Limmer Group

University of California, Berkeley

Recent News

@limmerlab · Oct 14

Congratulations to Trevor for passing his qualifying exam!


@limmerlab · Oct 10

The group welcomes students Laura Scalfi and Avishek Das!


@limmerlab · Sep 28

Transport coefficient calculations getting you down? Try important sampling current fluctuations: https://arxiv.org/abs/1709.09187


@limmerlab · Aug 2

Want to sample nonequilibrium distributions? Check out arxiv.org/abs/1708.00459


@limmerlab · Jul 11

Paper in PNAS today on reactivity at water-electrode interfaces with the Willard Group: http://www.pnas.org/content/early/...


@limmerlab · Jun 19

The group welcomes postdoc Amael Obliger from MIT!


@limmerlab · May 29

David presents @ #CSC2017, "Rare fluctuations and response of materials driven out of equilibrium" in Toronto


For more news follow us on twitter: @limmerlab

Group members


David Limmer

Principle Investigator

dlimmer@berkeley.edu

Amael Obliger

Postdoc

amael@berkeley.edu

Chloe Gao

Graduate Student

chloegao@berkeley.edu



Trevor Grand Pre

Graduate Student

tgrandpr@berkeley.edu

Addison Schile

Graduate Student

addschile@berkeley.edu

Shujia Liang

Undergraduate Student

vincentcaptain@berkeley.edu



Laura Scalfi

Visiting Student

laura.scalfi@ens.fr

Avishek Das

Graduate Student

avishek_das@berkeley.edu


Research

Our research endeavors to advance theoretical descriptions of complex, condensed phase materials especially in instances where equilibrium ideas do not apply. We do this using concepts and methods developed by considering contemporary statistical mechanics unified when appropriate with principles from disparate disciplines in theoretical science. We ultimately aim to derive effective theories and coarse-grained descriptions and do so with the help of modern numerical techniques and computer simulation. Inspiration for specific problems comes from close collaboration with experimentalists studying real physical systems in microscopic or mesoscopic detail. Specific areas of current interest include the emergent behavior of systems undergoing simple chemical dynamics in complex environments, the response of nanoscale systems driven far from equilibrium and the solid-electrolyte interfaces relevant to basic energy science.


Chemical dynamics

Nanoscale transport

Driven assembly

Featured Press

"A most singular nano-imaging technique" - Phys Org. (2015) | LINK

"Why water perfers the single life" - Physics World (2013) | LINK

“'Melting' ice yields hints of a second liquid water phase" - Physics Today (2013) | LINK

"Debated Waters" - Nature Materials (2014) | LINK