WM / MIT CSAIL
MIT CSAIL
Wojciech Matusik

Wojciech
Matusik

Cadence Design Systems Professor of Electrical Engineering and Computer Science
Leads the Computational Design and Fabrication Group at CSAIL. Joint appointment in Mechanical Engineering. Member of the Computer Graphics Group.
Record2026
PositionProfessor, EECS
JointMech. Engineering
PhDMIT, 2003
SMMIT, 2001
BSUC Berkeley, 1997
Emailwojciech@mit.edu
Multi-material 3D printed rhinoceros models with varying internal structure
OpenFabMulti-material fabrication
3D printed robotic hand with tendons produced by vision-controlled jetting
Nature 2023Vision-controlled jetting · watch
Knitted sensor glove with tactile sensing array
Nature 2019Scalable tactile glove · watch
Fabricated mechanical characters with gear trains and linkages
SIGGRAPHMechanical characters · watch, 3.9M views
01 / Biography

Biography

Wojciech Matusik is the Cadence Design Systems Professor of Electrical Engineering and Computer Science at MIT, where he leads the Computational Design and Fabrication Group at CSAIL and holds a joint appointment in Mechanical Engineering.

Before MIT he was at Mitsubishi Electric Research Laboratories, Adobe Systems, and Disney Research Zurich. He received his Ph.D. from MIT in 2003, an S.M. from MIT in 2001, and a B.S. from the University of California, Berkeley in 1997.

His group develops AI for the physical world. The work starts with representations of materials, structures, mechanisms, devices, and robots that AI can synthesize and a solver can verify. Physics simulators run forward from a design to its performance and backward from a target to a design. Discovery systems propose new materials and molecules, test them on real instruments, and learn from what came back. And the group builds the machines that make things: 3D printers that watch themselves print, knitting machines, robots, instruments. AI is not a layer on top of this but is built into the representations, the discovery loop, and the machines themselves.

02 / Media

Talks and press

03 / Research

Open problems

Three questions drive the group today. Each one is open, funded, and taking new students.

Families of metamaterial geometry generated by a procedural graph program
01

Neurosymbolic methods and domain-specific languages

Programs, not pixels. We build design languages that a machine can write and a solver can check, so that a generated artifact is correct by construction rather than plausible by appearance.

What you would work on Solver-aided languages for LLM-driven CAD, procedural graph representations, and program synthesis for materials. Recent: MetaGen, a DSL, database and benchmark for VLM-assisted metamaterial design; procedural metamaterials (ACM TOG 2023); a solver-aided hierarchical language for LLM-driven CAD (Computer Graphics Forum 2025); VLMaterial (ICLR 2025). Suits people who care about both program semantics and the geometry that comes out the other end.
Predicted aerodynamic pressure fields over many car geometries
02

Neural physics surrogates

Learned simulators that stay physically valid. The aim is models that replace or accelerate classical solvers without giving up the guarantees that made the solvers useful.

What you would work on Modular neural simulators, differentiable physics, and scalable contact. Recent: GeoPT, which scales physics simulation through lifted geometric pre-training; Neural Modular Physics for elastic simulation; and M-ABD, a robust multi-affine-body solver (ACM TOG 2026). Expect numerical methods alongside deep learning, not one instead of the other.
Families of microstructures discovered by searching a material property space
03

AI for scientific discovery

Closing the loop from hypothesis to experiment. Discovery systems that propose candidates, run them on real instruments, and learn from what actually came back.

What you would work on Autonomous experimentation for materials, molecules, and instruments. Recent, all in Science Advances: computational discovery of extremal microstructure families, microstructured composites with optimal stiffness and toughness, accelerated discovery of 3D printing materials, and topology-optimised magnetic actuators. Also molecular and protein design. Also taught as AI for Scientific Discovery in MIT Professional Education. Involves real hardware and real materials.

Foundations. These sit on long-running work in computer graphics, computational design and fabrication, computer vision, and robotics. The group's open problems in full.

04 / Publications

Selected publications

Chosen for what the field did with them, not for how recently they appeared.

Selected among the field's seminal work

For SIGGRAPH's 50th anniversary, ACM republished the most significant papers of the field's second 25 years as Seminal Graphics Papers: Pushing the Boundaries, Volume 2. Three of that volume's 88 papers are his.

  • Figure from A data-driven reflectance model
    A data-driven reflectance modelFirst author
    W. Matusik, H. Pfister, M. Brand, L. McMillan · ACM Trans. Graph. 22(3) · 2003
  • Design and fabrication of materials with desired deformation behavior
    B. Bickel, M. Bächer, M. A. Otaduy, H. R. Lee, H. Pfister, M. Gross, W. Matusik · ACM Trans. Graph. · 2010
  • Figure from Computational design of mechanical characters
    Computational design of mechanical characters
    S. Coros, B. Thomaszewski, G. Noris, S. Sueda, M. Forberg, R. W. Sumner, W. Matusik, B. Bickel · ACM Trans. Graph. 32(4) · 2013 · Video

Published in Nature

Three papers in the flagship journal, two of them as senior author.

