/Workshops

Young Research Leaders Group Workshop:
Collective phenomena in driven quantum systems

Mainz, Germany: July 10th - 13th 2018

The workshop will explore situations in which non-equilibrium setups can provide information about many-body systems that cannot be accessed in conventional (linear-response based) probes. Systems of particular interest are materials with strongly competing or frustrated (by disorder, relativistic corrections or geometrical constrains) interactions, or those under extreme quantum conditions (traditionally, very low temperatures and/or very high magnetic fields). These circumstances favor the formation of phases characterized by some sort of topological order, revealing highly entangled ground states and exotic, but experimentally elusive, excitations. Topology provides also the unifying framework to describe the emergence of quantum coherence at the macroscopic scale. These current efforts in solid state goes hand by hand with the design and large-scale control of new types of synthetic quantum matter in driven optical and atomic systems. With this multidisciplinary philosophy in mind, the workshop aims to bring together researchers with expertise in frustrated magnetism, mesoscopic physics (including the quantum Hall effect, Weyl/Dirac semimetals, layered semiconductors and spintronic interfaces), cold atoms, and optical cavities.

Organizers

Ana Asenjo-Garcia (Caltech)
Héctor Ochoa (UCLA)
Kyoung-Whan Kim (Mainz)

 

Participants

Monika Aidelsburger, LMU München
Monica Allen, Stanford
Mitali Banerjee, Weizmann
Michael Buchhold, Caltech
Benedetta Flebus, UCLA
Adolfo G. Grushin, Institut Néel
Loïc Henriet, ICFO
Michael Knap TU, München
Renate Landig, Harvard
Fahad Mahmood, Johns Hopkins
David Mross, Weizmann
Olga Petrova, ENS
Hannah Price, Birmingham
Maksym Serbyn, IST Austria
Justin Song, NTU Singapore
Silvia Viola-Kusminskiy, Max Planck
Brian Zhou, Chicago
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Spintronics meets Neuromorphics

Mainz, Germany: October 08th - 12th 2018

 

An entire suite of novel Neuromorphic computational paradigms, taking inspiration from the functional properties of the brain, has emerged over the past two decades to address the need to efficiently process and analyze the exponential amount of data produced in our Information Age. Research on neural networks, reservoir computers and Boltzmann machines, has demonstrated that it is possible to perform complex computational tasks such as image and pattern recognition at a level comparable to that of a human. All proof-of-concepts have however relied mostly on digital implementations of their respective computational scheme. Whereas this has justified the importance of such techniques, their implementation into scalable and energy efficient analog electronic devices is still much of an open problem. The workshop “Spintronics meets Neuromorphics” aims to show how the challenges posed by neuromorphic computing paradigms can be addressed effectively with spintronics. The low-current tunability, thermal susceptibility and rich dynamics of magnetic thin-film heterostructures offer an ideal toolbox for implementing novel neuromorphic devices. Furthermore, progress in their material science guarantees that promising proof-of-concepts will have a high chance of proving scalable enough to afford industrial production.

The workshop “Spintronics meets Neuromorphics” will bring together leaders of these interdisciplinary fields to facilitate their interaction to the exciting prospects of this emerging scientific landscape. This very young field of bioinspired computing in spintronics lies at the intersection of cutting edge condensed matter physics and advances in artificial intelligence. Recent studies have shown the potential for merging spintronics with the concepts developed neuromorphics. This direction is ideal for creating new paths towards novel computational paradigms and devices. The workshop plans to cover the following topics: Artificial neural networks non-linear dynamics in the brain, brain waves, reservoir computing, associative memories and stochastic computing.

