Moving Society Ahead, Together - The Schulich School of ...

Moving Society Ahead, Together

Table of Contents
01 Together We Lead
02 Research Synergies
05 CCIT: Multi-disciplinary Research in Action
06 Bioengineering
10 Information Technologies
14 Infrastructure and Materials
16 Advanced Manufacturing and Design
18 Hydrocarbon and Energy Research
22 Environmental Engineering
24 International and National Collaborations
25 Partners
26 New Collaborators
27 Graduate Studies in Engineering

Together We Lead
University of Calgary Engineering p1
Together We Lead
Message from the Dean
In this brochure we pay tribute to the research programs, professors, research fellows, technical
staff, and post-graduate students that have made us an internationally recognized place for outstanding engineering research and technology transfer.
The disciplinary strength we have has caused multi-disciplinary research activity to flourish. Basic research and applied industrial research co-exist
side by side. Significant support from NSERC, ASRA, CFI, iCORE, the Alberta Ingenuity Fund, the AHFMR, and major industry partners has also been
instrumental in our success. All major research awards in Canada applicable to engineering research have been won by our academic staff. It has
been a pleasure to support and reward the boom in research that has occurred in our faculty.
Message from the Associate Dean Research The Faculty of Engineering is a research-intensive faculty with national and international
reputations for the quality and impact of its research and graduate programs. This recognition has been achieved because of the faculty’s commitment
to excellence, relevance and innovation, close interactions with the industry, timely technology transfer, and quality of graduate education. The faculty
plans on meeting the challenges of the 21st century by expanding its areas of strength through industrial partnerships, national and international
collaborations, new research centres and institutes, and the establishment of multi-disciplinary programs and facilities for innovative research that
meet the needs of society.
Message from the Vice-President (Research) The University of Calgary is one of Canada’s most research-intensive universities. It is a learningcentred
university that promotes a culture of inquiry, critical assessment, and problem solving in its students. It is committed to multi- or inter-disciplinary
inquiry recognizing that many of the issues facing our society are complex and require collaboration and cooperation among researchers in several
disciplines. The Faculty of Engineering is a world-class, multi-disciplinary faculty with outstanding research strength in three of the university’s four
strategic priority areas: energy and the environment; creating technologies and managing information; and advancing health and wellness.
S. C. Wirasinghe, Ph.D., P.Eng.
Dean, Faculty of Engineering
M. G. Sideris, Ph.D., P.Eng.
Associate Dean Research,
Faculty of Engineering
D. R. Salahub, Ph.D.
Vice-President (Research),
University of Calgary

Research Synergies
University of Calgary Engineering p2
Research Synergies
Welcome to the Faculty of Engineering, University of Calgary, where
outstanding people, divergent perspectives, state-of-the-art facilities, focus,
and time create innovation.
Engineering research at the University of Calgary uncovers solutions to
issues that impact us now and in the future. Our expert research teams
span the research continuum from discovery at the basic engineering
science level, prototyping and testing, to technology commercialization, and
then back again. Multi-disciplinary, international and industry collaborations
characterize our approach to research and provide the intellectual
infrastructure to solve unique problems. New multi-disciplinary facilities
such as the Calgary Centre for Innovative Technology (CCIT) augment the
physical support to grow our world-class research to a higher level.
Energy & the Environment
As a faculty of strength within the University of Calgary, the Faculty of
Engineering is strategically focused on six main areas of study:
Bioengineering, Information Technologies, Infrastructure and Materials,
Advanced Manufacturing and Design, Hydrocarbon and Energy Research,
and Environmental Engineering. Each area, rich in expertise, covers a broad
range of related research sub-areas.
These areas synergistically support our university’s initiative to become
a world leader in energy and the environment, the advancement of health
and wellness, and creating technologies and managing information. As
expertise in one area grows, such as infrastructure, it overlaps and
enhances strength in other areas, such as biomedical research. This
synergy is characteristic of engineering research and is key to outcomes
that impact our lives. The Venn diagram illustrates this supportive and
interwoven relationship.
Creating Technologies
& Managing Information
Advancing Health & Wellness
Over time, our research enterprise will continue to produce innovation and
directly improve the quality of life of people in Canada and abroad.

Bioengineering
Bioinstrumentation Sensors and MicroElectroMechanical Systems
(MEMS)
Biomedical Imaging
Cardiovascular Research
Cell and Tissue Engineering
Musculoskeletal Mechanics in Health, Injury and Disease
Pharmaceuticals, Vaccines and Bioreactors
Transplant, Prosthetic, Medical Devices
Information Technologies
Communications Engineering
Digital Imaging
Geospatial Information Systems
Instrumentation and Control Systems
Mechatronics
Project and Information Management
Satellite-Based Positioning, Wireless Location and Navigation
Software Engineering and Intelligent Agent Systems
VLSI Circuit Design and Electronics
Infrastructure and Materials
Structures and Materials
Smart Structures
Transportation Engineering
Water Management Systems
Advanced Manufacturing and Design
Life-Cycle Design Engineering
Intelligent Manufacturing Systems
Nano/MicroElectroMechanical Systems (Nano/MEMS)
Production Planning, Supply Chain Management and Control
Rapid Manufacturing Processes
Robotics
Hydrocarbon and Energy Research
Alternative Energy
Improved Recovery of Oil and Gas
Geomechanics and Reservoir Simulation
Oil and Gas Resources
Oil Sands
Petrochemicals
Reservoir Characterization
Sustainable Hydrocarbon Resource Development
Sequestration of Greenhouse Gases (GHG)
Environmental Engineering
Air Quality
Contamination Prevention, Reduction and Recovery
Environmental Design Engineering
Solid Waste Management
Waste-Water Management
Environmental Monitoring and Global Change

Large Photo: Calgary Centre for Innovative Technology (photo courtesy of David Brown). Small Photo: RODOPOD.
It’s not just a facility but a philosophy . . .

