level. However, successful collaboration demands academic staff who understand the<br />

collaborating institution at a detailed level, so staff exchanges are seen as a key way to<br />

initiate a successful partnership.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Blurring the Academic boundaries at Universities:<br />

Producing Sustainable Competitive Advantage<br />

Tareq Y. Al-Naffouri<br />

Electrical Engineering Department<br />

King Fahd <strong>University</strong> <strong>of</strong> Petroleum and Minerals<br />

Dhahran, Saudi Arabia<br />

naffouri@kfupm.edu.sa<br />

http://faculty.kfupm.edu.sa/ee/naffouri<br />

One source <strong>of</strong> inefficiency in academia arises from the roles played by the<br />

undergraduates, graduates, and pr<strong>of</strong>essors; these roles are very rigid and the distinction<br />

between them is very clear. Thus, undergrads are mainly concerned with learning,<br />

graduate students with learning and satisfying their research requirements, and pr<strong>of</strong>essors<br />

with teaching and carrying out research. This model where each member (undergrad,<br />

grad, and pr<strong>of</strong>essor) assume distinct roles is quite rigid and does not lend itself to the<br />

growth <strong>of</strong> each member.<br />

In particular, the pr<strong>of</strong>essor finds himself torn between his responsibilities as he<br />

tries to satisfy his teaching load while doing quality research. At the same time, students<br />

don’t get to appreciate the effort that the pr<strong>of</strong>essor puts in teaching. They are less<br />

enthused about the material taught because they don’t have a say in designing it and so<br />

they are less committed to it. The grad student faces a similar situation. His concern is to<br />

carry out research to satisfy his degree requirement. He does not get to serve as research<br />

mentor for students and he does not get to go through the struggle <strong>of</strong> writing proposals<br />

and seek funding.<br />

This prevents each member (particularly the pr<strong>of</strong>essor) from leveraging the<br />

efforts <strong>of</strong> the other members. It also makes the transition from one role to the next<br />

(undergrad to grad and grad to pr<strong>of</strong>essor) very ambiguous and difficult, prolonging the<br />

associated learning curve. In fact, and since each member is ignorant <strong>of</strong> what takes place<br />

at the next stage, academia ends up loosing potential grad students and future pr<strong>of</strong>essors.<br />

This rigid situation goes against the egalitarian tendencies <strong>of</strong> today’s organizations;<br />

In this paper, I suggest blur the boundaries between the various members <strong>of</strong><br />

academia and create a flat structure at Universities. Thus, we adopt a s<strong>of</strong>ter model in<br />

which all members teach/learn/conduct research to varying degrees. Students and<br />

pr<strong>of</strong>essors assume the same tasks (except that they do it to a varying degree). Thus, they<br />

all learn, communicate, teach, conduct research, and lead teams. In the following, we<br />

briefly explain how this sharing <strong>of</strong> tasks is done for teaching and research. More details<br />

will be given in the full version <strong>of</strong> the paper.<br />

Teaching<br />

Usual role is that Pr<strong>of</strong>essor gets to teach all the material and students are passive learners<br />

When blurring the boundaries, students get to do part <strong>of</strong> the teaching. Some examples <strong>of</strong><br />

these activities include:<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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1. A group <strong>of</strong> students would prepare part <strong>of</strong> the lecture as a power point<br />

presentation (for example, a group <strong>of</strong> students would present part <strong>of</strong> the lecture<br />

each week)<br />

2. The students can be asked to grade each others homework.<br />

3. Students would transcribe the lectures delivered by the pr<strong>of</strong>essor (these notes<br />

would be useful to the students and to the pr<strong>of</strong>essor when he teaches the course<br />

in the future)<br />

4. Students would be responsible for carrying out some problem sessions and would<br />

be available to other students during <strong>of</strong>fice hours.<br />

This model has several advantages:<br />

1. Relieves the Pr<strong>of</strong>essor from teaching duties allowing instead to invest his time in<br />

other activities<br />

2. Gives the students opportunities for deeper interactive learning<br />

3. Gives the students more commitment to the courses as they feel more<br />

responsibility for its design and content<br />

4. Gives the students a taste <strong>of</strong> what teaching is like and thus they can decide for<br />

themselves if they want to pursue it.<br />

Research<br />

Just like teaching, the pr<strong>of</strong>essor is usually fully responsible for his research, conducting<br />

literature review, writing code, performing simulation, writing papers, and preparing<br />

presentations.<br />

Students in their fourth and fifth year can take part in conducting research:<br />

1. As part <strong>of</strong> their senior projects, they can conduct literature surveys<br />

2. They could write part <strong>of</strong> the code required<br />

3. They can prepare presentations that aid the pr<strong>of</strong>essor in his own presentations<br />

4. Higher level students could take more responsibility or even supervise other<br />

students<br />

This model has several advantages:<br />

1. It relieves the pr<strong>of</strong>essor from some activities allowing him to invest his time<br />

somewhere else<br />

2. Gives students a taste <strong>of</strong> what research is like to help them determine if they want<br />

to pursue it.<br />

3. Prepares the students to the next stage <strong>of</strong> a possible academic career allowing<br />

them to hit the ground running.<br />

In the full version <strong>of</strong> the paper, I elaborate further on how to effectively blur the<br />

boundaries between various members <strong>of</strong> academia and how this helps the members,<br />

particularly pr<strong>of</strong>essors, further their careers. I use examples <strong>of</strong> strategies employed in<br />

esteemed US schools, which I came across during my study there. I also touch upon the<br />

difficulties involved in introducing this new model and how to overcome them.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Designing the Depth and Breadth <strong>of</strong> the Electrical<br />

Engineering Curriculum: A United Arab Emirates Perspective<br />

Habib-ur-Rehman and Qurban A Memon<br />

EE department, College <strong>of</strong> Engineering, UAE <strong>University</strong>, UAE<br />

hrehman@uaeu.ac.ae; qurban.memon@uaeu.ac.ae<br />

Electrical engineering curricula started in the mid eighties in UAE have gone<br />

through an evolutionary process, and is now approaching to a maturity level. There are<br />

around ten universities at present <strong>of</strong>fering a bachelor’s degree in the field <strong>of</strong> electrical<br />

engineering with various specializations. Currently, there has been no integrated<br />

approach in this curriculum development among these institutions. All the respective<br />

departments have tailored their programs based on the expertise available and the<br />

understanding <strong>of</strong> market needs by the respective department. This has resulted in <strong>of</strong>fering<br />

some times a general program in electrical engineering or in some cases a specialized<br />

program in certain areas like communications, computer, or power engineering. Another<br />

aspect <strong>of</strong> these programs is that some are intensive in delivering the hands on experience<br />

while others are more focused on developing the strong theoretical background. The<br />

programs designed in such a way also affect the instruction level delivery in the areas <strong>of</strong><br />

basic sciences such as Mathematics, Physics and Chemistry. As a result, as programs<br />

vary from institution to institution, and at the same time universities continuously revise<br />

their curriculum and program objectives, the flexibility and reliability to accommodate<br />

such changes in an integrated way has been deemed necessary for such a system to<br />

evolve and address academic and local industrial needs in a unified way.<br />

This work will focus on a comparative study <strong>of</strong> electrical engineering programs<br />

<strong>of</strong>fered in various universities <strong>of</strong> UAE. The general and some focused programs will be<br />

analyzed with respect to their breadth and depth. Also the delivery <strong>of</strong> the design<br />

experience and hands on skills will be assessed. Finally, recommendations to address the<br />

local industrial needs and the challenges and demands for higher studies will be<br />

discussed.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Restructuring The Undergraduate Engineering Education<br />

In The Arab World<br />

Muhammad Taher Abuelma’atti<br />

King Fahd <strong>University</strong> <strong>of</strong> Petroleum and Minerals<br />

Box 203 Dhahran 31261 Saudi Arabia<br />

mtaher@kfupm.edu.sa<br />

For years, industry has complained that new engineering graduates fall short on<br />

the practical engineering skills that would make them more productive in the real world.<br />

For example, major companies have to spend more than one year in retraining new<br />

engineering graduates at very high costs. On the other hand, in today’s world, if you have<br />

a customer with a problem, he does not really care if it is a physics, engineering, or<br />

s<strong>of</strong>tware problem. He just wants it to be fixed. To measure up, engineering graduates<br />

must have at least a working knowledge <strong>of</strong> other technologies. They need to know when<br />

the solution to a problem can be found within a specific technology and when they must<br />

seek help from another area. Engineering graduates are needed in many pr<strong>of</strong>essional<br />

areas like marketing, manufacturing, development, and research.<br />

The task <strong>of</strong> an engineering educational system in the Arab World is, therefore,<br />

complicated. On the one hand, it must prepare graduates with sufficient knowledge in<br />

basic science and technology, as well as an adequate degree <strong>of</strong> specialization to handle<br />

current technological problems; on the other hand, it must produce open-minded people<br />

who can adapt easily to a wide spectrum <strong>of</strong> jobs available in relatively small markets, and<br />

who can respond and progress quickly to new issues faced by society. Meanwhile, they<br />

have to be productive, innovative, concerned individuals, capable <strong>of</strong> bridging science<br />

with humanistic well-being. The system must also produce graduates who can define and<br />

analyze problems and/or systems, and present solutions in accordance with the logic <strong>of</strong><br />

the technology and the socio-economic environment in which they live. The outputs from<br />

our programs go into a diverse filed <strong>of</strong> job-situations. For example, if we consider the list<br />

<strong>of</strong> IEEE societies, it is noted that there are around 40 active societies and at least 30<br />

different work descriptions given with at least 20 different principle job functions.<br />

Restructuring the engineering education in the Arab World is, therefore, vital for<br />

the prosperity <strong>of</strong> Arab countries. This paper is an attempt to present guidelines for such<br />

process. In the paper different approaches, including, enhancement <strong>of</strong> engineering<br />

programs, introducing bachelor <strong>of</strong> science and master <strong>of</strong> engineering programs, adoption<br />

<strong>of</strong> more flexible and specialized curricula, the introduction <strong>of</strong> industrial experience, the<br />

introduction <strong>of</strong> engineering technology programs and the strengthening <strong>of</strong> universityindustry-government<br />

relationships are discussed. While all these approaches, for<br />

restructuring engineering education, are applicable, it is believed that a combination that<br />

fits the needs <strong>of</strong> an individual country may be adopted as the need arise.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Developing Transfer Engineering Diploma Programs for<br />

Community College Students: KAAU Experience<br />

Abdulmalik A. Aljinaidi, Ameen Y. Noaman and Atiq A. Alghamdi<br />

Jeddah Community College, King Abdulaziz <strong>University</strong>,<br />

P O Box 80283, Jeddah 21589<br />

Saudi Arabia<br />

Fax 966-2-287-0024<br />

aljinaidi@yahoo.com<br />

This paper presents handful transfer engineering diploma programs for<br />

community college students. These programs are tailored to industry requirement while<br />

giving the chance for excellent students to transfer to engineering colleges to get a<br />

bachelor <strong>of</strong> science degree. The transfer is made to any local engineering college with<br />

minimum loss in the transfer credits.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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نحو تطوير و تأصيل مناهج التعليم الهندسي<br />

لخدمة الاحتياجات اجملتمعية في الوطن العربي<br />

محمد الأمين أبو جوخ<br />

كلية الهندسة ‏-جامعة الخرطوم – قسم الهندسة الكيميائية<br />

ص<br />

هاتف<br />

. ب 321 الخرطوم<br />

0185 – 307018 :<br />

e-mail: alamhaj83@yahoo.com<br />

لا يخفى الدور المتعاظم للجامعات في مجتمعاهتا ، فهي مصدر القدرات التنموية<br />

آليات التغيير في اجملتمع<br />

:<br />

.<br />

علميا ً وعمليا ً ، وهي<br />

وكليات الهندسة في الوطن العربي معنية بذلك ، ومن الأهداف الأساسية التي<br />

تلتزم هبا تلك الكليات خدمة اجملتمع والتفاعل الديناميكي مع احتياجاته وقضاياه<br />

.<br />

وتركز الدراسة الحالية<br />

على تطوير وتأصيل مناهج التعليم الهندسي في الوطن العربي بما يحقق خدمة الاحتياجات اجملتمعية المتجددة،‏<br />

وذلك عبر سبعة محاور رئيسية ، تمثلت في الآتي<br />

-:<br />

محور التطوير الأكاديمي<br />

.<br />

محور التنمية الاقتصادية من خلال مناهج التعليم والأبحاث العلمية<br />

.<br />

محور الجودة الشاملة ، وتطبيق مناهجها بما يؤمن خدمة فاعلة للمجتمع<br />

محور توطين المعرفة من خلال التعريب<br />

.<br />

.<br />

محور التفاعل الآني والديناميكي مع هموم اجملتمع وقضاياه<br />

محور التكامل الإقليمي ثم العالمي<br />

محور التأصيل<br />

.<br />

.<br />

.<br />

(1<br />

(2<br />

(3<br />

(4<br />

(5<br />

(6<br />

(7<br />

...<br />

وخلصت الدراسة إلى أن الواقع الهندسي في الوطن العربي قد شابه القصور ، وأن تأثير مناهج التعليم في<br />

تقدم اجملتمع ظل محدودا ً ، كما أن مناهج التعليم عامة لم تكن وثيقة الصلة بحاجات اجملتمع بما فيه الكفاية<br />

فمشكلة التعليم الهندسي تتمحور حول تطوير المفاهيم ، والانتقال من المفهوم الكلاسيكي التقليدي<br />

للتعليم إلى مفهوم حر للتعليم يواكب التقدم العلمي الهائل المتمثل في تكنولوجيا المعلومات ، والانفجارات<br />

المعرفية ، والثورة التكنولوجية ، إلى جانب مشاريع العولمة ، مع الاستجابة الفاعلة لاحتياجات اجملتمع<br />

.<br />

فلا بد إذن من تطوير المفاهيم ، والمعالجة الشاملة عبر المحاور السبعة التي تطرق إليها البحث الحالي جميعها ،<br />

هذا إذا عزمنا على ردم الفجوة ، وتحقيق الطفرة<br />

:<br />

إلى مصاف الدول الناهضة واللحاق بركب الدول المتقدمة<br />

.<br />

العلمية والتكنولوجية والاقتصادية المنشودة ، والانتقال<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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تكامل التعليم والبحث مع خدمة اجملتمع في التعليم الهندسي<br />

فوائده ، آليته ومعوقاته<br />

محمد رحومة الحسناوي<br />

كلية العلوم الهندسية والتقنية<br />

ص<br />

/ جامعة سبها /<br />

. ب 68 براك /<br />

ليبيا<br />

e-mail: mre5353@yahoo.com<br />

ليبيا<br />

تواجه اجملتمعات في هذا القرن تحديات كبيرة ، مثل اعتماد الاقتصاد إلى حد كبير على المعرفة ،<br />

والتطور الكبير في التقنية وانتشار تقنية المعلومات والاتصالات ، والنمو السكاني والتلوث<br />

هذه البيئي .<br />

العوامل وغيرها لها الأثر البالغ في التغير الجوهري الذي يطرأ على العالم اليوم ، والتي تتطلب تبنى طرق<br />

وأساليب جديدة في المسائل الاقتصادية والبيئية والاجتماعية ليتمكن أي مجتمع من مجاراة ما يحدث في العالم<br />

ويتمكن من يناء مستقبل زاهر ومستقر.‏<br />

مما لا شك فيه أن اجملتمعات تنظر إلى الجامعات وبالذات كليات الهندسة نظرا ً لما تملكه من إمكانيات<br />

مادية وبشرية مؤهلة وذات خبرة عالية لتساعدها على مواجهة تحديات القرن الواحد والعشرين وبناء<br />

اقتصاد المعرفة الذي يتمشى مع عصر العولمة والأخذ بأسباب العلم والمعرفة والتقنية الحديثة وتستغل<br />

التقدم في تقنية المعلومات والاتصالات لمصلحتها وتحافظ على بيئة خالية من التلوث والأمراض.‏<br />

لكى تستطيع الجامعات عامة وكليات الهندسة بصفة خاصة القيام بدورها بالصورة الصحيحة ،<br />

وبالذات في هذا العصر الذي صار فيه الدعم المادي للجامعات من قبل الحكومات يتقلص،‏ والذي صار<br />

فيه وقت ومجهود الأستاذ الجامعي مشتت بين التدريس في القاعات والقيام بالبحوث ومتابعة التطور<br />

السريع الذي يحدث في عالم التقنية ، والتي من نتائجها انخفاض المستوى التعليمي للطلاب وانعزال الجامعة<br />

عن اجملتمع ومشاكله حيث لا دراية للطلاب بما يتطلبه اجملتمع من خدمات وانعزال الأساتذة ببحوثهم في<br />

أبراجهم العاجية وفي كثير من الأحيان حتى هذه البحوث لا نراعي احتياجات اجملتمع.‏ نظرا ً لهذه العوامل<br />

ولربط ما يدرس في القاعات الدراسية بالبحث وربط ذلك باحتياجات اجملتمع،‏ على الجامعات أن تعمل<br />

بآلية تمكنها من رفع المستوى العلمي لطلاهبا ويكونوا قادرين على خدمة مجتمعاهتم حال تخرجهم وخلال<br />

دراستهم وتكون لهم القدرة على ربط النظريات بالواقع<br />

.<br />

هذه الآلية هي التكامل بين التعليم في القاعات<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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الدراسية والبحث العلمي وخدمة اجملتمع<br />

.<br />

هذا التكامل سيمكن الجامعة من الوفاء بالتزاماهتا تجاه اجملتمع<br />

وتحقيق الأهداف التي نشأت من أجلها ألا وهي التعليم والبحث العلمي وخدمة اجملتمع<br />

.<br />

التكامل بين التعليم والبحث وخدمة اجملتمع توفر للطالب الأرض الخصبة لاختبار النظريات التي<br />

يتعلمها في القاعات الدراسية بالواقع العملي وربطها من خلال البحث باحتياجات اجملتمع وتكوين شراكة<br />

حقيقية بين الطالب والأستاذ واجملتمع لمصلحة كل الأطراف<br />

.<br />

في هذه الورقة سيسلط الضوء على أهمية التكامل بين العملية التعليمية والبحث مع خدمة اجملتمع وكيفية<br />

أن تكامل هذه النشاطات يعزز تقدم المعرفة وزيادة القدرة الاستيعابية للطالب وربط بحوث الأساتذة<br />

باحتياجات اجملتمع من خلال شراكة الطلاب في ذلك ، وما يترتب على ذلك من فوائد للطالب والأستاذ<br />