Organizers

Daniele Pinna, JGU Mainz
Karin Everschor-Sitte, JGU Mainz
Julie Grollier, CNRS/Thales lab (France)

Invited Speakers

Johan Akerman, Gothenburg University
George Bourianroff, Intel Corporation (retired)
Daniel Brunner, Femto-st
Kerem Camsari, Purdue University
Dante Chialvo, CEMSC3-UNSAM
Massimiliano Di Ventra, UCSD
Tetsuo Endoh, CIES Tohoku University
Amalio Fernandez-Pacheco, University of Glasgow
Shunsuke Fukami, Tohoku University
Tara Hamilton, Western Sydney University
Laura Heyderman, ETH Zurich
Axel Hoffmann, Argonne National Laboratory
Alexander Khajetoorians, Radboud University
Ferran Macia, Universitat de Barcelona
Alice Mizrahi, NIST
Teodora Petrisor, Thales Group
Philipp Pirro, Technische Universität Kaiserslautern
Wolfgang Porod, University of Notre Dame
Damien Querlioz, Integnano – C2N
Theo Rasing, Radboud University
Mark Stiles, NIST
Eleni Vasilaki, University of Sheffield
Weisheng Zhao, Beihang University
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Program - Spin Cavitronics

Tuesday, May 15th

Morning Session Session Topic: Microwave cavities I

08:30 – 09:00 Registration
09:00 – 09:10 Jairo Sinova, Mainz
Opening Remarks
09:10 – 10:10 Can-Ming HU, Winnipeg
Tutorial: Cavity Spintronics
10:10 – 10:30 Coffee Break
10:30 – 11:00 Hans HUEBL, Garching
Spin-Photon Hybrids
11:10 – 11:40 Michael TOBAR, Crawley
Low Temperature mK Experiments Coupling Photons with Magnon and Spins
12:00 – 13:30 Lunch

Afternoon Session Session Topic: Microwave Cavities II & Magnonics

13:30 – 14:00 Michael FLATTE, Iowa
Designing magnonic crystals for quantum control
14:10 – 14:40 Takis KONTOS, Paris
Mesoscopic quantum electrodynamics with carbon nanotubes
14:40 – 15:00 Coffee Break
15:00 – 16:00 Burkard HILLEBRANDS, Kaiserslautern
Tutorial: Magnonics
16:00 – 16:20 Coffee Break
16:20 – 16:50 Christian BACK, Regensburg
Dynamic detection of spin orbit fields
18:30 – 20:00 Dinner

Wednesday, May 16th

Morning Session Session Topic: Cavity Opto-magnonics

09:00 – 10:00 Hong TANG, New Haven
Tutorial: Cavity Electrodynamics of Magnons
10:10 – 10:40 Silvia KUSMINSKIY, Erlangen
Cavity Optomagnonics nonlinear dynamics and textures
10:40 – 11:00 Coffee Break & Poster Session
11:00 – 11:30 James HAIGH, Cambridge
Enhanced Brillouin light scattering in magneto-optical cavities
11:40 – 12:10 Yaroslav BLANTER, Delft
Light scattering in cavity optomagnonics
12:30 – 15:00 Lunch Break & Poster Session

Afternoon Session Session Topic: Novel Measurement Techniques

15:00 – 16:00 Amir YACOBY, Harvard
Tutorial: Nanoscale Magnetometry
16:10 – 16:40 Georg SCHMIDT, Martin Luther University of Halle-Wittenberg
Making high quality freestanding magnon nanoresonators
16:40 – 17:00 Coffee Break & Poster Session
17:00 – 17:30 Eugene POLZIK, Copenhagen
Quantum photonic interface between spin and mechanical oscillators
17:40 – 18:10 Kazuyuki TAKEDA, Kyoto
Electro-mechano-optical detection of nuclear magnetic resonance
18:30 – 20:00 Dinner

Thursday, May 17th

Morning Session Session Topic: Superconductivity and Molecules

09:00 – 10:00 Koji USAMI, Tokyo
Tutorial: Magnonics in the quantum regime
10:10 – 10:40 Martin WEIDES, Mainz
Electro-magnetic and -magnonic cooperativity
10:40 – 11:00 Coffee Break
11:00 – 11:30 Patrice BERTET, Saclay
Circuit-QED-enhanced magnetic resonance
12:00 – 13:30 Lunch Break

