engineering design day 2012 - College of Engineering @ The ...
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ENGINEERING DESIGN DAY May 1, <strong>2012</strong>
ENGINEERING DESIGN DAY <strong>2012</strong><br />
Sponsored by the University <strong>of</strong> Arizona <strong>College</strong> <strong>of</strong> <strong>Engineering</strong><br />
SpoNSoRING A DESIGN pRoJECT<br />
Are you considering a <strong>design</strong> or manufacturing project <strong>of</strong> about 1,000 hours in scope that can be accomplished<br />
during an academic year (August-May)? Contact the appropriate program below by the end <strong>of</strong> June <strong>2012</strong> to<br />
develop the project and find out the conditions that apply.<br />
Interdisciplinary <strong>Engineering</strong> Design Program Ara Arabyan arabyan@email.arizona.edu 520 621-2116<br />
Aerospace <strong>Engineering</strong> Sergey Shkarayev svs@email.arizona.edu 520 626-4470<br />
Agricultural and Biosystems <strong>Engineering</strong> Donald Slack slackd@email.arizona.edu 520 621-1607<br />
SpoNSoRING DESIGN DAY EVENTS oR AWARDS<br />
You can be a sponsor for Design Day 2013! Sponsorships and awards provide companies with expanded public<br />
visibility and supports the <strong>College</strong> <strong>of</strong> <strong>Engineering</strong> in its efforts to improve the training and employability <strong>of</strong> its graduates.<br />
If interested, please contact Ara Arabyan at 520-621-2116 or arabyan@email.arizona.edu for additional information.<br />
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May 1, <strong>2012</strong><br />
Dear Participants in the 10th Annual <strong>Engineering</strong> Design Day:<br />
I would like to welcome each <strong>of</strong> you to the 10th Annual <strong>Engineering</strong> Design Day. This event is where we demonstrate the broad array<br />
<strong>of</strong> <strong>design</strong> work going on here in the UA <strong>College</strong> <strong>of</strong> <strong>Engineering</strong>. Our audience to<strong>day</strong> includes UA students, faculty, industry partners,<br />
alumni, local K-12 students, and family and community members. This is the best <strong>day</strong> <strong>of</strong> the academic year for all <strong>of</strong> us.<br />
This event is the product <strong>of</strong> the hard work <strong>of</strong> students, mentors, and faculty and, importantly, the generous support <strong>of</strong> and partnership<br />
with many individuals and organizations. <strong>The</strong> projects you find on display are sponsored and funded by companies, inventors, student<br />
clubs, and faculty. Pr<strong>of</strong>essional mentors guide students through industry-standard procedures to realize their <strong>design</strong>s and to build<br />
prototypes within the framework formal <strong>design</strong> processes taught by faculty. On behalf <strong>of</strong> our students and faculty, I would like to<br />
thank all <strong>of</strong> our sponsors for their support and the time spent by everyone mentoring and guiding our students.<br />
Please stop, look and talk with the student teams about their projects. Give them a chance to “show you their stuff ” and please make a<br />
point <strong>of</strong> asking questions. <strong>The</strong>y’ve spent a lot <strong>of</strong> time on their projects and would like nothing better than to help you see what they are<br />
all about.<br />
Above all, enjoy the <strong>day</strong>, as this is what <strong>engineering</strong> at the UA is all about!<br />
Sincerely,<br />
Jeffrey B. Goldberg<br />
Dean, <strong>College</strong> <strong>of</strong> <strong>Engineering</strong><br />
<strong>College</strong> <strong>of</strong> <strong>Engineering</strong><br />
Office <strong>of</strong> the Dean<br />
Civil <strong>Engineering</strong> Building #72<br />
P. O. Box 210072<br />
Tucson, AZ 85721-0072<br />
(520) 621-6594<br />
FAX: (520) 621-2232
TABLE oF CoNTENTS<br />
<strong>Engineering</strong> Design Day <strong>2012</strong><br />
DEAN‘S WELComE __________________________________ Page 2<br />
EVENT SChEDuLE __________________________________ Page 4<br />
EVENT mAp ______________________________________ Page 5<br />
LIST oF pRoJECTS DISpLAYED _________________________ Page 6-9<br />
AWARDS ________________________________________ Page 10-14<br />
pRoJECT DESCRIpTIoNS _____________________________ Page 15-71<br />
Photographs in this booklet are from <strong>Engineering</strong> Design Day 2011 by Pete Brown, UA <strong>College</strong> <strong>of</strong> <strong>Engineering</strong>.<br />
All contents ©<strong>2012</strong> Arizona Board <strong>of</strong> Regents. All rights reserved. <strong>The</strong> University <strong>of</strong> Arizona an EEO/AA - M/W/D/V Employer.<br />
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ENGINEERING DESIGN DAY EVENT SChEDuLE<br />
May 1, <strong>2012</strong><br />
10:00am - 3:00pm Design Day Demos – Bear Down<br />
Gymnasium and outdoor area on<br />
north side <strong>of</strong> gymnasium*<br />
1:20pm - 3:00pm Judging <strong>of</strong> Design Day Demos<br />
to finalize awards<br />
3:00pm - 4:00pm Judges’ Meeting – Judges’ Area<br />
in Bear Down Gymnasium<br />
3:30pm - 4:00pm Comment cards delivered to each team by judges – Bear Down Gymnasium<br />
4:00pm - 4:30pm Awards Ceremony – Bear Down Gymnasium<br />
*Large projects can be found on ground level on the north side <strong>of</strong> the Bear Down Gymnasium just outside the entrance facing the UA Mall.
EVENT mAp<br />
<strong>Engineering</strong> Design Day <strong>2012</strong><br />
See pages 6-9 to identify projects.<br />
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6<br />
LIST oF pRoJECTS DISpLAYED<br />
AGRICuLTuRAL AND BIoSYSTEmS ENGINEERING<br />
Page Team# Project Title<br />
15 ABE-01 Portable Aquaponics<br />
16 ABE-02 Design and Construction <strong>of</strong> a Pilot Plant<br />
to Convert Waste Cooking Oil to Biodiesel<br />
17 ABE-03 Development <strong>of</strong> Very Quick Polymerase<br />
Chain Reaction (PCR) Device<br />
AERoSpACE ENGINEERING<br />
Page Team# Project Title<br />
18 AERO-01 American Institute <strong>of</strong> Aeronautics and<br />
Astronautics: Design/Build/Fly Competition<br />
19 AERO-02 Autonomous Soaring Techniques for Application<br />
to Small Scale Unmanned Gliders<br />
20 AERO-03 American Institute <strong>of</strong> Aeronautics and Astronautics:<br />
Fast Aerial Reconnaissance (FAR) UAV<br />
21 AERO-04 Fixed-Wing VTOL Micro Air Vehicle<br />
22 AERO-05 <strong>The</strong> Clipperspirit Seaplane<br />
23 AERO-06 Joined Wing<br />
<strong>2012</strong> LIST oF pRoJECTS DISpLAYED<br />
See map on page 5 to locate project tables
LIST oF pRoJECTS DISpLAYED (cont.)<br />
See map on page 5 to locate project tables<br />
INTERDISCIpLINARY ENGINEERING DESIGN pRoGRAm<br />
Page Team# Project Title<br />
24 4873 Aircraft Thrust Recovery Valve (TRV)<br />
25 4891 Design <strong>of</strong> Experiments on Honeywell’s Heat Transfer Rig<br />
26 4892 High Power and Efficiency Generator Shaft Conduction Cooling<br />
27 4894 High Power and Efficiency Generator Insulating Compound<br />
28 4911 Alternate Methods <strong>of</strong> Bonding Teflon Liner to Metallic<br />
Substrates in Aircraft Bearings<br />
29 4912 Wireless Powered Sensor Network<br />
30 4913 Enhanced Digital Passenger Control Unit<br />
31 4914 Intelligent Webcrawler for Identifying Construction Leads<br />
32 4915 Robust Shaft Measurement Technique<br />
33 4916 CUVOPS V: Cooperative Unmanned Vehicle<br />
Operations Planning System<br />
34 4918 Small Mammal GPS Tracker<br />
35 4919 Automating Construction Digital Record Drawings<br />
36 4920 Jockey “Smart Helmet” for Horse Racing<br />
37 4921 <strong>The</strong>rmal Control for Emergency Shelters<br />
38 4931 SAMURAI (Semi-Autonomous Mapping and<br />
Urban Rescue Area Inspection)<br />
39 4932 Block-on-ring Sliding Wear Environmental Test Machine<br />
40 4934 Closed Cycle Cooled FIR Detector<br />
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INTERDISCIpLINARY ENGINEERING DESIGN pRoGRAm (cont.)<br />
LIST oF pRoJECTS DISpLAYED (cont.)<br />
See map on page 5 to locate project tables<br />
Page Team# Project Title<br />
41 4935 Digital Upgrade <strong>of</strong> a Fuel Flow Indicator<br />
42 4937 Ruggedized Helicopter Rotor Health Instrumentation<br />
43 4938 Autopilot Integration on Micro Air Vehicles<br />
44 4940 Automated Desiccant Bag Sealer<br />
45 4941 Simulated Aneurysm Deployment Model<br />
46 4942 Helium Testing Enclosure and Turbulence Mitigation Study<br />
47 4943 Portable Survey Tool<br />
48 4944 Design <strong>of</strong> Mounting Structures for Solar Array Modules:<br />
Ro<strong>of</strong> Mount<br />
49 4946 Power Generation for a Building in Rural Vietnam<br />
50 4947 Fabrication Device for a Porous, Polymeric Vascular Graft<br />
51 4951 NASA Remote Imaging System Acquisition (RISA)<br />
Space Environment Multispectral Imager<br />
52 4952 Adhesive Dispensation Onto Microscope Slides<br />
53 4953 Micro-Fluidic Dispense System<br />
54 4954 Social Traveler Mobile Application<br />
55 4955 Warning System for Children/Pets Left in Cars<br />
56 4956 Intelligent Arc Fault Detector<br />
57 4957 <strong>The</strong> ‘Perfect Pour’ – Precision Liquid Dispensing<br />
and Inventory Tracking
LIST oF pRoJECTS DISpLAYED (cont.)<br />
See map on page 5 to locate project tables<br />
INTERDISCIpLINARY ENGINEERING DESIGN pRoGRAm (cont.)<br />
Page Team# Project Title<br />
58 4959 Viewing Earth’s Curvature with a Weather Balloon<br />
59 4961 Remote Listening Device<br />
60 4962 “Ring the Bell” Force Indicator<br />
61 4963 Fully-Automated Soil Testing and Control Systems<br />
62 4964 Electronic pH Pool Water Tester<br />
63 4965 Low-Cost Gimbal-less Image Stabilization System<br />
for Aerial Surveillance<br />
64 4966 Rotating Polarizer Polarimeter<br />
65 4967 Target Sensor System for Coastal Patrol Boat<br />
66 4968 Computational Optics<br />
67 4969 Modern Control Design for a Guided Missile Launcher<br />
68 4970 Dioptric Power Testing Device<br />
69 4971 Design <strong>of</strong> Mounting Structures for Solar Array Modules:<br />
Ground Mount<br />
70 5226 ASME – Human Powered Vehicle<br />
71 5227 American Institute <strong>of</strong> Aeronautics and Astronautics:<br />
Fast Aerial Reconnaissance – Launch Vehicle (FAR-LV)<br />
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AWARDS<br />
<strong>Engineering</strong> Design Day <strong>2012</strong><br />
BAE SYSTEmS BEST oVERALL DESIGN AWARD (1ST pRIZE: $1,000, 2ND pRIZE: $750)<br />
While several <strong>design</strong>s may meet the judging criteria, this award is given to the <strong>design</strong>s that do so the<br />
most effectively. <strong>The</strong> project that receives this award excels in many ways. <strong>The</strong> <strong>design</strong> is well thought<br />
out and its implementation is <strong>of</strong> high quality. It accomplishes all key <strong>design</strong> requirements and is supported<br />
by rigorous analysis and/or testing as appropriate. Its poster and presentation are easy to understand<br />
and pr<strong>of</strong>essional looking.<br />
TEXAS INSTRumENTS ANALoG DESIGN<br />
CoNTEST AWARDS (1ST pRIZE: $1,500, 2ND pRIZE: $500)<br />
Regardless <strong>of</strong> whether a <strong>design</strong> project is sponsored, who is sponsoring it, or what you choose to <strong>design</strong>,<br />
there are <strong>of</strong>ten analog integrated circuits required. Projects are judged on originality <strong>of</strong> <strong>design</strong>, quality<br />
<strong>of</strong> <strong>design</strong>, creativity <strong>of</strong> <strong>design</strong>, level <strong>of</strong> <strong>engineering</strong> analysis, and a written description <strong>of</strong> how each TI<br />
analog chip benefited the <strong>design</strong>.<br />
VENTANA INNoVATIoN IN ENGINEERING AWARD ($1,000)<br />
Innovation may include the novel use <strong>of</strong> existing components or the creation <strong>of</strong> entirely new components<br />
to meet customer requirements. <strong>The</strong> most innovative <strong>design</strong> will not only be a creative solution to a<br />
problem but also an effective solution that is well implemented. This award recognizes the team that<br />
has created or made use <strong>of</strong> components in the most innovative way and/or that has demonstrated<br />
excellence in the implementation innovative <strong>design</strong> in its project.
AWARDS<br />
<strong>Engineering</strong> Design Day <strong>2012</strong><br />
hYDRoNALIX BEST CompuTER moDELING/ANALYSIS AWARD ($1,000)<br />
<strong>The</strong> purpose <strong>of</strong> this award is to recognize the team that best balances the use <strong>of</strong> Computer Modeling and/or Analysis with<br />
actual hardware testing and evaluation to verify their <strong>design</strong> parameters. Teams will be judged on the appropriateness <strong>of</strong> their<br />
computer modeling and/or analysis and its use to advance or enable the overall capability and effectiveness <strong>of</strong> their <strong>design</strong>.<br />
No preference will be given to the particular type <strong>of</strong> computer modeling/analysis performed or the computer tool(s) used to<br />
perform the modeling/analysis.<br />
EDmuND opTICS BEST uSE oF oFF-ThE-ShELF CompoNENTS AWARD ($750)<br />
A key aspect <strong>of</strong> the art <strong>of</strong> <strong>design</strong> is being able to <strong>design</strong> not just a functional product, but one that hits both cost and lead-time<br />
requirements. A custom part might easily fit the needs, but costs and lead-time associated with manufacturing it may not meet the<br />
goals <strong>of</strong> the project. This award recognizes a team’s ability to incorporate standard components into their <strong>design</strong>, to reduce costs<br />
and lead times. <strong>The</strong> award will be judged based on the ingenuity involved in finding a solution that avoided the need for custom<br />
manufacturing, the amount <strong>of</strong> components used and the complexity <strong>of</strong> the <strong>design</strong> involving the standard components.<br />
pADT BEST uSE oF pRoToTYpING AWARD ($750)<br />
This award recognizes the team that best used prototyping in their project. This award will go to the team that best used a physical<br />
prototype model in their project to understand and study the fit, form and/or function <strong>of</strong> the device or system they <strong>design</strong>ed. Teams<br />
will be judged on the appropriateness <strong>of</strong> the prototyping technology used, how effectively they used prototyping to improve their<br />
<strong>design</strong>, and how effectively they communicated the use <strong>of</strong> prototyping in their study. Prototypes can be made using rapid fabrication<br />
technology, traditional manufacturing or be hand built.<br />
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AWARDS<br />
<strong>Engineering</strong> Design Day <strong>2012</strong><br />
RAYThEoN BEST ENGINEERING ANALYSIS AWARD ($750)<br />
This award recognizes the team with the strongest strategy, implementation and documentation <strong>of</strong> analyses supporting their<br />
<strong>design</strong>. Analyses vary from project to project, but may include market research and analysis, analysis <strong>of</strong> prior solutions to<br />
the <strong>design</strong> problem posed, trade studies that justify the final <strong>design</strong> that was selected from among alternatives considered,<br />
system modeling to demonstrate that the final <strong>design</strong> is sound and should perform as desired, analysis <strong>of</strong> potential reasons<br />
for failure and a mitigation plan, and economic or other analysis <strong>of</strong> the benefits <strong>of</strong> the final <strong>design</strong> in its intended application.<br />
Criteria for judging will include the completeness <strong>of</strong> the project analysis based on the above categories, thoroughness <strong>of</strong> the<br />
analyses, application <strong>of</strong> sound <strong>engineering</strong> principles and practice, a demonstrated understanding by team members <strong>of</strong> any<br />
tools or models used, reasonableness <strong>of</strong> all assumptions, and the quality <strong>of</strong> the documentation <strong>of</strong> the analyses.<br />
RINCoN RESEARCh BEST pRESENTATIoN AWARD ($750)<br />
This award reflects the quality <strong>of</strong> the overall verbal and poster presentations. Verbal presentations should be well structured to<br />
describe efficiently the overall problem being solved and the specifics <strong>of</strong> how the team accomplished their <strong>design</strong>. Answers to<br />
questions should be direct and demonstrate mastery <strong>of</strong> the project. Presenters should speak in a clear and easily audible voice,<br />
making good eye contact with the judging pod. <strong>The</strong> poster board should be visually interesting, and graphically well organized to<br />
tell a stand-alone story <strong>of</strong> the project to outsiders.<br />
TEChNICAL DoCumENTATIoN CoNSuLTANTS oF ARIZoNA BEST DESIGN DoCumENTATIoN AWARD ($750)<br />
Successful implementation <strong>of</strong> any innovative <strong>design</strong> requires that all members <strong>of</strong> the <strong>design</strong> and production team communicate effectively.<br />
Design intent must be communicated from the <strong>design</strong> activity to the rest <strong>of</strong> the team using <strong>design</strong> documentation with a clear map for<br />
others to reproduce the <strong>design</strong> based on documentation only. <strong>The</strong> mechanical portion <strong>of</strong> the <strong>design</strong> will be evaluated on the use <strong>of</strong> drawings<br />
with geometric dimensioning and tolerancing, solids models, illustrations, presentations, etc. that can be used to manufacture and inspect<br />
<strong>design</strong> hardware. S<strong>of</strong>tware and other systems will be evaluated on the use <strong>of</strong> documentation that clearly and fully describes the system.
