Past seminars

2018 seminars
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We revisit the calculation of multi-interval modular Hamiltonians for free fermions using a Euclidean path integral approach. We show how the multi-interval modular flow is obtained by gluing together the single interval modular flows. Our methods are based on a derivation of the non-local field theory describing the reduced density matrix, and makes manifest its non-local conformal symmetry and U(1) symmetry. We will show how the non local conformal symmetry provides a simple calculation of the entanglement entropy. Time-permitting, we will connect multi-interval modular flows to the frame work of extended quantum field theory.
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September 18, 2018
11:00
SISSA, Room 128
Gabriel Wong
Gluing together modular flows with free fermions
Consider a quantum chain in its ground state and then take a subdomain of this system with natural truncated Hamiltonian. Since the total Hamiltonian does not commute with the truncated Hamiltonian the subsystem can be in one of its eigenenergies with different probabilities. Since the global energy eigenstates are locally close to diagonal in the local energy eigenbasis we argue that the Shannon (Rényi) entropy of these probabilities follows an area-law for the gapped systems. When the system is at the critical point the Shannon (Rényi) entropy follows a logarithmic behaviour with a universal coefficient. Our results show that the Shannon (Rényi) entropy of the subsystem energies closely mimics the behaviour of the entanglement entropy in quantum chains. We support the arguments by detailed numerical calculations performed on the transverse field XY chain.
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July 31, 2018
11:10
ICTP, Stasi Room
Mohammad Ali Rajabpour
Area-law and universality in the statistics of the subsystem energy
Integrated Information Theory (IIT) has emerged as one of the leading research lines in computational neuroscience to provide a mechanistic and mathematically well-defined description of the neural correlates of consciousness. Integrated Information quantifies how much the integrated cause/effect structure of the global neural network fails to be accounted for by any partitioned version of it. The holistic IIT approach is in principle applicable to any information-processing dynamical network regardless of its interpretation in the context of consciousness. In this talk I will describe the first steps towards a possible formulation of a general and consistent version of IIT for interacting networks of quantum systems irrespective of potential applications to consciousness. A variety of different phases, from the dis-integrated to the holistic one can be identified and their cross-overs studied.
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July 3, 2018
11:00
SISSA, Room 128
Paolo Zanardi
Quantum Integrated Information Theory
Models for active matter have brought a new type of experiments in statistical physics where the source of nonequilibrium lies within the particles themselves or on their surface. In this talk, I will take the viewpoint of molecular simulations to study matching experiments on chemically-powered anomotors: self-propulsion by symmetry-breaking, chemotaxis, sedimentation and anisotropic nanomotors. I will comment on the design of consistent microscopic models with respect to energy conservation, to chemical kinetic, and to thermal fluctuations. As a perspective, I will discuss enzyme nanomotors. On the one hand, they consist in elaborate catalytic devices with interesting thermodynamic properties and on the other hand they might inspire or serve as molecular scale machine for nano- and bio-technology in the coming years.
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June 19, 2018
11:00
SISSA, Room 128
Pierre de Buyl
Nanomotors: symmetry, chemotaxis, sedimentation and anisotropy
The partial transpose of density matrices in many-body systems has been known as a good candidate to diagnose quantum entanglement of mixed states. In particular, it can be used to define the (logarithmic) entanglement negativity for bosonic systems. In this talk, I introduce partial time-reversal transformation as an analog of partial transpose for fermions. This definition naturally arises from the spacetime picture of partially transposed density matrices in which partial transpose is equivalent to reversing the arrow of time for one subsystem relative to the other subsystem. I show the success of this definition in capturing the entanglement of fermionic symmetry-protected topological phases as well as conformal field theories in (1+1) dimensions.
