People :: ECE 445 - Senior Design Laboratory

People

TA Office Hours

Held weekly in the senior design lab (ECEB 2070/2072). NOTE:

Blue names are office hours held online via zoom.

Names highlighted in orange are additional office hours available up to the due date of the soldering assignment.

There are no office hours during the weeks of board reviews or final demos.

Chat Room

Ask technical questions here:

Spring 2024 Instructors

Name Area
Prof. Arne Fliflet (Instructor)
3056
afliflet@illinois.edu
microwave generation and applications
Prof. Viktor Gruev (Instructor)

vgruev@illinois.edu
Prof. Rakesh Kumar (Instructor)

rakeshk@illinois.edu
Prof. Olga Mironenko (Instructor)

olgamiro@illinois.edu
Prof. Michael Oelze (Instructor)
ECEB 2056
oelze@illinois.edu
Biomedical Imaging, Acoustics, Nondestructive Testing
Prof. Jonathon Schuh (Instructor)
4066 ECEB
schuh4@illinois.edu
Computational Physics, Electromechanics, Fluid Mechanics, Energy Storage, Tribology
Prof. Victoria Shao (Instructor)

yangshao@illinois.edu
Nikhil Arora (TA)

na32@illinois.edu
Mechanical Design, Automotive Technologies, Additive Manufacturing
Sainath Barbhai (TA)

barbhai2@illinois.edu
Design Engineering, Finite Element Method, Sensors and Actuators
Zutai Chen (TA)

zutaic2@illinois.edu
Vishal Dayalan (TA)

vishald2@illinois.edu
Data Science and Analytics, Mechanical Design, CAD, Simulation, System Design, Robotics and Product Development
Luoyan Li (TA)

luoyanl2@illinois.edu
machine learning, hardware acceleration
Zicheng Ma (TA)

zicheng5@illinois.edu
Cloud computing, Database systems
Abhisheka Mathur Sekar (TA)

am113@illinois.edu
Mechanical Engineering, Design, CAD Modelling and Simulation, Fluid Mechanics, MRI, Human centric designs
David Null (TA)

null2@illinois.edu
Robotics, Computer Vision, Navigation, Coordinated Systems, Control Systems.
Jason Paximadas (TA)

jop2@illinois.edu
Power electronics, control, and instrumentation
Sanjana Pingali (TA)

pingali4@illinois.edu
Machine Learning Systems
Matthew Qi (TA)

mqi6@illinois.edu
Power Electronics
Nithin Balaji Shanthini Praveena Purushothaman (TA)

ns49@illinois.edu
My area of interest include Mechanical Design, Design Analysis, Supply Chain(Circular), Industry 4.0, Data Science and RPA.
Selva Subramaniam (TA)

ss170@illinois.edu
Koushik Udayachandran (TA)

koushik3@illinois.edu
Unmanned aerial vehicles. Risk assesment. Autonomous underwater vehicles . Aircraft design. Systems engineering and integration . Flight testing
Surya Vasanth (TA)

vasanth4@illinois.edu
Data Science and Analytics, Internet of Things, Human Centric Design
Angquan Yu (TA)

angquan2@illinois.edu
Douglas Yu (TA)

zeduoyu2@illinois.edu
Hardware Design, Computer Architecture, AI
Jason Zhang (TA)

zekaiz2@illinois.edu
AR, Robot and human interactions
Jialiang Zhang (TA)
CSL 403
jz23@illinois.edu
Hardware Systems, Computer Architecture
Tianxiang Zheng (TA)

tz32@illinois.edu
FPGA hls and mlir; Chronic signal processing; robotics and control; 3D printing;

Other Important People

https://ece.illinois.edu/about/directory/staff

Recovery-Monitoring Knee Brace

Dong Hyun Lee, Jong Yoon Lee, Dennis Ryu

Featured Project

Problem:

Thanks to modern technology, it is easy to encounter a wide variety of wearable fitness devices such as Fitbit and Apple Watch in the market. Such devices are designed for average consumers who wish to track their lifestyle by counting steps or measuring heartbeats. However, it is rare to find a product for the actual patients who require both the real-time monitoring of a wearable device and the hard protection of a brace.

Personally, one of our teammates ruptured his front knee ACL and received reconstruction surgery a few years ago. After ACL surgery, it is common to wear a knee brace for about two to three months for protection from outside impacts, fast recovery, and restriction of movement. For a patient who is situated in rehabilitation after surgery, knee protection is an imperative recovery stage, but is often overlooked. One cannot deny that such a brace is also cumbersome to put on in the first place.

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Solution:

Our group aims to make a wearable device for people who require a knee brace by adding a health monitoring system onto an existing knee brace. The fundamental purpose is to protect the knee, but by adding a monitoring system we want to provide data and a platform for both doctor and patients so they can easily check the current status/progress of the injury.

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Audience:

1) Average person with leg problems

2) Athletes with leg injuries

3) Elderly people with discomforts

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Equipment:

Temperature sensors : perhaps in the form of electrodes, they will be used to measure the temperature of the swelling of the knee, which will indicate if recovery is going smoothly.

Pressure sensors : they will be calibrated such that a certain threshold of force must be applied by the brace to the leg. A snug fit is required for the brace to fulfill its job.

EMG circuit : we plan on constructing an EMG circuit based on op-amps, resistors, and capacitors. This will be the circuit that is intended for doctors, as it will detect muscle movement.

Development board: our main board will transmit the data from each of the sensors to a mobile interface via. Bluetooth. The user will be notified when the pressure sensors are not tight enough. For our purposes, the battery on the development will suffice, and we will not need additional dry cells.

The data will be transmitted to a mobile system, where it would also remind the user to wear the brace if taken off. To make sure the brace has a secure enough fit, pressure sensors will be calibrated to determine accordingly. We want to emphasize the hardware circuits that will be supplemented onto the leg brace.

We want to emphasize on the hardware circuit portion this brace contains. We have tested the temperature and pressure resistors on a breadboard by soldering them to resistors, and confirmed they work as intended by checking with a multimeter.

Project Videos