AWARDS<br />
<strong>Engineering</strong> Design Day <strong>2012</strong><br />
SARGENT AERoSpACE & DEFENSE VoLTAIRE DESIGN AWARD ($750)<br />
<strong>The</strong> French Philospher Voltaire is credited with the saying “Le mieux est l’ennemi du bien” which roughly translated means<br />
“Better is the enemy <strong>of</strong> good enough.” Leonardo DaVinci is also credited with the saying “Simplicity is the ultimate sophistication”.<br />
This award is intended to recognize the <strong>design</strong> team that best emulated these ideals and resisted the temptation to overly<br />
complicate the <strong>design</strong> and yielded a clean, simple, elegant, lowest cost <strong>design</strong> that simply works well.<br />
W.L. GoRE AND ASSoCIATES CREATIVE SoLuTIoN AWARD ($750)<br />
This award honors the student team that has implemented a unique and creative solution within their project. It recognizes outside<br />
the box thinking that pushes boundaries and hands-on approaches to creative solutions. Projects will be judged on the elegance<br />
and creativity <strong>of</strong> the technical solutions and the implementation there<strong>of</strong>. Teams should be able to communicate effectively their<br />
<strong>design</strong> and the processes they used for creativity.<br />
LATITuDE ENGINEERING BEST phYSICAL ImpLEmENTATIoN oF ANALYTICALLY DRIVEN DESIGN ($500)<br />
Some individuals gravitate toward hands-on <strong>engineering</strong>, preferring to cut metal and build parts. Others are attracted to analytical<br />
approaches, developing simulations and models describing the real world. An excellent team encompasses both these skills, enabling<br />
optimal <strong>design</strong> followed by quality execution. This award seeks to recognize the integration <strong>of</strong> these skill sets. Bonus points are awarded<br />
for non-intuitive physical implementations driven by discoveries made through analytical <strong>design</strong>.<br />
RIDGETop GRoup BEST ELECTRoNIC DESIGN AWARD ($500)<br />
This award is given to the electronic <strong>design</strong> that best exemplifies innovation and quality. <strong>The</strong> best-practice <strong>design</strong> must meet the project<br />
requirements with minimum superfluous features and be capable <strong>of</strong> being duplicated with minimal tuning. It must be made from readily<br />
obtainable components, not be harmful to humans, and be capable <strong>of</strong> surviving a human body model electrostatic discharge (ESD) shock.<br />
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14<br />
AWARDS<br />
<strong>Engineering</strong> Design Day <strong>2012</strong><br />
hoNEYWELL TEAm LEADERShIp AWARD (TWo INDIVIDuALS AT $250 EACh)<br />
<strong>The</strong> purpose <strong>of</strong> this award is to recognize those students who best exemplify teamwork skills, including<br />
the ability to work cooperatively with others to produce high quality work, to take initiative, to support<br />
and respect the opinions <strong>of</strong> fellow team members, to give and receive feedback, to demonstrate<br />
effective leadership, to keep their team focused, and to elevate the work <strong>of</strong> their fellow team members.<br />
Nominees for this award are nominated by their teammates.<br />
pRoToTRoN CIRCuITS BEST CIRCuIT DESIGN AWARD ($250)<br />
This award recognizes the team that has <strong>design</strong>ed or used the most elegant and efficient electronic<br />
circuit(s) in their project. Priority will be given to best PCB <strong>design</strong>s or applications. Originality and<br />
manufacturability <strong>of</strong> the <strong>design</strong> will be key criteria in selecting the winning team. However, all teams<br />
that have used any circuitry in their projects will be eligible for consideration. In the absence <strong>of</strong> any<br />
original <strong>design</strong>s, the originality <strong>of</strong> the use <strong>of</strong> <strong>of</strong>f-the-shelf products and the manufacturability <strong>of</strong> the<br />
overall <strong>design</strong> will be used as selection criteria.<br />
FISh ouT oF WATER AWARD (1ST pRIZE $250, 2ND pRIZE $150)<br />
<strong>The</strong> Fish Out <strong>of</strong> Water award is intended to congratulate students for successfully accomplishing a<br />
task that was not in their realm <strong>of</strong> expertise. <strong>The</strong> projects for senior <strong>design</strong> require skills from many<br />
disciplines. Sometimes, students must learn a new subject or skill in an area outside <strong>of</strong> their major to<br />
best help the team succeed. A student that not only learns this new subject or skill, but also uses it to<br />
effectively help the team thrive within the allotted time shows dedication and initiative, traits that will<br />
continue to help in an <strong>engineering</strong> career.
poRTABLE AquApoNICS<br />
Agricultural and Biosystems <strong>Engineering</strong><br />
CLASS<br />
ABE 498A/B<br />
SpoNSoR<br />
Peter Livingston<br />
SpoNSoR mENToR/ADVISoR<br />
Peter Livingston<br />
pRoJECT mENToR<br />
Peter Livingston<br />
James Ebeling<br />
Kevin Fitzsimmons<br />
TEAm mEmBERS<br />
Angy Guzman (ABE)<br />
Jon Lepage (ABE)<br />
Sarah Cook (ABE)<br />
ABE = Agricultural and Biosystems<br />
<strong>Engineering</strong><br />
TEAm ABE-01: pRoJECT SummARY<br />
Increasing demands on our natural<br />
resources require unique solutions.<br />
Our <strong>design</strong> combines an aquaculture<br />
subsystem with a hydroponics<br />
subsystem to maximize efficiency and<br />
fully utilize all resources with minimal<br />
waste and environmental impact.<br />
Current aquaponics <strong>design</strong>s use either<br />
rectangular raceways or circular<br />
tanks for the aquaculture subsystem.<br />
Circular tanks are very common and <strong>of</strong>fer the advantage <strong>of</strong> efficient solid waste<br />
removal. Solids can be pushed down towards a center drain and flushed out <strong>of</strong><br />
the system easily with rotational flow within the tank. Raceway <strong>design</strong>s are also<br />
used extensively and <strong>of</strong>fer the advantage <strong>of</strong> better utilization <strong>of</strong> floor space. Our<br />
<strong>design</strong> brings these two configurations together by creating circular flow in three<br />
hydraulically separate units within one rectangular raceway. In this way, solids<br />
removal is maximized and floor space is utilized fully.<br />
Our system is also <strong>design</strong>ed to be fully portable on a flatbed trailer so that it can be<br />
used as an education exhibit around the region.<br />
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16<br />
DESIGN AND CoNSTRuCTIoN oF A pILoT pLANT To CoNVERT WASTE<br />
CookING oIL To BIoDIESEL Agricultural and Biosystems <strong>Engineering</strong><br />
CLASS<br />
ABE 498A/B<br />
SpoNSoR<br />
UA Green Fund<br />
Grecycle, Inc.<br />
SpoNSoR mENToR/ADVISoR<br />
Mark Riley<br />
pRoJECT mENToR<br />
Mak Riley<br />
Michael Kazz<br />
TEAm mEmBERS<br />
Aloys Ongla (ABE)<br />
Azar Mukhida (ABE)<br />
Benjamin Erlick (ABE)<br />
Maricela Rivera (ABE)<br />
ABE = Agricultural and Biosystems<br />
<strong>Engineering</strong><br />
TEAm ABE-02: pRoJECT SummARY<br />
Decreasing our environmental impact,<br />
recycling waste, and saving money are all<br />
reasons why the University <strong>of</strong> Arizona’s<br />
movement to produce biodiesel from waste<br />
cooking oil is <strong>of</strong> utmost importance. As part<br />
<strong>of</strong> an ongoing project, the university has<br />
made valiant efforts to produce biodiesel from<br />
recycled waste cooking oil collected from<br />
the main Student Union and Park Student<br />
Union, which will ultimately be used to help power various on campus vehicles,<br />
such as the CatTran. Biodiesel is an alternative to petroleum based diesel fuel that<br />
is composed <strong>of</strong> new and used vegetable oils and animal fats, which are cleaner<br />
burning, nontoxic, and biodegradable. Approximately 500 gallons <strong>of</strong> waste cooking<br />
oil can be collected every month from the student unions, which means about<br />
500 gallons <strong>of</strong> petroleum based diesel can be replaced every month by this clean,<br />
biodegradable fuel. <strong>The</strong> role <strong>of</strong> our senior <strong>design</strong> team on this project was to <strong>design</strong><br />
and construct a pilot plant at the Campus Agricultural Center, which is located at<br />
the northwest corner <strong>of</strong> Campbell and Roger in Tucson. It was vital to construct a<br />
plant that followed the protocols and procedures for the biochemical processing <strong>of</strong><br />
waste cooking to biodiesel that abides by specific ASTMD6751 standards. <strong>The</strong> pilot<br />
plant was characterized by its ability to perform batch by batch processing <strong>of</strong> waste<br />
cooking oil at a maximum capacity <strong>of</strong> 60-70 gallons per batch.
DEVELopmENT oF VERY quICk poLYmERASE ChAIN REACTIoN (pCR) DEVICE<br />
Agricultural and Biosystems <strong>Engineering</strong><br />
CLASS<br />
ABE 498A/B<br />
SpoNSoR<br />
UA Biosensors Lab, Jeong-Yeol<br />
Yoon’s Research Group<br />
SpoNSoR mENToR/ADVISoR<br />
Dr. Jeong-Yeol Yoon<br />
pRoJECT mENToR<br />
Dr. Jeong-Yeol Yoon<br />
Dr. David You<br />
Dustin Harshman<br />
TEAm mEmBERS<br />
Ramon Muñoz (ABE)<br />
Franklin Garcia (ABE)<br />
Franklin Ventura (ABE)<br />
ABE = Agricultural and Biosystems<br />
<strong>Engineering</strong><br />
TEAm ABE-03: pRoJECT SummARY<br />
Using <strong>design</strong>s and methods developed<br />
in Dr. Yoon’s Lab the team has created<br />
a very quick Polymerase Chain<br />
Reaction (PCR) device. PCR is a wellestablished<br />
method for the detection<br />
and amplification <strong>of</strong> DNA and RNA<br />
used in medical research and clinical<br />
medicine to detect infectious diseases<br />
and gene mutations. PCR uses three<br />
steps—denaturing, annealing, and<br />
extension—to amplify specific DNA<br />
sequences <strong>of</strong> interest. Current commercial PCR devices require two hours or more<br />
to complete the process. <strong>The</strong> method developed in this <strong>design</strong> reduces the time to<br />
less than 10 minutes and allows for real-time detection.<br />
Specific Design Goals:<br />
• Optimize/Manufacture heating circuit & PID control<br />
• Miniaturize circuit board<br />
• Develop coating for device<br />
• Develop real-time detection method<br />
17
18<br />
AmERICAN INSTITuTE oF AERoNAuTICS AND ASTRoNAuTICS:<br />
DESIGN/BuILD/FLY CompETITIoN Aerospace <strong>Engineering</strong><br />
CLASS<br />
AME 420A/422A<br />
SpoNSoR<br />
<strong>The</strong> University <strong>of</strong> Arizona<br />
Department <strong>of</strong> Aerospace and<br />
Mechanical <strong>Engineering</strong><br />
SpoNSoR mENToR/ADVISoR<br />
Dr. Jeffrey Jacobs<br />
pRoJECT mENToR<br />
Dr. Edward J. Kerschen<br />
TEAm mEmBERS<br />
Stephen Conatser (AE)<br />
Amy Douglas (AE)<br />
David Roberts (AE)<br />
Kelly Tingstad (AE)<br />
Jason Troyer (AE)<br />
AE = Aerospace <strong>Engineering</strong><br />
TEAm AERo-01: pRoJECT SummARY<br />
Design/Build/Fly (DBF) is an annual competition<br />
held by the American Institute <strong>of</strong> Aeronautics<br />
and Astronautics (AIAA), Raytheon Missile<br />
Systems, and Cessna Aircraft Company. Each<br />
year teams <strong>of</strong> college students from around<br />
the world <strong>design</strong> and build remote-controlled<br />
airplanes that meet specific rules and<br />
requirements. During competition, each team<br />
aims to prove the capabilities <strong>of</strong> its <strong>design</strong> in three different missions.<br />
<strong>The</strong> missions required in <strong>2012</strong> were:<br />
1. Complete as many laps over the flight course as possible in 4 minutes<br />
2. Fly three full laps while carrying eight simulated passengers (aluminum blocks)<br />
3. Carry 2 liters <strong>of</strong> water and climb to 100 meters as fast as possible and<br />
then release the water while completing a full lap<br />
<strong>The</strong> score obtained at competition was based on performance in each mission, as<br />
well as a written report score. <strong>The</strong> report, due prior to competition, detailed the<br />
<strong>design</strong> and the processes used. <strong>The</strong> DBF rules change each year, and in <strong>2012</strong> the<br />
plane was limited to 1.5 pounds <strong>of</strong> nickel cadmium or nickel-metal hyride batteries<br />
and a maximum current draw <strong>of</strong> 20 Amps. Ground take<strong>of</strong>f was required, using less<br />
than 100 feet <strong>of</strong> runway, and a successful landing was required in each mission in order<br />
to move on to remaining mission(s). <strong>The</strong> DBF competition was held in Wichita, KS on<br />
April 13-15, <strong>2012</strong>.