. واجملتمع<br />

هذه الورقة أيضا ً توضح الآلية التي يتم هبا هذا التكامل وكيفية تطبيقها<br />

.<br />

كنتيجة لتطبيق هذا التكامل بين<br />

الأنشطة المذكورة ستظهر بعض المعوقات والتي سيكون تأثيرها يختلف باختلاف حجم وإمكانيات الجامعة<br />

والبيئة المتواجدة هبا الجامعة<br />

.<br />

محاولة سرد هذه المعوقات وتأثيرها على عملية التكامل بين التعليم في<br />

القاعات الدراسية والبحث وخدمة اجملتمع ستكون جزء من هذه الورقة أيض ًا<br />

.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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تجربة وزارة النفط العراقية بآلية التعاون مع الجامعات والمعاهد الفنية<br />

حكمت سعيد السالم<br />

فائق الدباس<br />

تعتبر الصناعة النفطية من الصناعات المعقدة وهي في تطور دائم لتماشي السوق العالمية،‏ وهدفنا كان أن<br />

نواكب هذا التطور ، وبالرغم من أن الحصار المفروض على العراق حجب كل وسائل التطور عنا<br />

.<br />

-<br />

-<br />

إلا أن<br />

إبداعات الإنسان العراقي جعلته يستنبط طرق جديدة لإيجاد بدائل محلية بدلا عن المواد المستوردة ، وكان<br />

ذلك واضحا في إعمار ما دمرته الحروب في قطرنا العزيز وديمومة الإنتاج حيث كان لآلية التعاون مع<br />

الجامعات دورا كبيرا في التخطيط للاستفادة من الخبرات الجامعية ومكاتب الاستشارات الهندسية والعلوم<br />

الصرفة ، في كافة مراحل الصناعة النفطية بدءا من الاستكشاف والحفر والإنتاج والمعالجة الحقلية والضخ<br />

وتكرير النفط الخام ومعالجة المنتجات في المصافي وتوزيع هذه المنتجات لحين وصولها إلى المستهلك أو إعدادها<br />

للتصدير وتحميلها على السفن.‏<br />

إن الاهتمام بموضوع زج الطاقات العلمية والإبداعية التي تحتضنها الجامعات العراقية في مجال العمليات<br />

الإنتاجية للقطاع الصناعي يعود إلى سنوات سابقة وبالتحديد إلى ما بعد حرب الخليج ، وكما هو معروف أن<br />

العدوان أدى إلى تعطيل الكثير من الأنشطة والى التخريب الذي طال جميع مرافق الحياة الاقتصادية والاجتماعية ،<br />

وفي إطار حملة ‏"الأعمار والهجوم المعاكس"‏ ظهرت الحاجة إلى الاستفادة من الطاقات العلمية في جامعات القطر<br />

‏(أثناء الدوام والعطلة الصيفية)‏ وتفعيل دورهم في حل المشاكل التي تعترض الصناعة النفطية وهذا ما تم فعلا<br />

وكانت وزارتنا السباقة في هذا اجملال ، وبوسائل عديدة منها:‏<br />

إبرام عقود فردية لتنفيذ عمل معين أو حل مشكلة مشخصة<br />

.<br />

إبرام عقود مع المكاتب الاستشارية في الجامعات لتقديم المشورة العلمية والهندسية في تحوير أو تصميم<br />

منظومة.‏<br />

شجعت هذه الأجواء استقطاب الأساتذة لزيارة المؤسسات والشركات النفطية للبحث عن مشاريع أو بحوث<br />

للدراسات العليا التي بدأت تعاني من شحها الجامعات بسبب حجب تصدير الدوريات العلمية والكتب والأجهزة<br />

والمواد الكيميائية وقطع الغيار للأجهزة المتوفرة لديهم إلى العراق<br />

.<br />

لذا استوجب إيجاد بحوث تتماشى مع ما تبقى<br />

من أجهزة عاملة لدى الجامعات وفي نفس الوقت تعالج مشكلة قائمة ، وخير خبير لتقييم الحالة وتحديد المطلوب<br />

هو الأستاذ الجامعي<br />

.<br />

من هنا يتضح أهمية هذه الزيارات.‏<br />

وهناك عقود للدراسات العليا<br />

)<br />

ماجستير أو دكتوراه<br />

(<br />

.<br />

تتبناها الوزارة والشركات النفطية وتدعمها<br />

ماديا ، ودون وضع أية قيود على الطرف الثاني بالمقابل ، تنفذ تحت إشراف أساتذة الجامعات وغالبا ما يزج أحد<br />

الكوادر النفطية المتقدمة كمشرف ميداني معهم<br />

الشركات أو الدوائر النفطية.‏<br />

تعتمد هذه العقود للدراسات أحد المشاكل التي تتقدم هبا<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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الجودة والاعتماد في التعليم الهندسي<br />

عبد الحكيم بنود<br />

عميد كلية الهندسة التقنية في جامعة حلب<br />

لقد انقضت الفترة التي كانت تتحقق فيها التنمية الاقتصادية بالقدر اليسير من المعرفة العلمية<br />

والقدرة الفنية للأفراد،‏ وأصبح الوصول إلى نفس المستوى من معدل النمو الذي تحقق سابقا ً بقدر يسير<br />

من التعليم العام يتطلب حاليا ً توفير قاعدة عريضة من المعرفة العلمية والتكنولوجية.‏<br />

ولقد أصبحت مشاركة اجملتمع مع الدولة في توفير فرص التعليم العالي عامة ً والهندسي خاصة ً<br />

أمر ًا ضروريا ً في هذا العصر الذي ارتفعت فيه تكلفة التعليم الهندسي نتيجة للطبيعة التكنولوجية والمهنية<br />

للتعليم الهندسي.‏<br />

ونتيجة لدخول القطاع الخاص وافتتاح كليات هندسية في جامعات خاصة أصبح من الضروري<br />

الاهتمام بالجودة والاعتماد في التعليم الهندسي.‏<br />

سنعرض في ورقة العمل هذه دواعي الاهتمام بجودة التعليم الهندسي في الدول العربية،‏ ونبين<br />

المفاهيم الرئيسية المتعلقة بالجودة والاعتماد ومنها ضمان الجودة<br />

quality assurance<br />

وضبط الجودة<br />

quality control وإدارة الجودة الشاملة.‏ وسنعرض بعض نظم الاعتماد للبرامج الهندسية في الدول<br />

المتقدمة صناعي ًا.‏<br />

ونصل في هناية الورقة لاقتراح إطار عام لتطوير التعليم الهندسي في الدول العربية.‏<br />

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القطر بحاجة وعلاقتها الهندسي التعليم أنماط<br />

مساعد / أستاذ<br />

مظفر أنور النعمة<br />

الهندسة / كلية<br />

جامعة الموصل<br />

e-mail: mudhafaralnema@yahoo.com<br />

إن هدف الهندسة هو جعل الحياة أسهل وهي علم وفن واقتصاد ويتجلى فيها استخدام العقل<br />

والتفكير المنطقي وفي كافة الأنشطة الصناعية والزراعية والفنون وغيرها.‏ من المهم هتيئة الطلبة قبل بدء<br />

الدراسة في الكليات والتركيز على مادتي الرياضيات والعلوم إضافة إلى اللغة الإنكليزية وان المرحلة<br />

الجامعية هي مقدمة للمهندس لاكتساب مزيد من المعرفة والخبرة العملية وأن التعليم الهندسي لا يقتصر<br />

على هذه المرحلة بل تستمر مع الخريج طول حياته الهندسية.‏<br />

إن جوهر التعليم الهندسي هو الطالب فلابد من توفير كافة السبل الكفيلة بتنمية قدراته ومواهبه<br />

وإبداعاته من مختبرات ومراجع ووسائل معرفية إضافة إلى الأساتذة الأكفاء.‏<br />

لا يخفى على أحد بأن مسؤوليات المهندس تضاعفت في الوقت الحاضر بسبب زيادة الكثافة<br />

السكانية ونقص الموارد والتقدم التكنولوجي السريع في كافة مجالات الحياة.‏<br />

لقد تبين من البحث بأن هناك أنماط عدة للتعليم الهندسي ولابد من إعادة النظر في نمط الدراسة<br />

السنوية المتبع في قطرنا وتحسينه وتطويره والتقيد بنسب الأساتذة إلى الطلاب القياسية وزيادة فرص<br />

المناقشة وأن لا يقتصر تقييم أداء الطلاب على الامتحانات التقليدية.‏ علم ًا بأن التدريس الجيد وتربية<br />

الطلاب على حب الحقيقة واحترامها وتزويد الطالب بالمعرفة والمهارة وقوة الشخصية وممارسة مهنة<br />

الهندسة بجدارة وثقة عاليتين.‏<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Integrating Teaching With Community Service:<br />

The Design Project Case<br />

*El-Amin El-Kanzi, Bassam *Al-Hamad, **Shuzo Matsumura<br />

and *Nader Al-Bastaki (Correspondence author)<br />

*Department <strong>of</strong> Chemical Engineering, College <strong>of</strong> Engineering, <strong>University</strong> <strong>of</strong> Bahrain,<br />

P.O. Box 32038, Kingdom <strong>of</strong> Bahrain<br />

** Kuwait Finance House, Manama, Bahrain<br />

The objective <strong>of</strong> teaching Plant Design course at the Department <strong>of</strong> Chemical<br />

Engineering, <strong>University</strong> <strong>of</strong> Bahrain, is to investigate both qualitatively and quantitatively<br />

various aspects <strong>of</strong> the development, design, technical and economic evaluation <strong>of</strong> a<br />

complete process for a particular chemical engineering industry; preferably <strong>of</strong> local<br />

nature. During the past few years, the Department has undertaken, under Plant Design<br />

course, such activity in collaboration with local industries, namely; BAPCO(Bahrain<br />

Petroleum Company) refinery and GPIC(Gulf Petrochemical Industries Company). The<br />

Department <strong>of</strong> Chemical Engineering usually formulates the problem <strong>of</strong> interest to<br />

industry, provides supervision and necessary facilities for the execution <strong>of</strong> the project.<br />

The industry provides an adjunct engineer to act as co-supervisor, provides necessary<br />

data and takes part in the evaluation <strong>of</strong> the completed design work.<br />

This paper highlights the case study <strong>of</strong> the Naphtha-to-Benzene Project<br />

Development, Bahrain. The project development team consists <strong>of</strong> Kuwait Finance House,<br />

Bahrain, Economic Development Board, Bahrain, Bahrain National Gas<br />

Company(BANAGAS) and the Department <strong>of</strong> Chemical Engineering, <strong>University</strong> <strong>of</strong><br />

Bahrain. The role <strong>of</strong> the Department is to provide, through the work <strong>of</strong> the students <strong>of</strong> the<br />

Design Project course, a process development and alternatives, supplemental process<br />

material and energy balance calculations based on s<strong>of</strong>tware simulation, a preliminary<br />

economic evaluation to establish economic sense to pursue further activities towards the<br />

realization <strong>of</strong> the proposed project and finally to build a physical model <strong>of</strong> the plant. The<br />

contribution <strong>of</strong> the students and faculty in the project provides them with real-life<br />

experiences in the development <strong>of</strong> chemical engineering plant design and exposes them<br />

to the industry would have a closer look into the students’ capabilities as potential<br />

employees.<br />

The paper gives details <strong>of</strong> the project, the results obtained and the evaluation <strong>of</strong><br />

these results by the project adjunct consultant and the project development team. The<br />

students, feedback evaluation was also given.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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في كلية الهندسة و البترول – جامعة الكويت<br />

Applying the Value Management Concepts in Graduation<br />

Projects <strong>of</strong> Undergraduate Students at College <strong>of</strong><br />

Engineering and Petroleum at Kuwait <strong>University</strong><br />

Fawaz S. Al-Anzi<br />

College <strong>of</strong> Engineering and Petroleum<br />

Kuwait <strong>University</strong>, P.O. Box 5969, Safat, Kuwait, Fax: +965 481 7451<br />

e-mail: : alanzif@eng.kuniv.edu.kw<br />

تعتبر الإدارة القيمية من الأدوات المفيدة للمهندسين بمختلف تخصصاهتم الهندسية لذا كان من<br />

المهم أن يكون المهندس ملم بمبادئ الإدارة القيمية عند انخراطه بسوق العمل ، ومن هذا المنطلق و من<br />

بادرة تعزيز و توطين مبادئ الإدارة والهندسة القيمية بالكويت فقد قمنا بإدخال نماذج لاستخدام و تطبيق<br />

الإدارة القيمية بمراحلها السبعة في مشاريع التخرج لطلبة البكالوريوس بكلية الهندسة والبترول بجامعة<br />

الكويت حيث نستعرض في هذه الورقة العلمية بعض الأمثلة التي يستخدمها الطلبة في تطبيق مبادئ<br />

الإدارة القيمية كأداة لرفع القيمة و ضبط الجودة في عملية اتخاذ القرار الفني و الإداري مثل اختيار<br />

البدائل في المشاريع و تشكيل الفريق الفني.‏<br />

Value Management is considered one <strong>of</strong> most useful tools for engineers <strong>of</strong> all<br />

disciplines. Therefore, it was empirical to equip fresh graduating engineers with concepts<br />

<strong>of</strong> value management to be able to employ these concepts upon recruitment in the<br />

engineering market place. Because <strong>of</strong> that and to reinforced the expertise <strong>of</strong> value<br />

management and engineering in Kuwait, we have embedded value management concepts<br />

in the course <strong>of</strong> gradation projects <strong>of</strong> senior student at College <strong>of</strong> Engineering and<br />

Petroleum at Kuwait <strong>University</strong>. In this paper, we discuss our findings on how the<br />

students made use <strong>of</strong> the value management concepts in resolving issues and elevating<br />

quality <strong>of</strong> technical decision making, e.g., team formation and alternative selections.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Student Graduation Projects and Field Training in Serving<br />

the Community<br />

Amir J. Majid; Associate Pr<strong>of</strong><br />

Ajman <strong>University</strong> <strong>of</strong> Science & Technology, Abu-Dhabi<br />

Abac.majid.a@ajman.ac.ae<br />

The majority <strong>of</strong> student graduation projects are based on theoretical ideas which<br />

have no link to local industries and usually are ended at university laboratories and<br />

libraries without implementation. Most <strong>of</strong> student field training, on the other hand, are<br />

planned and conducted without coordination with site industries. This will not help in<br />

developing business industries or assisting graduates to get appropriate jobs. Therefore,<br />

there is a need to <strong>of</strong>fer fully or partially sponsored industrial projects to students and to<br />

maintain links with such industries throughout. In a similar way, universities must<br />

sponsor field training, which are planned concisely with the site resources and needs. The<br />

goals <strong>of</strong> using these 2 methods are to:<br />

1. Serve community market.<br />

2. Familiar with up to date technology.<br />

3. Help students getting jobs.<br />

4. Maintain society contacts.<br />

This paper outlines AUST experience in this field and points out to the major<br />

steps in achieving these goals.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Integration Of Field Trips Into Selected Electrical<br />

Engineering Courses<br />

Kifah Al-ansari and Anas N. Ali<br />

Ajman university <strong>of</strong> Science and technology Network<br />

Faculty <strong>of</strong> Engineering<br />

Tel. +971-6- 7466666, Fax +971-6-7468888, P.O.Box 346 Amana-UAE<br />

E-mails: anac.kifah@ajman.ac.ae<br />

Anac.anas.n@ajman.ac.ae<br />

It is obvious that field trips are important in engineering education. Having said<br />

that, people working in this field are quite few. Previous studies have shown the positive<br />

impact <strong>of</strong> field trips on the teaching and learning process in engineering courses [1].<br />

This study proposes a procedure for integrating field trips in selected electrical<br />

engineering courses in the Faculty <strong>of</strong> Engineering in AUST Network. The procedure is<br />

summarized as follows:<br />

• Selection <strong>of</strong> appropriate trip sites based on feedback from course instructors.<br />

• Student preparation and orientation prior to field trips in the form <strong>of</strong> lectures.<br />

• Trip documentation in the form <strong>of</strong> site brochures, video clips, and still<br />

photographs.<br />

• Student feedback on field trips through a questionnaire.<br />

• Student assessment via report submission and oral presentation.<br />

• Inclusion <strong>of</strong> field trips in course syllabus.<br />

In this paper, procedure details will be explained, and a case study results will be<br />

presented, where the procedure has been applied. Initial results clearly indicate the impact<br />

<strong>of</strong> such trips. However, this procedure can be further developed through more case<br />

studies.<br />

References:<br />

[1] Hubert Chanson, “The Importance <strong>of</strong> Field Works in the Undergraduate Teaching<br />

<strong>of</strong> hydraulic Engineering”, Proc. XXX IAHR Congress, Thessaloniki, Greece<br />

2003, Vol. E.<br />

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Developing Capstone Project as a Platform Integrating Teaching,<br />

Research and community Service<br />

Fahar Hayati<br />

Dean, Faculty <strong>of</strong> Engineering<br />

Ajman <strong>University</strong> <strong>of</strong> science & Technology Network<br />

Ajac.hayati@ajman.ac.ae<br />

Engineering graduation project is one <strong>of</strong> the key courses whose outcome should<br />

reflect most <strong>of</strong> the a-k skills defined by ABET, EC2000 Criterion. In addition to it<br />

being an effective learning tool, graduation project can be designed as a platform for<br />

enhancing faculty research and for reaching out to community. The success <strong>of</strong> the<br />

project in integrating teaching with research and community service depends on how<br />

well the course is designed and executed. The paper discusses the design criteria and the<br />

role <strong>of</strong> all parties involved in course. Emphasis is given to the role <strong>of</strong> the faculty. It<br />

suggested that the project course be used not only as a tool for assessing students, but<br />

also a measure for assessing the performance <strong>of</strong> the faculty.<br />

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Standby: Integrating Teaching, Research And Community<br />

Service – Case Studies From <strong>Sharjah</strong><br />

A. Shanableh<br />

Department <strong>of</strong> Civil Engineering<br />

P.O.Box 27272, <strong>Sharjah</strong>, United Arab Emirates<br />

shanableh@sharjah.ac.ae<br />

Teaching, research, and service (TR&S) are the main functions <strong>of</strong> universities.<br />

Integration <strong>of</strong> TR&S functions into multi-purpose activities can, in many situations,<br />

improve outcomes through providing clear and direct links between TR&S activities and<br />

their purpose, relevance, and significance. The integration <strong>of</strong> TR&S can also save time,<br />

resources, and efforts and help faculty members intensify focus on fewer activities thus<br />

maximizing benefits without compromising quality.<br />

In this article, case studies <strong>of</strong> successful integration <strong>of</strong> TR&S activities are presented and<br />

discussed. The case studies are the following: (1) two community service projects<br />

involving solving major local environmental problems. The two projects include the<br />

waste disposal system in <strong>Sharjah</strong> City and marine water quality and circulation in two<br />

coastal lagoons in <strong>Sharjah</strong> City; (2) risk assessment for the city <strong>of</strong> <strong>Sharjah</strong>; including<br />

transportation routes assessment, pollution potential <strong>of</strong> water distribution systems, and<br />

risk due to earthquakes; and (3) development <strong>of</strong> a program for Undergraduate Research.<br />