CCIT: Multi-disciplinary Research in Action
University of Calgary Engineering p5
CCIT: Multi-disciplinary Research in Action
The Calgary Centre for Innovative Technology, CCIT, is more than a new
research facility. It is a culture and a philosophy for doing multi-disciplinary
research within the Faculty of Engineering at the University of Calgary.
Researchers from other faculties, universities, institutes, and industries
combine their expertise to develop timely and innovative solutions,
products, and technologies that improve the quality of life and global
competitiveness of Alberta and Canada.
Four research groups, each with world-renowned teams, occupy the
6,690-square-metre building and challenge the following issues facing
Canada today: health and an aging population, environmental
impact, resource development, deteriorating infrastructure, and next
generation technologies.
The Energy High Bay and Hydrocarbon Production Lab provide the
necessary infrastructure for pilot plants, in-situ combustion and highpressure
sour gas, and enhanced recovery research. The Structural High
Bay will have the capability to test full-size structural elements used in the
construction and petroleum industries. Biomechanics and biotechnology
research focuses on risk assessment, intervention, prevention and
treatment of osteoarthritis. Expertise and facilities for imaging research
include specialized equipment for 3-D visualization, tomography and
bioimaging. The roof antenna range enhances the research capacity in
satellite navigation. Wireless and radio frequency research resolves locationrelated
issues. System-on-a-chip opens up entirely new possibilities.
The co-location of the unique laboratories leads to cross-fertilization of
ideas and outcomes that impact our global community.
Improving Knee Injury Treatment Our longer, more active
lifestyles are resulting in more sports injuries and a rising percentage of
Canadians developing osteoarthritis.
While doctors and scientists focus mainly on the biology of the joint,
bioengineers excel in discerning the role that cells, tissues, ligaments, and
cartilage play in maintaining the structural integrity of a joint.
A common treatment of sports injuries involving the anterior cruciate
ligament (ACL) is surgical reconstruction of the ligament using other tissue.
Researchers are engineering a RODOPOD System that will accurately
reproduce motion of a joint in six degrees of freedom during weight-bearing
activities. The system will aid in evaluating the changes in joint loading
that result from injury and subsequent surgical intervention.
This research will provide a model to relate the effect of joint loads
on the development of osteoarthritis and investigate the long-term
implications of new surgical procedures. Collaboration with the Faculties
of Kinesiology and Medicine will lead to improved treatment methods for
knee injuries, ultimately reducing the effects of osteoarthritis following injury.
Inside Reality The iCentre is a 3-D visualization cave that offers
researchers the opportunity to be “inside reality.” Three 8' x 8' screens
are set at right angles to each other to create a cave. Using rear projection,
the screens display computer-generated images. A fourth projector reflects
the image from a ceiling-mounted mirror onto the floor. Inside Reality is
the software developed by Schlumberger that creates the 3-D images
of oil and gas reservoirs. The researcher is able to stand within the cave
to observe simulation time steps of a reservoir under production or use
a computer mouse to fly through the reservoir seeking geological trends
or optimizing well bore trajectories.
This facility has far-reaching possibilities for many research groups with
the addition of other visualization software programs. The imaging done
with the CT scanners can be viewed in 3-D. The Bioengineering group
will be able to create 3-D images of joints and related stresses, and rotate
the images to analyze them from various angles. Data from MRIs can be
displayed in 3-D allowing doctors and engineers to proactively develop
surgical procedures and devices. The Manufacturing group can also use
CAD drawings to create 3-D images of the prototypes. The opportunities
for collaborative research are endless.
Seeing is truly believing.

Large Photo: Bioelectrics Lab – Home to microfluidic microchip research.
Bioengineering
Research Areas
Bioinstrumentation Sensors and
MicroElectroMechanical Systems (MEMS)
Biomedical Imaging
Cardiovascular Research
Cell and Tissue Engineering
Musculoskeletal Mechanics in Health, Injury and Disease
Pharmaceuticals, Vaccines and Bioreactors
Transplant, Prosthetic, Medical Devices
Facilities
Human Performance Laboratory
CCIT Bioengineering Suite
McCaig Centre (Foothills Site)
Cardiovascular Laboratories (Foothills Site)
Pharmaceutical Production Research Facility
Biofilms Research Facility
BioMEMS and Bioelectrics Research Labs
Seamans Medical Imaging Research Centre (Foothills Site)

Bioengineering
University of Calgary Engineering p7
Advancing Health and Wellness
With an aging population, and economic and personnel strains on the
health care system, finding financially viable medical solutions is a
priority in Alberta and North America. Advancing Health and Wellness is
a research focus within the University of Calgary and the Bioengineering
group offers exceptional expertise, a unique perspective, and dedicated,
award-winning researchers.
The Bioengineering group is composed of researchers from all engineering
departments, together with colleagues in kinesiology, medicine and
science, as well as those outside the university. These researchers
collaborate on a variety of subjects related to human motion and health.
The group has expertise in the areas of systems physiology, instrumentation,
biotechnology, and biomechanics. Group members seek to improve
diagnosis and treatment of injury and diseases. Projects range from
developing techniques to improving diagnostic accuracy from MRIs to
biochemical reactors using genetically modified insect cells to produce
drugs and proteins; from understanding the structural mechanics of the
heart to developing non-invasive techniques for assessing scoliosis; from
biomedical sensors at the nanotechnology level (MEMS) to understanding
how loads affect cells in the development of osteoarthritis.
The potential economic benefit of better and/or more economic
treatments that will result from the collaborative efforts of this team of
researchers is incalculable.

Bioengineering
University of Calgary Engineering p8
Microfluidic Microchips Detect Life-Threatening Diseases A multidisciplinary
research team is developing a lab-on-a chip – the size of your
fingertip – capable of detecting life-threatening diseases.
Diseases such as cancer initially affect only a few cells. A lab-on-a-chip
is able to take a small blood sample and examine the DNA properties
of each cell. The team is using a non-invasive, non-chemical agent
Dielectrophoresis (DEP) levitation method to interrogate cells and
examine their individual electrical properties. This information will aid in
“fingerprinting” diseased cells and facilitate the analysis and recognition
of cells for diagnosis.
In addition to expediting the detection of diseases, this technology is laying
the foundation for automated medical care. For example, within five years,
implanted smart devices worn by diabetic patients will be able to
automatically administer insulin accurately.
Cardiac Enquiries The heart is an incredible pump – it beats
some 2.5 to 3 billion times during the lifetime of the average Canadian.
University of Calgary researchers are estimating stresses in heart structures
for both normal and abnormal loading, leading to better insight on heart
function and treatment. Analysis of the progress of a pulse of blood down
the aorta is providing new ideas on how the heart and vasculature work
together to provide an energetically efficient system for moving blood
through the body.
Advancements in defibrillators give new hope for people who are treated
for sudden cardiac death. Some 200 to 300 battery-powered defibrillators
are implanted each year in patients in Alberta alone and must be replaced
when the battery is drained. One new approach developed by U of C
electrical engineers – the “intelligent defibrillator” – seeks to determine
the exact energy value needed by a patient, decreasing the amount of
wasted power. The device will improve both the reliability and the life of
the apparatus.
Secret Lives of Disc Cells Researchers are investigating the
secret lives of one of the tiniest components of the spine – the disc cell.
The disc cell maintains the tissue in the spinal disc. When the spinal disc
undergoes abnormal loading, such as with scoliosis, the cell becomes
nutritionally challenged and subjected to considerable mechanical loads
during everyday activities. Tissue maintenance becomes cumbersome.
In this state, cell density is low and it initially appeared that the cells were
separated by considerable extra-cellular tissue. However, recent studies
suggest that these cells are far more interconnected with long, thin
tentacles that seem to join the cells into a network.
University of Calgary researchers are investigating the role of these
tentacles. Do they enable intercellular communication and help create a
coordinated response to mechanical stress to maintain the tissue?
Microfluidic microchip Heart research Secret lives of disc cells