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June 18, 2018
11:00
SISSA, Room 128
Hassan Shapourian
Partial time-reversal transformation and entanglement negativity in fermionic systems
The Schur process is in some sense a discrete analogue of a random matrix. Their edge behavior are known to be in the same universality class, described by the Airy kernel and the Tracy–Widom distribution. In this talk we consider two variants of the Schur process: the periodic case introduced by Borodin, and the “free boundary” case recently introduced by us. We are able to compute their correlation functions in a unified manner using the machinery of free fermions. We then investigate the edge asymptotic behavior and show it corresponds to two nontrivial deformations of the Airy kernel and of the Tracy–Widom distribution. Based on joint work with Dan Betea, Peter Nejjar and Mirjana Vuletić.
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May 29, 2018
11:00
SISSA, Room 128
Jeremie Bouttier
Edge behavior of the periodic and the free boundary Schur processes
Every physicist has a pretty clear idea of how to define equilibrium phases of matter (e.g. using free energy considerations), whether disordered or ordered (and if ordered, a variety of situations can be encountered). By contrast, dynamics-wise, no generic and clear-cut definition a dynamical phase (disordered, intermittent, uniform, ergodicity-breaking, pattern-forming, etc) can be found. Instead, one works on a system-to-system basis.
I will illustrate, on the simple example of a classical system of mutually excluding particles diffusing on a line, how a robust definition of what a dynamical phase is can be achieved. As I will go along, we will see that there may even exist transitions between dynamical phases. On a formal level, these dynamical transitions have everything in common with the quantum phase transitions that appear in hard-condensed matter. I will show that, in turn, approaching quantum problems with a classical eye, can, even with the simple example I’ll discuss, lead to unexpected progress on the quantum side.
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May 8, 2018
11:00
SISSA, Room 128
Frédéric van Wijland
Dynamical phase transitions
This talk addresses the low energy physics of the Sachdev–Ye–Kitaev model, a paradigm of strongly interacting (Majorana) quantum matter. A salient feature of this system is its exceptionally high degree of symmetry under reparameterizations of physical time. At low energies this symmetry is spontaneously broken and the ensuing infinite dimensional Goldstone mode manifold takes strong influence on all physical observables. We will discuss the effects of these fluctuations on the example of the so-called out of time ordered correlation functions, diagnostic tools to describe both manifestations of quantum chaos in the system and its conjectured duality to an AdS2 gravitational bulk. While previous work predicts exponential decay of these correlations in time our main finding is that at large time scales non-perturbative Goldstone mode fluctuations generate a crossover to power law behavior. This phenomenon must have ramifications in the physics of the holographic bulk which, however, we do not understand at present.
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April 24, 2018
11:00
ICTP, Stasi Room
Alex Altland
Large Conformal Goldstone Mode Fluctuations in the SYK Model
The grand canonical ensemble lies at the core of quantum and classical statistical mechanics. A small system thermalizes to this ensemble while exchanging heat and particles with a bath. A quantum system may exchange quantities represented by operators that fail to commute. Whether such a system thermalizes and what form the thermal state has are questions about truly quantum thermodynamics. Here we investigate this thermal state from three perspectives. First, we introduce an approximate microcanonical ensemble. If this ensemble characterizes the system-and-bath composite, tracing out the bath yields the system’s thermal state. This state is expected to be the equilibrium point, we argue, of typical dynamics. Finally, we define a resource-theory model for thermodynamic exchanges of noncommuting observables. Complete passivity — the inability to extract work from equilibrium states — ​implies the thermal state’s form, too. Our work opens new avenues into equilibrium in the presence of quantum noncommutation.
[Based on 1512.01189 with N. Yunger Halpern, P. Faist and J. Oppenheim.]
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April 17, 2018
11:00
ICTP, Stasi Room
Andreas Winter
Microcanonical and resource-theoretic derivations of the grand canonical thermal state of a system with non-commuting charges
In this talk I will describe our work on the simulation of the Schwinger model (i.e. d=1+1 QED) with matrix product states (MPS). I will discuss some systematic aspects of our approach like the truncation of the local infinite bosonic gauge field Hilbert space, or the incorporation of local gauge invariance into the MPS ansatz. Furthermore, I will go through some of our results: the simulation of the particle excitations (“mesons” of confined electron/positron pairs), of string breaking for heavy probe charges and last but not least of the real-time evolution that occurs from a background electric field quench (i.e. the full quantum Schwinger effect).
