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The SEMPARIS seminar webserver hosts annoucements of all seminars taking place in Paris area, in all topics of physics, mathematics and computer science. It allows registered users to receive a selection of announcements by email on a daily or weekly basis, and offers the possibility to archive PDF or Powerpoint files, making it available to the scientific community.   [ More information ]


Upcoming Seminars [Next 30 ]
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Thursday 28 March 2024, 10:00 at IHP, 314 RENC-THEO (Rencontres Théoriciennes) hep-th
Enrico Olivucci Multi-point multi-loop Null Polygons from Fishnet theory to N=4 SYM
Abstract: ``Null polygons" in N=4 SYM theory capture the UV behaviour of a planar multi- point correlator of local operators inserted at the vertices of a light-like polygon. The leading UV divergences of null polygons satisfy a hierarchy of coupled Toda field theory equations according to a recent conjecture [E.O., Vieira ’22]. I will present some progress towards the prediction of Null Polygons beyond leading logarithm via the hexagons technique, appropriately truncated in the light-cone regime. The method, still conjectural, relies on a series of weak- coupling derivations performed in the Fishnet limit of the theory, where the hexagon representation is achieved in the basis of the excitations of a conformal Heisenberg magnet in the principal series. I will present a series of worked-out examples of this method for 6-point correlators at a few loop orders.

Thursday 28 March 2024, 11:45 at IHP, Grisvard RENC-THEO (Rencontres Théoriciennes) hep-th
Evgeny Skvortsov ( Mons University ) Higher spin physics
Abstract: I will review two aspects in which higher spin fields play an important role. Firstly, higher spin states seem to be inevitable in models of quantum gravity, e.g. within AdS/CFT correspondence and in string theory. One of the simplest examples relates theories with massless higher-spin fields, known as higher spin gravities, to (Chern-Simons) vector models that describe many second order phase transitions in the real world and were conjectured to exhibit a number of dualities, including the 3d bosonization duality. I will review the progress towards constructing exact models of AdS/CFT along these lines and how higher spin symmetry is manifested on the CFT side and can be used to prove the 3d bosonization duality. Secondly, any massive and rotating compact object, e.g. a black hole, can be modelled by a higher spin particle. I will review the recent progress in constructing theories with massive higher spin fields with applications to the description of gravitational wave radiation from compact binaries.

Friday 29 March 2024, 10:00 at IPHT, Salle Claude Itzykson, Bât. 774 COURS (Cours) physics
Sylvain Ribault ( IPhT ) Exactly solvable 2D conformal field theories
Abstract: Abstract: In this course, we review two-dimensional CFT in the bootstrap approach, and sketch the known exactly solvable CFTs with no extended chiral symmetry: Liouville theory, (generalized) minimal models, limits thereof, and loop models, including the O(n), Potts and U(n) models. Exact solvability relies on local conformal symmetry, and on the existence of degenerate fields: we explain how these assumptions constrain the spectrum and correlation functions. We discuss the crossing symmetry equations, and how they can be solved analytically or numerically, leading to analytic formulas for structure constants. \\ \\ In the case of loop models, we review the combinatorial description of correlation functions, inspired by the lattice construction of statistical models. We sketch what remains to be done for solving the models. \\ \\ The plan is: \\ 1. The Virasoro algebra and its representations. Fields and operator product expansions.\\ 2. Fusion rules and fusion products. Correlation functions and Ward identities. Crossing symmetry and conformal blocks.\\ 3. Defining a CFT. Diagonal and non-diagonal fields, degenerate fields. Exactly solvable CFTs and their spectrums.\\ 4. Degenerate 4-point functions. Analytic formulas for 2-point and 3-point structure constants.\_ 5. Computing conformal blocks. Numerical bootstrap.\\ 6. Correlation functions in loop models.\\ \\ Livestream on youtube.com/IPhT-TV: no subscription required.\\ Videoconference: subscribe to the course newsletter to receive links

Friday 29 March 2024, 14:00 at IHES, Amphithéâtre Léon Motchane
( Cours de l'IHES )
MATH-IHES (TBA) math
Gérard Ben Arous ( CIMS, New York University et IHES ) Random Matrices and Dynamics of Optimization in Very High Dimensions (4/4)
Abstract: https://indico.math.cnrs.fr/event/11344/