Bioengineering
University of Calgary Engineering p9
Beating Breast Cancer
University of Calgary engineering
professors are developing novel imaging techniques that will help doctors
in the fight against breast cancer.
A new computer-aided image processing technique enhances
mammogram images. Not only can enhancement lead to early detection
of breast cancer, but it helps radiologists make more confident
diagnoses. Additional techniques are being developed to detect several
signs related to breast cancer, and to classify them into various categories.
The Applied Electromagnetics group is developing a 3-D imaging technique
that scans the breast with ultra-short electromagnetic pulses. This safe
and comfortable technique may lead to early tumor detection, as well as
allow physicians to distinguish between malignant and benign tumors
without an intrusive biopsy. Furthermore, the cost of the process would
be similar to an ultrasound, making it ideal for massive screening purposes.
Implantable Microprocessors Abnormal gastrointestinal content
movement can lead to painful illnesses such as severe constipation,
gastroparesis and potentially even colon cancer. Current treatments involve
invasive surgery and medication.
U of C electrical engineers, in collaboration with researchers from Canada,
the U.S., and Europe, are developing implantable microprocessors to assist
with the transportation of food through the gastrointestinal system.
Their breakthrough research has created the first successful portable
gastrointestinal stimulator. The device, currently used in chronic animal
applications, artificially massages the stomach with electrical stimulation
and induces contractions.
Researchers are now seeking to miniaturize the device for implantation
and are confident that it will soon provide an alternative, less invasive
treatment for these illnesses.
Large-Scale Neural Stem Cell Expansion in Bioreactors Neural
stem cells (NSC) are the “parent” cells of all the cells in the central nervous
system (CNS). Their discovery in 1992 opened the door to a multitude
of potential therapies and treatments for neurodegenerative diseases such
as Parkinson’s, Multiple Sclerosis, and Huntington’s disease. The
expected demand for treatment from the millions of afflicted individuals,
coupled with the expected demand from biotechnology companies
creating the therapies, has fuelled the development of large-scale culture
methods for these cells.
In the Pharmaceutical Production Research Facility (PPRF), researchers
are developing new media and bioreactor protocols for the large-scale
growth of mammalian neural stem cells. In collaboration with the Stem
Cell Network, they are also developing protocols to expand large numbers
of muscle-derived stem cells (MDSC), hepatic oval stem cells (HOSC),
and pancreatic stem cells.
“Detection of breast masses in mammograms
by density slicing and texture
flow-field analysis.” (IEEE Transactions
on Medical Imaging, 20[12]: 1215-1227)
Gastrointestinal research
Pharmaceutical Production
Research Facility

Large Photo: New video techniques advance long track speed skating coaching.
Information Technologies
Research Areas
Communications Engineering
Digital Imaging
Geospatial Information Systems
Instrumentation and Control Systems
Mechatronics
Project and Information Management
Satellite-Based Positioning, Wireless Location
and Navigation
Software Engineering and Intelligent Agent Systems
VLSI Circuit Design and Electronics
Facilities
Applied Electromagnetics Research Facility
Bioelectric Simulation Laboratory
Image and Multimedia Processing Laboratory
Image and Signal Processing Lab
Laser Scanner for Engineering Metrology
Low-Frequency Instrumentation Laboratory
Microelectronics and VLSI Development and Testing Facility
System-on-a-Chip/Clean Room
Multi-Sensor Laboratory
GPS Signal Simulator
Multiple Reference Station RTK DGPS Network
Water Vapour Radiometer

Information Technologies
University of Calgary Engineering p11
Emerging New Technologies
A dramatic acceleration is taking place in the development and use of
information and communication technologies, with a worldwide transition
to the “Information Society.” Many aspects of our lives are affected by
this transformation, and new opportunities and challenges are created
with the technological advances. The ability to use information effectively
requires solutions from those engaged in the creation of new devices and
algorithms for information transmission and analysis, as well as from those
developing new ways of handling and using this information.
In the Faculty of Engineering, researchers are developing new methods
to advance emerging information technologies, with the potential for
significant industrial and societal impact. Areas of research include: mobile
and personal communications, Internet, telematics, microelectronics,
software development, simulation and visualization, multi-sensory
interfaces, subsystems and microsystems, and the convergence of
information and communications technologies. Information technologies
are a strategic academic priority at the University of Calgary, where highlevel
research is being conducted with worldwide recognition.

Information Technologies
University of Calgary Engineering p12
New Technology . . . New Solutions . . . New Markets . . . The design
complexity of system-on-a-chip integrated circuits has reached a point
where complete systems can be readily built to address new problems
in a wide variety of areas including communications, information
processing, and bio-analysis. A new paradigm of circuit design has evolved
where third-party designers can now create part of a chip, Intellectual
Property or IP blocks, and sell these blocks to other designers. Designers
need not start from scratch, but can build upon IP blocks to create a
full system.
University of Calgary researchers with expertise in bioengineering,
microelectronics, signal processing, and wireless systems are using this
foundation to experiment with novel ideas. The time needed for our experts
to produce, test, and demonstrate the industry value of our products has
decreased, meaning that industry will gain new technologies that are easy
to integrate, respond to new challenges, and potentially create new markets.
Finding People Everywhere From aircraft navigation and in-car
information systems, to personal digital assistant location and emergency
911 cell-location, the Positioning, Wireless Location and Navigation group
are creating technologies to find people and their locations.
R&D is conducted in partnership with a variety of national and foreign
governments and industrial groups. Numerous processes and software
have been successfully licensed worldwide.
A Wireless World The University of Calgary Radio Frequency
Integrated Circuit (RFIC) design group is one of the few Canadian university
research groups with expertise in high frequency radio frequency (RF)
wireless analog integrated circuit (IC) design that will help to move the
world towards a truly wireless community.
Short-range wireless communication will soon permeate all aspects of
our lives, from grocery shopping to vehicle repair.
Using new approaches to develop high-speed wireless local area networks
and high-performance optical fibre communication systems, the group
is building a repertoire of IC building blocks needed to realize this world.
Financial support from NSERC, iCORE, and TRLabs, in collaboration with
the TRLabs research consortium, will facilitate technology transfer to
industry and help Canada maintain its position as a leader in advanced
wireless technologies.
Regarded as one of the world’s leading academic research groups in this
rapidly growing field, the group conducts research and development related
to the Global Positioning System, the European Galileo System and the
fusion of radio frequency and self-contained sensors for applications both
outdoors and indoors.
Information and Communications
Technology building Satellite observation lab TRLabs
Photo courtesy of TRLabs.