Afternoon Session Session Topic: Spintronics

13:30 – 14:30 Eiji SAITOH, Sendai
Tutorial: Insulator based spin current physics
14:40 – 15:10 Chiara CICCARELLI, Cambridge
Writing, reading and dissipationlessly transferring spin via charge
15:20 – 15:50 Sebastian GÖNNENWEIN, Dresden
Spin current transport in magnetic insulator/metal heterostructures
15:50 – 16:10 Coffee Break
16:10 – 16:40 Yaroslav TSERKOVNYAK, UCLA
Collective spin transport in insulators
16:50 – 17:20 Mathias KLÄUI, Mainz
Spintronics with magnetic insulators
18:30 – 20:00 Dinner

Friday, May 18th

Morning Session Session Topic:Quantum Optics

09:00 – 10:00 Martin KRONER, Zurich
Tutorial: Quantum optics and magnetism in 2D materials
10:10 – 10:40 Jake TAYLOR, Maryland
Spin-photon interfaces and quantum transduction
10:40 – 11:00 Coffee Break
11:00 – 11:30 Andreas NUNNENKAMP, Cambridge
Cavity optomechanics, nonreciprocity and synchronization
11:40 – 12:10 Arno RAUSCHENBEUTEL, Wien
Nonreciprocal Quantum Optical Devices Based on Chiral Interaction of Confined Light with Spin-Polarized Atoms
12:20 – 12:50 Gerrit BAUER, Tohoku & Koji USAMI, Tokyo
Closing Remarks
13:00 – 14:30 Lunch Break
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25.09.2017 – Exotic New States in Superconducting Devices

Exotic New States in Superconducting Devices: The Age of the Interface

Superconducting material such as a ferromagnet, a topological insulator or a semiconductor, a range of electronic states can be induced which are radically different from either constituent material. To be able to probe these states requires a broad range of expertise, spanning basic materials science to fundamental physics modeling of interfaces and transport behaviour. At this meeting we have the opportunity to bring together scientists working on distinct and overlapping areas, such as superconductivity, magnetism, topological materials, quantum computing, and spin-electronics. This science community will have an opportunity to appreciate how these different transport phenomena are linked conceptually and thereby stimulate further understanding particularly with respect to realising useful devices with unique properties for spin-electronics and quantum computing.

Quantum Thermodynamics and Transport

Mainz, Germany: May 8th - 11th 2018


The purpose of this conference is to bring together researchers from the communities of condensed matter, statistical physics, quantum optics and atomic physics with the aim of discussing quantum effects on transport and thermodynamics. The following topics will be covered: quantum heat and work, time-dependent drivings, thermoelectrics, quantum fluctuations, coherence and entanglement. The meeting will contribute to the understanding of fundamental properties of quantum matter out of equilibrium as well as to the development of novel nanodevices.

Organizers

Giulio Casati (Insubria University)
Olena Gomonay (University of Mainz)
Jukka Pekola (Aalto University)
David Sánchez (University of the Balearic Islands)

Invited Speakers

Arrachea, L. (Buenos Aires University)
Benenti, G. (University of Insubria)
Brantut, J.-P. (EPFL, Lausanne)
Fazio, R. (ICTP, Trieste)
Georges, A. (College de France, Paris)
Giamarchi, T. (University of Geneva)
Giazotto, F. (SNS, Pisa)
Jordan, A. (University of Rochester)
Kehrein, S. (University of Göttingen)
Keller, A. (Caltech)
Linke, H. (University of Lund)
Ludovico, F. (SISSA, Trieste)
Meir, Y. (Ben-Gurion University)
Meyer, J. (CEA, Grenoble)
Paternostro, M. (Queen’s University of Belfast)
Poletti, D. (Singapore University for Technology and Design)
Prosen, T. (University of Ljubljana)
Rastelli, G. (University of Konstanz)
Sels, Dries (Boston University)
Splettstösser, J. (Chalmers University)
Talkner, P.(University of Augsburg)
Whitney, R. (CNRS, Grenoble)
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Antiferromagnetic Spintronics

Grenoble, France: October 25th – 27th 2017

Antiferromagnetic materials could represent the future of spintronics thanks to the numerous features they combine: they are robust against perturbation due to magnetic fields, produce no stray fields, display ultrafast dynamics and generate large magnetotransport effects. Research efforts invested in unraveling spin-dependent transport properties of antiferromagnets will be presented and discussed in this workshop.