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March 27, 2018
11:00
ICTP, Stasi Room
Karel Van Acoleyen
Matrix product states for relativistic quantum gauge field theories
I will first start with a general introduction on theoretical ecology, stressing the reasons that make connections with statistical physics interesting and timely.
I will then focus on Lotka–Volterra equations, which provide a general model to study large assemblies of strongly interacting degrees of freedom in many different fields: biology, economy and in particular ecology. I will present our analysis of Lotka–Volterra equations as model of ecosystems formed by a large number of species and show the different phases that emerge. Two of them are particularly interesting: when interactions are symmetric we find a regime characterised by an exponential number of multiple equilibria, all poised at the edge of stability for a large number of species. For non symmetric interactions, this phase is replaced by a chaotic one. I will then conclude discussing relationships with experiments and general consequences of our works.
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March 21, 2018
11:00
SISSA, Room 005
Giulio Biroli
Emergent phenomena in large interacting ecosystems
I will discuss several recent results, both numerical and analytical, regarding disordered models in external field, focusing mainly on random field ferromagnetic models and spin glasses in a field. I will mainly treat models with Ising variables, but also some new results on XY models will be presented. Exact analytical results are derived for models defined on random graphs under the Bethe approximation, while numerical results are obtained via large scale Monte Carlo simulations for finite dimensional models and via improved message passing algorithms for models on random graphs.
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March 13, 2018
11:00
SISSA, Room 128
Federico Ricci-Tersenghi
On the complex behavior of disordered models in a field
In August 1859 the young and still little known Bernhard Riemann presented a paper to the Berlin Academic titled “On the number of primes less than a given quantity”. In the middle of that paper, Riemann made a guess — remark or conjecture — on the zeros of analytic function which controls the growth of the primes. Mathematics has never been the same since.
The seminar presents the captivating story behind this problem and discusses how the original conjecture can be extended to all Dirichlet functions, giving rise to the Generalised Riemann Hypothesis for the non-trivial zeros of all these functions. We show that the solution of the Generalised Riemann Hypothesis can be obtained employing ideas and methods which come statistical physics, i.e. from the stochastic world of random walks and alike.
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February 28, 2018
11:00
SISSA, Room 128
Giuseppe Mussardo
The Riemann conjecture
We study the XXZ spin chain in the presence of a slowly varying magnetic field gradient. First, it is shown that a local density approximation perfectly captures the ground-state magnetization profile. Furthermore, we demonstrate how the recently introduced technique of curved-spacetime CFT yields a very good approximation of the entanglement profile. Finally, the front dynamics is also studied after the gradient field has been switched off.
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February 27, 2018
11:00
SISSA, Room 005
Viktor Eisler
Entanglement in the XXZ chain with a gradient
(Boltzmann lecture) I will address one of the fundamental questions in statistical physics: how to conciliate the laws of quantum mechanics for a macroscopic system — which predict a memory of the initial state of the system — with the familiar irreversible phenomena that bring any extended system to a thermal equilibrium, where all memory of the initial state is lost. I will present a series of new results on cold atom quantum systems made of mixtures of fermions, which lead to a physical phenomenon known as Many Body Localization Transition. Moreover, I will discuss the possibility to realize quantum systems with negative temperature in the laboratory.
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February 20, 2018
11:00
SISSA, Room 128
Immanuel Bloch
Using Ultracold Quantum Gases to Probe New and Old Frontiers of Statistical Physics
The Tan’s contact is an ubiquitous quantity in systems with zero-range interactions: it corresponds for example to the average interaction energy, to the weight of the tails of the momentum distribution function at large momenta, to the inelastic two-body loss rate, just to cite a few. We focus on strongly interacting one-dimensional bosons at finite temperature under harmonic confinement. As it is associated to short-distance correlations, the calculation of the Tan’s contact cannot be obtained within the Luttinger-liquid formalism. We derive the Tan’s contact by employing an exact solution at infinite interactions, as well as a local-density approximation on the Bethe Ansatz solution for the homogeneous system and numerical ab initio calculations for finite interactions. In the limit of infinite interactions, we demonstrate its universal properties, associated to the scale invariance of the model. We then obtain the full scaling function for arbitrary interactions.