AuToNomouS SoARING TEChNIquES FoR AppLICATIoN To SmALL SCALE<br />
uNmANNED GLIDERS Aerospace <strong>Engineering</strong><br />
CLASS<br />
AME 420A/422A<br />
SpoNSoR<br />
Dr. Ricardo Sanfelice<br />
Dr. Hermann Fasel<br />
SpoNSoR mENToR/ADVISoR<br />
Ricardo Sanfelice<br />
Hermann Fasel<br />
pRoJECT mENToR<br />
Ricardo Sanfelice<br />
Hermann Fasel<br />
TEAm mEmBERS<br />
Nikolas Kaplan (AE/Applied Math)<br />
Christopher Grusenmeyer (AE/ME)<br />
Daniel Jones (AE)<br />
AE=Aerospace <strong>Engineering</strong><br />
ME=Mechanical <strong>Engineering</strong><br />
TEAm AERo-02: pRoJECT SummARY<br />
Soaring is an action that can be<br />
readily seen in nature. Birds have<br />
long been known to stay al<strong>of</strong>t<br />
by using the naturally occurring<br />
lift sources generated in the<br />
environment. <strong>The</strong>se sources, such<br />
as thermals and terrain fluctuations,<br />
create a region <strong>of</strong> updrafting air which<br />
affords a natural increase in the lift<br />
produced by wings. Utilizing these<br />
environmental lift sources <strong>of</strong>fers major<br />
technical advantages. Unmanned aerial vehicles (UAVs) are limited in range only<br />
by their power source; whether that may be battery or fuel, the UAV will eventually<br />
need to land to recharge this source. Due to limited payload constraints UAVs <strong>of</strong>ten<br />
are implemented in short-range and low-endurance missions. <strong>The</strong>se constraints can<br />
be relaxed significantly if the UAV is capable <strong>of</strong> autonomously extracting this energy<br />
from the environment. Accomplishing this task requires advanced control algorithms<br />
which are capable <strong>of</strong> executing decision-making strategies to cope with the<br />
uncertain variability <strong>of</strong> the environment. This project addresses the need for this<br />
system as well as experimentally show its application via computer aided simulation<br />
and radio-controlled model flight testing using an autopilot on board the aircraft.<br />
19
20<br />
AmERICAN INSTITuTE oF AERoNAuTICS AND ASTRoNAuTICS:<br />
FAST AERIAL RECoNNAISSANCE (FAR) uAV Aerospace <strong>Engineering</strong><br />
CLASS<br />
AME 420A/422A<br />
SpoNSoR<br />
UA AIAA<br />
SpoNSoR mENToR/ADVISoR<br />
AIAA Executive Board<br />
pRoJECT mENToR<br />
Doug May<br />
TEAm mEmBERS<br />
Ryan Crompton (AE)<br />
Kevin Schwab (AE)<br />
Lijun Shan (AE)<br />
Chris Wellons (AE)<br />
Alex Yang (AE)<br />
AE = Aerospace <strong>Engineering</strong><br />
TEAm AERo-03: pRoJECT SummARY<br />
<strong>The</strong> goal <strong>of</strong> the FAR project is to<br />
create a single affordable aerial<br />
surveillance package that combines<br />
the speed <strong>of</strong> a rocket and the<br />
maneuverability <strong>of</strong> an airplane. <strong>The</strong><br />
FAR-UAV team is responsible for<br />
<strong>design</strong>ing and building the UAV that<br />
will be deployed from the FAR-LV<br />
rocket. In order to fit inside <strong>of</strong> the<br />
rocket, the UAV was <strong>design</strong>ed to<br />
collapse inside the payload bay <strong>of</strong> the rocket and then unfold after being deployed.<br />
Once deployed, the UAV transmits a live video feed and telemetry data back<br />
to a ground station at the launch site. <strong>The</strong> ground station monitors and records<br />
all system parameters and displays the video feed. <strong>The</strong> UAV is able to fly semiautonomously<br />
or under the control <strong>of</strong> a pilot based at the ground station. An electric<br />
propulsion system allows the UAV to fly to multiple observation locations or loiter for<br />
long periods <strong>of</strong> time before returning to the ground station.<br />
<strong>The</strong> UAV and LV teams presented the FAR concept at the AIAA Region VI Student<br />
Paper Conference on March 29th-April 1st in Seattle, Washington. <strong>The</strong> teams will<br />
also compete in the Experimental Sounding Rocket Association’s 7th Annual IREC<br />
competition on June 21-23, <strong>2012</strong>.
FIXED-WING VToL mICRo AIR VEhICLE<br />
Aerospace <strong>Engineering</strong><br />
CLASS<br />
AME 420A/422A<br />
SpoNSoR<br />
Sergey Shkarayev<br />
SpoNSoR mENToR/ADVISoR<br />
Sergey Shkarayev<br />
pRoJECT mENToR<br />
Sergey Shkarayev<br />
TEAm mEmBERS<br />
Aaron Petras (AE)<br />
Jordan Odle (AE)<br />
Sean Katsarelis (AE)<br />
Brandon Pitts (AE)<br />
Daigario Juan Cota (AE/ME)<br />
AE = Aerospace <strong>Engineering</strong><br />
ME=Mechanical <strong>Engineering</strong><br />
TEAm AERo-04: pRoJECT SummARY<br />
<strong>The</strong> purpose <strong>of</strong> this Micro Air Vehicle (MAV)<br />
<strong>design</strong> project was to develop a vertical take-<strong>of</strong>f<br />
and landing (VTOL) MAV that incorporates all the<br />
necessary components for autonomous flight in<br />
the smallest possible airframe and to <strong>design</strong> an<br />
efficient manufacturing process for producing this<br />
airframe. <strong>The</strong> final aircraft is expected to be used<br />
in the <strong>2012</strong> International MAV (IMAV) competition,<br />
where it will need to complete a series <strong>of</strong> flights that will test its maneuvering,<br />
surveillance, and autonomous capabilities. Since the competition includes both<br />
outdoor and indoor flights, one <strong>of</strong> the main focuses <strong>of</strong> the project was to <strong>design</strong><br />
the MAV such that it could transition to and from hovering flight and conventional<br />
horizontal flight. Doing this would allow the aircraft to maneuver in confined spaces<br />
in hovering mode and also cover long distances quickly in the conventional flight<br />
configuration. <strong>The</strong> airframe was <strong>design</strong>ed to incorporate a new manufacturing scheme<br />
that would minimize build time and error while increasing product quality. In order to<br />
meet the autonomy requirements <strong>of</strong> the competition, the airframe was also <strong>design</strong>ed<br />
to house the autopilot systems being developed by the interdisciplinary MAV Autopilot<br />
Integration team. Fulfilling the flight envelope requirements stated in the project goals<br />
has involved extensive component research and testing, as well as an aerodynamic<br />
analysis <strong>of</strong> the airfoil. Selective laser sintering (SLS) manufacturing technology was<br />
chosen in order to meet construction goals. This enabled integration <strong>of</strong> <strong>design</strong> elements<br />
such as easier access to vital components. <strong>The</strong> MAV’s capabilities and precise airframe<br />
construction should not only serve as an ideal aircraft for the IMAV competition, but also<br />
as a potential product for both military and civil surveillance use.<br />
21
22<br />
ThE CLIppERSpIRIT SEApLANE<br />
Aerospace <strong>Engineering</strong><br />
CLASS<br />
AME 420A/422A<br />
SpoNSoR<br />
<strong>The</strong> New Nose Company, Inc.<br />
SpoNSoR mENToR/ADVISoR<br />
Charles Simpson<br />
pRoJECT mENToR<br />
Sergey Shkarayev<br />
TEAm mEmBERS<br />
Aaron Avery (AE)<br />
Bolivar Peralta (AE)<br />
Luis Pichardo (AE)<br />
Keith Sangston (AE)<br />
Brett Van Wormer (AE)<br />
AE = Aerospace <strong>Engineering</strong><br />
TEAm AERo-05: pRoJECT SummARY<br />
A preliminary hull <strong>design</strong> was<br />
completed for the amphibious<br />
aircraft, the ClipperSpirit, last year<br />
the team was tasked with analyzing<br />
and defining the aerodynamic and<br />
hydrodynamic characteristics <strong>of</strong> the<br />
fuselage/hull.<br />
This seaplane project posed<br />
challenges not typically encountered<br />
in the aviation industry - the<br />
interaction <strong>of</strong> the aircraft with water and a fuselage shape that is not ideal for<br />
flight. An experimental setup was <strong>design</strong>ed to investigate the water interaction by<br />
obtaining qualitative and quantitative results. Additionally, the flow near the step <strong>of</strong><br />
the fuselage (a feature typical <strong>of</strong> seaplanes) was characterized. <strong>The</strong>se tasks involved<br />
learning new s<strong>of</strong>tware, modeling the fuselage in SolidWorks, manufacturing models,<br />
basic flow visualization, and the experimental process.<br />
<strong>The</strong> results <strong>of</strong> the tests can be used to consider alternate configurations <strong>of</strong> the<br />
fuselage <strong>design</strong>. Of particular interest was the afterbody, the portion <strong>of</strong> the fuselage<br />
after the step that experiences increased drag.
JoINED WING<br />
Aerospace <strong>Engineering</strong><br />
CLASS<br />
AME 420A/422A<br />
SpoNSoR<br />
SpoNSoR mENToR/ADVISoR<br />
Hermann Fasel<br />
pRoJECT mENToR<br />
Hermann Fasel<br />
TEAm mEmBERS<br />
Kevin Ferguson (AE)<br />
Jared Hainsworth (AE/ME)<br />
Nathan Thorne (AE)<br />
Colton Iske (AE)<br />
William Gratzl (AE)<br />
AE = Aerospace <strong>Engineering</strong><br />
ME=Mechanical <strong>Engineering</strong><br />
TEAm AERo-06: pRoJECT SummARY<br />
This <strong>design</strong> team has <strong>design</strong>ed and built<br />
a joined wing unmanned aerial vehicle.<br />
<strong>The</strong> goal <strong>of</strong> the project is to examine the<br />
potential for aerodynamic improvements<br />
over a traditional wing <strong>design</strong>. Following<br />
in the footsteps <strong>of</strong> the Joined Wing’s<br />
spiritual predecessor, the AVATAR, this<br />
<strong>design</strong> has adopted many <strong>of</strong> the traits<br />
and advantages afforded by that <strong>design</strong>.<br />
By utilizing a similar fuselage and wing<br />
planform area, the Joined Wing performance is comparable to the performance<br />
<strong>of</strong> an existing and well tested <strong>design</strong> and thus the improvements afforded by the<br />
<strong>design</strong> can be quantitatively measured.<br />
<strong>The</strong> Joined Wing is built <strong>of</strong> light-weight, high-strength composite material. This<br />
allows for the lightest possible <strong>design</strong> while maintaining high structural strength.<br />
This results in a greatly reduced aircraft weight and thus a much higher payload<br />
capacity than a similar aircraft constructed with other materials.<br />
<strong>The</strong> Joined Wing <strong>design</strong> grants several advantages over a traditional <strong>design</strong>, included<br />
reduced structural weight, aerodynamic improvements, and payload capacity, making<br />
this <strong>design</strong> a highly capable and efficient aerial vehicle.<br />
23
24<br />
AIRCRAFT ThRuST RECoVERY VALVE (TRV)<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Honeywell Aerospace<br />
SpoNSoR mENToR/ADVISoR<br />
Darrell Horner<br />
pRoJECT mENToR<br />
Kevin H. Prodromides<br />
TEAm mEmBERS<br />
Ahmed Al Salman (ME)<br />
Christopher Grusenmeyer (AE/ME)<br />
Patrick Joyce (ME)<br />
Jeffrey Pyne (ME)<br />
Bradley Warner (ME)<br />
Jing Yang (ME)<br />
AE = Aerospace <strong>Engineering</strong><br />
ME=Mechanical <strong>Engineering</strong><br />
TEAm 4873: pRoJECT SummARY<br />
For commercial flight, internal cabin<br />
pressure <strong>of</strong> an aircraft must be<br />
controlled. Compressed air is taken<br />
from the engines and distributed<br />
through the cabin. <strong>The</strong> air then<br />
exits through a thrust recovery<br />
valve (TRV) in order to maintain the<br />
cabin pressure. Current TRV <strong>design</strong>s<br />
at Honeywell Aerospace have a<br />
modified butterfly valve that utilizes<br />
two doors, that move in parallel to<br />
create a nozzle that accelerates<br />
the air flow to supersonic velocities. This creates a small amount <strong>of</strong> thrust that<br />
helps the aircraft to recover some <strong>of</strong> the energy lost to the cabin pressure control<br />
system. This project aims to improve the linkage, hinge, noise, leakage, and<br />
nozzle <strong>of</strong> a previous model to a production quality <strong>design</strong>. To do this, the valve<br />
must withstand the force <strong>of</strong> a pressure differential without mechanically failing.<br />
Additionally, the valve must leak no more than 0.5 lb/min in the fully closed position.<br />
<strong>The</strong> valve must accelerate the flow exiting the nozzle to supersonic speeds. Due to<br />
the commercial application <strong>of</strong> the valve, no audible tones must be produced. <strong>The</strong><br />
valve must be capable <strong>of</strong> opening to the full effective area allowing for the maximum<br />
mass flow rate for the given dimensions. Ultimately, this project should produce an<br />
aerospace quality prototype valve to potentially replace existing models.
DESIGN oF EXpERImENTS oN hoNEYWELL’S hEAT TRANSFER RIG<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Honeywell Aerospace<br />
SpoNSoR mENToR/ADVISoR<br />
Alexander MirzaMoghadam<br />
pRoJECT mENToR<br />
Kevin H. Prodromides<br />
TEAm mEmBERS<br />
Abdullah Ahmad Al-Abadi (SE)<br />
Michael Gallo (EMG)<br />
Ben Reidy (EMG)<br />
Taylor Runger (SE)<br />
Yew Leong Sien (ME)<br />
AE = Aerospace <strong>Engineering</strong><br />
EMG = <strong>Engineering</strong> Management<br />
ME=Mechanical <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4891: pRoJECT SummARY<br />
Since the Wright brothers first took<br />
<strong>of</strong>f in 1903, top engineers have<br />
dedicated their lives to improving<br />
safety and performance within the<br />
aerospace industry. To<strong>day</strong> there<br />
is still a lack <strong>of</strong> validation data<br />
concerning the internals <strong>of</strong> a modern<br />
turbine engine. More specifically, this<br />
needed data reflects the heat transfer<br />
characteristics between the disk<br />
bore coolant flow and the disk bore<br />
itself within a turbine engine. This incomplete understanding <strong>of</strong> test data stems<br />
from the inaccessible nature <strong>of</strong> a turbine engine. As a result, turbine engines are<br />
over<strong>design</strong>ed to prevent operational failure. Our project is a continuation <strong>of</strong> the<br />
2009-2010 and 2010-2011 Senior Design projects for Honeywell Aerospace. Our<br />
goal is to accurately collect missing heat transfer data through the incorporation<br />
<strong>of</strong> a <strong>design</strong> <strong>of</strong> experiments. <strong>The</strong> <strong>design</strong> <strong>of</strong> experiments will be conducted on the<br />
influential factors surrounding a rotating test rig <strong>design</strong>ed to simulate the shaft <strong>of</strong> a<br />
turbine engine. Our team was also tasked with improving the mechanical aspects <strong>of</strong><br />
the test rig and incorporating a real-time data logging system that can transmit data<br />
wirelessly to a PC during the operation <strong>of</strong> the test rig. This collected data will be used<br />
to create a Nusselt-Reynold number correlation, which will lead to a foundation built to<br />
improve turbine efficiency and better understand disk bore life.<br />
25
26<br />
hIGh poWER AND EFFICIENCY GENERAToR ShAFT CoNDuCTIoN CooLING<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Honeywell Aerospace<br />
SpoNSoR mENToR/ADVISoR<br />
Cristian Anghel<br />
Balwinder Birdi<br />
pRoJECT mENToR<br />
Kevin H. Prodromides<br />
TEAm mEmBERS<br />
Daniel Hand (ME)<br />
Kevin Witwer (ME)<br />
Dana Sandoval (ME)<br />
Gavin Stockus (ME)<br />
Levi Tubb (ME)<br />
ME=Mechanical <strong>Engineering</strong><br />
TEAm 4892: pRoJECT SummARY<br />
Currently, Honeywell Aerospace cools its<br />
generators’ rotor assembly through two<br />
methods: spray cooling and conduction<br />
cooling. Conduction cooling is done by<br />
flowing oil through the shaft <strong>of</strong> the rotor<br />
assembly. <strong>The</strong> conduction is enhanced<br />
through the use <strong>of</strong> an insert in the shaft.<br />
Spray cooling is done by directing some<br />
<strong>of</strong> the pressurized oil in the shaft through<br />
nozzles placed at the edge <strong>of</strong> the rotor. <strong>The</strong> sprayed oil cools the windings from<br />
ends <strong>of</strong> the rotor. <strong>The</strong> sprayed oil falls to the bottom <strong>of</strong> the generator where it is<br />
pumped into a holding tank. Some <strong>of</strong> this oil leaks into the small gap between the<br />
rotor and stator resulting in drag on the rotor (windage losses). This drag results<br />
in tremendous losses in overall generator efficiency. <strong>The</strong> goal <strong>of</strong> this project is to<br />
minimize the amount <strong>of</strong> spray cooling by <strong>design</strong>ing a better conduction cooling<br />
shaft insert. Increasing the amount <strong>of</strong> heat removed through the conducting insert<br />
allows for a reduction in spray cooling thus decreasing the windage losses. <strong>The</strong><br />
conduction cooling insert is improved by optimizing the geometry <strong>of</strong> the insert to<br />
maximize the velocity and turbulence <strong>of</strong> the oil while minimizing the pressure drop<br />
across the insert. Several shaft insert <strong>design</strong>s were created and analyzed using CFD<br />
s<strong>of</strong>tware. Three <strong>of</strong> the most promising <strong>design</strong>s were built and tested to verify the<br />
CFD s<strong>of</strong>tware results. A testing environment was also <strong>design</strong>ed and built to provide<br />
Honeywell with empirical data proving the improvement <strong>of</strong> the conduction insert.