The work on those projects was conducted by teams, involving students when<br />

appropriate, and in partnership with pr<strong>of</strong>essionals from government, business and<br />

industry. The outcomes were clear and significant; including: significant benefits <strong>of</strong>fered<br />

to the community; contributions to university reputation and development; development<br />

<strong>of</strong> teaching and learning; improved learning outcome; awards for students involved;<br />

research funding and publications; and service to the pr<strong>of</strong>ession. The teaching and<br />

learning benefits included: (1) development and accumulation <strong>of</strong> resources and<br />

references; (2) development <strong>of</strong> project-based teaching and learning activities; (3)<br />

development <strong>of</strong> lecture material and handouts; (4) development <strong>of</strong> education material for<br />

the community and student volunteer activities; (5) increased interaction with<br />

pr<strong>of</strong>essionals and site visits; and (6) involvement <strong>of</strong> pr<strong>of</strong>essionals from outside the<br />

university in the teaching and learning process. The courses involved include: (1) senior<br />

Design Project I (undergraduate); (2) Senior Design Project II (undergraduate); (3)<br />

Introduction to Environmental Engineering (Undergraduate); (4) Individual Project<br />

(Undergraduate); (5) Special Studies in Environmental Engineering (Undergraduate); (6)<br />

Environmental Impact Assessment and Risk Analysis (Graduate). The research activities<br />

resulted in training undergraduate students in research; local and international<br />

publications and research grants; and scientific solutions to community problems. The<br />

services <strong>of</strong>fered to the community are significant, including initiation <strong>of</strong> environmental<br />

cleanup and upgrade projects worth hundreds <strong>of</strong> millions <strong>of</strong> Dirhams. This paper<br />

describes the various aspects <strong>of</strong> the integration <strong>of</strong> teaching, research and community<br />

service achieved in the case studies described, and the benefits realized especially in<br />

terms <strong>of</strong> approaches and useful strategies, relevance, importance, and significant<br />

outcomes as well as obstacles and limitations.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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تدريس العلوم الهندسية باللغة العربية<br />

:<br />

هل يمكن تطبيقه؟<br />

د.‏ عبداالله بن إبراهيم المهيدب<br />

قسم الهندسة المدنية كلية الهندسة جامعة الملك سعود<br />

ص.‏ ب.‏<br />

800 الرياض 11421<br />

e-mail: muhaidib@ksu.edu.sa<br />

اختلفت الآراء حول تدريس العلوم الهندسية باللغة العربية،‏ حيث يرى البعض أن هذه الخطوة<br />

قد تؤثر سلبا ً على التعليم الهندسي بحجة أن اللغة العربية غير قادرة على مواكبة النهضة العلمية في هذا<br />

العصر،‏ وبالتالي فإن التعريب قد يكون سببا ً في عدم التواصل مع التقدم العلمي في جميع مجالاته.‏ بينما<br />

يرى البعض الآخر أن تدريس العلوم الهندسية باللغة العربية ضرورة يجب الأخذ هبا في أقرب وقت وذلك<br />

لأن من أساسيات استقلال وتميز أي أمة من الأمم ارتباطها بلغتها الأصلية وعدم استبدالها بلغة أخرى وأن<br />

تقدمها العلمي يعتمد بشكل كبير على مدى قدرة أبنائها على استيعاب التقنيات الحديثة والتقدم العلمي<br />

السريع في جميع اجملالات العلمية.‏ كما يرون أن استعمال اللغة العربية في التعليم الجامعي يعتبر من أفضل<br />

الطرق وأقصرها لإيصال المعلومات إلى الطالب العربي،‏ وأسهلها لفهمه،‏ وزيادة قدرته الاستيعابية.‏<br />

وهذه الورقة تحاول الإجابة على السؤال المطروح كعنوان لها من خلال التطرق إلى إمكانية<br />

تدريس العلوم الهندسية باللغة العربية والمعوقات التي تواجه ذلك،‏ وتطرح الحلول المقترحة للتغلب على<br />

هذه المعوقات.‏ كما تتناول الورقة بعض الدراسات السابقة في موضوع تعريب العلوم وموقف أعضاء هيئة<br />

التدريس والطلاب تجاه تعريب التعليم الجامعي.‏ كما تتطرق الورقة إلى تجارب الأمم الأخرى في تدريس<br />

العلوم بلغاهتا المحلية.‏<br />

وفي الختام تقدم الورقة بعض التوصيات الخاصة بالبدء في عملية تعريب التعليم الجامعي.‏<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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الذكاء الاقتصادي،‏ وسيلة لإدماج البحث و التطور ضمن منظومة الخدمات<br />

واقعه وآفاقه في الجزائر<br />

تير رضا<br />

مفتش مركزي بوزارة المالية الجزائر ، باحث مشارك بجامعة الجزائر<br />

الهاتف,‏<br />

الفاكس.‏‎43‎ 00 213 21 94 19<br />

المتحرك.‏<br />

+213 70 35 53 85<br />

e-mail:Redha_Tir@yahoo.com<br />

يحتل الذكاء الاقتصادي مكانة هامة في نشاط الحكومات و الدول و حتى الأفراد ‏.تعتمد هذه<br />

الطريقة المبتكرة من قبل اليابانيين على الجمع بين الوسائل العامة و الخاصة لخدمة الاقتصاد المحلي<br />

و .<br />

كانت التجربة الأمريكية في هذا الميدان لدليل على نجاعة الذكاء الاقتصادي ‏.غير أن الدول العربية في<br />

أغلبها لم تتمكن من هضم هذه الطريقة و دمجها ضمن نظمها الاجتماعية<br />

والعلمية , والاقتصادية ,<br />

وتلعب الثقافة المحلية دورا كبيرا لضعف وتيرة إرساء نظام الذكاء الاقتصادي في هذه البلدان<br />

الذكاء الاقتصادي على أنه مجموعة منسقة من نشاطات البحث<br />

الاستراتيجية<br />

.<br />

.<br />

, المعالجة ,<br />

,<br />

تمتد إلى اجملال الاقتصادي<br />

تشترك في إقامتها الدولة والمؤسسات والهيئات المختلفة<br />

.<br />

, القانوني , و التكنولوجي , العلمي , التنافسي ,<br />

هذا<br />

يعرف<br />

النشر,‏ وحماية المعلومات<br />

المعلومة في بعدها الاستراتيجي<br />

الجيو سياسي,‏<br />

. . .<br />

يغطي نظام الذكاء الاقتصادي والاستراتجي مجموعة نشاطات اليقظة والإنذار المبكر<br />

والتلخيص،‏ التأثير والتأثير المضاد لصالح أعوان خواص و عموميين<br />

إلى حماية التراث الوطني خاصة في بعديه التكنولوجي والصناعي<br />

المتعلقة به<br />

كما . الخ<br />

، الدراسة<br />

.<br />

.<br />

تتطرق هذه الورقة في جزءها الأول إلى تحديد مفهوم الذكاء الاقتصادي<br />

,<br />

، بالإضافة<br />

الذكاء الاقتصادي و الاستراتيجي<br />

.<br />

والممارسات المعروفة حاليا لدى المؤسسات<br />

.<br />

بالإضافة إلى ذلك فإنه يهدف أساسا<br />

بيان مختلف المفاهيم<br />

إلى مجالات تدخل الذكاء الاقتصادي في الحياة العامة للدولة،‏ و كيفية إقامة عمليات<br />

كما يهدف هذا الجزء إلى بيان مختلف أدوات الذكاء الاقتصادي<br />

وتم إدراج مختلف التجارب الدولية المعروفة كالنموذج الياباني ، والنموذج الأمريكي،‏ ونظيرها<br />

الفرنسي ، وإبراز مزاياها و بعض نقائصها<br />

.<br />

ويضم الجزء الثالث للورقة نظرة تشخيصية لواقع أنظمة المعلومات في الجزائر<br />

وبيان أهمية ,<br />

بعض العناصر المتوفرة كمقومات لإقامة و إرساء نظام الذكاء الاقتصادي في الجزائر خاصة و أن هذا البلد<br />

يزخر بتعدد الثروات والأقاليم و الثقافات المحلية<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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.


د*‏<br />

4th Engineering Education Forum 2005-2006 – College <strong>of</strong> Engineering - <strong>University</strong> <strong>of</strong> <strong>Sharjah</strong><br />

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تجربة جامعة العلوم والتكنولوجيا الأردنية في مجال التدريب الهندسي<br />

و عمر المغيض<br />

‏**م.‏ نوار بشابشه<br />

‏*مساعد عميد كلية الهندسة<br />

‏**منسقة شعبة التدريب الهندسي<br />

كلية الهندسة - جامعة العلوم والتكنولوجيا الأردنية<br />

mughieda@just.edu.jo<br />

تقدم هذه الورقة تجربة كلية الهندسة في جامعة العلوم والتكنولوجيا الأردنية في مجال التدريب<br />

الهندسي حيث تم أولا ً عرض الخطوات المتبعة في تأمين فرص التدريب للطلبة في شركات ومؤسسات<br />

هندسية معتمدة ذات كفاءة وسمعة عالية ثم عرض الطريقة المتبعة في توزيع الطلبة على هذه المؤسسات.‏<br />

كما تم بيان آلية متابعة تدريب الطالب من قبل مشرف التدريب في الجامعة وتسليم التقرير النهائي من قبل<br />

الطالب ونموذج التقييم من قبل المؤسسة المدربة.‏ وأخيرا ً تم استخلاص بعض النتائج والتوصيات المقدمة<br />

لتحسين أداء الطالب المتدرب.‏<br />

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دور الخدمات المقدمة للمجتمع في رفد الجوانب<br />

في قسم الهندسة الميكانيكية في جامعة الموصل<br />

العلمية والإنسانية<br />

.<br />

د غالب يونس القهوجي موفق محمد علي الحاج يونس<br />

تدريسي/قسم الهندسة الميكانيكية<br />

رئيس قسم الهندسة الميكانيكية<br />

e-mail: muaffakyounis@yahoo.com<br />

تمر اجملتمعات بفترات مختلفة تتحول معها الاهتمامات وأنماط التفكير تبعا ً لمتطلبات كل مرحلة ،<br />

وما الجامعة إلا جزء من اجملتمع تنفعل بظروفه وتتفاعل معه سلب ًا وإيجاب ًا حسب مستوى نضوج اجملتمع وما<br />

تملكه هي من قدرات مادية وبشرية ، والاهم من ذلك كله ما يحمله أعضاء هيئة التدريس فيها من عمق<br />

علمي وحس إنساني باتجاه أداء رسالة العلم التي يتحملوهنا .<br />

في العراق وفي سنوات الحصار الاقتصادي والعلمي وخلال أكثر من عقد من الزمن شكل<br />

الحصار ضغطا ً كبيرا ً على أعضاء هيئة التدريس في كافة جامعات العراق تمثل بثلاث جوانب ترتب حسب<br />

أهميتها وكما يلي<br />

:<br />

الحاجة للحفاظ على أعضاء هيئة التدريس من الهجرة إلى خارج العراق من خلال دعم<br />

دخولهم المادي من مصادر غير المرتبات الحكومية ، وتنمية أرضية بحثية بديلة لإدامة مشاريع الدراسات<br />

العليا تنهض بمستوى التدريب الذي يتلقاه طالب الدراسات العليا وخاصة في اجملالات الهندسية<br />

، ومحاولة<br />

تغطية الحاجات الملحة للقطاع الصناعي الذي وصل في أحيان كثيرة إلى حد الاهنيار بسبب نقص الأدوات<br />

الاحتياطية وعقود التطوير في كافة اجملالات.‏<br />

هتدف الورقة الحالية إلى تقديم تجربة قسم الهندسة الميكانيكية ‏/جامعة الموصل قي رقد المسارات<br />

الثلاثة المذكورة أعلاه أثناء فترة الحصار التي مر هبا العراق من خلال شرح الآليات التي اعتمدت في العمل<br />

وتقديم خلاصة للخدمات التي قدمت للمجتمع في مستوياهتا المختلفة وكيف أثرت تلك الأعمال في دعم<br />

هيئة التدريس والدراسات العليا والصناعة بشكل عام مدعومة بالأرقام والأمثلة المتوفرة .<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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البحوث المعمارية اجملتمعية تسهم في تحقيق هنضة حضارية<br />

جامعة الموصل<br />

/ دكتورة<br />

/<br />

حفصة رمزي ألعمري<br />

/ كلية الهندسة<br />

قسم الهندسة المعمارية<br />

e-mail: hafsa_alomari2004@yahoo.com<br />

أن هدف البحث العلمي و التعليم هو خدمة اجملتمع و تطوير البيئة العمرانية<br />

تعاني العديد من .<br />

المدن العربية من فوضى عمرانية و تلوث بصري و بيئي ، ولما كان للمجتمع العربي خصوصيته فان عملية<br />

التطور و رفع مستوى العمران لا يتم ألا من خلال مناقشة حاجات اجملتمع مع الهيئات الاجتماعية ليحقق<br />

البحث العلمي الفاعلية المرجوة ، وقد تطرح هذه الهيئات قناعات عامة للمجتمع ، إن حاجات ورغبات<br />

الأفراد قد تشكل بطريقة غير سلمية و خاطئة بسبب إشكاليات في ثقافة بعض اجملتمعات و رسوخ بعض<br />

التقاليد السلبية ، و عليه فان الحوار المتواصل بين المؤسسات التعليمية و اجملتمع يسهم في رفع مستوى<br />

الوعي الاجتماعي و يهذب الكثير من التقاليد الخاطئة ، ومن جهة أخرى فان انفصال المؤسسات<br />

التعليمية و البحثية عن اجملتمع قد يسبب في طرح بحوث لا تجد سبيلها في الواقع و تبقى في رفوف<br />

المكتبات بعيدا عن حاجات و رغبات و مشاكل اجملتمع الذي هتدف تطويره<br />

.<br />

الموضوع في تحقيق هنضة عمرانية عربية و رفع المستوى العلمي و الثقافي للمجتمع<br />

.<br />

و هذا مما يعزز من أهمية<br />

تكمن مشكلة البحث في قلة البحوث المعمارية ضمن هذا التوجه ، وعليه يهدف البحث وضع<br />

أطار عام يتضمن الحقول المعرفية المعمارية المتنوعة التي تفتح آفاق للتفاعل مع اجملتمع<br />

و من ثم طرح ,<br />

استراتيجيات و آليات لإيصال العلم إلى اجملتمع لاستبدال الكثير من الظواهر المعمارية السلبية من جهة<br />

وتطوير البحث العلمي اجملتمعي من جهة أخرى.‏<br />

،<br />

يضم البحث محورين أساسين يناقش الأول البحوث المعمارية التي يمكن أن تسخر لخدمة اجملتمع<br />

و أبراز أهميتها في أعمار الأرض لينتهي بوضع أطار عام للبحوث اجملتمعة المعمارية التي تسهم في النهضة<br />

الحضارية و رفع الوعي الجمعي ، و من ثم إيضاح احد المحاور البحثية للإطار العام ، و أبراز دوره في<br />

تطور البيئة العمرانية ، و يتم ذلك من خلال مناقشة بعض الظواهر السلبية في بعض شوارع مدينة بغداد,‏<br />

و إبراز اثر القرارات العمرانية الفردية الغير واعية و التقاليد الثقافية الخاطئة في تدهور و تلوث البيئة و<br />

تراكم و شيوع الفوضى العمرانية<br />

،<br />

التفاعل بين المؤسسات التعليمية و اجملتمع<br />

.<br />

و يطرح المحور الثاني الاستراتيجيات و الآليات التي تساهم في تحقيق<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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د*‏<br />

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تدريس مادة الميكانيكا<br />

في أقسام كلية الهندسة من وجهة نظر الطلب ة<br />

.<br />

محمد جاسم محمد ولي و ‏**د.‏ إسماعيل باقي محمد الأسدي<br />

‏*أستاذ علم النفس التجريبي في مركز البحوث التربوية والنفسية ، جامعة بغداد<br />

‏**أستاذ علم النفس مركز البحوث التربوية والنفسية ، جامعة بغداد<br />

e-mail: esmal1976@yahoo.com<br />

إن التعليم الهندسي لم يعد يقتصر على إكساب المعلومات أو تكوين بعض المهارات ، بل يتعداها إلى تكوين<br />

خبرات تعنى بجوانب الشخصية جميعا ً،كتكوين الاتجاهات والعادات،وتنمية القيم الروحية،والوطنية<br />

والإنسانية،لذلك فان أعداد وتأهيل التدريسي أمرا هتتم به المؤسسات التعليمية<br />

.<br />

العلمية والمادة العلمية المتعلقة بمجال اختصاصه ومتابعة ما يطرأ من تطورات مستمرة<br />

.<br />

ابتدءا من إلمامه بالناحية<br />

إن ضعف عضو هيئة التدريس في الكليات الهندسية يؤثر في اجملال الأدائي وإيصال المادة العلمية<br />

وأسلوب عملية التدريس ومدى قدرته على إيصال المعلومات الهندسية إلى الطلبة وتمكينهم من الاستيعاب<br />

وكيفية التعامل التربوي والنفسي<br />

.<br />

إن الجانب الهندسي والعلمي والمهني يكمل أحدهما الأخر في مجال التطبيق والممارسة،ويجب أن<br />

تقرن القدرة المهنية بالمادة العلمية ولهذا لابد وان يتعرف على وسائل التكنولوجية الحديثة المستخدمة في<br />

التدريس.إن ضعف التدريسي يؤدي إلى عدم إيصال المعلومات،وكان الجواب على السؤال الأول وهو أن<br />

ضعف أداء التدريسي هو السبب في كثرة الرسوب وكثرة الطلبة في القيمة الواحدة وابلغ بلغ<br />

وعدم توفر تقنيات هندسية تربوية متطورة<br />

5، طالب ًا<br />

.<br />

أما الإجابة على السؤال الثاني هل تختلف مواقع التدريب المهني باختلاف الأقسام العلمية في<br />

كلية الهندسة فقد تبين إن قسم الميكانيكا أكثر الأقسام استخداما ً للتقنيات التدريبية في مجال التدريس<br />

والتعليم حيث كانت الدلالة الإحصائية عالية في هذا الجانب يرى الباحثان إن هناك ضرورة من تقليل<br />