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February 19, 2018
11:00
ICTP, Stasi Room
Anna Minguzzi
Tan’s contact for a strongly interacting one-dimensional Bose gas in harmonic confinement: universal properties and scaling functions
In this talk I will discuss the motion of a tracer particle driven by an external constant force through a quiescent lattice gas. Due to the interaction between the tracer and the bath particles, here modelled as an exclusion process, the driven tracer reaches a steady-state when the external force and the friction exerted by the bath balance each other. The steady-state is characterised by a non equilibrium broad inhomogeneity of the bath density surrounding the driven tracer yielding a rich variety of behaviours. I show that depending on the effective dimension of the lattice, the driven tracer exhibits from sub-diffusive to strong super-diffusive transport in the limit of high of bath particles. Moreover, when more than one driven tracers exist, the external and friction forces mediate an anisotropic attractive interacting force between the tracers, leading to the formation of clusters. I will show through numerical results that such scenario extends into continuous-space and continuous-time dynamics.
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February 13, 2018
11:00
SISSA, Room 128
Carlos Mejía Monasterio
Driven tracer in quiescent baths: anomalous diffusion and induced-interaction
Irreversibility, which is usually quantified by the entropy production, is one of the most fundamental concepts in thermodynamics, with deep scientific and technological consequences. It is also an emergent concept, that stems from the complex interactions between a system and its environment. However, as will be discussed in this talk, the standard theory of entropy production breaks down in the quantum case, in particular in the limit of zero temperature. Motivated by this, I will present recent results which overcome these difficulties using the idea of phase space entropy measures for bosonic systems. As I will show, our theory not only overcomes the zero temperature limitations but also allows one to extend the results to deal with non-equilibrium reservoirs. As an application, we will consider squeezed thermal baths, which are instance of a grand-canonical Generalized Gibbs Ensemble and therefore allow us to construct an Onsager transport theory, akin to the theory of thermoelectricity. Finally, I will also discuss how entropy production emerges from the perspective of the environment and the system environment correlations.
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February 6, 2018
11:00
SISSA, Room 128
Gabriel Landi
Measures of irreversibility in quantum phase space
We present a new method to compute Rényi entropies in one-dimensional critical systems using the mapping of the Nth Rényi entropy to a correlation function involving twist fields in a ℤN cyclic orbifold. When the CFT describing the universality class of the critical system is rational, so is the corresponding cyclic orbifold. It follows that the twist fields are degenerate: they have null vectors. From these null vectors a Fuchsian differential equation is derived, although this step can be rather involved since the null-vector conditions generically involve fractional modes of the orbifold algebra. The last step is to solve this differential equation and build a monodromy invariant correlation function, which is done using standard bootstrap methods. This method is applicable in a variety of situations where no other method is available, for instance when the subsystem A is not connected (e.g. two-intervals EE).
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January 30, 2018
11:00
SISSA, Room 128
Benoit Estienne
Entanglement entropies of 1d critical systems, orbifold and null-vectors
By the eigenstate thermalization hypothesis (ETH), a highly excited energy eigenstate behaves like a thermal state. It is related to the black hole information paradox by the AdS/CFT correspondence. I will talk about ETH in two-dimensional large central charge CFT and compare the excited state of a primary operator with the thermal state. To define ETH precisely, one needs to know how similar, or equivalently dissimilar, the excited state and thermal state are. I will talk about short interval expansions of the entanglement entropy, relative entropy, Jensen–Shannon divergence. For the canonical ensemble, the excited state and thermal state are the same at the leading order of large central charge and are different at the next-to-leading order. I will also discuss briefly ETH for generalized Gibbs ensemble, and ETH for the descendant excited states.