Friday 29 March 2024, 14:00 at LPTHE, Library and Zoom (link in the comments)
( https://cern.zoom.us/j/63031219326?pwd=STlDY2l0UTZOTWd3Ty8zaWVQSzNTdz09 )
LPTHE-PPH (Particle Physics at LPTHE) hep-ph
Vo Hong Minh Phan ( LERMA, Observatoire de Paris and Sorbonne U ) Phenomenology of Galactic cosmic-ray transport
Abstract: Despite the important role of cosmic rays in the Galactic interstellar medium, the origin of these particles is still not unambiguously identified. Supernova remnants have long been considered as the most potential class of sources for Galactic cosmic rays. This hypothesis is commonly known as the supernova remnant paradigm. There exist many arguments supporting this paradigm. Some limitations however still persists especially in the MeV and PeV energy ranges, the two energy frontiers of Galactic cosmic rays. Understading the transport of these particles on Galactic scales is, in fact, the key in verifying or falsifying the supernova remnant paradigm. In this talk, I will provide a brief summary of our current understanding on Galactic cosmic-ray transport and its potential implications for the supernova remnant paradigm.

Tuesday 2 April 2024, 11:00 at LPTMS, Salle des séminaires du FAST et du LPTMS, bâtiment Pascal n°530 LPTMS (Séminaire du Laboratoire de Physique Théorique et Modèles Statistiques (Orsay)) cond-mat.stat-mech
Ariane Soret ( University of Luxembourg ) Symmetry shapes thermodynamics in macroscopic quantum systems
Abstract: Symmetries play a fundamental role in shaping physical theories, from quantum mechanics to thermodynamics. Studying the entropic, energetic, or dynamic signatures of underlying symmetries in quantum systems is an active field of research, from fundamental questions about entropy scalings, ground state properties, or thermalization, to the optimization of quantum computing or numerical simulation procedures, and is gaining momentum due to rapid experimental advances, particularly in cold atoms [1]. In this work [2], we derive a systematic approach to the thermodynamics of quantum systems based on the underlying symmetry groups. We show that the entropy of a system can be described in terms of group- theoretical quantities that are largely independent of the details of its density matrix. We apply our technique to generic N identical interacting d-level quantum systems. Using permutation invariance, we find that, for large N, the entropy displays a universal large deviation behavior with a rate function s(x) that is completely independent of the microscopic details of the model, but depends only on the size of the irreducible representations of the permutation group. In turn, the partition function is shown to satisfy a large deviation principle with a free energy f (x) = e(x) − \beta^{−1}s(x) , where e(x) is a rate function that only depends on the ground state energy of particular subspaces determined by group representation theory. We demonstrate the power of our approach by applying it to the nontrivial task of describing phase transitions governed by the interplay of quantum and thermal fluctuations in the transverse-field Curie-Weiss model. [1] Masahito Ueda. Quantum equilibration, thermalization and prethermalization in ultracold atoms. Nat. Rev. Phys., 2(12):669, 2020. [2] Vasco Cavina, Ariane Soret, Timur Aslyamov, Krzysztof Ptaszynski, and Massimiliano Esposito. Symmetry shapes thermodynamics of macroscopic quantum systems. arXiv:2402.04214, 2024.

Tuesday 2 April 2024, 14:00 at IPHT, Salle Claude Itzykson, Bât. 774 IPHT-HEP (Séminaire de physique des particules et de cosmologie) hep-ph
Salvador Rosauro ( IJCLab, Orsay ) Links Between Massive Neutrinos and the Generation of Dark Matter and the Baryon Asymmetry
Abstract: The observation of neutrino oscillations represents the only experimental evidence for physics beyond the Standard Model. Addressing this issue including right-handed neutrinos generally introduces new sources of CP violation which can be used in the Early Universe to generate a baryon asymmetry, while the sterile states themselves can be a good dark matter candidate. In this talk I will discuss some ideas on how to generate the baryon asymmetry profiting from CP violation in the neutrino sector and a phase transition at the electroweak scale, to then discuss recent developments on the production of sterile neutrino DM from heavier neutrino decays, which represents an irreducible contribution to the abundance when this species is considered as the DM.