أعداد طلبة الصف الواحد في كليات الهندسة من<br />

60 إلى<br />

والأساليب التدريسية المهنية في إيصال المادة العلمية للطلبة<br />

.<br />

20 طالبة وتحسين الوسائل التكنولوجية<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Manufacturing A Low Cost Digital Voltmeter As Test Platform<br />

for a Basic Electrical Measurements Laboratory<br />

Dr. Mohammed J. Alawi, Dr. Hamza A. Ghulman<br />

College <strong>of</strong> Engineering, Mechanical Engineering Dept<br />

Umm Al-Qura <strong>University</strong><br />

P.O. Box 5555 Makkah, Saudi Arabia<br />

e-mail: hghulman@uqu.edu.sa<br />

In introductory level <strong>of</strong> Engineering Education in the basic circuit analysis and<br />

electronics laboratories students face multiple challenges. They must be able and qualify<br />

to measure, discover, analyze, or explain electrical phenomena or principles using test<br />

sets and devices that in general are not used before by them or not user friendly, and are<br />

limited in their data collection, and other capabilities.<br />

In this paper, a Digital Voltmeter (DVM) model <strong>of</strong> instrument was designed to<br />

measure different value <strong>of</strong> voltages. A single chip Analog to Digital Converter (ADC)<br />

ICL7126, RMS-to-DC converter AD636, and Light Emitted Diode (LED) display were<br />

employed. The model was designed to have Range Selector, ON-OFF switch, AC-DC<br />

switch, LED display, and Power Supply. In case <strong>of</strong> DC measurement, input analog signal<br />

will go directly to the single chip ADC and converted to digital signal, which will be<br />

displayed on LED display. In case <strong>of</strong> AC measurement, input analog signal will go to<br />

RMS-to-DC converter to convert AC analog signal to DC analog signal, then it will go to<br />

single chip ADC which converts analog signal to digital signal, that can be displayed on<br />

the LED display.<br />

Moreover, for any educational institution, the new designed basic electrical<br />

measurements test set represent a major acquisition investment. Finally, as a proposed<br />

solution, a low cost, user friendly test device has been developed.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Virtual Learning Environment For Electric Machines<br />

Laboratory Application<br />

E.TANYILDIZI* & A.ORHAN**<br />

* Firat <strong>University</strong>, Technical Education Faculty,<br />

Department <strong>of</strong> Electronic and Computer Science, Elazig/Turkey.<br />

Tel:+90.424.2370000/4299<br />

e-mail: etanyildizi@firat.edu.tr<br />

** Firat <strong>University</strong>, Engineering Faculty,<br />

Department <strong>of</strong> Electric and Electronic Engineering, ,<br />

Tel:+90.424.2370000/5212<br />

Elazig/TURKEY<br />

e-mail: aorhan@firat.edu.tr<br />

Engineering education can reach the desired level if practical laboratory works<br />

are given together with the theory. In electrical engineering education, if foundation costs<br />

are considered the electrical machine labs become very important. Due to the higher and<br />

higher number <strong>of</strong> students accessing the university educational structures, the cost <strong>of</strong><br />

laboratories for didactical electric machine applications is going to be very high. As a<br />

consequence, a number <strong>of</strong> s<strong>of</strong>tware tools and environments have been developed to help<br />

users to share distributed laboratory resources and realize virtual experiments.<br />

Nevertheless, further solutions have to be explored when students must be trained and<br />

experienced in the instrumentation programming.<br />

In this study, virtual learning environment and distance education which become<br />

very popular compared to classical teaching methods in recent years is studied with the<br />

virtual lab and course works the time place problems are eliminated. For this purpose, a<br />

virtual electrical machine lab for electrical engineering courses is developed.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Opto-digital holography<br />

A suitable technique for teaching, researching and<br />

industrial testing<br />

L. Bouamama a , M. Bouafia * and G. Wernicke **<br />

* Applied Optics Laboratory, Optical and Precision Mechanical Department<br />

Ferhat Abbas <strong>University</strong> <strong>of</strong> Setif, 19000 Setif Algeria<br />

Fax: (36) 92 51 34<br />

** Humboldt <strong>University</strong> <strong>of</strong> Berlin, Physics Institute, Coherent Optics Laboratory<br />

Newtonstr. 15, D-12489 Berlin Germany<br />

E-mail: larbi_bouamama@yahoo.fr<br />

Holography is a wave coherent optical technique for recording and reconstructing<br />

complete optical information, that means in amplitude and phase. It is based on<br />

interference and diffraction light phenomena. Its laboratory aspect made its use very<br />

limited. So laboratories equiped with several special conditions such as dark room, laser<br />

light source, antivibration table and suitable photo and chemical products were able to<br />

conduct holographic experiments.<br />

During the last several years, the orientation to numerical and digital techniques<br />

is quietly enlarged because the easy handling <strong>of</strong> the information and mainly, its quick<br />

processing and transfer.<br />

Digital holography is one <strong>of</strong> those techniques who after becoming a reality, gets a<br />

high evolution in parallel with that <strong>of</strong> computer, s<strong>of</strong>tware and imaging technology.<br />

Two tendencies are under development:<br />

• Digital holography where the hologram is recorded with a CCD camera, stored in<br />

the host memory <strong>of</strong> the computer and the image is reconstructed at any time and<br />

space numerically;<br />

• Opto-digital holography where the hologram is also recorded with a CCD<br />

camera, stored in the host memory <strong>of</strong> the computer and reconstructed optically<br />

through a liquid crystal display (LCD).<br />

If the first technique is suitable for research applications in, or between specialized<br />

laboratories, the second one is more suitable for pedagogical and industrial testing<br />

applications.<br />

It is then possible to show practically to students on behalf <strong>of</strong> optical components (lenses,<br />

mirrors, beam sliters, spatial fiters, …), computer use in physical works, imaging<br />

products like CCD and LCD and coherent light source (laser), the basic optical<br />

phenomena, interference, polariasation and diffraction.<br />

It is also possible to show students how these phenomena are merged together in a real<br />

application (3-D image observation) and how it is possible to apply it in non destructive<br />

testing for micro displacements and deformations visualization and measurements in<br />

several engineering fields (holographic interferometry).<br />

In this work, we present the opto-digital holography as a new teaching optical<br />

phenomena technique and how it is possible to use the same set-up and equipments in<br />

involving research and industrial applications.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Design And Development Of A Hydraulic Circuit Bench<br />

For Education Purposes<br />

A. F. Kheiralla, O. A. Rahama, A. A. A. Saadelnoor, Dina, M. Abd-Alkareem,<br />

Ghada M. Nasr<br />

Department <strong>of</strong> Agricultural Engineering,<br />

Faculty <strong>of</strong> Engineering and Architecture,<br />

<strong>University</strong> <strong>of</strong> Khartoum, 321 Khartoum, Sudan<br />

Kheiralla65@yahoo.com<br />

As a response to feed back from academia and industry, the department <strong>of</strong><br />

Agricultural Engineering, Faculty <strong>of</strong> Engineering and Architecture, <strong>University</strong> <strong>of</strong><br />

Khartoum has successfully designed and developed an educational hydraulic circuit<br />

bench. Basic hydraulic system principles and components such as pumps, actuators,<br />

valves, hoses, reservoirs and coolers are discussed in this paper. Design formulas for<br />

computing the flow, torque requirement, input/output power, volumetric and power<br />

efficiencies <strong>of</strong> the pump and motor are also presented. The developed bench consisted <strong>of</strong><br />

gear pump driven by 7 HP/3 phase electric motor, 1 unit <strong>of</strong> double acting cylinder having<br />

200mm stroke and 34mm cylinder bore encapsulated in spring load, 1 set <strong>of</strong> gear motor,<br />

2 unit <strong>of</strong> directional control valve (manual and solenoid), 1 set <strong>of</strong> manual operated valve,<br />

4 ways-3 position, 1 set <strong>of</strong> double solenoid valve 4 ways-3 position, hydraulic pressure<br />

gauge, filter and reservoir. Two sets <strong>of</strong> relief valves are used to limit the pressure in a<br />

hydraulic circuit to a safe level. Two sets <strong>of</strong> check valve and 2 sets <strong>of</strong> restrictor are also<br />

used to regulate and control the fluid rate to motor and hoses. The bench has facilities to<br />

measure oil hydraulic flow, pressure and temperature. The main bench testing circuit<br />

options include circuit to operate hydraulic pump, hydraulic motor and hydraulic cylinder<br />

and can be upgraded. In addition, cut-away section for various hydraulic components are<br />

also developed for demonstration. The developed bench is self-contained mobile unit that<br />

can be used wherever electrical power is available. The unit total cost is less than 8,000<br />

US Dollars.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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A flexible and user-friendly Information Theory Online-<br />

Lab based on Java Technology<br />

Thorsten Hehn1, Susan Linke-Wangerow1, Johannes B. Huber1<br />

1 Chair for Information Transmission, Cauerstr. 7, 91058 Erlangen, Germany, {hehn, slinke,<br />

huber}@LNT.de<br />

Usually, information theory is regarded as being a very difficult subject by students.<br />

Therefore we propose a novel information theory online-lab based on Java technology,<br />

which allows students to conduct easy as well as advanced experiments to understand the<br />

fundamental concepts <strong>of</strong> information theory and thus gain insight in complicated topics<br />

easier. Our approach includes a novel kind <strong>of</strong> user interface applying almost no<br />

restrictions on the setup <strong>of</strong> an experiment. This makes it easy to analyze the behavior <strong>of</strong><br />

each used component (e.g. information sources or channels) and keep track <strong>of</strong> internal<br />

procedures, for example the learning phase <strong>of</strong> an universal source encoder. To support<br />

users who are just about to do their first steps in the lab, there are an online-tutorial and a<br />

lot <strong>of</strong> predefined setups available. The proposed lab is flexible enough to serve students<br />

as well as interested visitors to immerse themselves deeply in information theory. As it<br />

can handle advanced topics it can also be used by researchers to get a first impression on<br />

how a novel idea might work, even in a whole simulation line. Due to its modular<br />

conception, additional components can be included in a very straightforward way.<br />

Notes:<br />

Topic 2. Strategies for integrating teaching and research with community service.<br />

The lab is under construction at the moment. It will not be finished but be ready for<br />

presentations <strong>of</strong> a lot <strong>of</strong> parts by the date <strong>of</strong> the conference.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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A Microcontroller Experiment Set For<br />

Undergraduate Students At Electrical Departments<br />

Hasan ÇİMEN*, Mustafa NARTKAYA, İsmail YABANOVA, MAHMUT ÇINAR<br />

Afyon Kocatepe <strong>University</strong>, Technical Education Faculty, ANS Campus, Afyon, TURKEY<br />

*Corresponding Author:<br />

e-mail: hcimen@aku.edu.tr<br />

Microcontroller (MC) based devices and appliances are found in all aspects <strong>of</strong><br />

our daily life. MCs play an important role in many areas such as motor control devices,<br />

domestic electrical instruments, security systems, elevator control systems, illumination<br />

control systems and belt conveyor systems. Therefore, teaching microcontrollers in<br />

Electrical departments is crucial as much as Electronic and computer departments. An<br />

experiment set is developed for training microcontroller subjects for students <strong>of</strong> Electrical<br />

Education Department in the Faculty <strong>of</strong> Technical Education at Afyon Kocatepe<br />

<strong>University</strong>.<br />

Microprocessor architecture is not learned pr<strong>of</strong>oundly by the students at the<br />

electrical department unlike students <strong>of</strong> electronic and computer departments. Therefore,<br />

microcontrollers should be taught students in an easy way. Requirement <strong>of</strong> technical<br />

teaching and industrial applications are considered when the experimental board is<br />

designed. Easy usage, easy instruction set, speed, flexibility and programming with<br />

different languages (such as assembly, pic basic and C) are also taken into account. To<br />

fulfill these requirements, PIC16F877 is chosen as the Microcontroller <strong>of</strong> the education<br />

set.<br />

The experimental board has a lot <strong>of</strong> components that students can come across in<br />

the real life applications. Many I/O units and several communication units are installed.<br />

These include five analog, eight digital, one counter and six buttons as inputs; eight<br />

digital, one analog, one PWM and LCD as outputs, a serial communication unit and a<br />

programming unit. Interface s<strong>of</strong>tware is developed to communicate with computer. The<br />

s<strong>of</strong>tware controls and observes I/O s and also can be used as data acquisition unit.<br />

Programming process is realized by a programming circuit embedded on the board. There<br />

is no need for any extra hardware for the programming. In addition, precautions are<br />

taken into account to protect I/O s for real life applications via optocouplers for inputs<br />

and relays for outputs.<br />

After basic electric and electronic courses, microcontroller course is taken at the<br />

4th semester. In the course, MC architecture, instruction set, programming and<br />

simulations with different programs are taught. Before using this set, students have<br />

encountered some problems to understand MCs structure and implementation <strong>of</strong> real<br />

cases. Appropriate problems are chosen as related with electrical applications. Some<br />

functional application modules are also provided such as Servo, Step, DC and AC motor,<br />

Lift Simulator, Belt Conveyor and Process Control modules. By means <strong>of</strong> application<br />

modules and project given at the end <strong>of</strong> the course, practical skills and theoretical<br />

background <strong>of</strong> students are improved.<br />

This Microcontroller Experimental set is accomplished by teaching stuff working in the<br />

electrical department. Demands <strong>of</strong> MC course required from student and industry would<br />

be satisfied with this set.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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General Guidelines for Teaching Signal Processing Basics<br />

*Karim Abed-Meraim & **Adel Belouchrani<br />

*TSI Dept., Paris France<br />

e-mail: abed@tsi.enst.fr ,<br />

** Electrical Engineering department Ecole Nationale Polytechnique, Algiers, Algeria<br />

e-mail: adel.belouchrani@enp.edu.dz<br />

This paper summarizes the authors experiences in teaching the basics <strong>of</strong> signal<br />

processing at their respective institutions, namely "Telecom-Paris" and "Ecole<br />

Polytechnic <strong>of</strong> Algiers". It provides general guidelines on how introducing the basic<br />

notions and important concepts <strong>of</strong> signal processing to engineering students. It describes<br />

first the content <strong>of</strong> the course and the way it should be organized then deals with certain<br />

pedagogical points related to the ways used for motivating students and those used for the<br />

final course assessment.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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The Integration Of Signal Processing And Multimedia<br />

Research In Undergraduate Teaching And Community Service At<br />

Etisalat <strong>University</strong> College<br />

Hussain Al Ahamad, Mohammed Al-Mualla and Ali Al-Qayedi<br />

Multimedia Communications and Signal Processing Research Group<br />

Etisalat <strong>University</strong> College,<br />

P.O. Box 573, <strong>Sharjah</strong>, United Arab Emirates<br />

Tel: + (971) 65611333, Fax: + (971) 65611789,<br />

e-mail: {alahmad, almualla, alqayedi}@euc.ac.ae<br />

Web site: http://www.euc.ac.ae<br />

Etisalat <strong>University</strong> College was established in 1989 by the Emirates<br />

Telecommunication Corporation (Etisalat) to provide a national workforce in the area <strong>of</strong><br />

Telecommunications and related disciplines. The College <strong>of</strong>fers three engineering<br />

programs in Communication, Electronic and Computer Engineering. The B.Eng degrees<br />

at the College consist <strong>of</strong> five academic years and are based on the UK model with<br />

standards similar to any British <strong>University</strong>. The engineering programs are internationally<br />

benchmarked by the use <strong>of</strong> External Examiners and the involvement <strong>of</strong> Advisory Panels<br />

and Inspection Group whose membership include imminent pr<strong>of</strong>essors from British<br />

Universities. The degrees at the College have been awarded accreditation by the<br />

Institution <strong>of</strong> Electrical Engineers (IEE). The College is the only academic institution in<br />

the Arab world and one <strong>of</strong> few academic institutions outside the UK to achieve this<br />

prestigious status. The nature <strong>of</strong> the Electronic, Communication and Computer<br />

Engineering degrees requires innovation in the curriculum at a pace much faster than<br />

other fields because <strong>of</strong> the rapid growth in the technology. Also, it needs coverage <strong>of</strong><br />

wide range <strong>of</strong> topics which conventional degrees can not afford to do. The five year<br />

program at the College allows flexibility in introducing courses that are not normally<br />

covered in undergraduate programs at other places. This is done by <strong>of</strong>fering specialized<br />

courses in the final year.<br />

This paper deals with case studies <strong>of</strong> integrating the results <strong>of</strong> the research<br />

carried out within the Multimedia and Signal Processing Research Group into the<br />

curriculum <strong>of</strong> the B.Eng degrees at Etisalat <strong>University</strong> College. The following are<br />

examples <strong>of</strong> the cases that will be presented in the paper. Research work on initialization<br />

processors for IIR digital filters has been incorporated in the fourth year Digital Signal<br />

Processing course. Research work on image watermarking and information hiding has<br />

been integrated in the final year multimedia course in the Electronic Engineering degree.<br />

Research work on network security led to the introduction <strong>of</strong> a new course called Internet<br />

Security in the Computer Engineering degree. The College looked at research as an<br />

integrating and important element to develop its Engineering programs. The College<br />

provided the necessary infrastructure for encouraging academic staff to pursue research.<br />

This was done by establishing research groups and <strong>of</strong>fering academics the opportunity to<br />

attend and present papers at international conferences. In addition, the College started the<br />

first Master degree-by-research-only in the UAE. The College developed an innovative<br />

annual appraisal system based on the following activities: Teaching, Research, Services<br />

to the College, Services to the pr<strong>of</strong>ession and Personal Qualities. The teaching<br />

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assessment takes into consideration, Head <strong>of</strong> department reports, student feedback,<br />

external and inspection group comments. In addition, staff are encouraged to present<br />

papers about their teaching innovation in local and international conferences. Research is<br />

assessed according to the quality and quantity <strong>of</strong> publications by using a points system.<br />

Services to the College are assessed based on the participation in the College<br />

administrative duties. All the academics at the college have membership <strong>of</strong> at least one<br />

pr<strong>of</strong>essional organization such as IEE, IEEE, ACM and BCS. Finally, the College<br />

encourages team work and initiative through personal qualities assessment. This system<br />

helped in creating a healthy atmosphere based on competition amongst the staff in<br />

excelling in the five points <strong>of</strong> the appraisal system. In addition, the accumulation <strong>of</strong><br />

research knowledge and expertise led to the establishment <strong>of</strong> a continuing education<br />

program where specialized short courses and workshops are delivered to industry.<br />

Examples <strong>of</strong> courses delivered at Etisalat Academy, UAE Police, and IEEE UAE section<br />

will be presented.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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History Of Engineering Education In Turkey, Todays<br />