Information Technologies
University of Calgary Engineering p13
New Video Techniques Advance Long Track Speed Skating Coaching
Calgary’s long track speed skating coaches will be using revolutionary
video collection equipment to take their athletes to the gold.
Video analysis is critical to skill improvement in elite athletes. In collaboration
with the Olympic Oval, a team of University of Calgary electrical engineers
is developing an interconnected system of cameras that will automatically
identify and follow an athlete around the track. Additionally, the
technology will store and archive video for enhanced analysis.
The technology has the potential to revolutionize sport research. The team
expects that the technology will not only save time and money as coaches
are currently required to film performances, but it will also ensure highquality
and consistent data for more accurate analysis.
Saving Lives The next time road-side assistance rescues you
from being stranded with a flat tire, think of the University of Calgary.
Geospatial Information Systems (GIS), positioning and navigation and
wireless technologies comprise the technology needed for location-based
services. The integration of these technologies has enabled location
identification, wireless communication and information management.
Now Global Positioning System (GPS) receivers that are embedded
in a vehicle or a cell phone can identify emergencies and wirelessly
communicate one’s location to a medical dispatcher. GIS technologies,
refined by U of C geomatic engineers, provide medical data services with
the quickest and most efficient route to the emergency.
Anechoic Chamber With one of the largest Anechoic Chambers
of all Canadian universities, the Applied Electromagnetic Research group
has a site to test their wide range of electromagnetic applications.
The Anechoic Chamber is completely impenetrable to electromagnetic
radiation (EMR). Hi-tech foam spikes that line the inside of the chamber
trap and absorb EMR. With walls that do not reflect radiated energy, the
site will, among other things, be used to develop antennas for new
generations of mobile systems.
In one of the projects, cellular phone antennas are re-examined. Currently,
the operator’s head absorbs significant amounts of electromagnetic waves
radiated by phones. This poses potential health concerns and also results
in system power loss. Researchers will be using the chamber to test
antennas designed to reduce power absorption in the head and to improve
overall system efficiency.
Automated video collection system Realizing location-based services Antenna testing in the Anechoic Chamber

Large Photo: Confederation Bridge. Small Photo: The first successful application of FRPs in post-tensioned masonry structures.
Infrastructure and Materials
Research Areas
Structures and Materials
Smart Structures
Transportation Engineering
Water Management Systems

Infrastructure and Materials
University of Calgary Engineering p15
Building a Better World for our Advancing Society
From clean drinking water and earthquake-resistant buildings, to 13-km
bridges and efficient and durable roadways, research in the area of
infrastructure and materials has a direct impact on our daily lives.
Historically, research was aimed at the design, construction, and operation
of infrastructure. However, in today’s economic environment, which
emphasizes life-cycle costs, there is an increasing emphasis on
management and monitoring of infrastructure.
Research at the University of Calgary is focused on improving the economics,
reliability and sustainability of these necessary, but expensive, elements
of modern society.
University of Calgary’s Materials group is developing and testing new,
high-performance, traditional and advanced composite materials. These
materials will result in more durable and reliable infrastructure that will last
longer and result in reduced life-cycle cost.
Planning models developed by our Transportation group are being used
by cities within Europe and North America to determine transportation
needs and trends in cities, impacts of societal choices, and pressures
on the flow of traffic.
As our global population grows, water quality and security of water supply
is critical. Research on the treatment and management of water supply
will lead to very significant improvements in water quality and reduction
in per capita water consumption.
Sensors, and sensor systems, are being used by our Structures group
to understand how structures perform under actual conditions. This
information will refine the design of infrastructure elements leading to
reduced initial cost, and better long-term management of our infrastructure.
Researchers from all departments within the faculty, particularly Civil
Engineering, collaborate with faculty members from the Sciences and
Social Sciences on these and other projects. Together, these researchers
are building better infrastructure for our advancing society.
Ice Research – Uniting People, Improving Economies University
of Calgary civil engineers are leading authorities on ice research and were
key to the development and design of the Confederation Bridge – a bridge
required to withstand significant ice forces. The 13-km bridge, which
connects Prince Edward Islanders to the mainland, facilitates not only
increased employment opportunities and tourism, but also potential
benefits for future offshore construction and oil and gas industries.
Researchers currently monitor, in real time without ever leaving Calgary,
the impact of ice on the Confederation Bridge. Data collected from new
and reliable ice force instrumentation will facilitate the creation of numerical
models to predict ice forces on structures. The results of their research
will enable engineers to cost-effectively design structures resistant to
external forces.
Assessing Potential Futures The use of the high-speed rail link
from London to the Channel Tunnel, and on to Paris and Brussels, was
determined for British Rail. Potential strategies for diverting traffic and
encouraging more dispersed economic growth were tested for the Oregon
Department of Transportation. How? Using mathematical models
developed by University of Calgary’s world-class transportation engineers.
These mathematical models of spatial economic systems place
transportation systems within the larger economic system. They integrate
psychological, economic, and geographical data, including descriptions
of household and business decisions about where to locate and how to
travel and transport goods and services. Alternative scenarios are then
considered in order to assess the expected costs and benefits of new
systems of infrastructure, pricing, and regulation. Governments around
the world are making wiser decisions thanks to the University of Calgary.
Building on Strength Structural engineering research has been
a longstanding area of strength for the University of Calgary. Researchers
have patented numerous building-life extending and strengthening
reinforcement technologies, such as shear studs. A new generation of
researchers is continuing this tradition.
One such researcher recently implemented the first successful application
of Carbon Fibre Reinforced Polymers (FRPs) used in post-tensioned
masonry structures. FRPs offer an exciting alternative to steel. Not only
is it lighter and stronger than steel, but the plastic material is not susceptible
to corrosion, extending the sustainable life span of a structure and reducing
the need for maintenance. The performance of FRPs and a University of
Calgary patented anchorage system is being monitored at CCIT.

Large Photo: Robotics and Automation Lab. Small Photos – Top: Students at the Canadian Engineering Memorial Foundation
Dean’s Millennium Award-winning table. Bottom: Teaching the fundamentals of hyper-redundancy in nanorobotics.
Advanced Manufacturing and Design
Research Areas
Life-Cycle Design Engineering
Intelligent Manufacturing Systems
Nano/MicroElectroMechanical Systems (Nano/MEMS)
Production Planning, Supply Chain Management and Control
Rapid Manufacturing Processes
Robotics
Facilities
Rapid Prototyping Machine
Five-axis Milling Machine
Mechatronics Design Lab
CAD/CAM/CAE Systems
Coordinate Measuring Machines
Programmable Logic Controllers
Robotic Workcell