Tuesday 2 April 2024, 14:00 at IHES, Centre de conférences Marilyn et James Simons
( Cours de l'IHES )
MATH-IHES (TBA) math
Misha Gromov ( IHES ) Beauty of Life seen through Keyhole of Mathematics (2/4)
Abstract: We start with reminding basic molecular structures (Crick dogma, genetic code etc.) in living entities and classical examples of the mathematical thought in genetic (Darwin, Mendel, Morgan, Sturtevant, trees of sequences…) and the traditional discussion/controversy on the nature of Life. Then we present a mathematical counterpart to the question “What is Life?”, indicate possible role of mathematics in the future bioengineering and conclude with the current and projected numerical data on the human role in ecology of Earth.

Tuesday 2 April 2024, 14:00 at LPTHE, Library and Zoom (link in the comments)
( https://cern.zoom.us/j/63031219326?pwd=STlDY2l0UTZOTWd3Ty8zaWVQSzNTdz09 )
LPTHE-PPH (Particle Physics at LPTHE) hep-ph
Lucien Heurtier ( King’s College London ) Unveiling Cosmic History with Mini Primordial Black Hole Archeology
Abstract: Light primordial black holes - formed shortly after the end of cosmic inflation - contain crucial information regarding the evolution of the early Universe. Depending on their masses and spins, these black holes can evaporate via Hawking radiation at different times throughout cosmic history, leaving all sorts of traces in cosmological data that may become measurable soon. In this talk, I will introduce general aspects of primordial black hole phenomenology and discuss how one can search for imprints of their early evaporation using cosmic microwave background measurements, large-scale structure surveys, dark-matter direct detection, or gravitational wave observatories.

Wednesday 3 April 2024, 14:15 at IPHT, Salle Claude Itzykson, Bât. 774 IPHT-MAT (Séminaire de matrices, cordes et géométries aléatoires) hep-th
Ond?ej Hulík ( Vrije U., Brussels ) TBD
Abstract: TBD

Thursday 4 April 2024, 14:30 at IHES, Amphithéâtre Léon Motchane MATH-IHES (TBA) math
Kathrin Bringmann ( University of Cologne ) Mock Theta Functions, False Theta Functions and Beyond
Abstract: In my talk I discuss examples of functions that are not quite modular forms but still exhibit nice symmetries. I am, as application, in particular interested in their asymptotic growth.

Friday 5 April 2024, 10:00 at IPHT, Salle Claude Itzykson, Bât. 774 COURS (Cours) physics
Sylvain Ribault ( IPhT ) Exactly solvable 2D conformal field theories
Abstract: Abstract: In this course, we review two-dimensional CFT in the bootstrap approach, and sketch the known exactly solvable CFTs with no extended chiral symmetry: Liouville theory, (generalized) minimal models, limits thereof, and loop models, including the O(n), Potts and U(n) models. Exact solvability relies on local conformal symmetry, and on the existence of degenerate fields: we explain how these assumptions constrain the spectrum and correlation functions. We discuss the crossing symmetry equations, and how they can be solved analytically or numerically, leading to analytic formulas for structure constants. \\ \\ In the case of loop models, we review the combinatorial description of correlation functions, inspired by the lattice construction of statistical models. We sketch what remains to be done for solving the models. \\ \\ The plan is: \\ 1. The Virasoro algebra and its representations. Fields and operator product expansions.\\ 2. Fusion rules and fusion products. Correlation functions and Ward identities. Crossing symmetry and conformal blocks.\\ 3. Defining a CFT. Diagonal and non-diagonal fields, degenerate fields. Exactly solvable CFTs and their spectrums.\\ 4. Degenerate 4-point functions. Analytic formulas for 2-point and 3-point structure constants.\_ 5. Computing conformal blocks. Numerical bootstrap.\\ 6. Correlation functions in loop models.\\ \\ Livestream on youtube.com/IPhT-TV: no subscription required.\\ Videoconference: subscribe to the course newsletter to receive links

Friday 5 April 2024, 14:00 at LPTHE, Library and Zoom (link in the comments)
( https://cern.zoom.us/j/63031219326?pwd=STlDY2l0UTZOTWd3Ty8zaWVQSzNTdz09 )
LPTHE-PPH (Particle Physics at LPTHE) hep-ph
Sebastian Hoof ( Padova University ) Finding Axions in a Universe of Data and Envisioning Their Use as Multi-Messenger Probes
Abstract: An ever-growing number of experiments is exploring the remaining axion parameter space, with the exciting prospect of discovering theoretically preferred QCD axion models. This talk discusses how the resulting wealth of data can be leveraged to study axion models and parameters, focussing on my contributions to both the model landscape and phenomenology. Using modern statistical analysis techniques, we can extract the maximal amount of information from the data and learn about axion parameters and their UV structure. I will also entertain the prospects of an axion discovery, which would open up the possibility of using axions as multi-messenger probes. At the example of solar axions, I will demonstrate the points above: how the next generation of helioscopes could potentially discover axions, determine all related model parameters and UV structure, as well as study solar properties such as solar metallicity, macroscopic B-field or temperature profiles. I will conclude by commenting on complementary approaches and related ideas.