Situation And Electrical-Electronics Engineering Education At<br />

Karadeniz Technical <strong>University</strong><br />

Asist. Pr<strong>of</strong>. Dr. Adnan Cora<br />

Department <strong>of</strong> Electrical and Electronics Engineering<br />

Karadeniz Technical <strong>University</strong><br />

61080 Trabzon-TURKEY<br />

cora@ktu.edu.tr<br />

In this paper, first the history <strong>of</strong> engineering education in Turkey will be given<br />

briefly by the milestones. Present situation <strong>of</strong> engineering education by numbers will<br />

follow this .Including accreditation works continuing both nationally under the<br />

observation <strong>of</strong> Turkish Accreditation Organization, Council <strong>of</strong> Engineering Deans and<br />

internationally such as ABET and also ERASMUS student ex-change program with the<br />

European Union countries Universities under the 6th Frame Program. Finally, Electrical-<br />

Electronics Engineering education at Karadeniz Technical <strong>University</strong> in Trabzon.<br />

Undergraduate and graduate programs. Curriculums, periodic innovations on<br />

curriculums, problems etc…, research facilities and services to society will be discussed.<br />

History <strong>of</strong> the engineering education goes to back to 1773. In this date Imperial<br />

Navy Engineering School was opened by a decree. This school is the core <strong>of</strong> today's<br />

Istanbul Technical <strong>University</strong> and was established to provide military engineers <strong>of</strong> the<br />

Ottoman Navy. In 1795 the opening <strong>of</strong> Imperial Army Engineering School followed this.<br />

In 1839 Ministry <strong>of</strong> Rural Affaires was set up….<br />

Today there are 53 state Universities, 25 private foundation Universities and 2<br />

Higher Technology Institutes in the country. State Universities are distributed throughout<br />

the country almost. There are 71 Engineering Faculties in these Universities.<br />

Karadeniz Technical <strong>University</strong> is the fourth <strong>University</strong> <strong>of</strong> Turkey established in<br />

1955 by the special law, but commenced the education in1963. Electrical Engineering<br />

Department started in 1969 and gave first graduates in 1974. Over 2000 well-qualified<br />

electrical-electronics engineers mostly serving in the country and outside.<br />

Undergraduate education is a four year two semester education. Graduate programs are<br />

recognized by the Higher Education Council <strong>of</strong> Turkey. The Department has some about<br />

500 undergraduate students. One third <strong>of</strong> the courses taught in English, every student<br />

takes one year preparatory class unless passed a written and oral exam. Most <strong>of</strong> the<br />

courses are compulsory.<br />

Basic Electricity Lab. I, Basic Electricity Lab. II, Electronics Lab.I, Electronics<br />

Lab. II,(compulsory to all students)Electrical Machinery and Power System Labs. I and<br />

II(for Electrical and Control Option)<br />

Communication and Microwave Lab. Industrial electronics and Logic Lab.(for<br />

Electronics and Communication option). Labs are independent courses. Final year<br />

Project gives students to work by themselves, search freely and self confidence.<br />

Master and Doctorate programs contain certain number <strong>of</strong> credit courses and<br />

independent research work, following this presenting a dissertation. There are several<br />

research labs also where current projects undertaken. The Department also serves to<br />

society in a lot <strong>of</strong> ways…<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Using Technology for Continuous Improvement in<br />

Engineering Education—a Real-Time Approach<br />

Elyes Bdira<br />

<strong>University</strong> <strong>of</strong> <strong>Sharjah</strong><br />

P.O. Box 27272 <strong>Sharjah</strong><br />

e-mail: eleyes@sharjah.ac.ae<br />

In many universities, the use <strong>of</strong> IT in education has been thus far limited and at<br />

best driven by individual initiatives <strong>of</strong> Engineering pr<strong>of</strong>essors and lecturers. In many<br />

cases, it did not go beyond fancy slogans. Universities tend not to provide the necessary<br />

resources to make IT an ubiquitous reality in education. There is also a lot <strong>of</strong> talk about<br />

the dependence <strong>of</strong> the continuous improvement process in an outcome-based engineering<br />

education on feedback from many different parties such as the employer, the students,<br />

and others. However, due to the dynamic fast-changing nature <strong>of</strong> the Engineering field,<br />

feedback may be too slow, and any improvements made may be too late to keep up with<br />

the changes in the field. The necessity <strong>of</strong> immediate real-time feedback cannot be<br />

ignored. Here we present examples on how the use <strong>of</strong> the new information technology to<br />

make the education process subject to continuous “feedback control” using continuous or<br />

“virtual training” with industry partners during semesters. Furthermore, “real-time”<br />

student feedback in the classrooms improves students learning and gives constant statuschecks<br />

to the day-today educational process. IT tools that are required for this process is<br />

an intelligent classroom using smart boards, Wireless LAN’s with student laptops<br />

connected to the smart board, online quizzes with instantaneous feedback, online<br />

instantaneous surveys, and generalized use <strong>of</strong> computers in lectures that do not require<br />

the student to be necessarily in a physical classroom, thus allowing him/her to be in<br />

training during the semester while attending classes. On the counterpart, he/she may be in<br />

school while attending work “virtually.” Training for two to four weeks every semester<br />

may thus be possible and feedback by the employer may provide significant feedback<br />

even before the student graduates.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Stakeholders Integration in Higher Education:<br />

Supply Chain Approach<br />

Umar M. Al-Turki, Salih Duffuaa and Tahir Ayar<br />

King Fahd <strong>University</strong> <strong>of</strong> Petroleum & Minerals<br />

Systems Engineering Department<br />

Dhahran, 31261, Saudi Arabia<br />

Tel: 966-3-8602968, Fax: 966-3-8602965<br />

Corresponding Author e-mail: alturki@ccse.kfupm.edu.sa<br />

Supply-Chain management principles have emerged in the last decade as a<br />

strategic option to meet new challenges in the global business environment. Viewing<br />

business environment as part <strong>of</strong> a chain <strong>of</strong> business and services starting from raw<br />

material suppliers to end customer passing by production stages is in the heart <strong>of</strong> supplychain<br />

management. Supply chain management involves coordinating and integrating the<br />

flow <strong>of</strong> materials, information and finance as they move in a process from suppliers to<br />

consumers both within and among companies. Many management principles have<br />

emerged for better planning and controlling this chain to the benefit <strong>of</strong> all components <strong>of</strong><br />

the chain. Risk pooling and late differentiation are examples <strong>of</strong> these principles.<br />

Supply chain principles are developed in the manufacturing sector. Service<br />

sector is slow in adopting these principles due to the nature <strong>of</strong> the outcome <strong>of</strong> this<br />

business sector. Higher Education systems as a knowledge provider is even slower in<br />

adopting these concepts and principles due to the specific characteristics <strong>of</strong> the service<br />

provided and to the long lasting culture and values <strong>of</strong> the Higher education institutions.<br />

Many universities are currently adopting some practices that bring employers closer to<br />

the universities especially in training and program development. These practices emerged<br />

as the gap between the knowledge higher education institutions <strong>of</strong>fering and the required<br />

knowledge and skills needed by the job market. Some <strong>of</strong> these practices are enforced by<br />

accreditation bodies as a pre requirement for accreditation. These practices are major<br />

steps in strengthening the supply-demand chain. However, there are still lots <strong>of</strong> lessons to<br />

be learned from the manufacturing sector in this regard.<br />

This paper explores the implications <strong>of</strong> supply-chain management principles on<br />

higher education. First, a supply-chain view <strong>of</strong> higher education will be described and its<br />

environment will be analyzed for the possibility <strong>of</strong> adopting supply-chain principles.<br />

Features that might be catalysts or hurdles towards these principles will be identified.<br />

Second, a framework for supply-chain coordination and integration in higher education<br />

that takes into consideration these features will be developed. Finally, existing practices<br />

that address supply-chain in higher education will be identified and some new practices<br />

representing a natural extension <strong>of</strong> supply-chain management practices will be suggested.<br />

A case study for implementing these concepts from a university in Saudi Arabia<br />

(KFUPM ) will be presented.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Bridging The Gap Between Education In The UAE And<br />

Local Industry<br />

Mohamed Taki Al Kamil<br />

Program chair for Chemical and Mechanical Engineering<br />

Abu Dhabi Men’s College<br />

Higher Colleges <strong>of</strong> Technology<br />

Abu Dhabi P.O Box 25035<br />

Tel: 4048305<br />

mkamil@hct.ac.ae<br />

Based on experience in the oil industry, teaching at university level and teaching<br />

in a technical college, I find it appropriate to present a critical review <strong>of</strong> the education<br />

system leading up to the technical placement <strong>of</strong> the graduate in industry. There has<br />

always been some kind <strong>of</strong> conflict between education institutions and industrial training<br />

centers. Industry needs more competent graduates and Universities look at competency<br />

from a different angle. The gap is mainly due to the fact that Universities deliver their<br />

programs within a frame to produce graduates fit to work in industry, to be able to<br />

conduct research, to be able to teach, as well as to satisfy the market demand for other<br />

jobs. Adopting applied degrees in Universities and Technical Colleges is one way <strong>of</strong><br />

addressing the problem; however I believe that the gap can further be reduced by<br />

improving communications with industry and tailoring flexible programs to suit the UAE<br />

industrial needs. The training models in industry need also to keep the basic education<br />

skills alive and extend their training schemes to enable the graduate to link theory to<br />

practice.<br />

In my presentation I will outline the local Emirates industry, their human<br />

resources and training needs. The education system structure will be looked at and the<br />

most suitable model to serve the industry will be identified. I will also present eh reasons<br />

for the existence <strong>of</strong> a gap between education and industry. Suggestions will be given to<br />

bridge the gap, I will show how work placement and projects can be geared to serve the<br />

industrial needs and at the same time satisfy the academic requirements.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Integrating Education With Research Towards Better<br />

Community Service<br />

Anand Kumar, Hamad Odhabi & Senthil Nathan<br />

Higher Colleges <strong>of</strong> Technology<br />

Abu Dhabi Men’s College<br />

P.O. Box 25035<br />

Abu Dhabi, UAE.<br />

Ramachandran.kumar@hct.ac.ae<br />

Hamad.odhabi@hct.ac.ae<br />

Senthil.nathan@hct.ac.ae<br />

This paper will examine the role <strong>of</strong> integrating education with research in the<br />

UAE towards better community service. This paper will first address the motivation <strong>of</strong><br />

the stakeholders <strong>of</strong> education and research i.e., government, industry and the individual<br />

UAE national. The role <strong>of</strong> and interplay between the three key players i.e., Academic<br />

Institutions, Government and Industry will be explored.<br />

Research and its relevance to community service will be examined. The<br />

relevance <strong>of</strong> various types <strong>of</strong> research (basic research, theoretical research, applied<br />

research, research and development) to the UAE will be discussed. The value <strong>of</strong> local<br />

academic institutions’ meeting consulting needs <strong>of</strong> the industry will be examined. The<br />

need for a close co-operation between the academia and industry in applied research will<br />

be studied. Proposals for structured funding mechanisms in the triangle <strong>of</strong> Government,<br />

Industry and Academic Institution will be made. The role <strong>of</strong> research in bringing grass<br />

roots technological revolution to the UAE as a key aspect <strong>of</strong> community service will be<br />

addressed in this paper. This paper will examine the need for local academic institutions<br />

to develop intellectual property rights (IPRs) and to aid in technology transfer that would<br />

result in diversification from oil and gas industry and that would promote true<br />

entrepreneurship. This paper will also address the guidelines for collaboration with<br />

international academic and industrial institutions in education and research.<br />

This paper will demonstrate the necessity <strong>of</strong> developing postgraduate education<br />

in the UAE and define the role <strong>of</strong> government and corporate sector in encouraging their<br />

employees in going on for postgraduate degrees. The paper will establish a strong link<br />

between postgraduate education and research.<br />

The paper will present case studies that integrate education, applied research and<br />

collaboration with internationally reputed companies and academic institutions.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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qHE2I – A New Mechanism To Produce Integrated Quality<br />

Teaching And Delivery System To Overcome The Scarcity Of<br />

Quality Technical Human Resources In Arab World<br />

*Dr. Ali Abdulkareim. M. Ali & **Nadeem Yousuf Khan<br />

*Planning & Development Coordinator<br />

<strong>University</strong> College – Yanbu<br />

alia@rc-ynb.com<br />

**IT Coordinator / Project Coordinator<br />

<strong>University</strong> College-Yanbu<br />

khann@rc-ynb.com<br />

Arab world is mainly relying on expatriate engineers and scientist to built,<br />

deliver, and maintain its technological infrastructure. This is due to a severe scarcity<br />

quality engineering training institutions and ultimately lacking <strong>of</strong> quality engineers and<br />

technologists. Technical Human Resource development has significant importance in<br />

country's development. According to the new theories <strong>of</strong> management, more investment<br />

in HR gives more pr<strong>of</strong>its. Developing Technical Human resources requires effective<br />

planning and skills. The training programs at universities are either stereo-typed or outdated.<br />

There is an urgent need to device new systems to deliver engineering education<br />

and training with minimum cost and having maximum measurable benefits. It is a<br />

demanding task which has two major constraints: squeezed financial resources and lack<br />

<strong>of</strong> expert trainers. In many cases, it has become a difficult task to device highly needed<br />

training programs due to budgetary and logistics problems. Severe scarcity <strong>of</strong> quality<br />

educational institutions, particularly, in Arab World, gives a significant boost to this<br />

problem. In past, many alternative methods <strong>of</strong> developing Technical human resources<br />

have been developed. These methods were mostly technology-oriented not the human<br />

oriented. The use <strong>of</strong> technology to device a new system is easy but to transform the same<br />

effect into human development is lacking at large.<br />

This paper discusses the ultimate need for an alternative and disruptive training<br />

or delivery mechanism in engineering education which should minimize the cost & time.<br />

The new proposed system will be cost –effective and performance-centered. This<br />

proposed system will be termed as qHE2I, quality Higher Engineering Institution. The<br />

dynamics <strong>of</strong> the institution will be based on a new approach to deliver the best<br />

engineering education at affordable cost.<br />

In this new model, the existing resources at the universities will be doubled and<br />

more quality graduate will be produced within a limited span <strong>of</strong> time. The system will<br />

generate time & cost-savings as well as it will increase the performance. Design <strong>of</strong> an<br />

engineering training and learning program requires very specific understanding <strong>of</strong> the<br />

institution's objectives. In case <strong>of</strong> an educational institution the same philosophy will be<br />

applicable. It should be designed in such a way that it should meet the objectives <strong>of</strong> the<br />

organization by developing the technical human resources best suited for its<br />

requirements.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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The new model is based on three Key Performance Indicators:<br />

<br />

<br />

<br />

Knowledge<br />

Skills<br />

Attitude<br />

These three KPI's will define the quality and standards <strong>of</strong> the new delivery system. The<br />

main theme <strong>of</strong> qHE2I is to have a delivery system which is human-centered and costeffective.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Enhancing The Understanding Of Linkages Among<br />

Engineering Education And Industry<br />

Zahid Ali<br />

B.E (civil), M.Engg (AIT, Bangkok)<br />

PE, M.CATBUH (HongKong)<br />

Deputy Director General (Technical), NISTE, Islamabad<br />

Integration <strong>of</strong> engineering education, research, industry and community service is<br />

vital for development and prosperity. A development strategy requires close collaboration<br />

between engineering universities generating knowledge and industry that utilize it.<br />

The linkages between providers <strong>of</strong> engineering education and industry be utilized<br />

in the areas <strong>of</strong> curriculum development, research and transfer <strong>of</strong> research results to<br />

industry.<br />

Such a partnership will provide a curriculum relevant to national development<br />

and needed research activity. The research on locally available low cost construction<br />

materials, by researchers, will naturally benefit community and will be a community<br />

service. The advancements in majority <strong>of</strong> engineering fields are quite rapid. Thus the<br />

rapid advancements both in sciences and market require relevant engineering education<br />

programs and curricula. The engineering education system needs to be responsive to the<br />

new innovations in technologies. The expertise must be exchanged between the<br />

engineering education and industry. The paper deliberates on integration and linkages <strong>of</strong><br />

engineering education with industry / pr<strong>of</strong>essional sector.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Cairo <strong>University</strong> – Egyptalum Cooperation In<br />

Development Of Aluminum Electrolysis<br />

Saad El-Raghy* & Zaki Bassiony**<br />

* Faculty <strong>of</strong> Engineering, Cairo <strong>University</strong><br />

** Aluminum Company <strong>of</strong> Egypt (EgyptAlum), Naga Hammadi, Egypt<br />

The cooperation between Cairo <strong>University</strong> and EgyptAlum has developed over<br />

the years from short training courses to research projects and full partnership in cell<br />

design. Today, it is considered as one <strong>of</strong> the successful models <strong>of</strong> university-industry<br />

relation. Fostering mathematical models developed by faculty members with accumulated<br />

experience <strong>of</strong> industrialists created a new design <strong>of</strong> a prebaked cell.<br />

Vision <strong>of</strong> the management <strong>of</strong> the company on one side and accountability <strong>of</strong> the<br />

university team on the other side led to twenty years <strong>of</strong> cooperation between both sides to<br />

fulfill its initial objective: "Learning Aluminum". Technology digestion by both<br />

industrialists and academics produced an integrated package capable <strong>of</strong> optimizing a<br />

prebaked cell design, materialized now in a new line manufactured and operating at<br />

Naga Hammadi. The new line <strong>of</strong> the home-made cells, is now in operation for five years<br />

showing stability and low energy consumption. Current efficiency is exceeding 95%.<br />

Older lines <strong>of</strong> production are now replaced by the new technology for more production,<br />

lower cost and better working environment..<br />

As a result <strong>of</strong> university involvement in the cell development, B.Sc projects,<br />

M.Sc and Ph.D theses have emerged in topics related to aluminum reduction<br />

technology. Over 30 contributions to the annual TMS meetings beside other reputable<br />

publications came out <strong>of</strong> this cooperation. Investment in university laboratory facilities<br />

and updating computational facilities were also, tangible outcome <strong>of</strong> this relation.<br />

The paper presents the evolution and management <strong>of</strong> this partenership with<br />

examples <strong>of</strong> the theoretical output <strong>of</strong> modeling leading to the conceptual cell design.<br />

Some comparisons between operating norms <strong>of</strong> both old and new cells will be<br />

discovered.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Establishing A Method Of Measurement Towards Developing<br />

Prerequisite Students’ Generic Skills Development<br />

*Rozeha A Rashid & **Mohd Saidfudin Masodi<br />

*Lecturer, Department <strong>of</strong> Telematics and Optics<br />

Faculty <strong>of</strong> Electrical Engineering, Universiti Teknologi Malaysia<br />