hIGh poWER AND EFFICIENCY GENERAToR INSuLATING CompouND<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Honeywell Aerospace<br />
SpoNSoR mENToR/ADVISoR<br />
Cristian Anghel<br />
Baldwinder Birdi<br />
Ted Won<br />
pRoJECT mENToR<br />
Kevin H. Prodromides<br />
TEAm mEmBERS<br />
Jason Bowman (EMG)<br />
Michael Chin (EMG)<br />
Cody Jensen (MSE)<br />
Heather Johnson (EMG)<br />
Sushil Sharma (ME)<br />
Alec Zimmermann (EE)<br />
EE = Electrical <strong>Engineering</strong><br />
EMG = <strong>Engineering</strong> Management<br />
ME=Mechanical <strong>Engineering</strong><br />
MSE = Materials Science & <strong>Engineering</strong><br />
TEAm 4894: pRoJECT SummARY<br />
We are working with Honeywell<br />
Aerospace in Tucson on improving<br />
the thermal interface material<br />
that is used in high power and<br />
efficiency generators. We have<br />
been tasked to improve their<br />
current material, RB-160, based on<br />
the criteria <strong>of</strong> temperature, thermal<br />
conductivity, dielectric properties,<br />
adhesion, and cost. Our team<br />
has created multiple <strong>design</strong>s using epoxy and various ratios <strong>of</strong> particulates that<br />
involve aluminum oxide, silicon carbide, and boron nitride. <strong>The</strong> compound will be<br />
considered successful if we improve on at least one <strong>of</strong> the criteria listed. Our new<br />
compound will increase the efficiency <strong>of</strong> Honeywell Aerospace’s generators.<br />
27
28<br />
ALTERNATE mEThoDS oF BoNDING TEFLoN LINER To mETALLIC<br />
SuBSTRATES IN AIRCRAFT BEARINGS Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Sargent Aerospace and Defense<br />
SpoNSoR mENToR/ADVISoR<br />
Matt Johnson<br />
pRoJECT mENToR<br />
Dr. Gerald Pine<br />
TEAm mEmBERS<br />
Don Barnes (ME)<br />
Ryan Biggie (MSE)<br />
Daniel Dooley (MSE)<br />
Noah Yablong (EMG)<br />
EMG = <strong>Engineering</strong> Management<br />
ME=Mechanical <strong>Engineering</strong><br />
MSE = Materials Science & <strong>Engineering</strong><br />
TEAm 4911: pRoJECT SummARY<br />
Our project is to <strong>design</strong> and test<br />
a new way to bond Teflon liners<br />
to aircraft bearings. <strong>The</strong> current<br />
system involves using metal arbors,<br />
which when heated apply pressure<br />
and compress the liner onto the<br />
inner diameter <strong>of</strong> the bearing to be<br />
lined. <strong>The</strong> problem with the current<br />
system is that it requires a high<br />
number <strong>of</strong> differently sized arbors in order to accommodate the myriad <strong>of</strong> bearing<br />
sizes. With a newly <strong>design</strong>ed, flexible arbor system, Sargent would be able to use<br />
one size <strong>of</strong> expanding arbor to accommodate a range <strong>of</strong> diameters <strong>of</strong> bearings.<br />
In order to accomplish this we are developing an inflatable bladder system which<br />
utilizes a flexible tubing mounted between machined end caps. <strong>The</strong> tubing can be<br />
inflated using shop air and, once the system is placed into the bonding ovens, it will<br />
apply the pressure needed while the resin cures.
WIRELESS poWERED SENSoR NETWoRk<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Michael Marcellin<br />
Hao Xin<br />
SpoNSoR mENToR/ADVISoR<br />
Michael Marcellin<br />
Hao Xin<br />
pRoJECT mENToR<br />
Ivar Sanders<br />
TEAm mEmBERS<br />
Emily Adams (SE)<br />
Ayman Albagshi (EE)<br />
Khaleel Alnatar (SE)<br />
Gregory Jacob (OSE)<br />
Nathan Mogk (MSE)<br />
Alexis Sparrold (EE)<br />
EE = Electrical <strong>Engineering</strong><br />
MSE = Materials Science & <strong>Engineering</strong><br />
OSE = Optical Sciences & <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4912: pRoJECT SummARY<br />
Systems that monitor environments<br />
<strong>of</strong>ten rely on cumbersome wires to<br />
supply power to the sensing equipment<br />
or batteries that require monitoring<br />
and replacement. This system <strong>design</strong><br />
focuses on the creation <strong>of</strong> a wireless<br />
sensor network with emphasis on the<br />
implementation <strong>of</strong> wirelessly charged<br />
sensing nodes by utilizing microwaves.<br />
Three subsystems make up this “pro<strong>of</strong><br />
<strong>of</strong> concept” wireless sensor system:<br />
a power transmitting base station, three sensor nodes, and a communication<br />
base station. <strong>The</strong> power transmitting base station transmits microwaves to the<br />
nodes. Each node is composed <strong>of</strong> a rectenna, a power regulation circuit, an XBee<br />
radio transmitter, and a supercapacitor. <strong>The</strong>se nodes monitor the temperature and<br />
humidity <strong>of</strong> the environment. <strong>The</strong> rectenna on the nodes converts the transmitted<br />
microwaves into DC power. <strong>The</strong>refore, the nodes must be compatible with the<br />
rectenna provided by the project sponsors, Pr<strong>of</strong>essor Marcellin and Pr<strong>of</strong>essor<br />
Xin from the University <strong>of</strong> Arizona. For the communication aspect <strong>of</strong> the system,<br />
Zigbee protocol, which belongs to IEEE 802.15.4 protocol, was used as a wireless<br />
communication protocol between the communication base and the node. This protocol<br />
is implemented using XBee modules. Through the combination <strong>of</strong> power regulation,<br />
microwave energy, and radio transmission, users are able to utilize this system to collect<br />
environmental sensor data wirelessly.<br />
29
30<br />
ENhANCED DIGITAL pASSENGER CoNTRoL uNIT<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
B/E Aerospace<br />
SpoNSoR mENToR/ADVISoR<br />
Ian Frost<br />
Lucas Baer<br />
pRoJECT mENToR<br />
Jytoi Mukherjee<br />
TEAm mEmBERS<br />
Miguel Ruiz (ME)<br />
Daigaro Cota (ME)<br />
Corey Coolidge (EE)<br />
Ronald Russell (EE)<br />
Aaron Gibson (CoE)<br />
Jose Maytorena (CoE)<br />
CoE = Computer <strong>Engineering</strong><br />
EE = Electrical <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
TEAm 4913: pRoJECT SummARY<br />
B/E Aerospace produces first-class<br />
passenger suites for commercial<br />
air travel. A super first-class<br />
suite is the ultimate in air travel.<br />
Passengers pay a high fee for<br />
luxury and comfort, and they<br />
have high expectations in the<br />
suite’s features. B/E Aerospace<br />
desires an enhancement to its<br />
existing digital passenger control<br />
unit (DPCU) in order provide<br />
additional functionality in their<br />
super first class suite. <strong>The</strong> project<br />
has <strong>design</strong>ed and developed an enhanced “pro<strong>of</strong> <strong>of</strong> concept” digital passenger<br />
control unit. <strong>The</strong> DPCU must fit into the existing armrest <strong>of</strong> the seat and match the<br />
aesthetics <strong>of</strong> the super first class environment. <strong>The</strong> DPCU must interface with existing<br />
equipment to communicate a passenger’s desire to adjust any <strong>of</strong> the functions <strong>of</strong> the<br />
airline seat.<br />
<strong>The</strong> enhanced DPCU must also provide a certain “wow” factor that adds to the list<br />
<strong>of</strong> other high-end features that B/E Aerospace <strong>of</strong>fers in their super first class suite.
INTELLIGENT WEBCRAWLER FoR IDENTIFYING CoNSTRuCTIoN LEADS<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Sundt Construction Inc.<br />
SpoNSoR mENToR/ADVISoR<br />
Aidan M Garza<br />
pRoJECT mENToR<br />
Kevin H. Prodromides<br />
TEAm mEmBERS<br />
Jesse Gunsch (CoE)<br />
Gregory R Ksionda (CoE)<br />
Gregory A Reid (CoE)<br />
Alberto Molina (EMG)<br />
CoE = Computer <strong>Engineering</strong><br />
EMG = <strong>Engineering</strong> Management<br />
TEAm 4914: pRoJECT SummARY<br />
It is the responsibility <strong>of</strong> Sundt<br />
Construction’s Business Development<br />
department to locate clients who<br />
are planning a construction project<br />
and to persuade them that Sundt<br />
should get the job. One method that<br />
they currently use to complete this<br />
task is keeping a list <strong>of</strong> websites that<br />
advertise the early stages <strong>of</strong> projects,<br />
having to regularly check each<br />
website for changes, and manually<br />
recording and entering any new leads into their lead tracking s<strong>of</strong>tware. Since<br />
this process is both time consuming and restrictive, Sundt wanted an Intelligent<br />
Webcrawler application that can aid them with this task. <strong>The</strong> application is able to<br />
search the internet for websites with construction leads based on keywords, and<br />
maintain a list <strong>of</strong> any new discoveries. It analyzes the content <strong>of</strong> its list <strong>of</strong> websites<br />
and provides pr<strong>of</strong>essional reports <strong>of</strong> its findings on a user specified schedule. <strong>The</strong><br />
Webcrawler is able to support multiple programmed searches and report schedules,<br />
as well as adapting to new browsers, and OS updates. An intuitive GUI allows users<br />
to select keywords for new searches, define report schedules, and view previously<br />
generated reports in order to develop a higher level <strong>of</strong> intelligence allowing the<br />
application to refine its own searches and adapt to new information formats.<br />
31
32<br />
RoBuST ShAFT mEASuREmENT TEChNIquE<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Caterpillar Inc. Proving Grounds<br />
Green Valley, AZ<br />
SpoNSoR mENToR/ADVISoR<br />
Burhan Hamdan<br />
pRoJECT mENToR<br />
Doug May<br />
TEAm mEmBERS<br />
Jun Chai (ME)<br />
Thomas Ireson (ME)<br />
Adam Mullenbach (ME)<br />
Eric Prewitt (ME)<br />
Kai Yu (INE)<br />
INE = Industrial <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
TEAm 4915: pRoJECT SummARY<br />
Caterpillar Proving Grounds is a<br />
testing facility for most <strong>of</strong> Caterpillar’s<br />
large construction and mining<br />
equipment. One such test performed<br />
by Caterpillar involves wirelessly<br />
transmitting data from a rotating shaft<br />
in order to verify shaft parameters.<br />
Caterpillar’s instrument <strong>of</strong> choice to<br />
conduct the test is the Accumetrics<br />
AT-5000 telemetry device. Data<br />
collected from the AT-5000 is useful for calculating shaft performance, validating<br />
shaft lifetime and determining shaft anomalies. <strong>The</strong> AT-5000 in its current <strong>design</strong><br />
iteration only lasts for 20-30 hours, is difficult to install and costs Caterpillar time<br />
and money. <strong>The</strong> ultimate goal <strong>of</strong> the project involved extending the unit operational<br />
testing life <strong>of</strong> the Accumetrics device from 20-30 hours to 2-3 weeks. Team<br />
4915’s <strong>design</strong> includes lithium-ion/polymer rechargeable batteries with an electrical<br />
timer circuit. An inertia switch and timer are key components in order to maximize<br />
testing life and reduce unusable data. <strong>The</strong> inertia switch triggers the timer, which<br />
in turn provides power to the AT-5000 for 10 minutes after the shaft stops rotating.<br />
Team 4915’s <strong>design</strong> also includes a calibration mode for initial set-up <strong>of</strong> the AT-5000.<br />
Lastly, Team 4915’s <strong>design</strong> integrates the use <strong>of</strong> Caterpillar’s existing Kevlar straps in<br />
conjunction with battery pack <strong>design</strong>, which functions as a strap cinching system.
CuVopS V: CoopERATIVE uNmANNED VEhICLE opERATIoNS<br />
pLANNING SYSTEm Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
BAE Systems, San Diego<br />
SpoNSoR mENToR/ADVISoR<br />
Rex Helton<br />
Tom Deakin<br />
pRoJECT mENToR<br />
Greg Ogden<br />
TEAm mEmBERS<br />
Alison Baier (SE)<br />
Christopher Dunlop (EMG)<br />
James Mertz (SE)<br />
Michael Nava (SE)<br />
James Oliver (CoE)<br />
Michael Schaffner (SE)<br />
CoE = Computer <strong>Engineering</strong><br />
EMG = <strong>Engineering</strong> Management<br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4916: pRoJECT SummARY<br />
In its fifth year <strong>of</strong> development, CUVOPS<br />
aims to provide a very real service to the<br />
community. CUVOPS is a planning system<br />
that dynamically routes unmanned ground<br />
vehicles (UGVs) to respond to emergency<br />
events such as fire, flooding, searchand-rescue<br />
efforts, and other hazardous<br />
situations. <strong>The</strong> main goals <strong>of</strong> the 2011/<strong>2012</strong><br />
academic year are to:<br />
• Create a distributed system with an integrated database<br />
• Create a detailed systems architecture for future teams<br />
A distributed system allows any user, authorized by HTTP authentication, to<br />
utilize CUVOPS with nothing more than an internet connection and a supported<br />
web browser. Differing from previous standalone <strong>design</strong>s, the performance-critical<br />
aspects are now distributed over three servers. Additionally, the new <strong>design</strong> supports<br />
seamless and concurrent operation <strong>of</strong> the web application, which allows for better<br />
coordination and role separation among users. Data redundancy and backups are<br />
implemented without adding complexity to the user’s experience. A detailed systems<br />
architecture and proper code documentation enable future teams to easily build <strong>of</strong>f <strong>of</strong><br />
the progress <strong>of</strong> Team 4916. This will result in much greater overall progress by future<br />
<strong>design</strong> teams, which is paramount to the success <strong>of</strong> a multi-year project like CUVOPS.<br />
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34<br />
SmALL mAmmAL GpS TRACkER<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Dr. Michael Marcellin<br />
Dr. Kathleen Melde<br />
SpoNSoR mENToR/ADVISoR<br />
Dr. Kathleen Melde<br />
pRoJECT mENToR<br />
Ivar Sanders<br />
TEAm mEmBERS<br />
Ruben Sanchez (EMG)<br />
Martin Velazquez (SE)<br />
Jared Fowler (IE)<br />
Jon Austin (EE)<br />
Kathy Estrada (EE)<br />
Robyn Mohr (EE)<br />
EE = Electrical <strong>Engineering</strong><br />
EMG = <strong>Engineering</strong> Management<br />
IE = Industrial <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4918: pRoJECT SummARY<br />
<strong>The</strong> overall goal <strong>of</strong> the project is<br />
to <strong>design</strong> a GPS location system<br />
for the tracking <strong>of</strong> small animals<br />
in a remote forested region. <strong>The</strong><br />
system includes two parts: a<br />
small collar with GPS receiver and<br />
VHF transmitter and a portable<br />
receiver for data retrieval. <strong>The</strong><br />
<strong>design</strong> challenge lies in creating<br />
an antenna capable <strong>of</strong> being<br />
embedded in a small wearable<br />
collar. <strong>The</strong> ultimate goal is to size these on a golden lion tamarin, a small primate<br />
on the endangered species list. <strong>The</strong> system must be safe and durable, easily<br />
reproducible by others, inexpensive, and portable. <strong>The</strong> collar must retrieve GPS<br />
signals and then transmit them to the receiver at 153 MHz. At the end <strong>of</strong> the senior<br />
project, we hope to deliver one system with three working collars to the National Zoo<br />
in Washington, D.C.