More information on the workshop can be found here

Organizers
V. Baltz (SPINTEC Grenoble)
A. Manchon (KAUST Thuwal)
O. Gomonay (JGU Mainz)
T. Jungwirth (FZU Prague & Uni. Nottingham)
J. Sinova (JGU Mainz)
M. Viret (SPEC Saclay)

Invited Speakers
A. Bataille (LLB Saclay)
R. A. Buhrman (Cornell Uni. Ithaca)
J.-Y. Chauleau (SPEC Saclay)
K. W. Edmonds (Uni. Nottingham)
L. Frangou (SPINTEC Grenoble)
S. Fukami (Tohoku Uni. Sendai)
O. Gomonay (JGU Mainz)
J. P. Heremans (OSU Columbus)
M. Hirschberger (Princeton Uni. & RIKEN Saitama)
A. Hoffmann (ANL Argonne)
V. Jacques (L2C Montpellier)
S. K. Kim (UCLA Los Angeles)
M. Kläui (JGU Mainz)
A. A. Kovalev (Uni. Nebraska Lincoln)
K. J. Lee (KU Seoul)
D. Makarov (HZDR Dresden)
A. Manchon (KAUST Thuwal)
M. Meinert (Bielefeld Uni.)
K. Olejnik (FZU Prague)
A. Qaiumzadeh (NTNU Trondheim)
S. M. Rezende (UFPE Recife)
K. Rode (Trinity College Dublin)
V. Saidl (FZU Prague)
T. Seifert (FHI Berlin)
A. Sekine (Uni. Texas Austin)
L. Šmejkal (JGU Mainz & FZU Prague)
J. Wunderlich (Hitachi Cambridge Lab.)
Y. Yamane (CEMS RIKEN Saitama)

 

This workshop is supported by:
MAINZ

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Joint European Magnetic Symposia 2018

Mainz, Germany: September 3rd - 7th 2018

The Joint European Magnetic Symposia (JEMS) is the premiere and most comprehensive conference on magnetism in Europe, organized in coordination with the European Magnetism Association (EMA). The next symposia will take place from the 3rd to the 7th of September 2018 at the conference center Rheingoldhalle in Mainz, Germany.

JEMS covers a wide breadth of cutting-edge topics in magnetism and magnetic materials research, ranging from the fundamental to the applied. The topics cut across the entire field of magnetism, such as biomangetism applications, chiral magnetism and skyrmions, multiferroics, strongly correlated systems, topological magnetic materials, ultrafast optical spintronics, and magnonics.

The conference incorporates plenary and semi-plenary talks from internationally renowned speakers, representing the latest advances in magnetism. Attendees are also able to contribute to specific symposia through talks and poster sessions focused on their research topics.

Mainz and the Rheinpfalz region are important centers of magnetism research in Germany. The Kaiserslautern-Mainz collaborative center SPIN+X and the Spin Phenomena Interdisciplinary Center (SPICE) lead many of these efforts.

The organizing committee of JEMS 2018 is looking forward to welcoming you to Mainz!

Please apply for the conference via www.jems2018.org



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Exotic New States in Superconducting Devices: The Age of the Interface