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January 25, 2018
14:00
SISSA, Room 138
Jia-Ju Zhang
Eigenstate thermalization hypothesis in two-dimensional large central charge CFT
In this talk I will motivate the interest for studying SU(N) quantum magnetism, and present three recent results on:
i) a microscopic model exhibiting SU(N) chiral spin liquids and their characterization,
ii) the phase diagram of SU(N) two-leg spin ladders and
iii) finite temperature “phase diagrams” of SU(N) Heisenberg models on two-dimensional lattices.
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January 23, 2018
11:00
ICTP, Stasi Room
Andreas Läuchli
SU(N) Quantum Magnetism in 1D and 2D
Recent experiments on large chains of Rydberg atoms [H. Bernien et al., arXiv:1707.04344] have demonstrated the possibility of realizing 1D systems with locally constrained Hilbert spaces, along with some surprising signatures of non-ergodic dynamics, such as persistent oscillations following a quench from the Neel product state. I will argue that this phenomenon is a manifestation of a “quantum many-body scar”, i.e., a concentration of extensively many eigenstates of the system around special many-body states. The special states are analogs of unstable classical periodic orbits in the single-particle quantum scars. I will present a model based on a single particle hopping on the Hilbert space graph, which quantitatively captures the scarred wave functions up to large systems of 32 atoms. These results suggest that scarred many-body bands give rise to a new universality class of quantum dynamics, which opens up opportunities for creating and manipulating novel states with long-lived coherence in systems that are now amenable to experimental study.
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January 16, 2018
11:00
ICTP, Stasi Room
Zlatko Papic
Quantum Many-body Scars and Non-ergodic Dynamics in the Fibonacci Chain
Strongly correlated quantum systems exhibit a wide range of phases with unconventional behavior. These phases are characterized by non-trivial global entanglement patterns and cannot be described within the Landau paradigm due to their lack of local order parameters. In my talk, I will discuss how quantum information theory allows us to describe such systems in a way which reconciles their global entanglement with a local description, based on the framework of tensor networks. I will show how tensor networks allow to capture both the structure of the physical interactions as well as global topological entanglement within a unified local description, and how this allows us to build a comprehensive framework to study topologically ordered systems and their excitations. I will then discuss applications of this framework: First, I will show how it allows to characterize the precise nature of topological spin liquids; and second, I will discuss how it can be used to explain topological phase transitions driven by anyon condensation through phases in their entanglement, allowing us to devise measurable order parameters for anyon condensation and thus to study topological phase transitions at a microscopic level.
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January 9, 2018
11:00
ICTP, Stasi Room
Norbert Schuch
Topological Order and Tensor Networks: A Local Perspective on Global Entanglement
2017 seminars
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December 19, 2017
11:00
SISSA, Room 128
Marco Baiesi
Entanglement in protein native states
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December 12, 2017
11:00
ICTP, Stasi Room
Matteo Polettini
Effective thermodynamics for a marginal observer
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December 5, 2017
11:00
ICTP, Stasi Room
Achilleas Lazarides
Floquet Systems-Ensembles and Order Under Periodic Driving
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November 28, 2017
12:00
ICTP, Stasi Room
Alessandro Vezzani
Single big jump and probability condensation in correlated random walks: the case of Lévy Lorentz gas
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November 14, 2016
11:00
SISSA, Room 005
Ingo Peschel
The Entanglement Hamiltonian of a Free-Fermion Chain
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November 7, 2017
11:00
SISSA, Room 128
Maurizio Fagotti
Beyond (first-order) generalized hydrodynamics: why? and how!?