Tel: +607-553 5218 Fax: +607-556 6272,<br />

e-mail: rozeha@fke.utm.my<br />

**ISO QMS2000 Lead Assessor/Director<br />

Petrovest Sdn Bhd, Kuala Lumpur, Malaysia<br />

Tel/SMS : +6019 399 8884, Fax : +603-41082262<br />

e-mail : saidfudin@yahoo.com<br />

Much has been said about recent graduates readiness in making their decent entry<br />

into the working world. Teaching and learning processes at Higher Learning Institutions<br />

produce graduates. They are an output after undergoing several rigorous years <strong>of</strong><br />

knowledge and skill development programs hence; human resource competency. The<br />

ability to produce such competent graduates is a prime determinant perceived by the<br />

industry <strong>of</strong> the quality <strong>of</strong> service provided by an excellent Higher Learning Institution.<br />

This paper is an attempt to introduce a simple but holistic method <strong>of</strong> measurement on the<br />

students’ competencies; otherwise called latent traits, to assess their performance. Item<br />

Characteristic Curve method by Rasch’s Model employed <strong>of</strong>fers a new perspective to<br />

help define the improvements and actions required. A table recording their performance<br />

achievements called Generic Skill Score Card (GSSC) is developed to check on how<br />

well they coped with the changes and expected development, meeting the objectivity and<br />

specificity <strong>of</strong> the set latent qualities. The analysis can serve as a model to establish the<br />

students’ weaknesses to be made good hence actions for continuous improvement. This<br />

provides a more balanced reporting where their accomplishments are equally recognized.<br />

Since the discrete value <strong>of</strong> score uses Rasch’s Model ability scale, θn; this reporting<br />

method can therefore be used widely across the board by the education community.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Developing Technologies to Foster <strong>of</strong> <strong>University</strong>-Research-<br />

Community Service Interaction.<br />

Florian Techel<br />

Department <strong>of</strong> Architectural Engineering<br />

<strong>University</strong> <strong>of</strong> <strong>Sharjah</strong><br />

P.O. Box 27272 <strong>Sharjah</strong><br />

e-mail: techel@sharjah.ac.ae<br />

Anchorage <strong>of</strong> Universities in the awareness <strong>of</strong> the public is essential for the<br />

acceptance <strong>of</strong> higher education within a society. Most people understand the teaching<br />

aspects <strong>of</strong> a university as a vital element to provide their children with “an education”.<br />

What many people do not comprehend are the less visible research topics and communal<br />

services that universities can provide that potentially benefit the community.<br />

High-tech businesses have understood the necessity <strong>of</strong> allocating and allying themselves<br />

with reputable universities. Examples such as the linkage <strong>of</strong> Stanford <strong>University</strong> and<br />

Silicon Valley or Carnegie-Mellon and biotechnology are now well known and<br />

repeatedly published.<br />

As modern information technologies start to dictate an ever-accelerating pace <strong>of</strong><br />

innovation the amount <strong>of</strong> time for the establishing and implementing any cooperation<br />

between universities and the community is shrinking dramatically. It is vital that today’s<br />

developments are accelerated from the point <strong>of</strong> the first idea to the implementation,<br />

particularly because the problems (i.e. demographic, traffic, resources, energy) are more<br />

pressing.<br />

At the transition <strong>of</strong> modern societies from the industrial era to post-industrialism<br />

(materialistic age to the information age), modern information infrastructures,<br />

particularly the Internet, play a vital role in this accelerated development. Webtechnologies<br />

and online interaction do not only assist in the development <strong>of</strong> modern<br />

learning methodologies. They are key for the development <strong>of</strong> a modern and transparent<br />

information infrastructure.<br />

The question arises how universities can best utilize modern communication<br />

infrastructure in order to “do good and talk about it”, that is, make their own efforts in the<br />

field <strong>of</strong> teaching, research and community services as transparent to the public as<br />

possible.<br />

This paper will focus on developments in the Open Source Arena. It<br />

compares traditional commercial applications with the potentials <strong>of</strong> the new<br />

generation <strong>of</strong> s<strong>of</strong>tware that is free <strong>of</strong> charge and transparent to the users. It will<br />

assess its potentials in these areas.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Study And Design Of A System Which Improves The<br />

Education Of The Dumb Deaf Children<br />

TABA Mohamed Tahar, LAIG Laboratory, <strong>University</strong> <strong>of</strong> Guelma, Algeria<br />

e-mail: mttaba@yahoo.fr<br />

In this project which is intended to deaf children <strong>of</strong> the school <strong>of</strong> the deaf <strong>of</strong><br />

Guelma. We noticed that the material used for the education <strong>of</strong> this children gives the<br />

same amplification <strong>of</strong> the sound for all the children, and is likely to increase the deafness<br />

<strong>of</strong> the children who do not have a major deafness since each child is different from others<br />

by the degree <strong>of</strong> deafness, and even for only one child the degree <strong>of</strong> deafness is not the<br />

same for the two ears. Our study consists <strong>of</strong> the design <strong>of</strong> a system which identifies each<br />

child and it gives him adequate amplification in order to as well as possible help it to<br />

assimilate the courses and to progress and improve his life.<br />

The diagram <strong>of</strong> the system is as follows:<br />

Mohamed<br />

Ali<br />

Fatima<br />

Salah<br />

Smart<br />

System<br />

Djamila<br />

El arabi<br />

Zahra<br />

Teacher<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Intro-Physics For Engineering Students: It’s Difficulty<br />

Versus It’s Relevance And Impact On Research: A Statistical<br />

Survey<br />

1,2 Elmehdi, H. M, and 2,3 Pistorius, S.<br />

1 Physics Division, Faculty <strong>of</strong> Arts and Sciences, <strong>University</strong> <strong>of</strong> <strong>Sharjah</strong>, UAE.<br />

2 CancerCare Manitoba Foundation, Winnipeg, Manitoba, Canada<br />

3 <strong>University</strong> <strong>of</strong> Manitoba, Winnipeg, Manitoba, Canada, R3T 2N2.<br />

e-mail: hmelmehdi@sharjah.ac.ae<br />

Ask any non-major college freshmen about the most difficult subject he/she is<br />

taking and 86% <strong>of</strong> the time, the answer is Intro-Physics. Among the subjects listed in the<br />

survey, physics came second to none. This staggeringly high percentage is not limited to<br />

students <strong>of</strong> the <strong>University</strong> <strong>of</strong> <strong>Sharjah</strong>, UAE. In fact, this is a global phenomenon, where it<br />

is widely perceived that Intro-Physics is a difficult subject. Such false thinking is <strong>of</strong>ten<br />

used as a raison d'être for the lower than average passing percentages obtained in Intro-<br />

Physics. As a result, some engineering schools in the Middle East have proposed<br />

reducing the amount <strong>of</strong> physics courses in their curricula.<br />

While this may be attributed to several factors, what is alarming is that more than<br />

80% <strong>of</strong> the students who believe that Intro-Physics is difficult, think that it has no<br />

relevance to their respective fields. The fact that students cannot comprehend the<br />

relevance <strong>of</strong> physics to their respective fields is in itself a reason for them to think<br />

physics is a difficult subject. On the positive side, and more comforting to us as physics<br />

educators is that when the same question was put to pr<strong>of</strong>essionals in the same fields<br />

(engineering and health related fields), who took physics during their freshmen or<br />

sophomore years, the answers were logically and completely different. Here, more than<br />

80% who were interviewed said that they enjoyed physics and found it very beneficial<br />

and interesting.<br />

Therefore, the critical question to be put forth is: what is the impact <strong>of</strong> such false<br />

thinking and as a result, the reduction <strong>of</strong> Physics content in the engineering curriculum on<br />

the performance <strong>of</strong> these pr<strong>of</strong>essionals be it in their future endeavors?<br />

It is the aim <strong>of</strong> this paper to subjectively discuss the factors contributing to<br />

students’ struggle with Intro-Physics as well as present solutions, including those<br />

presented in the literature. In addition, a comparison between the physics component in<br />

engineering curriculum in the Gulf region, and other parts <strong>of</strong> the world will be presented.<br />

To highlight the importance <strong>of</strong> physics in engineering research, the paper will present<br />

several examples <strong>of</strong> architectural disasters that took place around the world in which the<br />

main cause was the ignorance <strong>of</strong> engineers to some basic physics concepts.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Assessment Of The Heat Transfer Course Taught At UAE<br />

<strong>University</strong> According To Abet 2000 Criteria<br />

Ayoub Kazim<br />

Department <strong>of</strong> Mechanical Engineering<br />

UAE <strong>University</strong><br />

P.O. Box 17555 Al-Ain<br />

United Arab Emirates<br />

Email: akazim@uaeu.ac.ae<br />

The United Arab Emirates <strong>University</strong> (UAEU), which was established in 1978, is<br />

considered the oldest university in the country. Currently, the university consists <strong>of</strong> nine<br />

colleges namely College <strong>of</strong> Science, College <strong>of</strong> Engineering, College <strong>of</strong> Medicine,<br />

College <strong>of</strong> Shariah and Law, College <strong>of</strong> Business and Economics, College <strong>of</strong> Humanities<br />

and Social Sciences, College <strong>of</strong> Education, College <strong>of</strong> Food Systems and College <strong>of</strong><br />

Information Technology, which was established in the year 2000. Approximately 18,000<br />

students are presently enrolled in the university with female to male ratio <strong>of</strong> roughly 3 to<br />

1.<br />

During the past five years, the university has witnessed a comprehensive<br />

development in the academic programs and curricula <strong>of</strong>fered by all <strong>of</strong> its colleges. This<br />

has been done in the light <strong>of</strong> modern concepts and international standards after adapting<br />

them to suit the nature <strong>of</strong> the society. The university has also paid great attention to the<br />

quality <strong>of</strong> implementation and delivery <strong>of</strong> the programs and curricula. Interactive<br />

teaching methods and technologies including computers and information networks are<br />

emphasized to provide an environment which fosters the students' creative - thinking and<br />

self-learning abilities. This enables them to cope with rapidly advancing technologies.<br />

Recently, the Accreditation Board <strong>of</strong> Engineering and Technology (ABET) has<br />

adopted new accreditation standards that respond to the need for reform <strong>of</strong> engineering<br />

education (ABET 2000), which was in effect in the year 2000. The new standards were<br />

focused on student learning outcomes and educational objectives that address all<br />

constituencies’ needs, while calling for accountability and continuous program<br />

assessment and process re-engineering. Since then, the college <strong>of</strong> engineering with all <strong>of</strong><br />

its five departments namely Departments <strong>of</strong> Mechanical Engineering, Electrical<br />

Engineering, Chemical and Petroleum Engineering and <strong>of</strong> Civil and Environmental<br />

Engineering and Architecture has been seriously seeking and working toward a sound<br />

accreditation <strong>of</strong> all <strong>of</strong> its programs through implementation <strong>of</strong> ABET 2000 criteria.<br />

In this paper, assessment <strong>of</strong> the heat transfer course taught in the United Arab<br />

Emirates <strong>University</strong> according to ABET 2000 criteria, was carried out. The approach<br />

aimed at delivering the course materials affectively through usage <strong>of</strong> modern educational<br />

methods, development <strong>of</strong> course contents and fulfilment <strong>of</strong> the course objectives.<br />

Furthermore, the assessment process was implemented for three consecutive years<br />

specifically from 2001 until 2004. The evaluation outcomes demonstrated that the<br />

students’ assessments proved to be the least effective method in the course assessment<br />

process. Conversely, course assessment form (CAF), focus group and exit exams are<br />

proved to be the most effective methods.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Mechanical Engineering Workshop:<br />

A Platform to Integrate Teaching,<br />

Research and Community Services<br />

Anwar K. Sheikh, Faleh Al-Sulaiman and Mohiuddin Ahmed<br />

Department <strong>of</strong> Mechanical Engineering, KFUPM. Dhahran 31261<br />

A <strong>University</strong> level workshop in Mechanical Engineering (ME) department is<br />

<strong>of</strong>ten a well equipped facility with a range <strong>of</strong> up-to-date Machining, Foundry, and<br />

Welding, Sheet metal, Instrumentation, Design, Quality assurance facilities and<br />

competent technical manpower. These facilities can provide a very conducive<br />

environment to integrate teaching, research and community services and act as a true<br />

learning factory for the university students, faculty and community at large.<br />

The <strong>University</strong> students learn and practice various manufacturing techniques as a<br />

part <strong>of</strong> their manufacturing courses and various projects. In a research and community<br />

support environment the students use their experience to design, plan and manufacture<br />

precise and intricate parts and prototypes. The engineers and technicians <strong>of</strong> a workshop<br />

interface with faculty and students in their research activities. The experience, skills and<br />

knowledge gained through research is utilized in teaching and vice versa, similarly the<br />

facilities developed during these teaching and research activities can be well utilized in<br />

service <strong>of</strong> community as well as industry<br />

In this paper we will highlight the strategy and experience <strong>of</strong> ME workshop at<br />

KFUPM to illustrate the integration <strong>of</strong> these activities. It will be shown that when the<br />

activities in the workshop are conducted in a careful planned, well-managed and<br />

calibrated manner the results are beneficial to not only to the teaching and research but<br />

also to the university community and local industry.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Sharing Experience From A Senior Design Course<br />

Converting An Old Landfill Into An Environmentally Friendly<br />

Residential Area<br />

Omar Habouch<br />

Department <strong>of</strong> Civil Engineering, <strong>University</strong> <strong>of</strong> <strong>Sharjah</strong>,<br />

P.O. Box 27272, <strong>Sharjah</strong><br />

e-mail: habouch@sharjah.ac.ae<br />

A senior engineering design course team consisting <strong>of</strong> five students<br />

developed a proposal for converting the <strong>Sharjah</strong> old waste disposal site near the<br />

<strong>University</strong> City into an environmentally friendly residential area. The team<br />

members represented different engineering disciplines which allowed experience<br />

sharing among the team members in a collaborative learning manner. In the<br />

project, students made essential contributions in the areas <strong>of</strong> structural design,<br />

materials, geotechnical design, water supply, sewerage, drainage, and<br />

transportation. Planning involved consideration <strong>of</strong> issues such as economic<br />

development, demography, housing, and community development. The project<br />

team utilized a variety <strong>of</strong> resources, especially electronic resources, to execute the<br />

project. This paper introduces the project and demonstrates the collaborative<br />

approach used, its effects on team members, and its advantages in terms <strong>of</strong><br />

enhancing learning. The use <strong>of</strong> electronic communication and internet resources<br />

was the main tool <strong>of</strong> this collaborative project.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Quality Of Technical Education, Traditional Training And<br />

Distance Learning<br />

Dr. Abdullah UZUN<br />

auzun@sakarya.edu.tr<br />

Dr. Fahri VATANSEVER<br />

fahriv@sakarya.edu.tr<br />

It has been argued that technology will promote the use <strong>of</strong> constructivist<br />

approaches to teaching and learning advocated by the current reform movement. Yet<br />

computer technology and different types <strong>of</strong> s<strong>of</strong>tware can be used to address different<br />

educational goals. The internet and distance learning have created a new business and<br />

new teaching pedagogy. Quality and quality <strong>of</strong> technical education includes some elusive<br />

characteristics. It can be defined and described in various ways. Most <strong>of</strong> the time, we can<br />

measure it different methods. It is important to understand, identify and measure <strong>of</strong><br />

quality. Teachers use constructivist approaches to teaching and learning for quality <strong>of</strong><br />

education such as traditional methods, computer technologies, pedagogical orientations<br />

and expectations <strong>of</strong> manufacturers. The purpose <strong>of</strong> this paper about history <strong>of</strong> distance<br />

education and to show how data communication technologies have affected distance<br />

learning and help teachers and students in virtual classroom and applications <strong>of</strong> Sakarya<br />

<strong>University</strong>.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Research-Led Teaching: Moving From<br />

A Push To Pull Approach<br />

Dr. Mohammed Arif<br />

Lecturer, Project Management<br />

Institute <strong>of</strong> Engineering<br />

The British <strong>University</strong> In Dubai<br />

P.O.Box 502216<br />

Dubai, UAE<br />

Phone: 971-04-367 1952<br />

e-mail: mohammed.arif@buid.ac.ae<br />

The education system globally has moved from a Push based or producer-centric<br />

system to a Pull based or customer centric system. This shift has seen the emphasis <strong>of</strong><br />

teaching from just imparting any knowledge to concentrating on more society relevant<br />

issues. This paper traces back the history <strong>of</strong> the modern Pull education where the key<br />

driver is the latest research and needs <strong>of</strong> consumers through four major phases <strong>of</strong> western<br />

education. The first being the Idealist phase where education was primarily religious and<br />

spiritual. The second phase is the Realist phase where applied education was first<br />

introduced to solve practical societal issues. The third phase being the pragmatic phase,<br />

where anything, that was not needed, was thrown to the back-burner. The last <strong>of</strong> these<br />

phases being the existentialist phase which primarily started after the Second World War<br />

and was needed to fuel the fires <strong>of</strong> rapid development and progress. After tracing the<br />

history, this paper analyzes some recent trends in education system <strong>of</strong> applying quality<br />

models and discusses the direction we are headed in terms <strong>of</strong> customer-centric education<br />

where the customer dictates what is taught and how is it taught.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Engineering Education Towards The Production Of<br />

Pr<strong>of</strong>essional Engineer<br />

Pr<strong>of</strong>. J. H. H. Alwash<br />

PhD, CEng, MIEE, MIEEE<br />

<strong>University</strong> <strong>of</strong> Baghdad<br />

Engineering education is somehow differs from the basic science education, in that<br />

engineering education would require the knowledge <strong>of</strong> field application <strong>of</strong> the scientific<br />

facts & findings, for engineering is an applied science. For that, while there exists what is<br />

so called theoretical scientist, there is no such case with engineering.<br />

Engineering education, should <strong>of</strong> necessity be backboned by practical experience<br />

& preferably research mentality.<br />

This paper deals with personal experience in engineering education for nearly<br />

forty years which included teaching, research, practical field experience & consulting<br />

work.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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From The Practice Of A Design Knowledge To The Design<br />

Of New Knowledge In Architectural And Urban Designs<br />

Bouzid. BOUDIAF.<br />

Ajman <strong>University</strong> <strong>of</strong> Science and Technology ( AUST).<br />

b.boudiaf@caramail.com<br />

Urban space <strong>of</strong>ten evokes a multitude <strong>of</strong> pictures and concepts which can be<br />

divergent if not contradictory. This multitude <strong>of</strong> concepts illustrates the multidimensional<br />

and interdisciplinary nature <strong>of</strong> the urban space. The appreciation and the assessment <strong>of</strong><br />

the quality <strong>of</strong> the urban space varies from one period to another, from one culture to<br />

another, from a social group to another, from one person to another.<br />

Most <strong>of</strong> the researches on architectural and urbanism in the Algerian case are<br />

concentrated on the socio economic values, the exchange and use values, while putting<br />

in exergue the historic measurements and/or symbolic <strong>of</strong> the urban and ethnics entities.<br />