Advanced Manufacturing and Design
University of Calgary Engineering p17
Paradigm Shift
Henry Ford revolutionized the automotive industry not with the Model T
but by changing the way we thought about and constructed automobiles.
He implemented the first successful large-scale manufacturing innovation
– the assembly line.
Engineering researchers at the University of Calgary are not only developing
technologies and methodologies that will further advance manufacturing
innovations but will also change the way we think of design.
Manufacturing involves the creation of products. A well-designed
manufacturing enterprise will conduct this work in a resource-efficient
manner to produce high-quality results that meet the needs of
consumers. This demands flexibility, reconfigurability and the creation of
new technological advancements.
The Manufacturing Engineering group is using advanced manufacturing
concepts such as intelligent agent-based systems and the latest in design
engineering paradigms to develop the next generation of integrated
manufacturing systems. From understanding the management and
tradeoffs of production planning and control, and selecting appropriate
information systems, to examining the flow of information and materials
from suppliers to the end user, researchers are revealing information that
will enhance industry competitiveness in a global market.
Design research is aimed at furthering the development of competitive
products and systems. Researchers are expanding design theories and
methodologies in life-cycle, modular, and intelligent design, as well as in
design for manufacturing and the development of design information
systems. The result of this research will change the way we think in
designing a product, not to mention the design process, bringing both
environmental, as well as economic, considerations to the forefront of the
design process.
A dynamic and vibrant collection of eminently qualified scientists, these
researchers are leading a paradigm shift that will result in innovative
solutions to meet industry needs.
Environmentally Friendly Products – It’s all in the Design Once
upon a time, when a design engineer sat down to create a product, her
first consideration was the “useful” life span of the product. Now University
of Calgary engineers are redefining these considerations to span the life
cycle of a product from the materials and energy used to develop the
product to the disposal of the product.
University of Calgary engineers are developing new design methods, such
as adaptable design and bus systems, to help engineers make superior
design choices in the less expensive developmental stage of a product.
Results will lead to environmentally responsible and economically viable
choices, such as materials that will not only enhance the durability of a
product, but also decompose in an efficient and friendly fashion.
Intelligent Manufacturing From integrating complex systems
to fault diagnosis, University of Calgary research is making manufacturing
intelligent and automatic.
Advances in factory automation increased manufacturers’ reliance on
computer-based control systems. The complexity of these systems,
however, was typically beyond the capabilities of conventional centralized
computer control approaches. University of Calgary’s Agent-Based
Systems, which take advantage of distributed hardware and software
technology, gave manufacturers a practical solution to an expensive
problem. The result was real-time intelligent computer automation.
Other projects will soon make their way to the manufacturing floor.
Intelligent robots able to learn, do, and improve on the competence and
speed of a repetitive action are being created that will result in considerable
time and cost savings to industry. Artificial intelligence using sound patterns
will identify pre-failure bearings enabling companies to conduct repairs
without halting production.
Small Gadgets, Big Results A MicroElectroMechanical System
(MEMS) the size of a postage stamp, containing millions of microscopic
mirrors each tilting 5,000 times a second, is changing your den into a
media multiplex.
MEMS possess the power to become the hallmark of the 21st century
in manufacturing technology. They integrate mechanical elements, sensors,
actuators, and electronics on a common silicon substrate using
microfabrication technology.
The MEMS technology being forged at the University of Calgary has far
reaching applications that extend well beyond your den, to your cell phone,
your automobile navigation system, and even to your body. Researchers
in Manufacturing Engineering are creating foundational technology, such
as noninvasive precision metrology for MEMS development. Electrical
engineers are building on the technology to create systems-on-a-chip,
while Geomatic engineers are integrating GPS receivers with MEMS to
improve vehicular navigation.

Hydrocarbon and Energy Research
Research Areas
Alternative Energy
Improved Recovery of Oil and Gas
Geomechanics and Reservoir Simulation
Oil and Gas Resources
Oil Sands
Petrochemicals
Reservoir Characterization
Sustainable Hydrocarbon Resource Development
Sequestration of Greenhouse Gases (GHG)
Facilities
Air Injection Research Laboratory
Primary Production, SAGD, Solvent Extraction Laboratories
Geomechanics and Reservoir Simulation and
Modelling Laboratories
Virtual Reality and Imaging Laboratories –
CT, MRI, 3-D Visualization
Reservoir Fluids Behaviour and Characterization Laboratory
Gas Hydrate Laboratory
Underbalanced Drilling and Industrial Safety Laboratories

Hydrocarbon and Energy Research
University of Calgary Engineering p19
World Leaders in Energy Research
Canada is a world leader in the hydrocarbon and energy industry, with
state-of-the-art technologies associated with economic and environmentally
sustainable production of oil and gas. Engineering researchers from the
University of Calgary have been and continue to be instrumental in
establishing and perpetuating this leadership position.
Located in Canada’s oil and gas capital, University of Calgary researchers
have developed and refined key processes, such as steam-assisted gravity
drainage (SAGD), Vapor Solvent Extraction (VAPEX), Air Injection and
Cold Production, that contribute to the sustainable development of
hydrocarbon resources in Alberta and worldwide. Current research is aimed
at developing novel technologies to enhance ultimate recovery of
hydrocarbon resources while significantly reducing environmental footprints.
Oil and gas, chemical, electrical, civil, and mechanical engineers contribute
to our international recognition in applied reservoir modelling, development
of innovative technologies for recovery of conventional and heavy oils,
computational thermodynamics, and kinetics of hydrate formation and
decomposition.
Research groups include: Cold Production (VAPEX), Foamy Oil, Polymers,
Steam Injection, Air Injection, Geotechnical and Reservoir Simulation,
Process Simulation, Gas Hydrates, In-Situ Upgrading, Visualization and
Imaging, Sustainable Hydrocarbon Resource Development (Sequestration
of Greenhouse Gases), and Fuel Cells.
Research programs integrate the collective expertise of the researchers and
utilize state-of-the-art research facilities for developing solutions to practical
problems encountered in the recovery of hydrocarbons from reservoirs.
Photo courtesy of Nexen Inc.

Hydrocarbon and Energy Research
University of Calgary Engineering p20
Light Your Fire
Oil and gas engineers are developing
environmentally sensitive recovery methods that require less water than
conventional techniques and will access volumes of untapped conventional
and heavy oil.
Conventional techniques can use up to six barrels of water to produce
one barrel of oil and they emit carbon dioxide and oxides of sulphur and
nitrogen directly into the air. Oil and gas engineers are refining an air injection
process, used for both heavy and light oil, that is easily accessible both
on and offshore, does not require water, and which reduces the volumes
of carbon dioxide per volume of oil produced. Researchers hope the
process will double the output of oil recovery and anticipate a five percent
increase in light oil recovery.
A hybrid process is currently being used to extract the volumes of untapped
heavy oil embedded deep within the thousands of primary wells that
currently lace Alberta’s prairies.
Geomechanical Behaviours of Reservoirs Stresses, deformation
and fracturing have large implications in many areas of oilfield
development. This is particularly serious during seismic exploration,
reservoir forecasting, drilling, sand production and other exploration
activities. Only recently have researchers come to understand the impact
of this geomechanical behaviour.
Researchers believe their discoveries will have tremendous implications
on the petroleum industry. One example is a new modelling technique
that accounts for formation damage and stress changes in very high rate
injection wells for the disposal of produced water. This system will be critical
to the Yemen operations of Nexen Inc., where more than half a million
barrels of water must be disposed of daily.
Looking Beneath the Earth The University of Calgary has the
largest integrated process tomography facility in Canada.
Some 30 multi-disciplinary researchers in the Porous Media and Process
Tomography Research group are using non-invasive imaging tools and
computer models to understand physical and chemical problems
associated with the recovery and processing of hydrocarbon resources.
Operating one of the largest tomographic analysis laboratories in North
America, researchers are determining how certain fluids flow and are
distributed in porous materials (e.g. rock and soils) and how they interact
with other fluids or solids. Models, such as the NMR-based water-cut
meter, are developed, commercialized and then used by industry to
cultivate optimal processes to increase production, reduce operational
costs in hydrocarbon processing, and lower air and water pollutants.
Air injection research
Yemen operations of Nexen Inc.
MRIs provide a new perspective in
hydrocarbon research
Photo courtesy of Nexen Inc.