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October 17, 2017
11:00
SISSA, Room 128
Sascha Wald
Thermalisation and Relaxation of Quantum Systems
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October 11, 2017
11:00
SISSA, Room 005
Juan R. Gomez-Solano
Self-propelled colloidal particles in viscoelastic fluids
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October 4, 2017
11:00
SISSA, Room 128
Enrique Rico Ortega
Exploring SO(3) “Nuclear Physics” with Ultra-cold Gases
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September 26, 2017
11:00
SISSA, Big Meeting Room
Alessandro Codello
Functional perturbative RG and CFT data in the ε-expansion
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September 18, 2017
11:00
ICTP, Stasi Room
Markus Müller
Creating Cool Quantum Matter by Non-linear Driving
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September 4, 2017
11:00
SISSA, Room 128
Fabian H.L. Essler
Quantum Master Equations and Integrability
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June 6, 2017
11:00
ICTP, Stasi Room
Pranjal Bordia
Many-Body Localization Through the Lens of Ultracold Quantum Gases
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May 23, 2017
11:00
SISSA, Room 138
Masud Haque
Non-equilibrium dynamics in isolated quantum systems
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May 4, 2017
11:00
SISSA, Room 138
P.K. Mohanty
Zeroth law in non-equilibrium — a hot needle in water
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May 2, 2017
11:00
ICTP, Stasi Room
G. Biroli
Non-Linear Responses, Soft Modes and the True Nature of Glasses
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April 27, 2017
15:00
SISSA, Room 138
S. Sinha
Recent developments in Quantum Chaos
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April 20, 2017
11:00
SISSA, Room 138
A. Bernamonti
Heavy–Heavy–Light–Light correlators in Liouville theory
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April 18, 2017
11:00
ICTP, Stasi Room
R. Moessner
Thermodynamics and Order Beyond Equilibrium — The Physics of Periodically Driven Quantum Systems
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April 12, 2017
14:00
SISSA, Room 138
F. Galli
Entanglement scrambling in 2d CFT
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April 11, 2017
11:00
SISSA, Room 128
G. Santoro
Floquet Topological Insulators? A few warnings
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March 28, 2017
11:00
SISSA, Room 128
F.S. Cataliotti
Quantum Control on an Atom Chip
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March 23, 2017
11:00
SISSA, Room 138
N. Pranjal
Virasoro coadjoint orbits of SYK/tensor-models & Emergent 2-D Quantum Gravity
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March 21, 2017
11:00
ICTP, Stasi Room
A. Rosso
Liouville Field Theory and Log-correlated Random Energy Models
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March 16, 2017
11:00
SISSA, Room 138
A. de Quieroz
Dualities and Symmetries in the Entanglement Entropy of Fermionic Chains
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March 14, 2017
11:00
SISSA, Room 128
T. Roscilde
Quantum correlations: equilibrium and non-equilibrium aspects
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February 28, 2017
11:00
SISSA, Room 128
I. Lesanovsky
Exploring far-from-equilibrium physics of dissipative spin systems with highly excited atoms
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February 21, 2017
12:00
ICTP, Stasi Room
S. Ciliberto
A Protocol for Reaching Equilibrium Arbitrarily Fast
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February 2, 2017
14:00
SISSA, Room 128
J. Viti
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January 26, 2017
11:00
SISSA, Room 128
G. Parisi
The physics of jamming: a journey from marble pebbles toward scaling invariant field theory
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January 17, 2017
11:00
SISSA, Room 128
S. Simon
Big Surprises from Small Quantum Hall Droplets
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January 11, 2017
16:30
SISSA, Room 128
N. Defenu
Watch online
2016 seminars
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November 22, 2016
11:30
SISSA, Room 128
M. Serone
The Effective Bootstrap
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November 15, 2016
11:00
SISSA, Room 128
G. Mussardo
Prime Suspects and Coprime Accomplices: Quantum Tales in Number Theory
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November 8, 2016
11:00
SISSA, Room 128
E. Tartaglia
Logarithmic minimal models with Robin boundary conditions
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October 11, 2016
11:00
SISSA, Room 128
M. Mintchev
Non-equilibrium quantum transport: quantum heat engines and full counting statistics
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October 5, 2016
11:00
SISSA, Room 128
Huan-Qiang Zhou
Fidelity mechanics: analogues of four thermodynamic laws and Landauer’s principle