AuTomATING CoNSTRuCTIoN DIGITAL RECoRD DRAWINGS<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Sundt Construction Inc.<br />
SpoNSoR mENToR/ADVISoR<br />
Aidan M. Garza<br />
pRoJECT mENToR<br />
Clayton Grantham<br />
TEAm mEmBERS<br />
Alex Babis (CoE)<br />
Mark McKissick (CoE)<br />
Benjamin Zarin (EMG)<br />
CoE = Computer <strong>Engineering</strong><br />
EMG = <strong>Engineering</strong> Management<br />
TEAm 4919: pRoJECT SummARY<br />
<strong>The</strong> goal <strong>of</strong> this project was to<br />
<strong>design</strong> a s<strong>of</strong>tware program that<br />
automated a time-consuming, errorprone<br />
and tedious process, that<br />
is a necessity for each <strong>of</strong> Sundt’s<br />
new projects. <strong>The</strong> current process<br />
demands that Sundt employees<br />
manually link and bookmark each<br />
detail in the Digital Record Drawings<br />
(DRD) using Adobe Acrobat Pro.<br />
In any given construction task, the number <strong>of</strong> details to be referenced can range<br />
from tens to hundreds depending on the magnitude <strong>of</strong> the project. By automating<br />
this process, a huge reduction in the completion time <strong>of</strong> the tasks will be observed,<br />
saving Sundt nearly $80,000 per year in labor costs; if the s<strong>of</strong>tware is adopted at<br />
each <strong>of</strong> their headquarters, their savings will increase dramatically. To mitigate any<br />
incompatibilities between the automated and the current processes, the s<strong>of</strong>tware<br />
was <strong>design</strong>ed to operate using Adobe Acrobat Pro. <strong>The</strong> s<strong>of</strong>tware will output the DRDs<br />
that the user is accustomed to, however, it will be accomplished much more readily<br />
and efficiently. To accomplish this task, batch processes written in JavaScript were<br />
generated to accomplish each step <strong>of</strong> the bookmarking and linking processes. After the<br />
individual batch processes were written, they were assimilated into a larger program,<br />
responsible for systematically employing the individual processes in Adobe Acrobat Pro.<br />
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36<br />
JoCkEY “SmART hELmET” FoR hoRSE RACING<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Equisight, LLC<br />
SpoNSoR mENToR/ADVISoR<br />
David Matt<br />
Kenleigh Hobby<br />
pRoJECT mENToR<br />
Doug May<br />
TEAm mEmBERS<br />
Stephen Nelson (EMG)<br />
W. A. Garret Weaver (CoE)<br />
Trevor West (CoE)<br />
Patrick Lull (OSE)<br />
Cedric Bosch (SE)<br />
Louie Benitez (SE)<br />
CoE = Computer <strong>Engineering</strong><br />
EMG = <strong>Engineering</strong> Management<br />
OSE = Optical Sciences & <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4920: pRoJECT SummARY<br />
<strong>The</strong> horse racing industry<br />
currently lacks media attention.<br />
Studies have indicated the sport’s<br />
viewing and gambling declination<br />
over the decades. While popular<br />
televised sports such as football<br />
and NASCAR racing maintain a<br />
modernized entertainment culture<br />
through high-definition wireless<br />
streaming, horseracing remains in<br />
the “binocular era”.<br />
<strong>The</strong> objective <strong>of</strong> this project was to develop a helmet for the horse racing industry<br />
capable <strong>of</strong> streaming video, GPS, and audio. This product will revolutionize the<br />
industry and bring it back to the forefront <strong>of</strong> the sports entertainment industry.<br />
It will also give those who participate in horse racing on the internet an opportunity<br />
to change between perspectives during the course <strong>of</strong> a race.
ThERmAL CoNTRoL FoR EmERGENCY ShELTERS<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Paragon Space Development<br />
Corporation®<br />
SpoNSoR mENToR/ADVISoR<br />
Christie Iacomini<br />
pRoJECT mENToR<br />
Doug May<br />
TEAm mEmBERS<br />
Sean Morehouse (ME)<br />
Evan Dunn (EE)<br />
Daniela Taborga (IE)<br />
Joe Levy (ME)<br />
David Renner (ME)<br />
Mason Shaw (SE)<br />
EE = Electrical <strong>Engineering</strong><br />
IE = Industrial <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4921: pRoJECT SummARY<br />
Paragon Space Development<br />
Corporation ® is a premier provider<br />
<strong>of</strong> environmental controls<br />
for extreme and hazardous<br />
environments. Paragon has asked<br />
us to <strong>design</strong> a prototype thermal<br />
control system for an existing<br />
emergency shelter in the mine<br />
industry. Currently, the shelters<br />
provide oxygen supply and carbon<br />
dioxide scrubbing for trapped miners and isolation from the external environment.<br />
However, an effective cooling system is not available in many existing shelters.<br />
<strong>The</strong>refore, the focus <strong>of</strong> our <strong>design</strong> is to build a thermal control system for use in<br />
mine shelters.<br />
<strong>The</strong> selected thermal control system is an absorption cooler. <strong>The</strong> central features<br />
<strong>of</strong> the absorption cooler are an evaporator, which cools down the air via evaporative<br />
cooling, and an absorber, which absorbs water back out <strong>of</strong> the cooled air using a<br />
hygroscopic lithium bromide salt solution.<br />
37
38<br />
SAmuRAI (SEmI-AuToNomouS mAppING AND uRBAN RESCuE AREA<br />
INSpECTIoN) Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Tucson Embedded Systems<br />
SpoNSoR mENToR/ADVISoR<br />
Jon Schwab<br />
Garrett Scott<br />
pRoJECT mENToR<br />
Greg Ogden<br />
TEAm mEmBERS<br />
Roger Anderson (EE)<br />
Delbert Gallego (ME)<br />
Sean Culbertson (ME)<br />
Craig Cumblidge (CoE)<br />
Jarl Haggerty (CoE)<br />
CoE = Computer <strong>Engineering</strong><br />
EE = Electrical <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
TEAm 4931: pRoJECT SummARY<br />
<strong>The</strong> goal <strong>of</strong> the project was<br />
to produce an autonomous<br />
unmanned ground vehicle<br />
capable <strong>of</strong> mapping the interior<br />
<strong>of</strong> a building, giving the end user<br />
a safe way to explore indoor<br />
terrain in a potentially hazardous<br />
environment. <strong>The</strong> vehicle utilizes<br />
a host <strong>of</strong> sensors, including a<br />
laser range finder, multiple sonar<br />
sensors, wheel encoders, GPS, and an inertial management unit to autonomously<br />
navigate its way through an indoor environment. <strong>The</strong> on-board sensors allow the<br />
vehicle to transmit the mapping data back to the user through a command and<br />
control center, where a visualization <strong>of</strong> the building is created. <strong>The</strong> sponsor tasked<br />
the team <strong>of</strong> five engineers to make additions to the already impressive autonomous<br />
vehicles <strong>of</strong> previous years by adding the aforementioned indoor capabilities to the<br />
outdoor autonomous navigation already implemented. <strong>The</strong> team also participated in a<br />
cooperative effort with the BAE Systems team to create a comprehensive package <strong>of</strong><br />
indoor and outdoor autonomous capabilities by adding the BAE CUVOPS (Cooperative<br />
Unmanned Vehicle Operations Planning System) outdoor waypoint guidance system.
BLoCk-oN-RING SLIDING WEAR ENVIRoNmENTAL TEST mAChINE<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Sargent Aerospace and Defense<br />
SpoNSoR mENToR/ADVISoR<br />
John Reinhardt<br />
Bryan Badgett<br />
Gary Spangenberg<br />
pRoJECT mENToR<br />
Jyoti Mukherjee<br />
TEAm mEmBERS<br />
Martin Nakajima (ME)<br />
Chris Kennedy (ME)<br />
Jarom Kartchner (ME)<br />
Angel Tellez (ME)<br />
Leo Fuentes (ME)<br />
Kurt Nola (ME)<br />
ME = Mechanical <strong>Engineering</strong><br />
TEAm 4932: pRoJECT SummARY<br />
Tribology is the science and <strong>engineering</strong><br />
<strong>of</strong> interacting surfaces in relative motion.<br />
It includes the study and application<br />
<strong>of</strong> the principles <strong>of</strong> friction, lubrication<br />
and wear. Any product where one<br />
material slides or rubs over another is<br />
affected by tribological interactions.<br />
Friction increases wear and the power<br />
required at the area <strong>of</strong> material pairing<br />
interaction. This results in increased<br />
costs due to more frequent replacement, loss <strong>of</strong> tolerance as dimensions shift and<br />
reduction <strong>of</strong> life expectancy. <strong>The</strong> scope <strong>of</strong> this project is to develop a machine that<br />
has the ability <strong>of</strong> batch comparison <strong>of</strong> the sliding wear <strong>of</strong> different material pairings.<br />
This machine is <strong>design</strong>ed around the principles <strong>of</strong> the block-on-ring tribology testing<br />
method defined in ASTM G-77. During the test a ring rotates at a known angular<br />
velocity and a block pushes against this ring with a known normal force. A load<br />
cell measures the frictional force between the block and ring. This frictional force is<br />
used along with the known applied normal force to calculate the coefficient <strong>of</strong> friction<br />
between the material pair. Tests are performed in a chamber that recreates real world<br />
conditions; these conditions being <strong>of</strong> ambient to high temperatures (up to 1200 degrees<br />
Fahrenheit) or the introduction <strong>of</strong> lubricants. <strong>The</strong> resulting scars are measured and a<br />
qualitative analysis is performed on the various material pairings.<br />
39
40<br />
CLoSED CYCLE CooLED FIR DETECToR<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Infrared Laboratories<br />
SpoNSoR mENToR/ADVISoR<br />
Chris Foster<br />
pRoJECT mENToR<br />
Gerald Pine<br />
TEAm mEmBERS<br />
Alhareth Alhosani (IE)<br />
Valeria Aragundi (EMG)<br />
Samantha Fallon (EMG)<br />
Joshua Galyon (ME)<br />
Kevin Hegedus (EMG)<br />
Frank Rifi (EE)<br />
EE = Electrical <strong>Engineering</strong><br />
EMG = <strong>Engineering</strong> Management<br />
IE = Industrial <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
TEAm 4934: pRoJECT SummARY<br />
<strong>The</strong> goal <strong>of</strong> this project is make an<br />
existing bolometer system more<br />
cost-effective. <strong>The</strong> current system<br />
uses liquid helium and nitrogen as<br />
total-loss coolants. Our group’s<br />
task is to integrate closed-cycle<br />
refrigeration to eliminate the need<br />
for liquid cryogens.
DIGITAL upGRADE oF A FuEL FLoW INDICAToR<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Airtronics, Inc.<br />
SpoNSoR mENToR/ADVISoR<br />
Frank Oliver<br />
pRoJECT mENToR<br />
Patrick Marcus<br />
TEAm mEmBERS<br />
Jared Evans (ME)<br />
Alex Hale (EE)<br />
Kira Travis (CoE)<br />
Kyle Sheets (ME)<br />
CoE = Computer <strong>Engineering</strong><br />
EE = Electrical <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
TEAm 4935: pRoJECT SummARY<br />
This project consists <strong>of</strong><br />
re-<strong>engineering</strong> a legacy fuel flow<br />
indicator for the F-16 to modernize<br />
its operation and deal with parts<br />
obsolescense issues. <strong>The</strong> original<br />
instrument is an electromechanical<br />
device that uses motors and<br />
mechanical feedback to drive a<br />
dial system.<br />
This project focuses on replacing<br />
the analog electromechanical<br />
system with digital components. <strong>The</strong> end result has an identical form fit and<br />
function to the original instrument, but with increased reliability.<br />
To accomplish this, we have <strong>design</strong>ed electrical circuits, a PCB layout, a mechanical<br />
layout <strong>of</strong> PCB mountings and programmed a controller to provide LED display output.<br />
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42<br />
RuGGEDIZED hELICopTER RoToR hEALTh INSTRumENTATIoN<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Airtronics, Inc.<br />
SpoNSoR mENToR/ADVISoR<br />
Frank Oliver<br />
pRoJECT mENToR<br />
Doug May<br />
TEAm mEmBERS<br />
Alan Olsen (ME)<br />
Daniel Carman (ME)<br />
Danielle <strong>The</strong>odore (SE)<br />
Vladimir Medina (ME)<br />
ME = Mechanical <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4937: pRoJECT SummARY<br />
This project focused on the<br />
development <strong>of</strong> a rugged wireless<br />
sensor system suitable for installation<br />
on a helicopter rotor system. <strong>The</strong><br />
wireless sensor must be able to<br />
transmit into the body <strong>of</strong> the helicopter<br />
for data collection and analysis. <strong>The</strong><br />
system uses accelerometers and strain<br />
gauges to measure the forces in rotor<br />
system components. <strong>The</strong> system uses<br />
microprocessors to monitor the sensors,<br />
tag the data and control the transmitter.<br />
<strong>The</strong> system must be bondable to the rotor system with sufficient strength to not<br />
disengage from the rotor during flight.<br />
<strong>The</strong> rotor system <strong>of</strong> a helicopter is a perfect application for a health monitoring system.<br />
Helicopter rotor systems have mechanical components that operate in an environment<br />
<strong>of</strong> extreme forces. Blade lag shock absorbers, which this project instruments, respond<br />
to forces in excess <strong>of</strong> 10 tons at a frequency <strong>of</strong> 5 Hz. Instrumentation for stress,<br />
strain and accelerations in this single component can provide critical lifecycle and<br />
reliability information for helicopter operators. Systems health monitoring provides real<br />
time monitoring and alerts operators and maintenance crew <strong>of</strong> impending failure.
Autopilot integrAtion on Micro Air Vehicles<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
clAss<br />
ENGR 498A/B<br />
sponsor<br />
Dr. Jonathan Sprinkle, ECE<br />
Dr. Sergey Shkarayev, AME<br />
sponsor Mentor/ADVisor<br />
Dr. Jonathan Sprinkle, ECE<br />
Dr. Sergey Shkarayev, AME<br />
project Mentor<br />
Dr. Patrick Marcus<br />
teAM MeMBers<br />
Jared Hainsworth (AE/ME)<br />
Kyle Merry (Physics/CoE)<br />
Daniel Schucker (CoE)<br />
Chris Wozny (CoE/CSC)<br />
AE = Aerospace <strong>Engineering</strong><br />
CoE = Computer <strong>Engineering</strong><br />
CSC = Computer Science<br />
ME = Mechanical <strong>Engineering</strong><br />
teAM 4938: project suMMAry<br />
<strong>The</strong> project involved the integration <strong>of</strong> various<br />
specialized autopilots into micro air vehicles (MAV).<br />
<strong>The</strong> open-source Paparazzi and GINA autopilot<br />
provide for autonomous flight <strong>of</strong> the MAV using<br />
control theory and various sensors to pilot the<br />
aircraft without human interaction. <strong>The</strong> autopilot<br />
team integrated the two separate autopilots into<br />
the airframes and optimized the flight and navigation<br />
systems while an aerospace team <strong>design</strong>ed two airframes: one for outdoor flight<br />
and one for indoor. <strong>The</strong>se 3D printed airframes operate using servos, elevons, rudder,<br />
electronic speed controller, and two contra-rotating motors. <strong>The</strong>se can be interfaced<br />
with a remote control to fly the plane in a stability augmented mode in addition to fully<br />
autonomous flight. <strong>The</strong> autopilot controls the elevons, rudder, and speed controller.<br />
<strong>The</strong> system uses GPS for location estimation and IMU for the attitude and heading<br />
reference system to pilot the aircraft. For one autopilot, the data is processed directly on<br />
the plane using an ARM Cortex microcontroller. For the other, the controls computation<br />
is done on the base station and then transmitted back to the aircraft. A modem allows<br />
for communication between the autopilot and the ground control station (GCS). <strong>The</strong> GCS<br />
s<strong>of</strong>tware provides the operator with the ability to make and modify flight plans and monitor<br />
the MAV’s flight path in real time. Also, a video system on the aircraft allows the operator<br />
a view from the MAV for intelligence, surveillance, and reconnaissance in real time. <strong>The</strong> true<br />
benefit <strong>of</strong> this project is that the autopilot is relatively inexpensive compared to commercial<br />
autopilots; however, it functions as accurately and as efficiently, if not more so.<br />
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44<br />
AuTomATED DESICCANT BAG SEALER<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
AGM Container Controls, Inc.<br />
SpoNSoR mENToR/ADVISoR<br />
Tom Christie<br />
pRoJECT mENToR<br />
Greg Ogden<br />
TEAm mEmBERS<br />
Abdulaziz Alsehaim (IE)<br />
Meng Lui (IE)<br />
Marshall Siekmann (EE)<br />
Senobio Pinela (ME)<br />
James Vilchis (ME)<br />
EE = Electrical <strong>Engineering</strong><br />
IE = Industrial <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
TEAm 4940: pRoJECT SummARY<br />
AGM Container Controls, Inc. has<br />
been a leader in <strong>design</strong> and fabrication<br />
<strong>of</strong> products that control and monitor<br />
environmental factors. Currently, an<br />
operator manually folds and seals<br />
material to form a bag, weighs<br />
desiccant on a scale, fills the bag and<br />
seals it. Since this process is slow<br />
and operator intensive, AGM wants to<br />
reverse engineer an existing machine<br />
currently on lease to AGM.<br />
Our project consists <strong>of</strong> <strong>design</strong>ing and fabricating a new machine that will be able to<br />
create, fill, and seal custom-sized bags, increasing production speed and reducing<br />
operator involvement. AGM will use our project as a functioning system for use on the<br />
production floor. Our system includes devices for forming the desiccant bags,<br />
accurately filling them with a variable weight <strong>of</strong> desiccant, and sealing the resulting<br />
product. All these components are controlled by an electrical control system. This is<br />
a heavily hands-on project requiring a multidisciplinary approach.<br />
Upon completion <strong>of</strong> the automated dessicant bag sealer, an operator we will be able to<br />
produce any custom size bag with a desired weight in less than one minute. This will reduce<br />
the labor cost incurred by manually creating these bags.
