Life at the Edge of Equilibrium: Non-Equilibrium Physics, Machine Learning, and the Molecular Machinery of Life | Grant Rotskoff episode artwork

EPISODE · May 19, 2026 · 1H 9M

Life at the Edge of Equilibrium: Non-Equilibrium Physics, Machine Learning, and the Molecular Machinery of Life | Grant Rotskoff

from NRTGE | No Reason to Get Excited · host Dr. Aaron Winkler

Send us Fan MailWhat if the secret to understanding life lies in the mathematics of systems that can never sit still? In this episode of No Reason to Get Excited (NRTGE), Dr. Aaron Winkler sits down with Grant Rotskoff, Assistant Professor of Chemistry at Stanford University, to explore the breathtaking frontier where statistical physics, computation, and biology collide.From the unsolved mystery of how ATP, the "spark of life," actually hydrolyzes, to the way muscle tissue self-assembles from molecular ratchets, Grant unpacks what it means to study living systems that are, by their very nature, perpetually far from equilibrium. Along the way, Aaron draws striking parallels between the molecular machinery of cells and the deepest questions of consciousness, attention, and emergence.About the GuestGrant Rotskoff is an Assistant Professor of Chemistry at Stanford University. His research sits at the intersection of theoretical chemistry, statistical physics, and machine learning, with a focus on understanding the non-equilibrium dynamics of biological systems. He trained as a mathematician at the University of Chicago before turning to biophysics, and his lab uses cutting-edge computational methods, including machine-learned interatomic potentials and importance sampling, to study problems ranging from ATP hydrolysis to the self-assembly of muscle tissue.Connect with GrantLinkedIn: https://www.linkedin.com/in/grant-rotskoff-47427a31bChapters00:00 – Why Great Research Questions Live in the Gaps01:07 – Meet Grant Rotskoff01:49 – What It Means for Life to Be Far From Equilibrium08:17 – Why Biology Is Too Complex to Brute-Force18:01 – How Machine Learning Is Changing Molecular Simulation28:02 – ATP Hydrolysis: The Spark of Life35:40 – ATP Synthase, Kinases, and Molecular Motors38:20 – Why Biology Works Like a Ratchet at the Nanoscale42:06 – How Organisation Emerges From Energy55:32 – Muscle Tissue, Sarcomeres, and Self-Assembly56:49 – The Mathematics of Emergence01:08:33 – Use the Tools You HaveIf you enjoyed this episode of No Reason to Get Excited, make sure to follow the show, leave a rating or review, and share this episode with someone who loves deep conversations about science, physics, and the mysteries of the universe.Connect with Dr. Aaron WinklerWebsite: www.aaronwinklermd.comLinkedIn: @NRTGEPODInstagram @NRTGEPOD

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Send us Fan Mail What if the secret to understanding life lies in the mathematics of systems that can never sit still? In this episode of No Reason to Get Excited (NRTGE), Dr. Aaron Winkler sits down with Grant Rotskoff, Assistant Professor of Chemistry at Stanford University, to explore the breathtaking frontier where statistical physics, computation, and biology collide. From the unsolved mystery of how ATP, the "spark of life," actually hydrolyzes, to the way muscle tissue self-assembles f...

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Life at the Edge of Equilibrium: Non-Equilibrium Physics, Machine Learning, and the Molecular Machinery of Life | Grant Rotskoff

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