Hydrocarbon and Energy Research
University of Calgary Engineering p21
Ice Energy Trapped in ice-like formations, embedded within the
soil and rocks of permafrost and offshore regions, lay vast untapped
sources of natural gas known as gas hydrates. A team of researchers,
complemented by a new state-of-the-art geotechnical testing laboratory,
are conducting research that will lead to enhanced energy recovery.
Researchers are exploring the physical effects of gas hydrate formation
and decomposition on the surrounding sediments, to better understand
the geomechanical behaviour of gas hydrate-sediment mixtures. The results
of this research will contribute not only to developing the technologies
required for characterization of hydrate reserves and formulation of field
recovery strategies, but also to improving the understanding of gas
hydrates as an offshore geohazard and determining their role in submarine
slope stability.
Solutions to Energy Problems Heavy oil and bitumen account
for more than half of the total oil production in Alberta. University of Calgary
researchers are investigating new methods to improve the efficiency of
its production.
A promising new process for bitumen and heavy oil recovery – Vapex –
was created at the University of Calgary and is currently being refined.
Researchers are also evaluating different hydrocarbon additives to reduce
the steam requirements for steam assisted gravity drainage (SAGD) and
to extend the applicability of the process to marginal reservoirs. Finally,
foamy oil – a two-phase flow in which the gas remains dispersed in the
oil – dramatically enhances performance compared to the results predicted
by the conventional theory. Researchers are systematically examining this
type of flow to determine what causes it and how it can be exploited to
improve production of heavy oil.
Eco-Efficiency U of C engineers are creating eco-efficient
models and techniques for chemical and petroleum process plants that
are good for the environment – and business.
Researchers consider both ecological and economic factors when
developing successful eco-efficient processes. With better control of
chemical and petroleum process plants, energy use is minimized while
production rates are maximized. Less energy output means reduced
greenhouse gas emissions, water usage and operating costs.
One such process is in the midst of being patented – a new measurement
technique for acid-gas-loading amine plants. An amine plant, found in
many sour gas processing plants, absorbs greenhouse gases. This new
sensor will measure the concentration of acid gas the amine unit is
absorbing, insuring that it is functioning optimally. The result is reduced
operating cost for business and a healthier environment for us all.
Geotechnical testing laboratory
U of C researchers are providing
solutions to energy problems
Eco-efficient models and techniques for
chemical and petroleum process plants

Large Photo: High-tech water management. Small Photos – Left: U of C to aid Chilean waste management issue. Right: Methano Biofilter solves macro problem.
Environmental Engineering
Research Areas
Air Quality
Contaminant Prevention, Reduction and Recovery
Environmental Design Engineering
Solid Waste Management
Waste-Water Management
Environmental Monitoring and Global Change

Environmental Engineering
University of Calgary Engineering p23
Considering the Future Impacts of Today’s Choices
Back in the 50s, “Advancing Society” into the 21st century meant
accumulation, consumerism, and ease of life. Today, “Advancing
Society” beyond the 21st century depends on our ability to globally sustain
our basic resources – soil, air and water – and to make choices for
technological development responsibly. Considering the future impacts
of today’s choices, as well as developing remedial solutions to the choices
of yesteryear, is the task of the University of Calgary’s environmental
engineers.
Working in the Centre for Environmental Engineering Research and
Education (CEERE), our team of cross-disciplinary engineers collaborate
with learners, educators and industry professionals to resolve complex
issues from a multi-disciplinary perspective. Graduate students entering
the environmental engineering program are trained in this multidisciplinary
style and benefit from the supervision of over 25 professors
from various disciplinary backgrounds.
The environmental engineering group is engaged in a wide variety of basic
and applied research projects in greenhouse gas emission control,
remediation/toxicity of contaminated sites, contaminant/gas migration in
soils, industrial emission treatment/control, optimization of full-scale
fermentors, surface/ground water quality, conjunctive use of surface water
reservoirs, sulphur emissions from Claus plants, acoustical emissions in
combustion systems, and environmental monitoring with remote sensing.
Additionally, researchers collaborate internationally on research and
educational projects in many South American and Asian countries.
Together, our team of researchers, learners, and industry professionals
creates technologies and processes that enable society to coexist in
harmony with nature while continuing to maintain our modern-day quality
of life in a sustainable manner.
New Landfills Re-use, Recycle and Reduce in New Ways New
sustainable landfill technology promises to re-use landfill space, recycle
untapped energy found in waste, and reduce landfill methane gas emission
to zero.
For sustainable landfills, waste is a resource. Waste produces high quantities
of methane gas, a greenhouse gas with a global warming potential of 23
over a 100-year time horizon. In a sustainable landfill, methane gas is
extracted and used to generate energy. A soil biofilter caps the landfill
and traps the remaining methane gas. The gas is then transformed into
less harmful carbon dioxide by millions of microorganisms living in the
biofilter. The result is complete elimination of landfill methane emissions,
reducing global anthropogenic methane emissions by about 15 percent!
U of C researchers are currently testing and refining techniques for largescale
implementation. The technology will be transferred to third-world
countries with significant waste management issues.
Micro-organisms Solve Macro Problem Most of the solution
gas from oil production is recovered for beneficial uses. However, some
of this gas, high in methane, is disposed of through flaring, or direct venting
into the atmosphere. Venting contributes to Alberta’s already elevated
greenhouse gas emission numbers and flaring produces toxic by-products.
University of Calgary’s Methano Biofilter technology promises to solve part
of the problem. Methano Biofilters use micro-organisms to convert methane
gas into less harmful carbon dioxide. The gas is then emitted into the
atmosphere. The technology is most effective with small quantities of
solution gas.
The multi-disciplinary creators of the Biofilter are refining the technology
and working with TransCanada PipeLines and Husky Energy to
demonstrate the value of this research through two field projects.
High-Tech Water Management Forest fires, urbanization and
floods can have sizable impacts on one of our most valued resources –
water. High-tech water management tools, developed and used at the
University of Calgary, are providing new options for wiser water
management decisions.
Geographic Information Systems (GIS) have the capacity to manipulate
and integrate specific spatial information such as elevation, soil type and
landcover. Results from this relatively under-exploited tool are assisting
researchers in predicting the impacts of forest fires and climate change
on the boreal forest, as well as determining the impacts of urbanization
on runoff.
Civil engineers are collaborating with the City of Calgary to produce a water
distribution model that will provide real-time accurate data on water quality
and quantity. This kind of information will enhance operational decisions
and help avoid disasters such as contamination.