SImuLATED ANEuRYSm DEpLoYmENT moDEL<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
W.L. Gore & Associates<br />
SpoNSoR mENToR/ADVISoR<br />
Dan Gabrys<br />
pRoJECT mENToR<br />
Dr. Patrick Marcus<br />
TEAm mEmBERS<br />
Ahmad Al Matouq (SE)<br />
German Castillo (ME)<br />
Aaron Gibson (CoE/EE)<br />
Erin Lauterbach (ME)<br />
Isaac Tineo (ME)<br />
Heeje Yang (ME)<br />
CoE = Computer <strong>Engineering</strong><br />
EE = Electrical <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4941: pRoJECT SummARY<br />
This project focuses on the GORE ®<br />
EXCLUDER ® AAA Endoprosthesis,<br />
an implantable device manufactured<br />
by the Gore Medical Products<br />
Division, used to treat an abdominal<br />
aortic aneurysm (AAA), which<br />
is a bulge in the aorta that could<br />
rupture with life-threatening results.<br />
Endovascular repair using this device<br />
is less invasive than open surgery<br />
and involves excluding (sealing <strong>of</strong>f)<br />
the aneurysm by placing the device inside <strong>of</strong> the diseased aorta, making a new path<br />
for the blood to flow. <strong>The</strong> scope <strong>of</strong> this project was to <strong>design</strong> and build a simulated<br />
abdominal aortic aneurysm deployment model which represents the anatomy for R&D<br />
and demonstration <strong>of</strong> deployment <strong>of</strong> the GORE ® EXCLUDER ® AAA Endoprosthesis under<br />
simulated use conditions. Some <strong>of</strong> the characteristics <strong>of</strong> the model include:<br />
• Designed for delivery and deployment <strong>of</strong> the device within the model<br />
• Simulate anatomical conditions <strong>of</strong> the body (geometry, temperature, flow, etc.)<br />
• Portable and suitable for public demonstrations and <strong>of</strong> size to fit on a tabletop<br />
• Allows visualization <strong>of</strong> device deployment<br />
• Controls system inputs and displays outputs from a GUI application on a laptop<br />
• Collects real-time data for temperature, pressure and flow rate<br />
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46<br />
hELIum TESTING ENCLoSuRE AND TuRBuLENCE mITIGATIoN STuDY<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
MIT Lincoln Laboratory<br />
SpoNSoR mENToR/ADVISoR<br />
Kurt Abdelmaseh<br />
pRoJECT mENToR<br />
Gregory Ogden<br />
TEAm mEmBERS<br />
Amber Luttmann (OSE)<br />
Jeffery Chia (OSE)<br />
Joseph Cocchi (OSE)<br />
Edgar Madril (OSE)<br />
Cameron Solem (OSE)<br />
Ivdan Vargas (SE)<br />
OSE = Optical Sciences & <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4942: pRoJECT SummARY<br />
<strong>The</strong> helium enclosure is a<br />
containment unit that houses<br />
helium and an embedded optical<br />
system in order to improve the<br />
wavefront error with the relative<br />
reduction <strong>of</strong> the thermal gradient<br />
that is typically induced by air. <strong>The</strong><br />
final helium enclosure product is<br />
able to perform optical testing<br />
under an effectively eliminated<br />
thermal gradient, enabling a much closer result to theoretical analysis than<br />
before. This project will also verify the effectiveness <strong>of</strong> helium in mitigating thermal<br />
gradients that are normally seen in air.
poRTABLE SuRVEY TooL<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Raytheon Missile Systems<br />
SpoNSoR mENToR/ADVISoR<br />
Kevin Oxnam<br />
pRoJECT mENToR<br />
Patrick Marcus<br />
TEAm mEmBERS<br />
Roxan Cruz (CoE)<br />
Natasha Dennison (EMG)<br />
Rae Gargione (IE)<br />
Dimuth Kulasinghe (CoE)<br />
Leonardo Montoya (SE)<br />
Luke Seavitt (IE)<br />
CoE = Computer <strong>Engineering</strong><br />
EMG = <strong>Engineering</strong> Management<br />
IE = Industrial <strong>Engineering</strong><br />
OSE = Optical Sciences & <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4943: pRoJECT SummARY<br />
Given the task <strong>of</strong> determining the efficiency <strong>of</strong><br />
specific Raytheon employees on the Critical Chain<br />
program throughout the <strong>day</strong>, QuiPST was created.<br />
Simply, QuiPST (Quick Portable Survey Tool), is a<br />
smart phone application that allows users to answer<br />
survey questions from their phone. With a randomly<br />
generated ‘ping’ feature, a notification appears on a<br />
user’s phone notifying them that they should answer<br />
a survey, making it the least intrusive and data altering<br />
technique. This allows for data to be collected multiple<br />
times throughout the <strong>day</strong>, generally answering the<br />
question “What are you doing right now?” and “How<br />
long have you been doing this?” This type <strong>of</strong> data is<br />
useful for any company to determine how its employees spend their time, or the amount<br />
<strong>of</strong> time they are working on a specific project or task. What company wouldn’t want to<br />
allocate its resources better and utilize their employees in the best way possible? This<br />
data can be found using QuiPST.<br />
QuiPST is a web-based application that allows users to log in and take surveys created<br />
by their administrators at any time. <strong>The</strong> experience can be enhanced by downloading the<br />
QuiPST mobile application for Android and iPhone platforms, giving users quick accessibility<br />
to their accounts and the ability to be alerted by QuiPST at random time intervals to take<br />
surveys, based on the users own integrated schedules.<br />
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48<br />
DESIGN oF mouNTING STRuCTuRES FoR SoLAR ARRAY moDuLES:<br />
RooF mouNT Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Sunora Energy Solutions<br />
SpoNSoR mENToR/ADVISoR<br />
Tommy Thompson<br />
pRoJECT mENToR<br />
Jyoti Mukherjee<br />
TEAm mEmBERS<br />
Kambiz Dinyariyan (ME)<br />
Eissa Alnattar (SE)<br />
Ana Ibarra (IE)<br />
James Morris (ME)<br />
Steven Wittenberg (SE)<br />
IE = Industrial <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4944: pRoJECT SummARY<br />
<strong>The</strong> purpose <strong>of</strong> the project was<br />
to <strong>design</strong> a solar array mounting<br />
solution for ro<strong>of</strong> application, which<br />
will decrease manufacturing<br />
cost and improve the ease <strong>of</strong><br />
installation.<br />
A major problem that has been<br />
affecting mounting solution vendors is the decline in solar panel cost, while<br />
mounting costs remained stagnant. <strong>The</strong>re are multiple advantages and benefits<br />
that solar panels provide. By decreasing the cost <strong>of</strong> components necessary for the<br />
solar system to work, we can increase the probability <strong>of</strong> consumers “going solar”.<br />
<strong>The</strong> mounting frame is to be installed on an industrial building’s ro<strong>of</strong>; therefore,<br />
the team has used the ro<strong>of</strong> <strong>of</strong> the northern Aerospace and Mechanical <strong>Engineering</strong><br />
Building, at the University <strong>of</strong> Arizona, to develop and build the <strong>design</strong>.
poWER GENERATIoN FoR A BuILDING IN RuRAL VIETNAm<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Bruce Langone<br />
SpoNSoR mENToR/ADVISoR<br />
Gerald Pine<br />
pRoJECT mENToR<br />
Gerald Pine<br />
TEAm mEmBERS<br />
Jose S.Dominguez (EE)<br />
James Mars (EE)<br />
Neil Bhargava (EE)<br />
Mladen Prelic (ME)<br />
Kenji Hernandez (IE)<br />
EE = Electrical <strong>Engineering</strong><br />
IE = Industrial <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
TEAm 4946: pRoJECT SummARY<br />
A building with approximately<br />
7,500 sq. ft. <strong>of</strong> space near Hue,<br />
Vietnam, needs a reliable and<br />
sustainable means for its electrical<br />
power needs. <strong>The</strong> building is<br />
currently powered <strong>of</strong>f a 150-yearold<br />
grid, which is not very reliable.<br />
<strong>The</strong> owner wants the building to<br />
be powered independently by preferably renewable means. <strong>The</strong> building is<br />
located about 1/3 <strong>of</strong> a mile away from an undammed river. Solar and “run <strong>of</strong><br />
the river” hydro (or any combination there<strong>of</strong>) are possible options for the power<br />
generation system.<br />
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50<br />
FABRICATIoN DEVICE FoR A poRouS, poLYmERIC VASCuLAR GRAFT<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
S<strong>of</strong>t Tissue Biomechanics Laboratory<br />
SpoNSoR mENToR/ADVISoR<br />
Dr. Jonathan Vande Geest<br />
pRoJECT mENToR<br />
Dr. Jonathan Vande Geest<br />
TEAm mEmBERS<br />
Alex Florez (ME)<br />
Amanda Fron (ME)<br />
Kevin Glaser (ME)<br />
Eric Hebeisen (ME)<br />
ME = Mechanical <strong>Engineering</strong><br />
TEAm 4947: pRoJECT SummARY<br />
<strong>The</strong> <strong>design</strong> team, working alongside<br />
Dr. Vande Geest and his graduate<br />
student Greg Johnson, built a<br />
device capable <strong>of</strong> producing<br />
vascular grafts to be used for<br />
abdominal aortic aneurysms<br />
(AAA’s). <strong>The</strong> project started from<br />
initial ideas <strong>of</strong> how to make the<br />
device and developed all the way to<br />
assembly and fabrication <strong>of</strong> grafts.<br />
Through the use <strong>of</strong> LabView s<strong>of</strong>tware, changes can be made in the fabrication<br />
process to allow for variation in the porosity <strong>of</strong> the graft. While the device was<br />
tested with a spray and nozzle setup, it was built with the purpose for future use<br />
with an electrospinning unit.
NASA REmoTE ImAGING SYSTEm ACquISITIoN (RISA)<br />
SpACE ENVIRoNmENT muLTISpECTRAL ImAGER Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
National Aeronautics and Space<br />
Administration (NASA)<br />
SpoNSoR mENToR/ADVISoR<br />
S. Douglas Holland<br />
pRoJECT mENToR<br />
Dr. Gerald Pine<br />
Dr. Elmer Grubbs<br />
TEAm mEmBERS<br />
Samuel Martin (OSE)<br />
Jackeline Mayer (OSE)<br />
Parker Owan (EE)<br />
Kyle Stephens (OSE)<br />
Lee Suring (ME)<br />
ME = Mechanical <strong>Engineering</strong><br />
EE = Electrical <strong>Engineering</strong><br />
OSE = Optical Sciences & <strong>Engineering</strong><br />
TEAm 4951: pRoJECT SummARY<br />
<strong>The</strong> NASA RISA project is a<br />
prototype camera intended to<br />
be used for planetary surface<br />
exploration and onboard<br />
NASA space vehicles. Due<br />
to new mission requirements<br />
associated with future space<br />
vehicles, less physical volume is<br />
available compared to the Space<br />
Shuttle. As a result, NASA has<br />
commissioned the development <strong>of</strong> a general-use camera, able to perform multiple<br />
functions and support new mission objectives. It is the intent <strong>of</strong> the RISA project<br />
to provide an imaging system that can be used for a variety <strong>of</strong> applications, thus<br />
decreasing the stowage volume required to support mission imaging requirements.<br />
<strong>The</strong> final camera is expected to be radiation hardened, multispectral, completely<br />
wireless, and take both high-quality video and still images.<br />
For the prototype developed this year, the team concentrated on creating an<br />
appropriate optical system that can be traced to radiation-hardened components,<br />
implementing a liquid lens for focus adjustment, utilizing an electrically-tunable<br />
bandpass filter, and developing a wireless communication system for data and system<br />
control. A camera enclosure and lens barrel were developed to support this prototype.<br />
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52<br />
ADhESIVE DISpENSATIoN oNTo mICRoSCopE SLIDES<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Ventana Medical Systems, Inc.<br />
SpoNSoR mENToR/ADVISoR<br />
Troy Paluszcyk<br />
pRoJECT mENToR<br />
Dr. Gregory E. Ogden<br />
TEAm mEmBERS<br />
Ramon Chavez (ME)<br />
Damen Haughey (ME)<br />
Andrew Greteman (CoE)<br />
Jose Monreal (SE)<br />
CoE = Computer <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4952: pRoJECT SummARY<br />
Ventana Medical Systems, Inc., a member<br />
<strong>of</strong> the Roche group, is the world’s leading<br />
manufacturer <strong>of</strong> tissue-based diagnostic<br />
instruments and tests for cancer detection.<br />
Our team was charged to <strong>design</strong> and produce<br />
a device that dispenses adhesive onto<br />
microscope slides.<br />
Current Process Activation liquid dispensed<br />
onto a microscope slide combined with an adhesive-coated coverslip.<br />
Client Need To improve visual quality by dispensing adhesive onto a microscope<br />
slide combined with a non-adhesive-coated coverslip.<br />
Design Summary Our device consists <strong>of</strong> five subsystems with the purpose <strong>of</strong><br />
dispensing adhesive accurately within a 50-100 microliter range at a precision level <strong>of</strong><br />
+/- 5 microliters.<br />
• Reservoir – Adhesive storage with minimal surface exposure.<br />
• Transfer – A valveless piston metering pump with stepper motor.<br />
• Microcontroller – Allows user control <strong>of</strong> dispensation amount while monitoring<br />
reservoir levels.<br />
• Applicator – Custom nozzle manifold, team <strong>design</strong>ed and constructed.<br />
• Structure – Mounting apparatus for system components.
