Programmes-cadres européens de la recherche et de l’innovation.
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\r\nVotre laboratoire participe à un ou plusieurs projets européens et une de vos missions est d’en assurer une gestion efficace au niveaux administratif, financier et celui des ressources humaines ? Pour cela, il est important de prendre le temps de vous familiariser avec la structure de ces projets et avec certaines règles de gestion qui leurs sont spécifiques.
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\r\nCette formation vous propose de prendre connaissance des documents contractuels et de leur contenu qui est utile pour votre gestion. Les règles de gestion administrative, financière et RH seront présentées et discutées en se basant sur des cas pratiques.
\r\nLa formation permettra aussi aux participants de se familiariser avec le portail européen et la plateforme de reporting du SEFRI.
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\r\nIl est recommandé de suivre cette formation le plus tôt possible, idéalement vers le commencement du projet.
Eine App programmieren? Ein Computerspiel erfinden? Eine Animation gestalten?
\r\nWenn dich eines dieser Dinge interessiert, bist du hier am richtigen Ort! Tausche und teile deine Ideen, lerne zu programmieren und entdecke Informatikberufe.
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\r\nDie Coding Club for Girls Workshops sind für Mädchen im Alter von 11 bis 15 Jahren und die Teilnahme ist kostenlos. Ab der Teilnahme an vier Workshops pro Jahr wird eine Teilnahmebestätigung ausgehändigt.
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\r\nOrt: Benedict Schule, Bern
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\r\nDatum und Zeit:
\r\n05. September 2026 : 09:30 bis 12:00 oder 13:30 bis 16:00 Uhr // Scratch-me
\r\n12. September 2026 : 09:30 bis 12:00 oder 13:30 bis 16:00 Uhr // Minitel
\r\n17. Oktober 2026 : 09:30 bis 12:00 oder 13:30 bis 16:00 Uhr // Snake-it
\r\n24. Oktober 2026 : 09:30 bis 12:00 oder 13:30 bis 16:00 Uhr // Webdesignerin
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\r\nDie Inhalte der Workshops sind untenstehend beschrieben.
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\r\nBedingungen\r\n
Eine App programmieren? Ein Computerspiel erfinden? Eine Animation gestalten?
\r\nWenn dich eines dieser Dinge interessiert, bist du hier am richtigen Ort! Tausche und teile deine Ideen, lerne zu programmieren und entdecke Informatikberufe.
\r\n
\r\nDie Coding Club for Girls Workshops sind für Mädchen im Alter von 11 bis 15 Jahren und die Teilnahme ist kostenlos. Ab der Teilnahme an vier Workshops pro Jahr wird eine Teilnahmebestätigung ausgehändigt.
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\r\nOrt: Kantonschule Musegg, Luzern
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\r\nDatum und Zeit:
\r\n14. November 2026 : 09:30 bis 12:00 oder 13:30 bis 16:00 Uhr // Hello 3D World
\r\n28. November 2026 : 09:30 bis 12:00 oder 13:30 bis 16:00 Uhr // Webdesignerin
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\r\nDie Inhalte der Workshops sind untenstehend beschrieben.
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\r\nBedingungen\r\n
Eine App programmieren? Ein Computerspiel erfinden? Eine Animation gestalten?
\r\nWenn dich eines dieser Dinge interessiert, bist du hier am richtigen Ort! Tausche und teile deine Ideen, lerne zu programmieren und entdecke Informatikberufe.
\r\n
\r\nDie Coding Club for Girls Workshops sind für Mädchen im Alter von 11 bis 15 Jahren und die Teilnahme ist kostenlos. Ab der Teilnahme an vier Workshops pro Jahr wird eine Teilnahmebestätigung ausgehändigt.
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\r\nOrt: Kantonsschule, Zug
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\r\nDatum und Zeit:
\r\n14. November 2026 : 09:30 bis 12:00 oder 13:30 bis 16:00 Uhr // Schildkröte in Python
\r\n28. November 2026 : 09:30 bis 12:00 oder 13:30 bis 16:00 Uhr // Mit Computern chatten
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\r\nDie Inhalte der Workshops sind untenstehend beschrieben.
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\r\nBedingungen\r\n
Please join us for the Junior Quantum Seminar with Gaia Bolognini from the Laboratory for Quantum Gases (LQG), IPHYS, EPFL who will give the talk \"Density Wave Ordering in Strongly Interacting Fermi Gases\" and Emanuele Tirrito from the Laboratory of Theoretical Physics of Nanosystems (LTPN), IPHYS, EPFL who will give the talk \"Quantum Complexity in Many-Body Systems: From Entanglement to Magic\" on Tuesday June 2nd from 9h30-11h.
