- If you have an idea for a senior project and are in search of
an advisor, please contact me if you think our areas of interest
might overlap. Check out some GUIDELINES
for senior projects and thesis projects. Drop by my office
(20-304) or send an e-mail to dbraun@calpoly.edu.
Sustainability Use your
senior project to enable future generations to meet their
needs. Perhaps you see an opportunity on campus. Off campus
opportunities abound, too.
Three ongoing sustainability projects on-campus require
contributions from senior projects:
- Energy
Harvesting from Exercise Machines (EHFEM) pronounced
"FM"
1. A team of ME & EE students--Vann Chau, Jennifer
Roecks, Sean Spurr, and David Webb--modified an exercise
bike to produce DC & AC power as a standalone system.
Completed Spring 2007.
2. A team of ME students--Zach Goldstein, Sean Gouw, and
Alex Clarabut--modified a Concept2 Model D rowing machine
to produce DC & AC power as a standalone system.
Completed Spring 2008.
3. A team of EE students--Rogan Guild, Kevin Kinoshita,
Sameer Pangrekar, Stephen Queen--converted an Elliptical
Trainer to generate electricity. Completed: Fall 2008.
4. A team of EE students--Jonathan Chan, Chris
Cinkornpumin, Michelle Lum, Jonathan Yuen--converted an
Elliptical Trainer to generate electricity. Completion:
Fall 2009. Find their report on the Digital Commons: http://digitalcommons.calpoly.edu/eesp/12/
5. A team of ME students--Jared Rounsevell, Claire
Shubert, Matt Snitowsky, Andy Wong--modified an exercise
bicycle to generate electricity. Completed: Fall 2009.
Find their report on the Digital Commons: http://digitalcommons.calpoly.edu/mesp/13/
6. A team of EE students--Christopher Henry and Henry
Ureh--designed and built a DC-to-DC converter for the
exercise bicycle. Completed: Fall 2009. Find their report
on the Digital Commons: http://digitalcommons.calpoly.edu/eesp/20/
7. CPE student Alex Chernetz worked on a system to display
information related to exercise machine power generation.
Completed: Fall 2009. Find his report on the Digital
Commons: http://digitalcommons.calpoly.edu/cpesp/2/
8. A team of EE students--Monroe Diamond and Brian
Vuong--designed and built a DC-to-DC converter for the
exercise bicycle. Completed: June 2010. Find their report
on the Digital Commons: http://digitalcommons.calpoly.edu/eesp/45/
9. Brendan Asche, Near Real-Time Exercise Machine
Power Statistics Reporting, Thesis
(M.S.)—California Polytechnic State University, 2010.
Available: http://digitalcommons.calpoly.edu/theses/241/
10. A team of EE students--Justin Arakaki, Praveen
Lawrence, and Audrey Nakamura--studied how to employ
energy harveesting in the renovated ASI Recreation Center.
Completed: June 2010. Find their report on the Digital
Commons: http://digitalcommons.calpoly.edu/eesp/41/
11. Alvin Hilario, Energy Harvesting From Elliptical
Machines Using Four-Switch Buck-Boost Topology,
Thesis (M.S.)—California Polytechnic State University,
2011. Available: http://digitalcommons.calpoly.edu/theses/511/
12. Greg Hollister--Elliptical Machine DC-DC Converter
for the Energy Harvesting from Exercise Machines Project.
Completed: Spring 2011. Available: http://digitalcommons.calpoly.edu/eesp/70/
13. A team of EE students--Ryan Rickard and Logan Stowe--Exercise
Bicycle DC-DC Converter for the Energy Harvesting from
Exercise Machines Project. Completed: Spring 2011.
Available: http://digitalcommons.calpoly.edu/eesp/97/
14. Nick Lovgren, Energy Harvesting From Exercise
Machines: Forward Converters With A Central Inverter,
Thesis (M.S.)—California Polytechnic State University,
2011. Available: http://digitalcommons.calpoly.edu/theses/520/
15. Martin Kou, Energy Harvesting from Elliptical
Machines: DC-DC Converter Design Using SEPIC Topology,
Thesis (M.S.)—California Polytechnic State University,
2012. Available: http://digitalcommons.calpoly.edu/theses/753/
16. A team of EE students--Ryan Turner and Zack Weiler--DC-DC
Converter Input Protection System for the Energy
Harvesting from Exercise Machines (EHFEM) Project.
Completed: Spring 2013. Available: http://digitalcommons.calpoly.edu/eesp/214/
17. A team of EE students--Sheldon Chu and Byung-Jae David
Yoo--BUCK-BOOST DC-DC CONVERTER with INPUT PROTECTION
SYSTEM FOR THE ENERGY HARVESTING from EXERCISE MACHINES
PROJECT. Completed: Spring 2014. Available: http://digitalcommons.calpoly.edu/eesp/258/
18. Matthew Wong--Energy Harvesting From Exercise
Machines - DC-DC Buck Boost Converter (LT3791).