Tuesday 9 April 2024, 14:00 at IHES, Centre de conférences Marilyn et James Simons
( Cours de l'IHES )
MATH-IHES (TBA) math
Misha Gromov ( IHES ) Beauty of Life seen through Keyhole of Mathematics (3/4)
Abstract: We start with reminding basic molecular structures (Crick dogma, genetic code etc.) in living entities and classical examples of the mathematical thought in genetic (Darwin, Mendel, Morgan, Sturtevant, trees of sequences…) and the traditional discussion/controversy on the nature of Life. Then we present a mathematical counterpart to the question “What is Life?”, indicate possible role of mathematics in the future bioengineering and conclude with the current and projected numerical data on the human role in ecology of Earth.

Wednesday 10 April 2024, 14:15 at IPHT, Salle Claude Itzykson, Bât. 774 IPHT-MAT (Séminaire de matrices, cordes et géométries aléatoires) hep-th
Alessandro Testa ( U. Parma ) Supersymmetric Wilson loops in non-conformal N=2 gauge theories and localization
Abstract: Following our recent work (arxiv:2311.17692), we consider 1/2 BPS supersymmetric circular Wilson loops in four-dimensional N = 2 SU(N) supersymmetric Yang-Mills theories with massless matter in a generic representation of the gauge group and a non-vanishing β-function. On the four-sphere S^4, we can employ supersymmetric localization to map these observable into a matrix model, provided that the one-loop determinants are consistently regularized. After constructing the regularized matrix model for these set-ups, we will demonstrate that the predictions for the Wilson loop at order g^4 match standard perturbative renormalization, based on the evaluation of Feynman diagrams, both on the sphere and also in flat space, despite conformal symmetry being broken at the quantum level. Moreover, I will revisit the difference theory approach, showing that when β-function is non-vanishing this method does not account for the presence of evanescent terms which are activated by the renormalization procedure and contribute to the renormalized observable at order g^6.

Tuesday 16 April 2024, 14:00 at IHES, Amphithéâtre Léon Motchane
( Cours de l'IHES )
PT-IHES (Séminaire de physique théorique de l'IHES) hep-th
Clement Delcamp ( IHES ) Topological Symmetry and Duality in Quantum Lattice Models (1/4)
Abstract: A modern perspective on symmetry in quantum theories identifies the topological invariance of a symmetry operator within correlation functions as its defining property. In addition to suggesting generalised notions of symmetry, this viewpoint enables a calculus of topological defects, which has a strong category-theoretic flavour, that leverages well-established methods from topological quantum field theory. Focusing on finite symmetries, I will delve during these lectures into a realisation of this program in the context of one-dimensional quantum lattice models. Concretely, I will present a framework for systematically investigating lattice Hamiltonians, elucidating their symmetry operators, defining duality/gauging transformations and computing the mapping of topological sectors through such transformations. Moreover, I will comment on the classification of gapped symmetric phases for generalised symmetry and the construction of the corresponding order/disorder parameters. I will provide explicit treatments of familiar physical systems from condensed matter theory, shedding light on celebrated results and offering resolutions to certain open problems. Time permitting, I will briefly touch upon generalisations to higher dimensions and implications to numerical simulations.

Tuesday 16 April 2024, 14:00 at IHES, Centre de conférences Marilyn et James Simons
( Cours de l'IHES )
MATH-IHES (TBA) math
Misha Gromov ( IHES ) Beauty of Life seen through Keyhole of Mathematics (4/4)
Abstract: We start with reminding basic molecular structures (Crick dogma, genetic code etc.) in living entities and classical examples of the mathematical thought in genetic (Darwin, Mendel, Morgan, Sturtevant, trees of sequences…) and the traditional discussion/controversy on the nature of Life. Then we present a mathematical counterpart to the question “What is Life?”, indicate possible role of mathematics in the future bioengineering and conclude with the current and projected numerical data on the human role in ecology of Earth.

