Bernhard Thomaszewski
ETH Zurich, Université de Montréal, Walt Disney (United States)
Papers
18
Total Citations
532
H-Index
9
About
Bernhard Thomaszewski is a leading researcher at the intersection of computational fabrication, physics-based simulation, and robotics, whose work has fundamentally shaped how designers and engineers create physical objects and autonomous systems. His research spans differentiable simulation, robotic creature design, soft robotics, and programmable materials, consistently bridging the gap between computational methods and real-world fabrication. Thomaszewski's most influential contribution, his analytically differentiable dynamics (ADD) framework (2020, 144 citations), introduced a unified, differentiable solver for frictional contact in rigid and deformable systems — a breakthrough enabling gradient-based optimization of complex physical interactions. His pioneering work on interactive design tools for 3D-printable robotic creatures (2015, 91 citations) and Skaterbots (2018, 94 citations) democratized robot design by automating complex motion synthesis and structural optimization for casual users and engineers alike. Earlier work on physical face cloning (2012, 47 citations) demonstrated his reach into biomechanics and animatronics. More recently, Thomaszewski has pushed into metamaterial design through neural networks and programmable weave structures, exploring tunable mechanical properties for robotics and engineering applications. With over 400 cumulative citations across his most notable works, his contributions have had substantial and lasting impact on computational design and fabrication communities.
Research Focus
Key Achievements
Top Papers
- 1ADD144 citations · 2020
- 2Skaterbots94 citations · 2018
- 3Interactive design of 3D-printable robotic creatures91 citations · 2015
- 4Physical face cloning47 citations · 2012
- 5RoboCut47 citations · 2020
- 6Neural Metamaterial Networks for Nonlinear Material Design21 citations · 2023
- 7
- 8Programmable Digital Weaves13 citations · 2022
- 9
- 10ToRoS: A Topology Optimization Approach for Designing Robotic Skins8 citations · 2023