International and National Collaborations
University of Calgary Engineering p24
There’s No “i” in Team
International and National Collaborations The Faculty of Engineering at the University of Calgary has fostered partnerships spanning the
globe, from the deserts of Abu Dhabi to the mountain villages of Nepal. Through such collaborations, faculty members gain the multi-disciplinary
perspective and the industry support to find solutions to the issues facing all researchers. These relationships are key to research and education at
the U of C.
Faculty members collaborate with academic and industry colleagues both nationally and internationally in various research projects. Many of these
initiatives are under the umbrellas of Networks of Centres of Excellence (NCEs) and are detailed in the preceding stories. Student and faculty exchange
programs have been established with many universities. Other examples of successful alliances include international course instruction, and development
and service work with many scientific and professional organizations.
Collaborative and inter-disciplinary research and education is encouraged and supported through faculty initiatives. The new CCIT Building, for example,
provides shared laboratory space where multi-disciplinary research is taken to new levels and is attracting top academics and graduate students to
work and study at the University of Calgary. Multi-disciplinary programs, such as the Environmental Engineering program, also combine disciplinary
expertise from across both the faculty and the University to provide the training essential for high-quality personnel that will make a difference. Collaborations
with diverse faculties, other institutions and industry are leading to significant breakthroughs and improved multi-disciplinary programs.
Together we are impacting the world.
Lighting up the World U of C electrical engineers are lighting
up villages throughout Nepal, Niger, Tanzania, Suriname, Bolivia and
Argentina with White Light Emitting Diodes (WLEDs). Powered by Pedal
Generators, Pico Hydro and Solar photovoltaic, WLEDs provide safe,
healthy, rugged, long-lived, green, energy-frugal and affordable light. The
system can light up a home with just one watt!
Oil and Gas Connections University of Calgary oil and gas
experts are assisting Abu Dhabi Petroleum University (ADPU) with the
establishment of their new petroleum university. The ADPU Director credits
the U of C with having an excellent range of programs that can be easily
adopted by their institution. Through partnerships, the universities will
develop educational programs and research projects, and collaborate in
the training of researchers and professors.
Thulo Pokhara, Nepal – the first village to be lit with WLEDs
International
Activities and
Collaborations

Partners
University of Calgary Engineering p25
Partners
We would like to acknowledge the institutions and individuals with whom we partner.
Adjeleian Allen Rubeli Limited, Ain Shams University, Ajou University, Al.I.Cuza University, Albemarle Corp., Alberta Energy Company Ltd., Alberta
Transportation, Amoco Canada Petroleum Company, Amoco Production Company – USA, ApTech, Applied Pavement Technologies, Asian Institute
of Technology, Australian Road Research Board, AUTO 21 NCE, Ben Gurion University of the Negev, Boston University, BP, BP Amoco, BP Canada
Resources, Burlington Resources, Cambridge University, Canadian Association of Petroleum Producers (CAPP), Canadian Coast Guard, Canadian
Geomatic Solutions Ltd., Canadian Nuclear Safety Commission, Canadian Space Agency, CANMET, C-CORE, Cergy-Pontoise University, China National
Petroleum Corporation, Chosun University, Chris Stethem and Associates, CIDA, City of Calgary, City of Fredericton, Cleveland Clinic Foundation,
Communications Research Centre Canada, Concordia University, Construction Research Institute of Canada, Continental Oil, Costas Armenakis, Czech
Academy of Sciences, DALSA Inc., Danish National Survey and Cadastre, David Simmonds Consultancy, Delft University of Technology, Department
of Fisheries and Oceans – Manitoba, Department of National Defence – Canada, Dominion Radio Astronomy Observatory, École des Mines de Paris,
École Nationale d’Ingénieurs de Tunis, EnCana Corporation, ENS de Cachan, Ericsson USA, ETH Zurich, European Space Agency, Federal Highway
Administration, FINA Resources Inc., FONDEF, Gennum Corp., GeoAnalytic, Geomatics Canada, Georgia Institute of Technology, GEOsurv Inc.,
Geotechnical Consulting: Reza Imam, GFZ Potsdam, Golder Associates, Gotenburg University, Graz University of Technology, Helsinki University of
Technology, Henry G. Russell, Inc., Heriot-Watt University, Hitachi/DX Antenna, Hong Kong Polytechnic, Hunt Oil, Husky Energy, HydroQual Laboratories,
IIT, Imperial College, Imperial College of Science, Technology & Medicine, Imperial Oil Limited, Imstrat Corporation, Institute for Mathematics & Fundamental
Physics, Israel Institute of Technology, Konkuk University, Japan National Oil Corporation, Korea Astronomical Observatory, KULeuven, Laval University,
Manitoba Hydro, Massachusetts Institute of Technology: M. Ben-Akiva, McGill University, McMaster University, MediVators. Inc, Memorial University,
Mobil USA, Mobil Oil Company, Modelistica, MOL Rt. (Hungarian Oil and Gas Co.), Monash Institute of Reproduction & Development, Montreal Heart
Institute, Morse Bros., Moscow State Technical University, National Center for Upgrading Technology, National Iranian Oil Corporation, National Research
Council of Canada, National University of Singapore, Natural Resources Canada, New Jersey Institute of Technology, New York University, Nexen
Inc., NIOSH, Nokia Mobile Telephone Co., Northwestern University, Norwegian Geotechnical Institute, Nova Chemicals Ltd., NovAtel Inc., NRCan,
NSERC, Oakland University, Occidental of Elk Hills (US Oxy), Ohio State University, Oil and Natural Gas Corporation Limited, Okajama University, Old
Medical School, Optech Inc., Oriental Construction Co, Petro-Canada, Petroleum Technology Alliance Canada, Petroleum University of Technology,
Petroperu, Portland State University, Queen’s University, Ralph Whitehead Associates Inc, Raytheon GmbH, Repsol YPF, Res. Inst. for Pet. & Hydrocarbon
Gases, Roberton Enterprises Ltd., Rolls-Royce GTE (Canada) Inc., Rush Medical Centre, RWTH Aachen, Ryerson University, St. George’s Hospital,
Scottish Water Authority, Shell Canada Limited, Shell Wester E & P USA, SiRF, Slovak Technical University, Soonchunhyang University, Southern Methodist
University, Space Research Organization Netherlands, Spatial-link, Stanford University, Swedish International Development Agency, Swiss Federal Institute
for Snow and Avalanche Research, Swiss Federal Institute of Technology, Sylesian Medical University, Syncrude Canada Limited, Technical University
Berlin, Technical University Munich, Technion, Terrapoint LLC, Texaco Inc., Texas A & M, College Station, TOTAL France, TOTAL Minatome Corporation,
TransCanada International, TransCanada PipeLines, TU Delft: Michel Verhaegen, Tulane University, Uniformed Services University of Health Sciences,
Université de Montpellier, Université de Sherbrooke, Universiti Teknologi Petronas, University College, University of Alaska, University of Alberta, University
of Brasilia, University of Bridgeport, University of California Berkeley, University of California at San Francisco, University of Catania, University of Costa
Rica, University of Electrical Science and Technology, University of Florida, University of Granada, University of Guelph, University of Hannover, University
of Hong Kong, University of Lyon, University of Manitoba, University of Maryland, University of Memphis, University of Montreal, University of Moratuwa,
University of Nebraska, University of New Brunswick , University of Newcastle, University of North Carolina, University of Nottingham, University of
Oxford, University of Paris (VI), University of Pavia, University of Pennsylvania, University of Pisa, University of Sao Paulo, University of South Florida,
University of Strasburg, University of Sydney, University of Technology, Sydney, University of Texas, University of Texas at Austin, University of the
North, University of Thessoloniki, University of Toronto, University of Uberlandia, University of Victoria, University of Wales, University of Washington,
University of Waterloo, The University of Western Ontario, University of Westminster, University of Windsor, University of Wisconsin-Madison, UNSW,
Upali Vandebona, UOP Research & Development, Uppsala University Hospital, Urban Transport Institute, US Army, Naval Air Warfare Center, West
Virginia University, Wilfrid Laurier, Woolongong University, World Bank, Paterson, Wuhan Technical University of Surveying and Mapping, York University