2017 ENS Youtube Header

Aarts, Jan: Magnetic control over spin-triplet icon-document-red icon-video-red
Amado, Mario: Structural and magnetic properties of superconductor / Yttrium Iron Garnet heterostructures with Bi and Nb icon-document-red icon-video-red
Birge, Norman: Spin-triplet supercurrent and controllable phase states in Josephson junctions containing ferromagnetic materials icon-document-red icon-video-red
Blamire, Mark: Superconducting spin valves and exchange coupling icon-document-red icon-video-red
De Franceschi, Silvano: On the ballistic one-dimensional character of semiconductor nanostructures for Majorana fermions icon-document-red icon-video-red
Eschrig, Matthias: New Avenues toward Complex Pairing States icon-document-red icon-video-red
Fogelström, Mikael: Spontaneously broken time-reversal symmetry in d-wave superconductors icon-document-red icon-video-red
Franke, Katharina: Yu-Shiba-Rusinov multiplets in magnetic adsorbates on a superconductor icon-document-black icon-video-black
Giazotto, Francesco: Realization of artificial Josephson topological materials via three-terminal proximity interferometers icon-document-red icon-video-red
Gueron, Sophie: Ballistic edge states in Bismuth nanowires revealed by SQUID interferometry icon-document-red icon-video-red
Hankiewicz, Ewelina: Unconventional superconductivity in topological insulators and on hexagonal lattices icon-document-black icon-video-red
Heikkilä, Tero: Nonequilibrium effects in superconductors with a spin-splitting field icon-document-red icon-video-red
Jandke, Jasmin: Unconventional pairing versus phonon mediated superconductivity in single FeSe layers icon-document-black icon-video-black
Jeon, Kun-Rok: Towards magnetization-dynamics-driven superconducting spin currents icon-document-red icon-video-red
Maeno, Yoshi: Spin-triplet pair penetration into a ferromagnet in Sr2RuO4/SrRuO3-based junctions icon-document-black icon-video-black
Manske, Dirk: Novel proximity and Josephson effect with triplet superconductors icon-document-red icon-video-red
Meyer, Julia: Multi-terminal Josephson junctions icon-document-red icon-video-red
Moodera, Jagadeesh: Interface driven phenomena leads the way forward icon-document-red icon-video-red
Paltiel, Yossi: Unconventional superconductivity induced in Nb by adsorbed chiral molecules. A simple way towards superconducting spintronics icon-document-red icon-video-red
Quay Huei Li, Charis: Quasiparticle spin dynamics in out-of-equilibrium superconductors icon-document-red icon-video-red
Roditchev, Dimitri: Coherent quantum phenomena in ultimate 2D superconductors: A STM study icon-document-red icon-video-red
Strambini, Elia: EuS/Al bilayers for future superconducting spintronics icon-document-red icon-video-red
Takashima, Rina: Spin torque induced by triplet supercurrent icon-document-red icon-video-black
Tokatly, Ilya: Charge-Spin Coupling in Superconducting Structures: Non-dissipative Magnetoelectric Effects icon-document-red icon-video-red
Villegas, Javier: Electron interference effects in cuprate superconductor/graphene junctions icon-document-red icon-video-red
von Oppen, Felix: Topological superconductivity in chains of magnetic adatoms on superconductors icon-document-red icon-video-red
Wiesendanger, Roland: Bottom-Up Construction and Atomic-Level Characterization of Spin Chains on Superconducting Substrates for Topological Quantum Computation icon-document-black icon-video-red
Zhang, Hao: Majorana zero modes in semiconductor nanowires icon-document-red icon-video-red
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Exotic New States in Superconducting Devices:
The Age of the Interface