The urban growth <strong>of</strong> a city like Algiers reveals a discontinuity in instruments and<br />

strategies. This discontinuity is the origin <strong>of</strong> the total disorganization to such a point that<br />

the urban project and the project <strong>of</strong> the society are reconsidered periodically.<br />

This communication considers how we create a relation between the <strong>University</strong><br />

(in this case we will present the LGAT: Laboratoire de Geographie, d Amenagement et<br />

du Territoire in the U.ST.H.B.: Universite des Sciences et Technologies Haouari<br />

Boumediene, Algiers) and the Municipality <strong>of</strong> Algiers.<br />

In this paper, our aims are to orient the debate on the following questions:<br />

1) What is the nature <strong>of</strong> the research?<br />

2)How does this research help the Municipality in making decision?<br />

3)How does research function as a source <strong>of</strong> knowledge ( in the post-graduate studies)?<br />

4)What are the sources <strong>of</strong> the research?<br />

5)What is the relation <strong>of</strong> this research with the others in the laboratory?<br />

6)How do we move from theory to practice?<br />

7) What are the main obstacles in the development <strong>of</strong> this research: remarks and<br />

recommendations?<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Partnership With Stakeholder And Architectural Education :<br />

The Case Of PARCS Project In Palestine.<br />

Eman Assi<br />

Associate pr<strong>of</strong>essor<br />

Department <strong>of</strong> Architecture<br />

An-Najah national <strong>University</strong><br />

Nablus, Palestine<br />

emanassi@hally.net<br />

Architecture finds itself within a political and social climate which is demanding<br />

more participatory democratic processes. If the pr<strong>of</strong>ession isolates itself from its context,<br />

then it will soon find that it is out <strong>of</strong> touch. But movements such as inclusive Design<br />

show that the outside world is exerting increasing pressure on the pr<strong>of</strong>ession and<br />

beginning to have an effect. These pressures are also being felt within architecture<br />

education. A resolution adopted by the council <strong>of</strong> Europe in 2001 sets out the<br />

requirement for the curricula <strong>of</strong> architects at undergraduate and postgraduate level to<br />

develop understanding <strong>of</strong> the need to meet human needs and develop the skills required<br />

to increase the usability <strong>of</strong> all their constructional creation, taking into account human<br />

diversity .<br />

This paper draw attention to the importance <strong>of</strong> adopting Participatory and<br />

collaborative methods in architectural education through working on real projects. It will<br />

focus on non traditional approach based on partnership <strong>of</strong> stakeholders and its effect in<br />

bringing more integration <strong>of</strong> teaching with research and community service . The<br />

concept <strong>of</strong> partnership in architectural education is discussed here, where students from<br />

the school <strong>of</strong> architecture at An-najah National <strong>University</strong>, Nablus, Palestine, work<br />

together with the community and funding agency to formulate conceptual designs for<br />

recreational parks in the West Bank and Gaza through PARCS project. PARCS project<br />

is funded by international agency USAID and implemented by international NGO CHF<br />

( community Housing Finance) aiming at improving the environmental condition <strong>of</strong> the<br />

Palestinian community. This paper will also talk about the process and the mechanism<br />

<strong>of</strong> collaboration between students and the community at different stages <strong>of</strong> design<br />

including site selection, needs assessment and conceptual design .<br />

This paper concludes that participatory approach improve the knowledge base <strong>of</strong> the<br />

architectural education and also plays a major role in developing collaboration and<br />

team working and communication skills among students.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Identification Of Training Requirements And Imparting<br />

Training To Community<br />

Ravi Kumar Sharma<br />

Coordinator Community Services,<br />

National Institute <strong>of</strong> Technology Hamirpur – 177005 (HP) India.<br />

e-mail: ravi@recham.ernet.in; rks_nith@yahoo.co.in<br />

NIT Hamirpur under the Technical Education Quality improvement Program<br />

(TEQIP) is disseminating technical knowledge and skills to appropriate sections <strong>of</strong> the<br />

community in the areas adjacent to the institute. The institute possesses latest machines<br />

and techniques related to various fields <strong>of</strong> technology to disseminate the advances in<br />

different technological fields.<br />

The training needs <strong>of</strong> community have been identified by conducting a<br />

comprehensive social assessment survey and involving representatives <strong>of</strong> the Panchayati<br />

Raj Institutions, industry and various other sections through conducting institutecommunity<br />

interaction workshops. Depending upon the assessment <strong>of</strong> the actual<br />

requirements <strong>of</strong> the community, demand-based training programs having employment<br />

opportunities in the industry sector are identified. The technical training programs like<br />

Welding Processes (Arc, Gas and TIG/MIG Welding), Web Designing, Application <strong>of</strong><br />

Wood Working Machine Processes, Post-Harvest Technology, Solid-Waste Management<br />

and Plant protection, Refrigeration and Air Conditioning Maintenance Practice, Land use<br />

Planning and Management <strong>of</strong> Hill Areas, Maintenance <strong>of</strong> Industrial and Domestic<br />

Electrical Energy Systems, Introduction to Computer Applications, CNC Machining<br />

Processes, PHP, MySQL and Apache, Repair & Maintenance <strong>of</strong> Electronic Gadgets,<br />

Library Computerization and Automation, Community Computer Training, Boiler<br />

Operation and Maintenance and Organizational Behavior and Total Quality Management<br />

are being imparted to different sections <strong>of</strong> the community like unemployed youth,<br />

unorganized workforce, industrial workers and organized sector workforce under services<br />

to community and Industry cell. Involving all its faculty, technicians and students in<br />

providing services to community and industry has not only provided an exposure to reallife<br />

problems but has also added to their experience thus enriching the knowledgepotential<br />

<strong>of</strong> the institution as a whole. Aforesaid training programs have provided better<br />

employment avenues to the community thereby contributing to the economy <strong>of</strong> the region<br />

in a better way. Many <strong>of</strong> the trained workers are motivated to undertake their own<br />

ventures thus reducing the unemployment problem to some extent.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Civil Engineer <strong>of</strong> 2020<br />

Gajanan M. Sabnis* & Elias B. Sayah**<br />

*Pr<strong>of</strong>essor <strong>of</strong> Civil Engineering, Howard <strong>University</strong>,<br />

Washington, DC, USA, Consultant, Silver Spring, MD, USA)<br />

e-mail: gms@sabnis.com<br />

** President, Sayah Engineering Consulting Bureau, Abu Dhabi, UAE<br />

e-mail: ebsayah@emirates.com.ae<br />

Engineering started as civil engineering over 150 years although it was practiced<br />

over two millenniums. On the other hand, in the last few decades more attention has been<br />

drawn as more under-classmen are attracted to computers due to the advances in that<br />

field. This drain is from all others, but has affected especially the civil engineering. IT<br />

has had a tremendous impact on our lives and on many fields <strong>of</strong> engineering. Civil<br />

Engineering in spite <strong>of</strong> being the parent engineering however has not benefited much.<br />

From civil engineering perspective they have not made an attempt to the extent that they<br />

can benefit from IT. On the other hand, there is tremendous scope for IT to benefit from<br />

new applications and making many unforeseen solutions possible, which they have not<br />

crossed over.<br />

In this paper, an attempt is made to demonstrate benefits in the civil engineering<br />

curriculum on mutual basis. In the early 1980’s the space technology was used to benefit<br />

civil engineering with good success. With IT, it will be even beyond expectation with<br />

further experience and more opportunities that we all can benefit. Some attempts are<br />

made in nano-technology and material science, but much more can be done in other<br />

specialties also in civil engineering. The civil engineer <strong>of</strong> 2020 will not have to be<br />

pr<strong>of</strong>icient in the traditional field, but also in the computer allied fields and the academic<br />

community will have to gear-up soon for preparing such students. In a recent reference,<br />

the writer has brought these thoughts so that the freshman students <strong>of</strong> civil engineering<br />

may be introduced to various important aspects <strong>of</strong> engineering.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Sustainability Teaching Curriculum And Its Role In<br />

Forming Architecture Students’<br />

Environmental Awareness<br />

Maha S. Al-Zubaidi.<br />

<strong>University</strong> <strong>of</strong> Huddersfield /UK.<br />

Visiting Lecture- Ajman <strong>University</strong> <strong>of</strong> Science & Technology, UAE.<br />

P.O. Box 32106, <strong>Sharjah</strong>, UAE.<br />

Mobile: 00971 50 5971423<br />

e-mail: mahazubaidi@yahoo.com<br />

During the last two decades, a substantial body <strong>of</strong> knowledge has been<br />

established in sustainability, environment, and energy conservation, and a variant <strong>of</strong><br />

educational resources have been developed. Nevertheless this vital aspect <strong>of</strong> sustainable<br />

design is not architects’ primary focus, especially in the Arab World. Sustainable<br />

architecture is considered as one <strong>of</strong> the key strategies for achieving sustainability because<br />

buildings have diverse effects on the environment during their entire life cycles.<br />

Buildings & construction sector consume about 40-50% <strong>of</strong> the world energy annually and<br />

more than 50% <strong>of</strong> material recourses taken from nature are building related.<br />

Although the tangible impacts are visible only after construction begins,<br />

decisions made on the drawing board have long-term environmental consequences.<br />

Because environment related design should be required and integrated part <strong>of</strong> the entire<br />

design process, not merely an area <strong>of</strong> specialization, accreditation should require<br />

environmentally sustainable design principles. To achieve environmental sustainability in<br />

the building sector, it is crucial to educate architecture students in environmental issues.<br />

Although there is a universal consensus on the importance <strong>of</strong> environmental education in<br />

architecture, the questions <strong>of</strong> what, when, and how to teach specific subjects related to<br />

environmental sustainability cannot be easily answered. One reason for this is that<br />

architecture covers an enormous number <strong>of</strong> disciplines ranging from art to science —<br />

determining the level and extent <strong>of</strong> environmental education within design, technology,<br />

history, theory, practice, and environmental behavior is a difficult mission.<br />

This paper aims to study teachings tendency in schools <strong>of</strong> architecture especially<br />

the environmental and sustainable architecture principles and how it may affect in<br />

creating architecture students’ environmental awareness. The paper methodology<br />

depends on descriptive approach to environment and sustainability courses curriculum in<br />

architecture departments in some universities in UAE as a case study. An analytical<br />

approach will be followed to some students’ and graduation projects to demonstrate to<br />

what level sustainability issues are implemented in students’ and young architects’ design<br />

trends. Through discussion, evaluation and analysis, the paper looks forward to set some<br />

recommendations and formulate a frame work to develop environment and sustainability<br />

teaching courses in schools <strong>of</strong> architecture in the region. This aspires to increase<br />

architecture students’ environmental awareness to give students the skills and knowledgebases<br />

to seek and find sustainable design solutions.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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New Trends In Civil Engineering Education And Its Role In<br />

Infrastructural Development<br />

Faisal Shabbir & Naveed Ahmad<br />

<strong>University</strong> <strong>of</strong> Engineering and Technology,<br />

UET Taxila, Pakistan<br />

The main aim <strong>of</strong> this paper is to study the technological developments in the field<br />

<strong>of</strong> Civil Engineering and their practical uses in infra structural development works. Civil<br />

engineering design cycle involves all aspects <strong>of</strong> problem solving, from problem<br />

recognition to the implementation <strong>of</strong> a fully operational solution. There are growing<br />

expectations <strong>of</strong> the students and society from the teaching community in civil<br />

engineering. Consequently, civil engineers need information technology (the digital<br />

infrastructure and s<strong>of</strong>tware tools) to support their endeavors through all phases <strong>of</strong> this<br />

cycle, so that the community problems such as over population, insufficient services,<br />

public safety, environmental and other human needs are properly addressed. Since it is<br />

impossible to predict what IT developments will become high returns on investment in<br />

the future, educators should serve society by ensuring sound fundamental concepts.<br />

For this purpose, a practical case study <strong>of</strong> an infra structural development work<br />

was carried out during a course at post graduate level, by using the s<strong>of</strong>tware GIS and<br />

Primavera Project. The area considered for this purpose is Old Murree region which<br />

holds immense tourist potential. Despite the lack <strong>of</strong> adequate tourist facilities, Murree<br />

<strong>of</strong>fers opportunities for the development <strong>of</strong> winter sports in addition to general sight<br />

seeing and hill station facilities. Due to heavy influx <strong>of</strong> domestic tourists in Murree and<br />

its inability to expand physically, the problems faced by the tourists in the area have<br />

grown worse. The developments at Murree have reached a saturation point and requisite<br />

tourist infrastructure needs to be provided in a new site in its immediate surroundings. It<br />

was decided that a suitable alternate site be developed in its neighborhood, which in<br />

addition to providing an alternate tourist resort; generate a set <strong>of</strong> new growth activities in<br />

the region. The pr<strong>of</strong>essional inputs required for preparation <strong>of</strong> Detailed Master Plan for<br />

the Project includes data collection, topographic survey, geological & geotechnical<br />

investigations, GIS studies, traffic management plans, infrastructure development plans,<br />

area beautification plans, conceptual master plan etc. From the results, it is concluded that<br />

these new trends in civil engineering provide reliable and fast solutions to the community<br />

related problems. Since the applications <strong>of</strong> Information Technology being practiced by<br />

the civil engineers have been changing radically. The universities should take necessary<br />

measures in curricula improvements for such advancements and their practical<br />

applications which will ultimately lead to a better solution <strong>of</strong> community related<br />

problems.<br />

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The Application <strong>of</strong> a Geographic Information System (GIS)<br />

in Civil Engineering<br />

Asma’ Th. Ibraheem<br />

Lecturer in Civil Engineering, College <strong>of</strong> Engineering,<br />

Al-Nahrain <strong>University</strong>, Baghdad, Iraq,<br />

e-mail: drasmathamir@yahoo.com<br />

GIS started to developed during the last few decades as a result to the wide and<br />

extensive developments <strong>of</strong> computers and their peripheries such as digitizers display<br />

units printers, plotters, the wide capacity and enormous speed <strong>of</strong> processing, plotting and<br />

printing. GIS technology has been in use for over 25 years. It has a proven track record<br />

in assisting land managers to correlate and analyze large amounts <strong>of</strong> spatial and tabular<br />

data, resulting in scientifically sound land management decisions. As with any tool, GIS<br />

is not appropriate in all situations. Offices where staff are supportive <strong>of</strong> GIS technology,<br />

in situations where the data will be used a number <strong>of</strong> times for analysis, on-going<br />

management activities, planning, or research are the most logical candidates for GIS<br />

implementation.<br />

Hydrological modeling are including river network, rainfall modeling, catchments<br />

delineation, rainfall to run<strong>of</strong>f modeling, and hydrographic and flood modeling for flood<br />

depth calculations. Geology and bore log digitization, lineament and geo-morphology<br />

mapping, hyper-spectral imagery analysis and enterprise geo-technical s<strong>of</strong>tware<br />

application are developed for the mining, pipeline, and civil engineering industries. GIS<br />

application is developed for natural hazard loss estimation, analysis for disaster planning<br />

and disaster loss mitigation, emergency preparedness, and response and recovery. GIS is<br />

identified for waste disposal sites as well as construction, operation, maintenance, and<br />

closure <strong>of</strong> the repositories. GIS data are also processed and analyses for environmental<br />

impact studies and assessment. International companies produced different systems in the<br />

field <strong>of</strong> GIS. The major component <strong>of</strong> these systems is the processing s<strong>of</strong>tware in<br />

addition to the required hardware.<br />

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Community Service And Scholarship:<br />

Part-II Case Study Of The Balamand <strong>University</strong><br />

GIS Center<br />

Oussama C. Jadayel & Rita Y. Ibrahim<br />

GIS Center,<br />

Faculty <strong>of</strong> Engineering, <strong>University</strong> <strong>of</strong> Balamand,<br />

P.O.Box: 100, Tripoli, Lebanon<br />

e-mail: oussama.jadayel@balamand.edu.lb<br />

rita.y.ibrahim@balamand.edu.lb<br />

Geographical Information Systems (GIS) have become extremely important in the<br />

management <strong>of</strong> modern day societies. Their applications are endless within the various<br />

sectors <strong>of</strong> any one nation. They range from demographics to social economics, cadastral to<br />

property management, environment to public health, from risk management to homeland<br />

security, archeology and many more. In the developed world, GIS activities are well defined<br />

within the private and public sectors. They also receive the well deserved attention from<br />

academia, both as a research tool or as a subject for research and development. Such attention<br />

has prompted many institutions to <strong>of</strong>fer specialized courses or degrees in Geographical<br />

Information to prepare competent personnel to meet the demands industries and governments.<br />

In Lebanon, and in many other developed countries, although the potentials <strong>of</strong> GIS<br />

technologies are well appreciated, their market penetration has been relatively slow. Many<br />

reasons are contemplated for such delay, amongst which is the heavy initial investment<br />

associated with the acquisition <strong>of</strong> hardware, s<strong>of</strong>tware and data. Perhaps most restrictive,<br />

however, is the high level <strong>of</strong> interdisciplinarity required in communicating with spatial data;<br />

an aspect which implies well rounded personnel capable <strong>of</strong> maintaining these systems in a<br />

useful form. On the other side <strong>of</strong> the spectrum are Lebanese universities, many <strong>of</strong> which have<br />

good GIS facilities and are homes to competent GIS academics and high caliber students.<br />

However, Lebanese GIS academics remain largely unsupported by external national bodies,<br />

simply because such bodies are incapable <strong>of</strong> their support. Accordingly, a mechanism is<br />

needed to break the deadlock and this is where effective community service programs could<br />

be <strong>of</strong> extreme help. The GIS Center at the <strong>University</strong> <strong>of</strong> Balamand was very quick to harness<br />

its community service program to secure many community based projects with interesting<br />

academic components. The Balamand <strong>University</strong> “Service Experience, Education through<br />

Doing” program, SEED for short, served as the perfect platform to bridge the gap between the<br />

<strong>University</strong> and its community. It constituted a win/win model which provided students with<br />

an opportunity to get pr<strong>of</strong>essional experience by working for a community partner, get free<br />

academic credit and learn new skills. It also provided a community partner with expert<br />

support to realize projects, otherwise impossible without involving the academic resource.<br />

Additionally, academic faculty became exposed to the real requirements <strong>of</strong> the nation. Such a<br />

framework permitted Balamand academics and community partners to work together towards<br />

a common goal and allowed each to fulfill their institutional objectives. Admittedly, such<br />

efforts required considerable sacrifice in the initial stages and necessitated new work cultures<br />

to harmonize procedures between the <strong>University</strong> and the community. Once established,<br />

however, the SEED model became extremely attractive to funding organizations and<br />

development agencies. The object <strong>of</strong> this paper is to report on how the Balamand <strong>University</strong><br />