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\r\nPLEASE NOTE: The Junior Quantum Series are for gathering the junior quantum community of master's students, PhDs and post-docs at EPFL, to create a non-judgmental space were scientific ideas can be shared between peers. This event is not for Professors or senior researchers.
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\r\nABTRACT:
\r\n1. Density Wave Ordering in Strongly Interacting Fermi Gases
\r\nAnalog quantum simulations using ultracold atoms offer exciting opportunities to investigate many-body systems in highly controllable and tunable settings. While most studies have focused on simulation of systems with short-range interactions, their interplay with long-range interactions remains largely unexplored.
\r\nIn our experimental platform, the atomic ensemble is strongly coupled to a high finesse optical resonator, whose photons mediate an effective long-range interaction among the particles. Upon reaching a critical long-range interaction strength, the system undergoes a phase transition into a density wave ordered state, characterized by the superradiant build-up of the cavity field and the atomic self-organisation into a crystalline lattice. While this phenomenon has been extensively studied in bosonic quantum gases, we explore the effect of this transition in a degenerate two-component Fermi gas with tunable short-range interactions.
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\r\nI will present our recent experimental results, where high-resolution microscopy yields the first real-space observation of the periodic density modulation characterizing the density-wave ordered state. Moreover, the micrometer-scale resolution gives access to high-frequency spatial correlations of the gas in both the density and magnetization observables, and enables precise shaping of the trapping potential - significantly expanding the degree of control over the many-body state.
\r\nWe make use of this versatile platform to explore the interplay between the cavity field and the atomic ordering and to investigate how the many-body state of the paired Fermi gas is reshaped by the cavity mediated long-range interactions.
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\r\n2. Quantum Complexity in Many-Body Systems: From Entanglement to Magic
\r\nUnderstanding what makes a quantum many-body state complex is a central question in quantum information, quantum computation, and condensed matter physics. Traditionally, entanglement has played a central role in this discussion: it captures genuinely quantum correlations, constrains classical simulability, and provides a powerful diagnostic of phases of matter and out-of-equilibrium dynamics. However, entanglement alone does not fully characterize the computational complexity of quantum states. In particular, highly entangled states can sometimes be efficiently simulated, while universal quantum computation requires an additional resource known as magic, or non-stabilizerness.
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\r\nIn this talk, I will give a broad introduction to quantum complexity in many-body systems, focusing on the complementary roles of entanglement and magic. I will explain the physical meaning of magic, its connection to stabilizer states and Clifford circuits, and why it is necessary for quantum computational advantage. I will then discuss how magic can be generated and diagnosed in many-body dynamics, and how it provides new insight into questions such as thermalization, quantum chaos, transport, and classical simulability.
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\r\nBIO:
\r\nGaia Bolognini is currently a third year PhD student in the Laboratory for Quantum Gases (LQG) at EPFL under the supervision of professor Jean-Philippe Brantut. Her research focuses on atomic interacting matter, quantum gases and cavity quantum electrodynamics. She obtained her Master's degree at EPFL, where she focused on the assembly and the design of a new technology for quantum gas experiments, the 'cavity-microscope'. She obtained her Bachelor's degree at University of Milano-Bicocca, in my hometown.
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\r\nEmanuele Tirrito obtained his Master’s degree in Physics from the University of Pisa, working on relaxation and prethermalization in one-dimensional quantum systems. He then completed his PhD at ICFO in Barcelona, where he studied topological phases of matter and developed tensor-network methods for strongly correlated systems. After postdoctoral positions at SISSA, the University of Trento, and ICTP, his research has progressively moved toward quantum information aspects of many-body physics, with a particular focus on entanglement, non-stabilizerness or “magic”, measurement-induced transitions, and quantum simulation. He is currently an SNSF Postdoctoral Fellow at EPFL.
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An abundance of systems has been studied as potential models of artificial life: from classical discrete cellular automata, to their randomized versions such as random Boolean networks, continuous systems including neural CAs or Lenia systems, or even simple programming languages. In this workshop, we would like to focus on the fundamental question of how to measure the complexity of such systems and detect emerging patterns within them. The conference will be held at EPFL Bernoulli Center.
\r\nMore information : https://www.dem.eco/