The First Annual Electrical and Computer Engineering Senior Design Expo will be held on Tuesday, May 1st from 12:00 noon to 2:00pm
in Breakiron 263.
AutoTrack
Student Design Team: Matt Hacker,
Billy Raska, Tory Waterman
Faculty Advisor: Michael Thompson
For many years, a trained operator has been required to run a spotlight for theatrical and concert events.
The goal of this project is to create a system that can automatically track a stage performer utilizing an existing moving light. In the end, the system takes about an hour to install and less than four minutes to calibrate, though it does not properly track a stage performer while he or she is moving.
At the end of two semesters of research, design, construction, coding, and troubleshooting, the AutoTrack system allows a moving light to find a stage performer within an average distance of 1.5 meters once the performer has stopped moving using a proprietary, radio-frequency-based tracking system and
computer-based algorithms.
Blue Wave
Student Design
Team: Brandon Bays, Christina Sfedu
Faculty
Advisor: Rich Kozick
Blue Wave worked with a team of
mechanical engineers in developing a hydrokinetic turbine system. The
mechanical engineers designed and fabricated the physical system that includes
the propeller, shafts, bearings and a pulley system that connects to the
motor. Blue Wave Team developed systems to power the motor and sensors,
tachometers to measure the rpm of the turbine and motor shafts, and a
controller for turbine blade speed.
Project
Hercules – Autonomous Rescue Helicopter
Student Design
Team: Rabi Basnet, AJ You, Hao Zhang
Faculty
Advisor: Robert Nickel
The goal of this project is to
transform a remote controlled helicopter into an autonomous helicopter that can
do a specific task autonomously. The proposed task for the autonomous
helicopter is based on the first two missions of the International Aerial
Robotics Competition (IARC). IARC began in 1991 and since then it has
created six different missions. In most cases it takes a few years before
a team can successfully complete a mission and a new one is created. The first
mission simply required a fully autonomous robot to pick up a disc on one end
of a field and move it to the other end of the field. The next mission required
a fully autonomous robot to search a toxic waste dump for five toxic waste
drums, map their locations, identify the contents of at least two of the drums,
and bring back a sample from one of the drums. In our project we're attempting
to generate hardware and software that can solve parts of the general problems
involved in participating in the International Aerial Robotics Competition.
Smart Fiber
Student Design Team: Parinaz Hadi,
Spencer Harris, William Kane, Brian Kenney
Faculty Advisor: Robert Nickel
This project is a biophysical status
monitoring device that will be integrated with textiles to create a system that
can be worn by firefighters or the military, and relay information about the
person wearing it back to a remote central station. Once at this station, the
information can be reviewed in an easy to read format, and make decisions based
on this information. The parameters that are targeted in our current
implementation are the body temperature and the heart rate of the person
carrying the device.
Whalers
Wireless
Student Design
Team: Ross Bond, Peter Davis, Steven Kangos, Michael McPhee
Faculty
Advisor: Robert Nickel
The "Whalers Wireless Senior Design Team" presents
a network of small sensors that measure benchmarks of indoor comfort in real
time throughout a building. The devices transmit the data to a remote location
for storage and viewing. The data collected through this project can be used to
save money by reducing energy consumption in buildings and increase the comfort
level of room occupants. Studies have shown that people are more productive in
comfortable environments, but the systems required for maintaining comfortable
environments consume significant amounts of energy. Despite the cost of
environment control, employees are the most expensive assets to an
organization. A network of sensors deployed throughout a building is the first
step towards an "intelligent" building that reduces the cost of
keeping occupants comfortable by reacting to the conditions in the building on
a room-by-room basis.