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October 4, 2016
11:00
SISSA, Room 005
M. Batchelor
Free parafermions
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July 15, 2016
11:00
SISSA, Room 128
Z. Zimboras
Negativity in free fermion systems
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July 12, 2016
11:00
SISSA, Room 128
V. Eisler
Universal front propagation in the XY spin chain with domain wall initial conditions
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June 28, 2016
11:00
SISSA, Room 128
B. Poszgay
Quantum quenches and exact correlations in the Heisenberg spin chains
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June 17, 2016
11:00
SISSA
A. Lode
Fragmentation and correlations of interacting ultracold multicomponent bosons
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May 26, 2016
11:30
ICTP
F. Marquardt
Light, sound and topology
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May 24, 2016
11:00
ICTP
E. Dalla Torre
Parametric resonances: from single atoms to many-body systems
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May 19, 2016
11:00
SISSA, Room 005
A. Jakovac
Functional renormalization group in fermionic systems
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May 10, 2016
11:30
SISSA, Room 005
R. Egger
Multichannel Kondo dynamics and Surface Code from Majorana bound states
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May 6, 2016
11:30
SISSA, Room 005
A. Fring
Non-Hermitian quasi-exactly solvable models of E2 Lie algebraic type
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May 5, 2016
14:30
ICTP, Stasi Room
U. Schneider
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May 3, 2016
11:00
SISSA, Room 005
F. Bouchet
Large deviation theory applied to climate physics, a new frontier of statistical physics
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April 28, 2016
11:30
ICTP, Stasi Room
E. Collini
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April 28, 2016
11:00
SISSA, Room 005
O.A. Castro-Alvaredo
Measures of entanglement from quantum field theory methods
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April 26, 2016
11:00
SISSA, Room 005
B. Doyon
Non-equilibrium energy transport at quantum criticality
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April 22, 2016
14:00
SISSA, Room 005
M. Polini
Hydrodynamic transport, laminar flow, and the AdS/CFT viscosity bound in a graphene field effect transistor
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April 20, 2016
15:30
ICTP, Stasi Room
A. Varlamov
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April 15, 2016
14:30
SISSA, Room 005
J.M. Stephan
Entanglement evolution after inhomogeneous quantum quenches, and the arctic circle
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April 14, 2016
11:30
ICTP, Stasi Room
A.K. Heidelberg
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April 12, 2016
11:00
SISSA, Room 005
J. Dubail
Inhomogeneous quantum systems in 1d: how does one describe them with Conformal Field Theory?
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March 31, 2016
11:30
ICTP, Stasi Room
E. Vesselli
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March 22, 2016
11:00
SISSA, Room 128
J. Kurchan
Darwinian versus thermal optimization
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March 18, 2016
15:00
SISSA, Room 005
R. Sinha
Thermalization with Chemical Potentials, and Higher Spin Black Holes
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March 17, 2016
11:30
ICTP, Stasi Room
D. Fausti
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March 15, 2016
11:30
SISSA, Room 005
S. Diehl
Universal Quantum Physics in Driven Open Many-Body Systems
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March 8, 2016
11:00
SISSA, Room 005
G. Sierra
Entanglement over the Rainbow
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March 3, 2016
14:00
SISSA, Room 128
C. Maes
Driving-induced stability with long-range effects
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February 22, 2016
14:30
ICTP, Stasi Room
M. Kruger
Fluctuation Induced Interactions In and Out of Equilibrium
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February 17, 2016
15:00
ICTP
I. Carusotto
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February 16, 2016
11:00
SISSA, Room 128
W. Krauth
Fast Irreversible Monte Carlo simulations beyond the Metropolis paradigm: Applications to interacting particles and to spin systems
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February 9, 2016
11:00
SISSA, Room 128
T. Fokkema
Supersymmetric lattice models: the field theory connection
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February 2, 2016
11:00
SISSA, Room 128
A. Chiocchetta
Short-time universality and aging in isolated quantum systems
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January 26, 2016
11:00
SISSA, Room 128
F. Corberi
Condensation of large fluctuations in a statistical system

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