Knitted Textile Electromechanical Systems
I am working with the Embodied Systems Lab of Northwestern University to develop textile-based systems that will enable new forms of assitive technology, haptic feedback for robotics, and movement studies.
I have a background in Electrical & Computer Engineering, with a B.S. and M.S. from Carnegie Mellon University. My past work involves using machine learning and computer vision sensing systems to understand human-machine interactions in advanced manufacturing environment.
As I look towards my future research career, I draw inspiration from living & infrastructure systems, traditional ecological knowledge, and modern computational advancements. I often wonder "How can we draw upon wisdom from living systems and established practices to build a more sustainable world?" and believe firmly that many solutions and keys to advancement are hidden within the very natural world that surrounds us.
As a researcher, I aim to develop sustainable sensor systems and computational networks to better understand how natural environments change over time. As an artist, I channel my global experiences, cultural perspectives, and awe for living systems through my calligraphy, music, and cooking practices. In these pursuits, I strive to highlight the deeply interconnected nature of all life.
Some More About MeI am working with the Embodied Systems Lab of Northwestern University to develop textile-based systems that will enable new forms of assitive technology, haptic feedback for robotics, and movement studies.
A personal passion project to develop a custom ultrasound-based back up sensor for my car.
As part of the Sustainable And Livable Urban Systems (SALUS) Lab at Carnegie Mellon after my masters, I collected a large dataset of human-machine interactions in advanced manufacturing scenarios for training machine learning models and characterizing machinery use.
For the final project for 12-770 Autonomous Buildings course at Carnegie Mellon and published by my colleague Ozan Baris. We used a distributed set of temperature sensors and model predictive control to retrofit my home's thermostat and optimize thermal comfort of our single-zone multi-room house.
I developed a program to fuse readings from multiple mmWave radars to detect and locate metalic objects in a wide area. This was preliminary research done in collaboration with Carnegie Mellon's WiTech lab for more efficient weapons screening technology planned for airports and large events.
I designed an analog, schmitt trigger-based circuit for maintaining optimal thermal conditions of avionic systems for NASA's MoonRanger project in collaboration with Carnegie Mellon University.
For my Carnegie Mellon University capstone project, my team and I designed a software interface for transmuting spoken words into piano notes. A piano would then play back the recorded voice and sound like it is talking to them.