GIS Center pioneered the use <strong>of</strong> the <strong>University</strong> community service program in order to further<br />

its academic operation. It also illustrates some <strong>of</strong> the projects it has attracted and their impacts<br />

on research and student value-added learning.<br />

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Postgraduate Engineering Education In The Arab World:<br />

What Is Really Needed?<br />

Muhammad Taher Abuelma'atti<br />

King Fahd <strong>University</strong> <strong>of</strong> Petroleum and Minerals<br />

Box 203 Dhahr an 31261 Saudi Arabia<br />

e-mail: mtaher@kfupm.edu.sa<br />

A basic education is essential for any pr<strong>of</strong>ession, but engineering graduates <strong>of</strong><br />

universities are still at a very early stage in their development and require experience<br />

before they can apply their skills to the full. Links with educational establishments should<br />

not terminate at graduation. Indeed, with a person's increasing maturity and experience,<br />

further relevant and applicable courses will accelerate development. Improvements can<br />

also be made in the innovation potential <strong>of</strong> industry by increasing the effective stock <strong>of</strong><br />

practicing engineers since many will have scant knowledge <strong>of</strong> important topics which did<br />

not feature at all in undergraduate courses as little as three to fives years ago. If a degree<br />

course has been successful, graduates should have a sound knowledge <strong>of</strong> the underlying<br />

principles <strong>of</strong> their subject together with an awareness <strong>of</strong> current practice. They should<br />

have acquired a critical approach to scientific and engineering problems and be aware <strong>of</strong><br />

solving techniques, have learned to use resources at their disposal and developed<br />

individuality and a degree <strong>of</strong> ingenuity. They are in a position to take a responsible role<br />

in industry but the learning process continues throughout a career. The first degree is a<br />

valuable platform from which the graduate can leap in many directions. It must have<br />

provided the coverage <strong>of</strong> fundamental scientific principles and basic engineering practice<br />

necessary for a specialist career at first, but also enable a redirection <strong>of</strong> career at a later<br />

stage if desired. A graduate engineer is expected to:<br />

1. Prov ide innovative tools and applications.<br />

2. Absorb new technologies and provide the means <strong>of</strong> transferring such technology to his<br />

country.<br />

3. Make technological assessment and to make technological choice based on sound<br />

principles.<br />

Information we need to prosper increases every day. It is important for each <strong>of</strong> us<br />

to seek out as many opportunities as we can to expand our knowledge, and engineers are<br />

not exceptions. At a time <strong>of</strong> rapidly progressing technology and sociological change an<br />

engineer can no longer rely on information gained during his first degree to equip him for<br />

a career spanning several decades. Continuing education is increasing in<br />

importance. The primary mission <strong>of</strong> continuing education is to provide the engineers<br />

with academic, pr<strong>of</strong>essional and personal development programs.<br />

Any graduate course will need to be more specific than the first degree- more<br />

related to the engineer's requirements at that stage <strong>of</strong> his career. Course organizers must<br />

consider such needs very critically before developing curricula which try to meet<br />

industrial requirements and develop innovative skills. The difficulty <strong>of</strong> the task must not<br />

be underestimated, because requirements vary enormously and it is likely that several<br />

different types <strong>of</strong> courses on many different topics must be <strong>of</strong>fered. It is unusual for any<br />

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one educational establishment to have either the expertise or resources to mount but a<br />

few, so some national scheme that could co-ordinate this activity and avoid excessive<br />

duplication would be <strong>of</strong> immense value. Individual universities must take the initiative in<br />

assessing the national need and attempt to provide suitable courses .<br />

In this paper the advantages and disadvantages <strong>of</strong> graduate engineering education<br />

in the Arab World are discussed. It is believed that the running graduate programs in<br />

most <strong>of</strong> the Arab World universities are not serving the needs <strong>of</strong> their countries. New<br />

programs for masters <strong>of</strong> engineering and technology are proposed. The advantages <strong>of</strong> the<br />

proposed programs over the present running programs are highlighted.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Initiation <strong>of</strong> Postgraduate Studies in a New Private Foreign<br />

<strong>University</strong> – An update Case Study<br />

Sarim N. Al-Zubaidy*, George Y. B. Bakose**, Waseem Ahmed***, Zeya OO***<br />

* Discipline Leader - Aeronautical Engineering, Emirates Aviation College, UAE<br />

** Senior Lecturer- School <strong>of</strong> Engineering and Science<br />

*** PhD (Part-Time Research students), School <strong>of</strong> Engineering and Science<br />

Curtin <strong>University</strong> <strong>of</strong> Technology, Sarawak Campus, MALAYSIA<br />

In the information age <strong>of</strong> the twenty first century, postgraduate education can be<br />

looked at as a form <strong>of</strong> the new Life Long Learning Process. It is a known fact that<br />

postgraduate education is usually more intensive and <strong>of</strong>ten harder than undergraduate<br />

work and requires considerable motivation and self-discipline, both in academic and<br />

practical terms. In spite <strong>of</strong> the above, higher studies might be a necessary step to enable<br />

graduates to pursue a particular career; enhancing employment prospects or just continue<br />

to study simply because <strong>of</strong> a love <strong>of</strong> the subject. All <strong>of</strong> the above are good reasons for<br />

pursuing a postgraduate course.<br />

The initiation <strong>of</strong> postgraduate programs in an <strong>of</strong>fshore university branch campus<br />

with diverse intake, represent a real challenge not only to the institution itself and<br />

administrators <strong>of</strong> the proposed programs but also to the involved academics, support staff<br />

and <strong>of</strong> course the postgraduate students themselves. It is hoped that this paper will shed<br />

some light on the difficulties faced by students intending to pursue their postgraduate<br />

studies in a university with new postgraduate system. The presented work will also<br />

identify the encountered hurdles during the different phases <strong>of</strong> postgraduate degree<br />

registration.<br />

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Global Cooperation For Graduate Studies In The USA<br />

J. P. Mohsen * , Gajanan M. Sabnis ** and Elias B. Sayah ***<br />

* Pr<strong>of</strong>essor and Chairman, Department <strong>of</strong> Civil Engineering<br />

<strong>University</strong> <strong>of</strong> Louisville, Kentucky, USA<br />

e-mail: jpm@louisville.edu<br />

** Pr<strong>of</strong>essor <strong>of</strong> Civil Engineering, Howard <strong>University</strong>, Washington, DC, USA<br />

Consultant, Silver Spring, MD, USA)<br />

e-mail: (gms@sabnis.com)<br />

*** President, Sayah Engineering Consulting Bureau, Abu Dhabi, UAE<br />

e-mail: (ebsayah@emirates.com.ae)<br />

In every university, one sees Asia-born foreign-trained faculty members. This<br />

was the result <strong>of</strong> migration <strong>of</strong> the 1970’s <strong>of</strong> large migrant population, which was Asian.<br />

This led to a paradigm shift in students as well due to the attracted students from the<br />

countries, where these faculty members came and from the good and equivalent<br />

universities established and flourished in the developing countries. Over the years,<br />

engineering pr<strong>of</strong>ession became less attractive in the US, which also resulted in a partial<br />

vacuum in the programs. As the world shrunk in terms <strong>of</strong> travel, transfer <strong>of</strong> knowledge<br />

and available pool <strong>of</strong> student body increased in size, American universities started to<br />

expand their horizon in Asian countries.<br />

In this paper some case studies are presented from the US experience in several<br />

universities. <strong>University</strong> personnel, typically the engineering deans and their staff traveled<br />

Far East to seek good students. This proved to be beneficial for several reasons. It<br />

expanded the horizon and the general outlook towards the rest <strong>of</strong> the world by direct<br />

contacts. Since the pool is large, it gave a better screening for the administration in the<br />

university at source thus reducing the “Visa Gamble” and the “waiting game” for nonshow<br />

<strong>of</strong> students causing last minute headaches. Finally, it also brings the best talents in<br />

other countries to help the research in the US universities and enriches the diverse United<br />

States richer with their talents.<br />

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Post Graduate Chemical Engineering Education in Saudi<br />

Arabia: Integrating Research, Teaching and Community Service<br />

Habib Daoud Zughbi<br />

Department <strong>of</strong> Chemical Engineering, KFUPM, Dhahran, 31261, Saudi Arabia, Email:<br />

hdzughbi@kfupm.edu.sa<br />

Funds allocated for higher education has significantly increased over the last few<br />

years in Gulf countries and especially in Saudi Arabia. Universities are making serious<br />

attempts at building up and improving their graduate programs. Many improvements can<br />

clearly be seen in the quality and number <strong>of</strong> graduate students in Saudi Universities.<br />

However, graduate education still suffers from a number <strong>of</strong> factors that are yet to be<br />

tackled effectively. In general and specifically in Chemical Engineering, these factors<br />

include: (i) The number <strong>of</strong> graduate students per faculty number is still low, (ii) The ratio<br />

<strong>of</strong> PhD students to Masters students is low, (iii) The links between universities and the<br />

local industry and the contribution <strong>of</strong> major local companies to the graduate program are<br />

relatively limited, (iv) The ratio <strong>of</strong> the number <strong>of</strong> local students compared to overseas<br />

students especially in the PhD program is very low. The main focus <strong>of</strong> this paper is the<br />

third abovementioned point which is ultimately linked to the integration <strong>of</strong> chemical<br />

engineering research, teaching and community service.<br />

In this paper, the above factors are analyzed based on available data. Some <strong>of</strong><br />

these issues can be alleviated within a short period. The paper presents recommendations<br />

including methods to ensure better contribution, closer cooperation, and continuous<br />

contact between the local industry and the graduate programs which lead to mutual<br />

benefits. Such recommendations represent effective ways <strong>of</strong> integrating research,<br />

teaching and community services. One such way is to develop specialized post graduate<br />

degrees that mainly addressed the needs <strong>of</strong> the various sectors <strong>of</strong> the local industry. This<br />

involves tailoring courses and tackling problems specifically related to the main sectors<br />

<strong>of</strong> the local industry. Another recommendation is closer contacts between the faculty<br />

members and the local industry through summer placement, short courses, workshops, or<br />

other short to medium term placements. The recommendations are presented and<br />

compared to similar initiatives successfully implemented in other parts <strong>of</strong> the world.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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How Postgraduate Students Can Be Further Supported:<br />

Based On Interviewing The Postgraduate Students<br />

Hamid Hassanpour<br />

Noshirvani Institute <strong>of</strong> technology, Mazandaran <strong>University</strong>, Babol, Iran<br />

Email: h.hassanpour@nit.ac.ir<br />

In this research we are aimed to find the way that a university can further support<br />

its international postgraduate students. The author interviewed more than 50 international<br />

students study at the Faculty <strong>of</strong> Built Environment & Engineering, Queensland<br />

<strong>University</strong> <strong>of</strong> Technology (QUT), Australia in 2004. Queries <strong>of</strong> the interview were<br />

designed to cover any problem that may concern the students during the candidature,<br />

such as research facilities, technical support and conference attendance.<br />

This research shows that there are many aspects that a university such as QUT<br />

can further support international students. The most important aspects have been<br />

summarized as following:<br />

• International students may not finish their study on the schedule. There is a need<br />

to provide an extra year on the visa for these students.<br />

• Students suggest the school hire recognized students <strong>of</strong> staff within the school<br />

with a good technical knowledge to edit international student’s documents.<br />

• The majority <strong>of</strong> students said they wish to be involved in the university teaching<br />

program. They believe that this can improve their academic communication<br />

skills. Some <strong>of</strong> the students said that they wish to be a lecturer after they finish<br />

their studies but they do not have the opportunity to gain any teaching<br />

experience.<br />

• When there is a research grant, the supervisor is expected to financially support<br />

the student involving in the research.<br />

• It is suggested having an orientation for postgraduate students within the school.<br />

• Many students believe that the university should further support them to attend<br />

conferences. Presenting a paper at a conference is an opportunity for the students<br />

to reassess their research plan.<br />

• All <strong>of</strong> the students believe that the stage 2 proposal is very helpful for their<br />

research and prepares them to take over other stages <strong>of</strong> the research.<br />

• All <strong>of</strong> the students said that the confirmation report and seminar are very useful.<br />

Some <strong>of</strong> the candidates said that the university should look for an expert panel,<br />

even if they are from other universities.<br />

• Many <strong>of</strong> the students said it is good that international examiners examine their<br />

thesis in order to improve the value <strong>of</strong> the thesis.<br />

• Many students said that the postgraduate seminars, running monthly by the<br />

faculty, are good or very good. However, they prefer to have the same seminar at<br />

each school.<br />

• If the student has a problem in the research for any reason, there should be an<br />

easy way to discuss the matter with the school.<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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F O R U M<br />

INTEGRATING TEACHING AND<br />

RESEARCH WITH COMMUNITY SERVICE<br />

PRESENTERS INDEX<br />

A<br />

Page<br />

Nos.<br />

A<br />

Page<br />

Nos.<br />

A<br />

Page<br />

Nos.<br />

A<br />

Page<br />

Nos.<br />

Analoni M. 1, 44 Aziz S. 35 Al-Nimma M. 67 Al-Mualla M. 87<br />

Aoued B. 5 Abdullah H. 37 Al-Hamad 68 Al-Qayedi A. 87<br />

Abed S. 6 Ayar T. 39, 91 Al-Bastaki 68 Al Kamil M. 92<br />

Al-Dabbagh M. 11 Arbaoui E. 42 Al-Anzi F. 69 Ali A. 94<br />

Al_Khishali J 16 Aichouni M. 46 Al-Ansari K. 71 Ali Z. 96<br />

Al-Dahan Z. 16 Al-Turki U. 51, 91 Anas A. 71 Al-Sulaiman F. 103<br />

Al-Bahrany L. 17 Awad M. 53 Al-Mhaidab A. 74 Ahmed M. 103<br />

Al-Hammad I. 19 Al-Naffouri T. 57 Al-Mughied O. 76<br />

Abdullah<br />

UZUN<br />

105<br />

A. Fattah K. 20 Abuelma'atti M. 60, 116 Al-Qahwagi G. 77 Arif M. 106<br />

Absi A. 24 Aljinaidi A. 61 Al-Omary H. 78 Alwash J. 107<br />

Al-Gadhib 27 Alghamdi A. 61 Al-Asadi I. 79 Assi E. 109<br />

Amireh O. 30 Abu-Joukh M. 62 Alawi M. 80 Al-Zubaidi M. 112<br />

Al-nallar A. 32 Al-Hasnawi M. 63 Abd-Alkareem M. 83 Ahmad N. 113<br />

Al-Khalifat A. 34 Al-Salim H. 65 Abed-Meraim K. 86 Ahmed W. 118<br />

Al-Khamis T. 34 Al-Dabbas F. 65 Al Ahamad H. 87 Al-Zubaidi S. 118<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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B<br />

Page<br />

Nos.<br />

C<br />

Page<br />

Nos.<br />

G<br />

Page<br />

Nos.<br />

H<br />

Page<br />

Nos.<br />

Boashash B. 3 Cora A. 89 Ghannam M. 8 Habouch O. 104<br />

Berrais A. 23 D Ghumman A. 55 I<br />

Balla A. 42 Durrani T. 2 Ghulman H. 80 Ismail Y. 85<br />

Benchicou S. 46 Djoudjou R. 4 H Ibraheem A. 114<br />

Bettayeb M. 50 Daoud H. 16 Hassan S. 6 Ibrahim R. 115<br />

Bennett K. 56 Duffuaa S. 51, 91 Haj-Ali N. 7 J<br />

Banoud A. 66 Dina 83 Hall S. 10 Jadayel O. 115<br />

Bassam 68 E Hassanpour H. 14, 121 K<br />

Bashabsha N. 76 Elmehdi E. 22 Hallanjian E. 14 Khan A. 9<br />

Bouafia M. 82 Elaydi H. 53 Hamouda A. 42 Kallas N. 15<br />

Bouamama L. 82 El-Kanzi E. 68 Hasna M. 44<br />

Khasawneh<br />

M.<br />

18<br />

Belouchrani<br />

A.<br />

86 El-Raghy S. 97<br />

Habib-ur-<br />

Rehman<br />

59 Koklukaya E. 37<br />

Bdira E. 90 Elmehdi H. 101 Hayati F. 72 Kamel I. 40<br />

Bassiony Z. 97 F Hehn T. 84 Khasawnen M. 48<br />

Boudiaf B. 108 Fakhroo A. 44 Hurber J. 84 Kheriralla A. 83<br />

Bakose G. 118 Fahri V. 105 Hasan C. 85 Kumar A. 93<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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K<br />

Page<br />

Nos.<br />

M<br />

Page<br />

Nos.<br />

R<br />

Page<br />

Nos.<br />

S<br />

Page<br />

Nos.<br />

Khan N. 94 Masodi M. 98 Rehman H. 59 Sabnis G. 111, 119<br />

Kazim A. 102 Mohsen J. 119 Ridha T. 75 T<br />

M N Rahama O. 83 Tanyildizi E. 81<br />

Meliani H. 4 Nasr S. 22 Rashid R. 98 Techel F. 99<br />

Malkawi A. 18 Noaman A. 61 S Tahar T. 100<br />

Mermoul A. 24 Nasr G. 83 Said S. 13 W<br />

Mir M. 26 Nathan S. 93<br />

Stapelberg<br />

R.<br />

21 Wally M. 79<br />

Majid A. 28 Nasr G. 83 Salem M. 32 Wernicke G. 82<br />

Made A. 36 O<br />

Samaraie<br />

M.<br />

33 Wangerow S. 84<br />

Mimaroglu A. 37 Oukil M. 39 Sabnis G. 36, 111 Y<br />

Malkawi M. 48 Orhan A. 81 Sazak N. 37 Yildiz M. 37<br />

Malik N. 55 Odhabi H. 93<br />

Sirelkhatim<br />

A.<br />

41 Younes M. 77<br />

Memon Q. 59 P Shabbir F. 55, 113 Z<br />

Matsumura S. 68 Pistorius S. 101<br />

Shanableh<br />

A.<br />

73 Zmat A. 52<br />

Memon Q. 59 Q<br />

Saadelnoor<br />

A.<br />

83 Zeya O. 118<br />

Majid A. 70 Qidwai U. 29 Sheikh A. 103 Zughbi H. 120<br />

Mustafa N. 85 Qaraqe 44 Sharma R. 110<br />

Mahmut C. 85 Sayah E. 111, 119<br />

Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

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Book <strong>of</strong> Abstracts 25-27 April, 2006<br />

125

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