mICRo-FLuIDIC DISpENSE SYSTEm<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Ventana Medical Systems, Inc.<br />
SpoNSoR mENToR/ADVISoR<br />
Kevin Marshall<br />
pRoJECT mENToR<br />
Greg Ogden<br />
TEAm mEmBERS<br />
Luis A Almanza (SE)<br />
Mohamed Ferhaoui (EE)<br />
Rohith Jayaram (ME/ABE)<br />
David R Maynard (ME)<br />
Julie Anne Schmautz (MSE)<br />
ABE = Agricultural & Biosystems<br />
<strong>Engineering</strong><br />
EE = Electrical <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
MSE = Materials Science & <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4953: pRoJECT SummARY<br />
Ventana Medical Systems, Inc. is a leader<br />
in automated tissue diagnostic systems.<br />
<strong>The</strong>se systems use a saline chemical buffer<br />
in the advanced staining process to prepare<br />
biopsy samples for pathologists to identify<br />
cancerous tissues.<br />
<strong>The</strong> current implementation <strong>of</strong> the<br />
micro-fluidic dispense system (µFD) at Ventana has some drawbacks and<br />
limitations that need to be improved upon. Due to the high salinity <strong>of</strong> the solution,<br />
salt crystallization clogs develop on the dispense hardware and impede the<br />
performance <strong>of</strong> the system. Hanging solution drops on the dispense nozzle are<br />
also problematic because they can cause drops to fall on the label <strong>of</strong> the slide and<br />
possibly damage it or make it difficult to identify. Additionally, hanging drops allow<br />
for variation in the volume <strong>of</strong> fluid dispensed on slides. <strong>The</strong> objective <strong>of</strong> the project is<br />
to <strong>design</strong> an automated micro-fluidic dispense system that can reliably and accurately<br />
dispense 20 μl (microliters) <strong>of</strong> a concentrated saline buffer solution onto a microscope<br />
slide. <strong>The</strong> allowable preventative maintenance interval should be at least six months<br />
and the cost <strong>of</strong> goods <strong>of</strong> the system should be less than $500. <strong>The</strong> use <strong>of</strong> electrical<br />
control concepts, fluid mechanics, intelligent material selection, testing techniques and<br />
statistical analysis were used to determine the best solution. Two different dispense<br />
system <strong>design</strong>s and a mechanical scrubber were implemented as solutions.<br />
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54<br />
SoCIAL TRAVELER moBILE AppLICATIoN<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
VirtualTourist<br />
SpoNSoR mENToR/ADVISoR<br />
Todd Ellermann<br />
pRoJECT mENToR<br />
Kevin H. Prodromides<br />
TEAm mEmBERS<br />
Nick Woodgate (EMG)<br />
Ashley Marks (EMG)<br />
Miguel Salmon (EMG)<br />
Gerardo Villalobos (EMG)<br />
Pakorn Avakul (EMG)<br />
Panu Avakul (CoE)<br />
CoE = Computer <strong>Engineering</strong><br />
EMG = <strong>Engineering</strong> Management<br />
TEAm 4954: pRoJECT SummARY<br />
VirtualTourist is a social networking<br />
website that centers around<br />
travel. Within the VirtualTourist<br />
community there have been<br />
1.8 million reviews created and<br />
3.8 million travel photos uploaded,<br />
and roughly one million users.<br />
VirtualTourist desires to implement<br />
a mobile application that will allow the users to interact with the community<br />
via a smart phone. Thus, VirtualTourist has requested our team to implement a<br />
prototype <strong>of</strong> the application that will model its actual application in deployment.<br />
<strong>The</strong> goal <strong>of</strong> this project is to create an mobile application that exhibits the desired<br />
functionality as agreed upon in the critical <strong>design</strong> review. <strong>The</strong>se functions include<br />
taking a picture and uploading it to the server (Capture Trip), listing local precautions<br />
or things to do (Do/Do not do this), checking in to a VirtualTourist location (Check-in),<br />
displaying comments from other users that are associated with the area (Words on<br />
the Street), and updating user status (Status Update). Moreover, this application is<br />
required to communicate with a server to retrieve and to write data from or onto the<br />
server. All functionality will be displayed on Design Day using mobile devices that will<br />
connect to a test-server created by the team, and the final product will be delivered to<br />
VirtualTourist as complete as possible.
WARNING SYSTEm FoR ChILDREN/pETS LEFT IN CARS<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
<strong>College</strong> <strong>of</strong> <strong>Engineering</strong><br />
SpoNSoR mENToR/ADVISoR<br />
Dean Jeffrey Goldberg<br />
pRoJECT mENToR<br />
Dr. Gerald Pine<br />
TEAm mEmBERS<br />
Kenneth Wilson (IE)<br />
Kiona Meade (IE)<br />
Maxwell Roth (EE)<br />
Nawaf Abdullah (IE)<br />
Matthew Berry (OSE)<br />
EE = Electrical <strong>Engineering</strong><br />
IE = Industrial <strong>Engineering</strong><br />
OSE = Optical Sciences & <strong>Engineering</strong><br />
TEAm 4955: pRoJECT SummARY<br />
Every year, children die from<br />
being left unattended in a vehicle.<br />
Sometimes this is because they<br />
are forgotten by the caregiver<br />
and other times they are simply<br />
playing in the car. <strong>The</strong> purpose <strong>of</strong><br />
the system is to send a warning<br />
signal if a child is detected<br />
inside <strong>of</strong> a car, particularly in<br />
locations which would cause<br />
the car to reach extremely<br />
high temperatures. Ideally, the<br />
implementation <strong>of</strong> this system will<br />
reduce the number <strong>of</strong> child and infant fatalities that occur within a vehicle.<br />
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56<br />
INTELLIGENT ARC FAuLT DETECToR<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Texas Instruments<br />
SpoNSoR mENToR/ADVISoR<br />
Dwight Bryd<br />
Rafael Ordonez<br />
John Caldwell<br />
pRoJECT mENToR<br />
Clayton Grantham<br />
TEAm mEmBERS<br />
Aaron Remmy (SE)<br />
Abel Molina (ME)<br />
David Mitchell (EE)<br />
Nathaniel Palma (EE)<br />
Samuel Delacruz (EE)<br />
EE = Electrical <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4956: pRoJECT SummARY<br />
Arcing is currently one <strong>of</strong> the<br />
most common causes <strong>of</strong> electrical<br />
fires. New electrical codes require<br />
the installation <strong>of</strong> arc fault circuit<br />
interrupters in new construction.<br />
As a result, there is an emerging<br />
market for AFCIs. Our system<br />
uses a digital signal processor<br />
(DSP) to detect arc fault<br />
conditions. <strong>The</strong> system is capable<br />
<strong>of</strong> distinguishing two major types<br />
<strong>of</strong> arcs: series arcs and parallel<br />
arcs. This system was developed<br />
using Texas Instruments’ components, and will be displayed at trade shows to<br />
demonstrate the capabilities <strong>of</strong> said components.
ThE ‘pERFECT pouR’ – pRECISIoN LIquID DISpENSING AND INVENToRY<br />
TRACkING Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Texas Instruments<br />
SpoNSoR mENToR/ADVISoR<br />
Marc Royer<br />
Christopher Hall<br />
pRoJECT mENToR<br />
Clayton Grantham<br />
TEAm mEmBERS<br />
Amit Juneja (CoE)<br />
Beverly Valdez (ME)<br />
Kevin Smith (SE)<br />
Sean Grotle (EE)<br />
CoE = Computer <strong>Engineering</strong><br />
EE = Electrical <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4957: pRoJECT SummARY<br />
<strong>The</strong> ‘Perfect Pour’ system<br />
accurately dispenses a preset<br />
amount <strong>of</strong> liquid specified by a<br />
user, and tracks fluid inventory<br />
used in an establishment or<br />
facility.<br />
This system has two main<br />
component types: a dispenser and<br />
a central computer. <strong>The</strong>se components communicate over a wireless network.<br />
<strong>The</strong> dispenser fits onto a bottle (medicine, beverage, etc.). When the user starts<br />
the pour, the dispenser opens a solenoid valve and begins dispensing liquid. Sensors<br />
then measure flow and temperature. <strong>The</strong> user’s preset volume adjustment controls<br />
the amount <strong>of</strong> time the valve remains open. Once the pour is finished, the dispenser<br />
sends the pour information wirelessly to the central computer. <strong>The</strong> user may then<br />
review the pour data from the central computer’s graphical user interface. This GUI<br />
tracks the inventory information <strong>of</strong> the system and can track which device<br />
is associated with which product.<br />
This <strong>design</strong> is targeted for use in the beverage, pharmaceutical, and/or chemical<br />
industries.<br />
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58<br />
VIEWING EARTh’S CuRVATuRE WITh A WEAThER BALLooN<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Lockheed Martin<br />
Advanced Technology Center<br />
SpoNSoR mENToR/ADVISoR<br />
Richard Tansey<br />
pRoJECT mENToR<br />
Doug May<br />
TEAm mEmBERS<br />
Austin Byrne (ME)<br />
Xochitl Cooper (OSE)<br />
Devinna Fleming (OSE)<br />
Derek Koomar (ME)<br />
John Morales (EE)<br />
Sam Nerenberg (OSE))<br />
EE = Electrical <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
OSE = Optical Sciences & <strong>Engineering</strong><br />
TEAm 4959: pRoJECT SummARY<br />
<strong>The</strong> scope <strong>of</strong> the project was to<br />
<strong>design</strong>, fabricate, and launch a<br />
suitably equipped weather balloon<br />
to take a video at a sufficient<br />
height to see the curvature <strong>of</strong><br />
the Earth. Different types <strong>of</strong><br />
sensors were employed in the<br />
project to acquire environmental<br />
data in the area <strong>of</strong> launch. <strong>The</strong><br />
platform that the team developed could be used for remote sensing to detect<br />
environmental concerns such as ozone increases, nuclear radiation levels from<br />
the Japanese accident, or other forms <strong>of</strong> pollution. In addition, the team included<br />
a more advanced live video transmission module to be added to the platform for<br />
instantaneous viewing <strong>of</strong> video captured.<br />
<strong>The</strong> goal and final result to be delivered to the sponsor:<br />
Launch camera to a sufficient altitude to see the Earth’s curvature, locate and retrieve<br />
camera and recording, and display the video at <strong>design</strong> <strong>day</strong>.
REmoTE LISTENING DEVICE<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Lockheed Martin Corporation<br />
SpoNSoR mENToR/ADVISoR<br />
Dr. Richard Tansey<br />
pRoJECT mENToR<br />
Dr. Patrick Marcus<br />
TEAm mEmBERS<br />
Nick Neuenfeldt (OSE)<br />
Matt Hamel (OSE)<br />
Nick Melena (OSE)<br />
Adam Slagel (OSE)<br />
Collin Smith (ME)<br />
Charles Mackin (EE)<br />
EE = Electrical <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
OSE = Optical Sciences & <strong>Engineering</strong><br />
TEAm 4961: pRoJECT SummARY<br />
<strong>The</strong>re currently exists a void for a<br />
long-range covert listening device<br />
capable <strong>of</strong> being easily deployed<br />
against an adversary in a vehicle.<br />
Existing system <strong>design</strong>s focus on<br />
retrieving audible sound between<br />
100-3,000 Hz, i.e. sensitive<br />
receivers, wireless transmitters,<br />
etc. <strong>The</strong>se systems do not work<br />
when a physical barrier exists between the target and the receiver, such as when<br />
the target is in a car. A system based on reflected light would overcome this<br />
limitation and be capable <strong>of</strong> retrieving the remote audio.<br />
We were given the task <strong>of</strong> <strong>design</strong>ing a remote listening device capable <strong>of</strong> receiving<br />
a conversation held inside a vehicle. <strong>The</strong> <strong>design</strong> incorporates a laser light source,<br />
collection system, detector, and data-processing backend. <strong>The</strong> laser is emitted<br />
against the target window, while the collection system and detector captures the<br />
direct reflection to be processed into an audio signal.<br />
59
60<br />
“RING ThE BELL” FoRCE INDICAToR<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Texas Instruments<br />
SpoNSoR mENToR/ADVISoR<br />
Jose Duenas<br />
Luis Chioye<br />
pRoJECT mENToR<br />
Clayton Grantham<br />
TEAm mEmBERS<br />
Juma Belknap (EE)<br />
Corey Booker (CoE)<br />
Joseph Ott (ME)<br />
Andru Roysden (EE)<br />
Gaston Torres (IE)<br />
CoE = Computer <strong>Engineering</strong><br />
EE = Electrical <strong>Engineering</strong><br />
IE = Industrial <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
TEAm 4962: pRoJECT SummARY<br />
<strong>The</strong> goal <strong>of</strong> this project is to create<br />
a system that will effectively<br />
assign a fair figure <strong>of</strong> merit to<br />
indicate strength and endurance to<br />
users <strong>of</strong> various sizes. This project<br />
will be used by Texas Instruments<br />
in trade shows to highlight the capabilities <strong>of</strong> their products. <strong>The</strong> system first<br />
measures the weight <strong>of</strong> the user and assigns a fair goal. <strong>The</strong> user then begins<br />
the fitness test by pumping air into a tank. <strong>The</strong> air in the tank is measured for<br />
pressure and temperature using sensors. <strong>The</strong> arms rotated by the system user are<br />
measured for rotational speed. <strong>The</strong> Texas Instruments MSP430 microprocessor<br />
collects the data from the sensors and displays the results and progress through a<br />
laptop computer display.<br />
<strong>The</strong> amount <strong>of</strong> force required by the user relates to the pressure inside the tank.<br />
To account for different sizes <strong>of</strong> various system users, the MSP430 microcontroller<br />
regulates the air pressure with a controlled venting system.<br />
This system was <strong>design</strong>ed to be highly interactive to attract attention at trade shows.
FuLLY-AuTomATED SoIL TESTING AND CoNTRoL SYSTEmS<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Texas Instruments<br />
SpoNSoR mENToR/ADVISoR<br />
Ian Williams<br />
Anjana Govil<br />
pRoJECT mENToR<br />
Clayton Grantham<br />
TEAm mEmBERS<br />
Eric Campbell (CoE)<br />
Kyle Chong (EE)<br />
Eric Herman (OSE)<br />
Adjete Wilson (EE)<br />
CoE = Computer <strong>Engineering</strong><br />
EE = Electrical <strong>Engineering</strong><br />
OSE = Optical Sciences & <strong>Engineering</strong><br />
TEAm 4963: pRoJECT SummARY<br />
Large-scale farming operations<br />
require great amounts <strong>of</strong> energy<br />
and time to ensure that crops will<br />
be healthy and ready for harvest<br />
time. This project can provide the<br />
ability to automate part <strong>of</strong> the<br />
farming process, easing the burden<br />
on farms by reducing the effort and<br />
resources required to keep their<br />
plant within optimal conditions<br />
prior to harvest. This project<br />
considers four potted plants where each pot is fitted with sensors that monitor<br />
three environmental variables: soil temperature, soil moisture, and ambient light<br />
levels. <strong>The</strong> data from these sensors is transmitted over a 4-20mA current loop and<br />
multiplexed into a microcontroller-based control system which decodes the sensor<br />
data and reports each environmental variable through a graphical user-interface<br />
created in LabVIEW. <strong>The</strong> 4-20mA current loop transmission method was selected<br />
since it is suitable for extremely long transmission distances, and a real-world farming<br />
application could require transmission distances greater than one mile.<br />
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62<br />
ELECTRoNIC ph pooL WATER TESTER<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Texas Instruments<br />
SpoNSoR mENToR/ADVISoR<br />
Scott Gulas<br />
Preeti Rajendran<br />
pRoJECT mENToR<br />
Clayton Grantham<br />
TEAm mEmBERS<br />
Ahmed Alani (EE)<br />
Alex Mattioli (ME)<br />
Ryan Caskey (CoE)<br />
Emanuel Soimaru (CoE)<br />
Trevor Husseini (CoE)<br />
CoE = Computer <strong>Engineering</strong><br />
EE = Electrical <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
TEAm 4964: pRoJECT SummARY<br />
<strong>The</strong> primary goal <strong>of</strong> this project is<br />
to produce a pH pool water tester<br />
that is low power. This system<br />
will be used by Texas Instruments<br />
at trade shows in order to attract<br />
attention to their booths and<br />
showcase their latest products.<br />
<strong>The</strong> pH pool water tester allows<br />
pool owners to monitor the pH<br />
level and temperature <strong>of</strong> their pools remotely, so that they can take necessary<br />
preventive measures to keep their pools clean and safe. A floating waterpro<strong>of</strong><br />
housing is needed to store all electronic devices and sensors. It must also be able<br />
to wirelessly transmit data to the android device.<br />
A green energy theme is incorporated into the <strong>design</strong> by using a solar panel for power<br />
management. An MSP430 from Texas Instruments does all the computing needed to<br />
display temperature and pH values.<br />
<strong>The</strong> Android application allows the user to communicate with the pH monitoring<br />
system. <strong>The</strong> interface serves as a means <strong>of</strong> sending/receiving data, calibrating the pH<br />
probe, as well as viewing pertinent measurements plotted against time.
