Soft matter theory and materials design
How can materials dynamically control or remodel their own internal structure to affect their behavior? How can the statistics of structural disorder be biased to produce non-trivial properties? How can one discover novel equilibrium and non-equilibrium assembly mechanisms in highly parameterized systems? Questions like these are a necessary step in the development of synthetic biology, where non-biological materials and nano-scale machines operate with the complexity and functionality found only in biology.
Towards this end, the Goodrich Group uses computational and theoretical tools to discover basic soft matter principles that could one day lead to new functional materials as well as deepen our understanding of complex biological matter. The goal is to first understand general or even universal mechanisms that are not overly sensitive to the details of a given experimental system, and then work with experimentalists to test these ideas in practice. The group deploys and develops a number of numerical techniques, from molecular dynamics and Monte Carlo to machine learning and automatic differentiation. Specifically, the researchers are at the forefront in the development of trainable physics models, which provide a new and powerful way to explore high-dimensional systems and discover complex, non-trivial phenomena.
On this site:
If you are interested in joining the group, please don’t hesitate to send an e-mail to firstname.lastname@example.org.
Goodrich CP, Brenner MP, Ribbeck K. 2018. Enhanced diffusion by binding to the crosslinks of a polymer gel. Nature Communications. 9, 4348. View
Sethna JP, Bierbaum MK, Dahmen KA, Goodrich CP, Greer JR, Hayden LX, Kent-Dobias JP, Lee ED, Liarte DB, Ni X, Quinn KN, Raju A, Rocklin DZ, Shekhawat A, Zapperi S. 2017. Deformation of crystals: Connections with statistical physics. Annual Review of Materials Research. 47, 217–246. View
Rocks JW, Pashine N, Bischofberger I, Goodrich CP, Liu AJ, Nagel SR. 2017. Designing allostery-inspired response in mechanical networks. Proceedings of the National Academy of Sciences. 114(10), 2520–2525. View
Goodrich CP, Brenner MP. 2017. Using active colloids as machines to weave and braid on the micrometer scale. Proceedings of the National Academy of Sciences. 114(2), 257–262. View
Baity-Jesi M, Goodrich CP, Liu AJ, Nagel SR, Sethna JP. 2017. Emergent SO(3) symmetry of the frictionless shear jamming transition. Journal of Statistical Physics. 167(3–4), 735–748. View
Starting August 2020 Assistant Professor, IST Austria
2015-2020 Postdoctoral Scholar at Harvard University, Cambridge, MA USA
2009-2015 Ph.D. in physics at the University of Pennsylvania, Philadelphia, PA USA
2005-2009 B.S. in physics at Syracuse University, Syracuse, NY USA