50 episodes listed below
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The Arnold Sommerfeld Center for Theoretical Physics organizes regular colloquia about topics of current interest in the field of theoretical physics.
Based on 4 episodes we listened to · August 2026
A theoretical physics seminar recorded straight, full technical depth and live audience Q&A, with no simplification for listeners who lack the coursework.
The Sommerfeld Theory Colloquium plays less like a produced show than a straight recording of a seminar. One researcher presents alone, thinks through a research program in real time, and then takes questions from an audience that clearly follows the field without needing…
You want physics talks where 'hopeless' is a mathematical diagnosis, not a mood.
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Short reviews from the PlayNext desk, based on the episodes we processed.
A rigorous case for using cavity vacuum fluctuations to influence material behavior, with solids at the center.
This episode follows a tight scientific argument: cavity vacuum fluctuations may let researchers reshape the environment around a complex system, from molecular complexes to solids, and in turn shift how a material behaves.
A physicist's case for AI agents starts with equations, geometry, and the limits of Fourier.
The Denario Project looks at AI from the vantage point of a theoretical astrophysicist and cosmologist who has spent much of his career working as a data scientist.
A focused review of how dual variables tie impurity scattering to transport in a Luttinger liquid.
The episode frames duality as a useful working tool for understanding transport in a one-dimensional Luttinger liquid. It first sets up why Landau's Fermi liquid picture is so powerful, then shows where that picture starts to fail.
A focused mathematical review of membrane shapes, from multispherical vesicles to necks, junctions, and toroidal geometry.
Multispherical Shapes and More takes a precise mathematical path through membrane geometry, moving from fluid membranes and elasticity to vesicles assembled from spherical pieces with different mean curvatures.
Big physics questions, answered between the puns.
Recorded PhD summer-school lectures from LMU Munich's Arnold Sommerfeld Center on quantum computing.
Theoretical physics, patiently brought to the board.
Curious physics, explained in motion.
The speaker says he came to work with Guia on calculating the zeter almost from zero and uses that problem to motivate Denario as a multi-agent research system.
The speaker argues that cavity vacuum fluctuations can be engineered to change the properties of a molecule or solid instead of using light only as a temporary pump.
A theoretical physicist discusses the computational capabilities of quantum devices, exploring what can be computed with them from a physics perspective.
Introduction of Professor Lars Brink before his colloquium on supersymmetric field theories and superstring theory at the Arnold Sommerfeld Center.
The Sommerfeld Theory Colloquium episode on Multispherical Shapes, constant-mean-curvature surfaces, and the endoplasmic reticulum is a membrane-physics lecture centered on curvature and topology.
At the Sommerfeld Theory Colloquium (ASC), the speaker argues that a clean one-dimensional Luttinger liquid keeps dimensionless conductance at 1, even though a single impurity can drive it to 0.
A theoretical physics colloquium exploring the nature and current understanding of string theory.
A theoretical physicist discusses the history of gravitational waves and presents recent research results.
A theoretical physics colloquium discussing efforts to solve the electronic Schrödinger equation for many-electron systems.
A theoretical physicist presents recent progress on super membrane theory, comparing it to string theory, at a university colloquium.
A theoretical physics colloquium discussing scenarios of baryogenesis and the search for cosmic antimatter.
The Sommerfeld Theory Colloquium connects CERN's LHC, supersymmetry, string theory, and extra dimensions to unresolved questions about the Standard Model.
The talk builds up model tissue complexity in layers, starting with active Brownian particles and the self-propelled Voronoi model, which fit human corneal epithelial and MDCK data with about four parameters.