LoW-CoST GImBAL-LESS ImAGE STABILIZATIoN SYSTEm FoR AERIAL<br />
SuRVEILLANCE Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Raytheon Missile Systems<br />
SpoNSoR mENToR/ADVISoR<br />
Quenten Duden<br />
Sean Keller<br />
pRoJECT mENToR<br />
Ivar Sanders<br />
TEAm mEmBERS<br />
Eric de Groot (CoE)<br />
Garrett Vanhoy (EE)<br />
Jeffrey Larson (ME)<br />
Anthony Clutter (OSE)<br />
Steven Glass (OSE)<br />
Madeline Hack (OSE)<br />
CoE = Computer <strong>Engineering</strong><br />
EE = Electrical <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
OSE = Optical Sciences & <strong>Engineering</strong><br />
TEAm 4965: pRoJECT SummARY<br />
Currently, UAV surveillance systems<br />
are only available at extremely high<br />
costs. Last year’s team, 4817,<br />
provided pro<strong>of</strong> that Risley Prisms can<br />
be used to stabilize images. Raytheon<br />
has chosen to continue the <strong>design</strong><br />
efforts into a functional system.<br />
By achieving a low-cost <strong>design</strong>,<br />
Raytheon would be able to provides<br />
UAV surveillance systems in the<br />
government and civilian markets. <strong>The</strong><br />
goal <strong>of</strong> this project was to <strong>design</strong> a<br />
low-cost, gimbal-less system capable <strong>of</strong> providing a stabilized video from a UAV.<br />
<strong>The</strong> team <strong>design</strong>ed and built a system that operates in an aerial vehicle at a height<br />
above ground level and provides a live video stream to a <strong>design</strong>ated ground station.<br />
<strong>The</strong> image is stabilized and provides on-command steering <strong>of</strong> the live image with the<br />
use <strong>of</strong> a Risley Prism Assembly (RPA). A wireless data link is established between the<br />
aircraft’s mounted subsystem and a ground-level command station. <strong>The</strong> wireless data<br />
link is able to maintain a data rate capable <strong>of</strong> transmitting a constant live low-resolution<br />
video stream, GPS data, and system status data.<br />
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64<br />
RoTATING poLARIZER poLARImETER<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Raytheon Missile Systems<br />
SpoNSoR mENToR/ADVISoR<br />
Dr. Eric Fest<br />
Dr. Karlton Crabtree<br />
pRoJECT mENToR<br />
Dr. Jyoti Mukherjee<br />
TEAm mEmBERS<br />
Nick Driscoll (OSE)<br />
Noel Eloriaga (OSE)<br />
Page King (OSE)<br />
Jacob Krause (OSE)<br />
Chang Lee (SE)<br />
Shuqi Li (OSE)<br />
OSE = Optical Sciences & <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4966: pRoJECT SummARY<br />
<strong>The</strong> goal <strong>of</strong> this project was to build<br />
a polarimeter using a linear polarizer<br />
mounted to a rotation stage and an<br />
existing camera. This polarimeter<br />
obtains polarimetric data by recording<br />
images <strong>of</strong> a scene taken through<br />
the linear polarizer at different<br />
rotation angles. <strong>The</strong>se images are<br />
then post-processed to determine<br />
linear polarization content <strong>of</strong> a scene<br />
through the computed Degree <strong>of</strong><br />
Linear Polarization (DoLP) and Angle<br />
<strong>of</strong> Linear Polarization (AoLP) <strong>of</strong> each<br />
scene pixel. <strong>The</strong> polarimeter was<br />
<strong>design</strong>ed to be robust and to work with existing cameras for three different<br />
wavebands: visible, mid-wave infrared, and long-wave infrared.<br />
An application for this polarimeter will be to measure the polarization sensitivity <strong>of</strong> the<br />
mirrors in Raytheon’s Visible Infrared Imager Radiometer Suite (VIIRS) sensor. VIIRS is a<br />
production 22-band imaging radiometer used for weather and environmental studies.
TARGET SENSoR SYSTEm FoR CoASTAL pATRoL BoAT<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Raytheon Missile Systems<br />
SpoNSoR mENToR/ADVISoR<br />
Gary Yanamura<br />
pRoJECT mENToR<br />
Ivar Sanders<br />
TEAm mEmBERS<br />
Austin Cynecki (EE)<br />
David Lester (EE)<br />
Renee Mckernan (EE)<br />
Tyler Steeb (SE)<br />
Mohammed Al-Duwayhis (SE)<br />
EE = Electrical <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4967: pRoJECT SummARY<br />
<strong>The</strong> goal <strong>of</strong> this project was to<br />
<strong>design</strong> a Combat Management<br />
System (CMS) to be used on<br />
coastal patrol boats. <strong>The</strong> purpose<br />
<strong>of</strong> this system is to be able to<br />
connect to an already present<br />
commercial radar system that can<br />
track air and surface targets.<br />
Along with tracking, our system also uses an algorithm to rank the different<br />
targets in order <strong>of</strong> potential threat based on the different attributes <strong>of</strong> the targets<br />
(e.g. range, speed, elevation, bearing). <strong>The</strong> ranked targets are then displayed onto<br />
a graphical user interface (GUI) known as our Combat Control Panel (CCP). This CCP<br />
allows ease <strong>of</strong> use for any user to be able to observe each <strong>of</strong> the targets and their<br />
respective attributes as they traverse the world within the radar’s range.<br />
In order to bypass purchasing an expensive radar system, we simulated the world<br />
and targets through s<strong>of</strong>tware as well. <strong>The</strong> world in which the targets roam is our<br />
server and all the vehicles connecting to the server (using a form <strong>of</strong> ports and sockets)<br />
are the clients. Using this method the clients can be terminated individually, making<br />
the process <strong>of</strong> eliminating hostiles from the simulated world a simple process within<br />
the code.<br />
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66<br />
CompuTATIoNAL opTICS<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Raytheon Missile Systems<br />
SpoNSoR mENToR/ADVISoR<br />
Casey Streuber<br />
Michael Easton<br />
pRoJECT mENToR<br />
Ivar Sanders<br />
TEAm mEmBERS<br />
Kate Green (IE)<br />
Lena Wolfe (OSE)<br />
Nan Ding (OSE/EE)<br />
Josh Brent (OSE)<br />
Matthew Barnum (OSE)<br />
Saúl Corrales (SE)<br />
IE = Industrial <strong>Engineering</strong><br />
EE = Electrical <strong>Engineering</strong><br />
OSE = Optical Sciences & <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4968: pRoJECT SummARY<br />
Experimental comparison <strong>of</strong> phase and<br />
amplitude modulation plates in computational<br />
optics are performed to extend depth <strong>of</strong><br />
focus, reduce lens system mechanical<br />
constraints, and minimize costs.<br />
Many aerospace sensor platforms have a<br />
fixed opto-mechanical layout due to harsh<br />
environmental conditions. This <strong>design</strong> decision<br />
results in tight opto-mechanical tolerances.<br />
An experimental test bed <strong>of</strong> computational<br />
approaches to alleviate this constraint is<br />
presented.<br />
System scope includes:<br />
• Requirements development<br />
• Prototype hardware demonstration system<br />
• Design <strong>of</strong> experiments<br />
• Phase optimization for depth <strong>of</strong> focus increase
moDERN CoNTRoL DESIGN FoR A GuIDED mISSILE LAuNChER<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Raytheon Missile Systems<br />
SpoNSoR mENToR/ADVISoR<br />
William Schwind<br />
Samuel Sirimarco<br />
pRoJECT mENToR<br />
Ivar Sanders<br />
TEAm mEmBERS<br />
Weston Behling (ME)<br />
Heston Castelino (ME)<br />
Brandon Deanda (MSE)<br />
Fang Yang (EE)<br />
Elmoeiz Abdalla (EE)<br />
Ali Bindawood (SE)<br />
EE = Electrical <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
MSE = Material Science & <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4969: pRoJECT SummARY<br />
Develop a modern control <strong>design</strong><br />
for a guided missile launcher that<br />
will meet the desired performance<br />
requirements.<br />
As part <strong>of</strong> the project, the team<br />
has built a scale-size trainable<br />
missile launcher that can be<br />
pointed in both azimuth and<br />
elevation. <strong>The</strong> launcher will need<br />
to be able to hold an inertially<br />
stable position on a non-inertially<br />
stabilized platform. It will also need to be able to rapidly and accurately slew from<br />
one commanded position to another while avoiding <strong>design</strong>ated keep-out zones.<br />
<strong>The</strong> team has developed modern control topologies to optimize launcher performance<br />
subject to the desired performance requirements.<br />
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68<br />
DIopTRIC poWER TESTING DEVICE<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Edmund Optics<br />
SpoNSoR mENToR/ADVISoR<br />
Jeremy Govier<br />
Katie Schwertz<br />
pRoJECT mENToR<br />
Gerald Pine<br />
TEAm mEmBERS<br />
Thomas Myers (OSE)<br />
Tim Armenta (OSE)<br />
Amy Hill (EE)<br />
Scott Slanina (OSE)<br />
Eric Ramon (OSE)<br />
EE = Electrical <strong>Engineering</strong><br />
OSE = Optical Sciences & <strong>Engineering</strong><br />
TEAm 4970: pRoJECT SummARY<br />
Collimators are devices that use<br />
light to project an image <strong>of</strong> a<br />
reticle from the collimator. This<br />
image can then be used in the<br />
alignment <strong>of</strong> optical systems by<br />
using the reflections from the<br />
optical elements to overlay all <strong>of</strong><br />
the reflected reticle images.<br />
A certain type <strong>of</strong> these collimators<br />
is being used in the alignment <strong>of</strong> ocular scopes; however, the focus (dioptric<br />
power) setting on the collimators is not accurate. In addition to this, it has been<br />
determined that the angular measurements on the reticle are not accurate.<br />
We have been tasked with creating a device that can determine the actual focus<br />
location as well as the accuracy <strong>of</strong> the reticle measurements <strong>of</strong> these collimators.<br />
Since the collimators being used are large, our device must be able to interface with<br />
them wherever they are located. This device must also have a user interface so that<br />
the user can quickly read out the dioptric power and reticle accuracy information. This<br />
will allow the companies utilizing these collimators to calibrate them, which will help<br />
them to create a more accurate and precise product.
DESIGN oF mouNTING STRuCTuRES FoR SoLAR ARRAY moDuLES:<br />
GRouND mouNT Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
Sunora Energy<br />
SpoNSoR mENToR/ADVISoR<br />
Tommy Thompson<br />
pRoJECT mENToR<br />
Jyoti Mukherjee<br />
TEAm mEmBERS<br />
Charlie Burmood (ME)<br />
Patrick Doyle (ME)<br />
Jordan Landwerlen (ME)<br />
Cesar Ramirez (SE)<br />
Sean Orsburn (EE)<br />
EE = Electrical <strong>Engineering</strong><br />
ME = Mechanical <strong>Engineering</strong><br />
SE = Systems <strong>Engineering</strong><br />
TEAm 4971: pRoJECT SummARY<br />
We were given the task <strong>of</strong><br />
<strong>design</strong>ing a ground-mounted<br />
structure for solar array modules<br />
that can be assembled in a<br />
controlled environment, shipped to<br />
the location <strong>of</strong> construction, and<br />
assembled quickly with minimal<br />
technical installation expertise.<br />
This is a joint venture between<br />
Dynamic Energy Solutions and<br />
NRG Solar under the name Sunora<br />
Energy. To complete the given task, we have optimized and updated an already<br />
existing ground mount structure for a solar array; <strong>The</strong> key focus points are labor/<br />
installation costs, material costs, weight reduction, and shipping capabilities.<br />
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ASmE – humAN poWERED VEhICLE<br />
Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
<strong>The</strong> University <strong>of</strong> Arizona<br />
Student Chapter <strong>of</strong> the American<br />
Society <strong>of</strong> Mechanical Engineers<br />
SpoNSoR mENToR/ADVISoR<br />
Dr. Cholik Chan<br />
Joe Hartley<br />
pRoJECT mENToR<br />
Jyoti Mukherjee<br />
TEAm mEmBERS<br />
Giancarlo Guevara (ME)<br />
Michael Lesnewski (ME)<br />
Justin Monson (ME)<br />
Charles King (ME)<br />
Abdulla Al-Hail (ME)<br />
ME = Mechanical <strong>Engineering</strong><br />
TEAm 5226: pRoJECT SummARY<br />
Human-powered transport is <strong>of</strong>ten the only<br />
type available in underdeveloped parts <strong>of</strong> the<br />
world, and if well <strong>design</strong>ed, can be<br />
an increasingly viable form <strong>of</strong> sustainable<br />
transportation. ASME’s International Human<br />
Powered Vehicle Challenge (HPVC) provides<br />
an opportunity for undergraduate <strong>engineering</strong><br />
students to demonstrate the application <strong>of</strong> sound<br />
<strong>engineering</strong> <strong>design</strong> principles in the development<br />
<strong>of</strong> sustainable and practical transportation<br />
alternatives. In the HPVC, students work in teams<br />
to <strong>design</strong> and build efficient, highly engineered<br />
vehicles for every<strong>day</strong> use – from commuting to<br />
work, to carrying goods to market.<br />
Though some Speed Class vehicles have topped 60 mph, the competition assigns<br />
greater value to the elegance and ingenuity <strong>of</strong> the <strong>design</strong>, including presentation,<br />
practicality, safety and functionality.<br />
This year’s Speed Class Team was tasked with building a fully-faired (enclosed) Human<br />
Powered Vehicle for the <strong>2012</strong> West Coast HPVC held at the Miller Motorsports Park in<br />
Tooele, Utah. This project required knowledge <strong>of</strong> analytical tools, machining and fabrication<br />
<strong>of</strong> different materials including composites, project management and test plan development.
AmERICAN INSTITuTE oF AERoNAuTICS AND ASTRoNAuTICS: FAST AERIAL<br />
RECoNNAISSANCE - LAuNCh VEhICLE (FAR-LV) Interdisciplinary <strong>Engineering</strong> Design Program<br />
CLASS<br />
ENGR 498A/B<br />
SpoNSoR<br />
UA AIAA<br />
SpoNSoR mENToR/ADVISoR<br />
AIAA Executive Board<br />
pRoJECT mENToR<br />
Doug May<br />
TEAm mEmBERS<br />
John Kidd (AE)<br />
Kyle Pack (AE)<br />
Scott Kendrick (AE)<br />
William Roulo (ME)<br />
Monem Al-Dhaif (EMG)<br />
AE = Aerospace <strong>Engineering</strong><br />
EMG = <strong>Engineering</strong> Management<br />
ME = Mechanical <strong>Engineering</strong><br />
TEAm 5227: pRoJECT SummARY<br />
<strong>The</strong> goal <strong>of</strong> the FAR project is to<br />
create a single affordable aerial<br />
surveillance package that combines<br />
the speed <strong>of</strong> a rocket and the<br />
maneuverability <strong>of</strong> an airplane. <strong>The</strong><br />
FAR-LV team is responsible for<br />
<strong>design</strong>ing and building the rocket<br />
that will deploy the FAR-UAV. In<br />
order to safely deploy the UAV at<br />
9,000 ft above ground level, the LV<br />
has multiple computers onboard that detect the current position and velocity <strong>of</strong><br />
vehicle. At the maximum altitude <strong>of</strong> the LV trajectory, a series <strong>of</strong> ejection charges are<br />
detonated so that the UAV is deployed from the LV payload fairing without entangling<br />
with the LV recovery system. <strong>The</strong> recovery system will slow the LV descent rate using<br />
two staged parachutes. <strong>The</strong> first parachute is small enough that the LV will descend<br />
rapidly but in a controlled manner so that cross winds will not carry the rocket down<br />
range. <strong>The</strong> main parachute is substantially larger and will be deployed at 800 ft. above<br />
ground level to allow the LV to be recovered in such a state that allows it to be reflown.<br />
<strong>The</strong> UAV and LV teams presented the FAR concept at the AIAA Region VI Student Paper<br />
Conference on March 29-April 1 in Seattle, Washington. <strong>The</strong> teams will also compete<br />
in the Experimental Sounding Rocket Association’s 7th Annual IREC competition on June<br />
21st-23rd (Intercollegiate Rocket <strong>Engineering</strong> Competition).<br />
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AERIAL VIEW oF ThE uNIVERSITY oF ARIZoNA CAmpuS<br />
Bear Down Gymnasium – the location <strong>of</strong> this year’s <strong>Engineering</strong> Design Day <strong>2012</strong><br />
Bear Down Gymnasium by Scott Kirkessner<br />
Aerial view <strong>of</strong> the UA Campus by Margaret Hartshorn, AHSC BioCommunications
Our thanks to all sponsors<br />
<strong>of</strong> <strong>design</strong> projects and for all the support we receive<br />
for interdisciplinary <strong>engineering</strong> <strong>design</strong> at the University <strong>of</strong> Arizona.<br />
EnginEEring DEsign DAy <strong>2012</strong> is spOnsOrED by: