Jakub Kowalewski
I am passionate about building robots that can safely and intelligently operate alongside humans in complex, real-world environments.
I am passionate about building robots that can safely and intelligently operate alongside humans in complex, real-world environments.
I am currently a PhD candidate in Mechanical Engineering at Northeastern University under the guidance of Jeffrey Lipton.
My research focuses on the design and optimization of mechanical structures and metamaterials for robotics. Specifically, I have demonstrated how metamaterials with large twist-to-bend ratios can enable continuous torque transmission in soft robots. I have also discovered a mechanism that produces exact planar motion through pure geometric constraints—a physical embodiment of stereographic projection—eliminating the need to reference existing flat surfaces. This work provides an alternative foundation for precision motion that scales across five orders of magnitude, from mechanisms smaller than a grain of sand to structures taller than a person.
I grew up in Pittsburgh, PA, where I earned my B.S. in Mechanical Engineering at Carnegie Mellon University. While working as an undergraduate research assistant, I developed a liquid handling robot to automate energy research alongside high-throughput photoreactors for screening novel photocatalysts. I then moved to Seattle, WA, to pursue my M.S. in Mechanical Engineering at the University of Washington.
My research has been honored with first place in the 2025 MassRobotics Form and Function Challenge and has been featured in Science Robotics.
Jakub F. Kowalewski, Abdulaziz O. Alrashed, Lucas R. Meza, Jeffrey Ian Lipton
In Preparation, 2025
Robotics Outside the Lab
1st Place ($10,000)
I represented Northeastern University with Ryo Takei at the MassRobotics Form and Function Challenge, competing against 15 teams from around the world. Our goal was to completely rebuild the TRUNC arm and increase its speed and strength. Using Ansys to perform a design optimization, I increased the torsional stiffness by 500%, enabling the arm to transmit 1 Nm of torque. With $8,000 in sponsored hardware from MAXON, Novanta, and AMD, we redesigned the control architecture and doubled the arm’s speed. Over two fast-paced days at the Robotics Summit and Expo, we presented our work, answered technical questions, and discussed future applications.
MakeHarvard Hackathon 2025
1st Place in Most Asthetic
Over a 48-hour hackathon, I helped create Doodle Dal-E, a robot that takes your picture and draws your caricature all in a few minutes. We combined generative AI, using OpenAI's API, with modified 3D printing hardware to create a fun and interactive demo that was an immediate conversation starter.
Media
New elephant trunk-mimicking robotic arm displays perfect strength, flexibility mix
Interesting Engineering, 15 May 2025
A Robot That Can Screw In A Lightbulb
Electronics For You, 25 March 2025
Northeastern Global News, 09 May 2025
Northeastern soft robotic arm wins MassRobotics Form & Function Challenge at Robotics Summit
The Robot Report, 09 May 2025
MassRobotics selects winners of Form & Function University Robotics Challenge
Robotics and Automation News, 10 May 2025
World’s safest scrubbing robot arm destroys stubborn filth using drill-like power
Interesting Engineering, 22 July 2025
Hackster, 22 July 2025
New scrubbing robot could contribute to automation of household chores
TechXplore, 22 July 2025
Past Projects
Liquid handling robot (2021)
While working with Prof. Bernhard, I designed a robot for closed-loop liquid dispensing that prepared arrays of samples for synthesis.
Autonomous Drone (2019)
As a member of CMU's robotics club, I helped design a modular body for our autonomous drone project and optimize the strength-to-weight ratio of parts.
Photoreactor (2020)
I designed and fabricated photoreactors for high-throughput chemistry and by introducing a liquid cooling system, I helped increase the reactor's LED lifespan.
Self-balancing robot (2019)
As part of 16-311 at CMU, I worked with a team to create a self-balancing two-wheeled robot. I enjoyed gaining the practical experience of implementing PID in a physical system.