Monday 22 April 2024, 13:30 at LPENS, U209 LPENS-MDQ (Séminaire Matériaux et Dispositifs Quantiques du LPENS) cond-mat
Ferrucio Renzoni ( University College, London ) TBA

Tuesday 23 April 2024, 11:00 at IPHT, Amphi Claude Bloch, Bât. 774 IPHT-GEN (Séminaire général du SPhT) physics
Sophie Szopa ( LSCE ) TBA (Climate and air quality)
Abstract: TBA

Tuesday 23 April 2024, 11:00 at LPTMS, Salle des séminaires du FAST et du LPTMS, bâtiment Pascal n°530 LPTMS (Séminaire du Laboratoire de Physique Théorique et Modèles Statistiques (Orsay)) cond-mat.stat-mech
Alessio Lerose ( University of Oxford ) TBA

Tuesday 23 April 2024, 14:00 at IHES, Amphithéâtre Léon Motchane
( Cours de l'IHES )
PT-IHES (Séminaire de physique théorique de l'IHES) hep-th
Clement Delcamp ( IHES ) Topological Symmetry and Duality in Quantum Lattice Models (2/4)
Abstract: A modern perspective on symmetry in quantum theories identifies the topological invariance of a symmetry operator within correlation functions as its defining property. In addition to suggesting generalised notions of symmetry, this viewpoint enables a calculus of topological defects, which has a strong category-theoretic flavour, that leverages well-established methods from topological quantum field theory. Focusing on finite symmetries, I will delve during these lectures into a realisation of this program in the context of one-dimensional quantum lattice models. Concretely, I will present a framework for systematically investigating lattice Hamiltonians, elucidating their symmetry operators, defining duality/gauging transformations and computing the mapping of topological sectors through such transformations. Moreover, I will comment on the classification of gapped symmetric phases for generalised symmetry and the construction of the corresponding order/disorder parameters. I will provide explicit treatments of familiar physical systems from condensed matter theory, shedding light on celebrated results and offering resolutions to certain open problems. Time permitting, I will briefly touch upon generalisations to higher dimensions and implications to numerical simulations.

Wednesday 24 April 2024, 13:30 at DPT-PHYS-ENS, ConfIV (E244) - Dépt de Physique de l'ENS - 24 rue Lhomond 75005 PARIS COLLOQUIUM-ENS (Colloquium of the Physics Department of ENS) physics
Kallia Petraki TBA

Tuesday 30 April 2024, 11:00 at LPTMS, Online seminar LPTMS (Séminaire du Laboratoire de Physique Théorique et Modèles Statistiques (Orsay)) cond-mat.stat-mech
Berislav Buca ( Niels Bohr Institute ) TBA

Tuesday 30 April 2024, 14:00 at IHES, Amphithéâtre Léon Motchane
( Cours de l'IHES )
PT-IHES (Séminaire de physique théorique de l'IHES) hep-th
Clement Delcamp ( IHES ) Topological Symmetry and Duality in Quantum Lattice Models (3/4)
Abstract: A modern perspective on symmetry in quantum theories identifies the topological invariance of a symmetry operator within correlation functions as its defining property. In addition to suggesting generalised notions of symmetry, this viewpoint enables a calculus of topological defects, which has a strong category-theoretic flavour, that leverages well-established methods from topological quantum field theory. Focusing on finite symmetries, I will delve during these lectures into a realisation of this program in the context of one-dimensional quantum lattice models. Concretely, I will present a framework for systematically investigating lattice Hamiltonians, elucidating their symmetry operators, defining duality/gauging transformations and computing the mapping of topological sectors through such transformations. Moreover, I will comment on the classification of gapped symmetric phases for generalised symmetry and the construction of the corresponding order/disorder parameters. I will provide explicit treatments of familiar physical systems from condensed matter theory, shedding light on celebrated results and offering resolutions to certain open problems. Time permitting, I will briefly touch upon generalisations to higher dimensions and implications to numerical simulations.