New Collaborators
University of Calgary Engineering p26
Partners and Problems Wanted
It is one of the strategic objectives of the faculty to have superior connections with industry, the community, the
profession, government, and other universities in Canada and abroad.
The faculty, therefore, always seeks further collaborations in research, international development, academic and
exchange types of programs, in particular at the international level.
Students and colleagues from academia, industry or government interested in working with or visiting our
faculty should contact Dr. Michael G. Sideris, Associate Dean (Research), by phone at 1-403-220-5592
or by e-mail to sideris@ucalgary.ca.

Graduate Studies in Engineering
University of Calgary Engineering p27
Graduate Studies in Engineering
Teambuilding The Faculty of Engineering offers M.Eng. (thesis or course-based), M.Sc., and Ph.D. degrees in five departments and four
multi-disciplinary programs. Graduate studies require advanced course work and development of independent, original research work. Activities such
as presenting seminars, writing research reports and theses, assisting in teaching, and communicating research results effectively, are expected of
engineering graduate students. In fact, many of our students publish their award-winning research work in referred scientific journals and present their
work at national and international conferences.
Research areas per department and multi-disciplinary program are listed on the following page. Web contacts are also provided for prospective students
that would like to obtain more information on these programs. General admission requirements, deadlines, and application forms can be found in the
Faculty of Graduate Studies web site (http://www.grad.ucalgary.ca/prospect/prospect.htm).
Bioengineering in the Human
Performance Laboratory
U of C award-winning graduate
research can be found in referred
scientific journals and at national
and international conferences

Graduate Studies in Engineering
University of Calgary Engineering p28
Department of Chemical and Petroleum Engineering
(http://www.eng.ucalgary.ca/Chemical/Chem_gradstud.htm)
• Biochemical Engineering/Biotechnology
• Biomedical Engineering
• Catalysis & Fuel Cells
• Gas Hydrates
• Hydrogen Separation and Production Technology
• Modelling, Simulation & Control
• Natural Gas Processing & Membrane Separation
• Non-Invasive, Non-Destructive Evaluation Tools
• Petroleum Recovery & Reservoir Engineering
• Polymer Processing and Rheology
• Process Development
• Reaction Kinetics and Reactor Engineering
• Thermodynamics, Phase Equilibria and Transport Properties
• Transport Phenomena
The Department of Civil Engineering
(http://www.eng.ucalgary.ca/Civil/Civil_grad_studies.htm)
• Avalanche Mechanics
• Biomechanics
• Geotechnical Engineering
• Materials Engineering
• Structures and Solid Mechanics
• Transportation
• Water Resources Engineering
The Department of Electrical and Computer Engineering
(http://www.enel.ucalgary.ca/DepartmentalWeb/graduatedocs/grad.html)
• Antenna Design
• Bioelectrics
• Biomedical Signal and Image Analysis
• Communication Systems, especially digital wireless systems
• Computer Engineering
• Control Systems
• Digital Control and Protection of Power Systems
• Digital Filter Design and Implementation
• Digital Signal and Image Processing
• Electronic Devices and Instrumentation
• Expert Systems and Artificial Intelligence
• Microwave and Optical Communications
• Power Electronics
• Power System Planning and Operation
• Software Engineering
• VLSI Analog and Digital Circuit Design
The Department of Geomatics Engineering
(http://www.geomatics.ucalgary.ca/academic/gradstudents/index.html)
• Gravity Field and Geodynamics
• Positioning, Location and Navigation
• Engineering Metrology
• Precise Engineering Surveys
• Geospatial Information Systems
• Remote Sensing
• Land Information Systems and Land Tenure
The Department of Mechanical and Manufacturing Engineering
(http://www.eng.ucalgary.ca/Mechanical/grad_program.htm)
• Thermo-fluids, Energy Systems and Environment
• Manufacturing
• Applied Mechanics
• Automation, Control and Robotics
• Design and Materials
• Bioengineering
Multidisciplinary Graduate Program
Biomedical Engineering (Offered jointly by the University of Calgary and
the University of Alberta)
(http://www.eng.ucalgary.ca/Biomedical/Home.htm)
• Bioinstrumentation and Imaging
• Clinical Engineering
• Rehabilitation Engineering
• Biomechanics
• Biomaterials
• Systems Physiology
Environmental Engineering
(http://www.eng.ucalgary.ca/Environmental-Engineering/index.html)
• Hydrocarbon Contaminated Soil/Sludge Treatment
• Pyrolysis of Contaminated Soil
• Composting of Municipal Solid Waste & Hydrocarbon Contaminated Soil
• Biological Removal of Nutrients
• Hydraulic Conductivity of Clay Liners
• Transport Phenomenon of Pollutants
• Numerical Modelling of Geomaterials as Filters
• Fluid Flow in Soils
• Greenhouse Gas Emission Assessment & Control
• Former Industrial Sites; Decommissioning, Contamination Assessment
and Remediation
Project Management
(http://www.eng.ucalgary.ca/ProjectManagement/)
• Process Improvement
• Resistance to Technological Change
• Contracting Processes
• Risk in Projects
• Front-end Decision Making for Large or Complex Projects
Software Engineering (M.Sc. Specialization) (Offered jointly by the
Department of Electrical and Computer Engineering and the Department
of Computer Science)
(http://www.enel.ucalgary.ca/DepartmentalWeb/graduatedocs/
backgroundinfo2000/1999ms_sw_eng.html)
The learning objectives enable students to:
• Become familiar with research and methodologies in industrially relevant
areas of software engineering
• Carry out an applied research project in software engineering

University of Calgary
Faculty of Engineering ENC 202
2500 University Drive NW
Calgary AB T2N 1N4
Phone 403-220-5738
Fax 403-284-3697
www.eng.ucalgary.ca
Design: Parallel Photography: Marnie Burkhart Copy: Renée Krysko, Engineering

www.eng.ucalgary.ca