  • Figure from Learning the signatures of the human grasp using a scalable tact
    Learning the signatures of the human grasp using a scalable tactile gloveSenior author
    S. Sundaram, P. Kellnhofer, Y. Li, J. Zhu, A. Torralba, W. Matusik · Nature 569 · 2019 · Video
  • Towards real-time photorealistic 3D holography with deep neural networksSenior author
    L. Shi, B. Li, C. Kim, P. Kellnhofer, W. Matusik · Nature 591 · 2021 · Video
  • Figure from Vision-controlled jetting for composite systems and robots
    Vision-controlled jetting for composite systems and robots
    T. J. K. Buchner, S. Rogler, and colleagues, W. Matusik, R. K. Katzschmann · Nature 623 · 2023 · Video

Communications of the ACM Research Highlights

Selected by CACM as work the wider computing field should know about.

  • Figure from OpenFab: a programmable pipeline for multimaterial fabrication
    OpenFab: a programmable pipeline for multimaterial fabricationResearch Highlight
    K. Vidimče, S. Wang, J. Ragan-Kelley, W. Matusik · Commun. ACM 62(9), from SIGGRAPH 2013 · 2019
  • Figure from The Frankencamera: an experimental platform for computational ph
    The Frankencamera: an experimental platform for computational photographyResearch Highlight
    A. Adams and colleagues, W. Matusik, M. Levoy · Commun. ACM, from SIGGRAPH 2010 · 2012

Recent award-winning work

  • Figure from NeuralActuator: neural actuation modeling for robot dynamics and
    NeuralActuator: neural actuation modeling for robot dynamics and external force perceptionOutstanding Systems Paper
    Z. Dou and colleagues, W. Matusik · Robotics: Science and Systems · 2026
  • Figure from Fabrica: dual-arm assembly of general multi-part objects
    Fabrica: dual-arm assembly of general multi-part objectsBest Paper Award
    Y. Tian and colleagues, W. Matusik · Conference on Robot Learning · 2025 · Video
  • Figure from TelePulse: enhancing the teleoperation experience
    TelePulse: enhancing the teleoperation experienceBest Paper Award
    S. Hwang and colleagues, W. Matusik · ACM CHI · 2025

The complete list lives on the group site. All CDFG publications · Google Scholar

05 / Honors

Honors and awards

  • 2026Outstanding Systems Paper in Memory of Seth Teller, Robotics: Science and Systems NeuralActuator
  • 2025Best Paper Award, Conference on Robot Learning Fabrica
  • 2025Best Paper Award, ACM CHI TelePulse
  • 2025Cadence Design Systems Professorship, MIT named chair
  • 2023Joan and Irwin M. Jacobs Professorship, MIT named chair
  • 2023Humboldt Research Award, Alexander von Humboldt Foundation
  • 2022Best Paper Honourable Mention, British Machine Vision Conference VoRF
  • 2021Best Paper Honourable Mention, ACM CHI KnitUI
  • 2020Frank Quick Faculty Research Innovation Fellowship, MIT
  • 2014Ruth and Joel Spira Award for Excellence in Teaching, MIT
  • 2012Sloan Research Fellowship, Alfred P. Sloan Foundation
  • 2012DARPA Young Faculty Award
  • 2009ACM SIGGRAPH Significant New Researcher Award · award speech: part one, part two
  • 2004MIT Technology Review TR100, Innovators Under 35
06 / Alumni

Where people go next

15 doctoral theses supervised, plus 34 master's and undergraduate theses. 62 former group members hold faculty, permanent research, or industry research positions. The group roster lists everyone, current and past.

Faculty and permanent research (25)
Industry research (37)
07 / Teaching

Teaching

  • 6.4420J / 6.8420Computational Design and Fabrication. Created by Matusik; offered jointly with Mechanical Engineering as 2.0911J.
  • 6.4400Computer Graphics
  • 6.3900Introduction to Machine Learning
  • 6.838Advanced Topics: Computer Graphics
  • Professional Ed.AI for Scientific Discovery
  • Professional Ed.AI for Engineers
08 / Join

Join the group

The group takes students through both EECS and Mechanical Engineering. Work here usually spans an algorithm and something physical, so say which end you want to start from.

Postdocs

Email directly with your CV, two or three representative papers, and a short note on what you would want to build here.

PhD applicants

Apply to the MIT EECS or MechE PhD program and name Wojciech Matusik as a potential advisor. Mention which of the three research threads above fits your interests.

MIT undergraduates

UROP positions run every term. Email Wojciech or any current group member with your background and what you would like to learn.