Thursday 2 May 2024, 14:00 at LPTMC, LPTMC seminar room, Jussieu, towers 12-13, 5th floor, room 523 SEM-EXCEP (Seminaire exceptionnel) cond-mat
Dganit Meidan ( BGU ) Theory of free fermion dynamics – from monitored to post selected evolution
Abstract: Monitored quantum systems undergo Measurement-induced Phase Transitions (MiPTs) stemming from the interplay between measurements and unitary dynamics. When the detector readout is post- selected to match a given value, the dynamics is generated by a Non-Hermitian Hamiltonian with MiPTs characterized by different universal features. Here, we derive a partial post-selected stochastic Schrodinger equation based on a microscopic description of continuous weak measurement. This formalism connects the monitored and post-selected dynamics to a broader family of stochastic evolution. We apply the formalism to a chain of free fermions subject to partial post-selected monitoring of local fermion parities. Within a 2-replica approach, we obtained an effective bosonized Hamiltonian in the strong post-selected limit. Using a renormalization group analysis, we find that the universality of the non-Hermitian MiPT is stable against a finite (weak) amount of stochasticity. We further show that the passage to the monitored universality occurs abruptly at finite partial post-selection, which we confirm from the numerical finite size scaling of the MiPT. Our approach establishes a way to study MiPTs for arbitrary subsets of quantum trajectories and provides a potential route to tackle the experimental post-selected problem.

Friday 3 May 2024, 14:00 at IHES, Amphithéâtre Léon Motchane
( Cours de l'IHES )
PT-IHES (Séminaire de physique théorique de l'IHES) hep-th
Clement Delcamp ( IHES ) Topological Symmetry and Duality in Quantum Lattice Models (4/4)
Abstract: A modern perspective on symmetry in quantum theories identifies the topological invariance of a symmetry operator within correlation functions as its defining property. In addition to suggesting generalised notions of symmetry, this viewpoint enables a calculus of topological defects, which has a strong category-theoretic flavour, that leverages well-established methods from topological quantum field theory. Focusing on finite symmetries, I will delve during these lectures into a realisation of this program in the context of one-dimensional quantum lattice models. Concretely, I will present a framework for systematically investigating lattice Hamiltonians, elucidating their symmetry operators, defining duality/gauging transformations and computing the mapping of topological sectors through such transformations. Moreover, I will comment on the classification of gapped symmetric phases for generalised symmetry and the construction of the corresponding order/disorder parameters. I will provide explicit treatments of familiar physical systems from condensed matter theory, shedding light on celebrated results and offering resolutions to certain open problems. Time permitting, I will briefly touch upon generalisations to higher dimensions and implications to numerical simulations.

Monday 13 May 2024, 10:45 at LPTMC, campus Jussieu, couloir 12-13, 5ème étage, salle 5-23 SEM-LPTMC (Séminaire du Laboratoire de Physique Théorique de la Matière Condensée) cond-mat
Denis Ullmo TBA

Tuesday 14 May 2024, 11:00 at LPTMS, Salle des séminaires du FAST et du LPTMS, bâtiment Pascal n°530 LPTMS (Séminaire du Laboratoire de Physique Théorique et Modèles Statistiques (Orsay)) cond-mat.stat-mech
Clément Sire ( LPT Toulouse ) When poor little fish are confronted with AI, robot-fish, virtual reality, and drones
Abstract: After introducing the collective behaviors observed in fish schools, I will outline a methodology for quantitatively measuring social interactions (attraction/repulsion; alignment) within animal groups. The reconstructed interactions can then be directly implemented in analytical models which quantitatively reproduce the collective motion of fish. I will also briefly address an alternative machine learning approach designed to produce realistic fish trajectories. In the latter part of the presentation, I will explore various applications of such analytical or machine learning behavioral models in the context of robotic and drone platforms, and a virtual reality setup… for fish! In particular, our robot-fish and VR setups constitute original and powerful tools to study the social dynamics of fish and their response to controlled perturbations.

Wednesday 15 May 2024, 13:30 at DPT-PHYS-ENS, ConfIV (E244) - Dépt de Physique de l'ENS - 24 rue Lhomond 75005 PARIS COLLOQUIUM-ENS (Colloquium of the Physics Department of ENS) physics
Raymond E. Goldstein TBA
Abstract: TBA

Tuesday 21 May 2024, 11:00 at LPTMS, Salle des séminaires du FAST et du LPTMS LPTMS (Séminaire du Laboratoire de Physique Théorique et Modèles Statistiques (Orsay)) cond-mat.stat-mech
Ricardo Marino ( Google Paris ) TBA

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