Completed: Spring 2014. Available: http://digitalcommons.calpoly.edu/eesp/265/
19. A team of EE students--Eric Funsten and Cameron
Kiddoo--Protection System For the Energy Harvesting
from Exercise Machines (EHFEM) Project. Completed:
Spring 2014. Available: http://digitalcommons.calpoly.edu/eesp/259/
20. A team of EE students--Braden Burk, Raj Bhula, and
Nathan McKay--Energy Harvesting From Exercise
Machines: LT8705 DC-DC Conversion for Elliptical
Trainers. Completed: Fall 2014. Available: http://digitalcommons.calpoly.edu/eesp/279/
21. Colton Crivelli--Current Protection for the
Energy Harvesting from Exercise Machines (EHFEM) Project.
Completed: Spring 2015. Available: http://digitalcommons.calpoly.edu/eesp/295/
22. A team of EE students--Calvin Abshier and Calvin Xu--Voltage
Protection System for EHFEM Project. Completed:
Spring 2015. Available: http://digitalcommons.calpoly.edu/eesp/296/
23. Ryan Matteo--Energy Harvesting from Exercise
Machines Buck-Boost DC DC Converter with the LT8705
Controller. Completed: Spring 2016. Available: http://digitalcommons.calpoly.edu/eesp/344/
24. James Ralson--Micro-Inverter Improvement For The
Energy Harvesting From Exercise Machine Project.
Completed: Spring 2016. Available: http://digitalcommons.calpoly.edu/eesp/354/
25. Andrew Forster, Energy Harvesting From
Exercise Machines: Buck-Boost Converter Design,
Thesis (M.S.)—California Polytechnic State University,
2017. Available: http://digitalcommons.calpoly.edu/theses/1702/
26. Alexander Sireci, DC-DC Converter Control System
for the Energy Harvesting from Exercise Machines System,
Thesis (M.S.)—California Polytechnic State University,
2017. Available: http://digitalcommons.calpoly.edu/theses/1747/
- Efficient
Deployment of Advanced Public Transportation Systems
(EDAPTS)
Jeff Gerfen's research project developed the Smart Transit
System for San Luis Obispo, most visible until Summer 2009
as bus signs predicting bus arrival times. The smart signs
rely on GPS position data obtained from the SLO city bus
system. We developed systems to post bus position and
arrival predictions online. See the first
prototype, developed by Jeff Tikkanen at
http://decade.eel.calpoly.edu/EDAPTS/. The current
verstion, developed by Aaron Berk and John O'Conner,
reflects 2010 route and schedule updates. The SLO Bus
tracker obviated the need for this system.
1. Aniefon Ekanem developed a lower cost version of the
stand-alone intelligent sign to allow deployment at more
bus stops. A Low-Cost LCD Smart Transit Sign Design
for Efficient Deployment of Advanced Public
Transportation Systems, Thesis (M.S.)—California
Polytechnic State University, 2007
2. An upgrade completed Spring 2008 by CPE students Joey
Civin and Ben St. Clair incorporated new tools for
firmware development. Better Route Prediction and
Scaled Integration of a Low Cost LCD Smart Transit Sign,
Senior Project 08-0534, California Polytechnic State
University, 2008.
3. Another project involves testing the stand alone power
system under actual operation. Completed Fall 2008.
4. Jeff Tikkanen developed a web-based real-time bus
location and prediction system. The first
version uses the Summer 2009 bus routes and
schedules. Bus Location Prediction Web Application
for San Luis Obispo Public Transit, Senior Project
09-0544, California Polytechnic State University, 2009.
5. Matt Bojorquez updated the bus routes for Winter 2010
schedules. Completed: June 2010. Find his report on the
Digital Commons: http://digitalcommons.calpoly.edu/cpesp/16/
6. John O'Conner and Aaron Berk expanded the tool to
facilitate making schedule and route adjustments.
Completed: June 2011. Find their report on the Digital
Commons: http://digitalcommons.calpoly.edu/cpesp/29/.
- 2700K
White Light LED Luminaire Development
Energy efficiency needs and global warming concerns have
driven incandescent lighting from its primary position.
Similarly, fluorescent lighting will give way to LED
lighting. White LEDs are now available with warm light,
color temperatures such at 2700K, which people tend to
enjoy more than harsher 5600K lighting.
A joint ME & EE team designed and built a white LED
lighting system with warm white light. Completed Winter
2009.
Polymer Electronics Lab Projects
I am quite interested in solid-state electronics in general
and polymer electronics in
particular. These areas include solid-state devices such as
light-emitting diodes [LEDs], lasers, photodetectors, solar
cells, and field-effect transistors [FETs]. Other interests
arise from electronics used to drive displays, low power
electronics, and VLSI. Device fabrication and characterization
overlap with practical issues in the areas of laboratory
automation, vacuum systems, and inert atmosphere processing.
Specific projects appear below.
-- Device characterization projects focus on
electronics, but they can also reach into the realms of
software and other disciplines.
-- For a research oriented project, you could make
polymer LEDs or solar cells and improve their efficiency.
-- If you like Chemistry, you could make new molecules
and polymers for polymer LEDs.
-- Improving the lab entails a variety of EE, CPE, ME,
MATE, Chemistry and/or Physics activities.
-- Completed Fall 2009:
Studied packaging schemes to allow using the polymer LEDs
outside of the glove boxes.
- If you have an idea for a senior project and are in search of
an advisor, please contact me if you think our areas of interest
might overlap. Check out some GUIDELINES
for senior projects and thesis projects. Drop by my office
(20-304) or send an e-mail to dbraun@calpoly.edu.
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