Mainz, Germany: September 25th – 28th 2017

  • Jan Aarts (University of Leiden)
  • Faluke Aikebaier (University of Jyväskylä)
  • Mario Amado (University of Cambridge)
  • Sebastian Bergeret (CSIC/DIPC)
  • Norman Birge (Michigan State University)
  • Mark Blamire (University of Cambridge)
  • Bence Borcsok (University of Cambridge)
  • Lesley Cohen (Imperial College)
  • Silvano De Franceschi (CEA Grenoble)
  • James Devine-Stoneman (University of Cambridge)
  • Angelo Di Bernardo (CNR-SPIN and Dipartimento di Fisica)
  • Matthias Eschrig (Royal Holloway University of London)
  • Laëtitia Farinacci (Freie Universität Berlin)
  • Yanina Fasano (Centro Atómico Bariloche, Argentina)
  • Mikael Fogelström (Chalmers)
  • Katharina Franke (FU Berlin)
  • Francesco Giazotto (CNR-Pisa)
  • Sophie Gueron (CNRS)
  • Ewelina Hankiewicz (Würzburg University)
  • Tero Heikkilä (University of Jyväskylä)
  • Sol Jacobsen (NTNU)
  • Jasmin Jandke (KIT)
  • Kun-Rok Jeon (University of Cambridge)
  • Emmanuel Kentzinger (Forschungszentrum Jülich GmbH)
  • Sachio Komori (The University of Cambridge)
  • Marko Kuzmanovic (Laboratoire de Physique des Solides)
  • Kaveh Lahabi (Leiden University)
  • Eva-Maria Liebhaber (Freie Universität Berlin)
  • Yoshi Maeno (University of Kyoto)
  • Dirk Manske (MPI-Stuttgart)
  • Freek Massee (Laboratoire de Physique des Solides)
  • Grzegorz Mazur (Polish Academy of Sciences)
  • Julia Meyer (CEA Grenoble)
  • Sambit Mohapatra (CNRS-IPCMS, University de Strasbourg )
  • Jagadeesh Moodera (MIT)
  • Risto Ojajärvi (University of Jyväskylä)
  • Jabir Ali Ouassou (Norwegian University of Science and Technology)
  • Carla Maria Palomares Garcia (University of Cambridge)
  • Yossi Paltiel (The Hebrew University)
  • Stuart Parkin (MPI Halle)
  • Charis Quay Huei Li (Université Paris-Sud)
  • Jason Robinson (University of Cambridge)
  • Dimitri Roditchev (INSP Paris)
  • Nathan Satchell (Michigan State University)
  • Maciek Sawicki (Polish Academy of Sciences)
  • Zoltán Scherübl (Budapest University of Technology and Economics)
  • Raphael Schmit (Universität des Saarlandes)
  • Anand Srivastava (University of Cambridge)
  • Elia Strambini (NEST Istituto Nanoscienze-CNR/Scuola Normale Superiore)
  • Rina Takashima (Kyoto University)
  • Juliet Thompson (University of Cambridge)
  • Ilya Tokatly (University of Basque Country)
  • Javier Villegas (Unité Mixte de Physique CNRS/Thales )
  • Yuval Vinkler (FU Berlin)
  • Felix von Oppen (FU Berlin)
  • Wolfgang Wernsdorfer (Karlsruher Institut für Technologie (KIT))
  • Roland Wiesendanger (University of Hamburg)
  • Wenhao Wu (Texas A&M University)
  • See-Hun Yang (IBM Research - Almaden)
  • Takehito Yokoyama (Tokyo Institute of Technology, Japan)
  • Hao Zhang (Qutech, TU Delft)
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    Young Research Leaders Group Workshop

    2017 YRL Youtube Header

    Bender, Scott: Spin transport through antiferromagnetic insulators icon-document-red icon-video-red
    Bossini, Davide: Femtosecond quantum spin dynamics in antiferromagnets icon-document-red icon-video-red
    Casanova, Felix: Surface magnetization probed by spin Hall magnetoresistance icon-document-black icon-video-black
    Cornelissen, Ludo: Nonlocal magnon-polaron spin transport in yttrium iron garnet icon-document-red icon-video-red
    Haigh, James A.: Triple-resonant Brillouin light scattering in magneto-optical resonators icon-document-red icon-video-red
    Holmqvist, Cecilia: Spin superfluidity in ferromagnets and antiferromagnets

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    Hou, Dazhi: Sign change of spin Hall magnetoresistance in Pt/NiO/YIG structures icon-document-red icon-video-red
    Huebl, Hans: Controlling the Collective Coupling in Spin-Photon Hybrids icon-document-red icon-video-red
    Kamra, Akashdeep: Noninteger-spin excitations: From bosons to ferimons

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    Kim, Se Kwon: Spin Superfluid in a Magnetic Domain Wall icon-document-red icon-video-red
    Moriyama, Takahiro: Spin orbit torque in antiferromagnets

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    Nakata, Kouki: Magnonic Topological Insulator in Antiferromagnet

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    Rojas-Sanchez, Juan-Carlos: Interfacial spin-orbitronics: large spin-charge current conversion in α-Sn topological insulator and potential for giant Spin Seebeck effect in YIG/α-Sn icon-document-red icon-video-red
    Shen, Ka: Magnon-polaron transport in magnetic insulators icon-document-black icon-video-red
    Takei, So: Pauli Blockaded Spin Transport Across Coupled Quantum Spin Chains icon-document-red icon-video-red
    Vasyuchka, Vitaliy: Spin Transport using Magneto-elastic Bosons icon-document-red icon-video-red
    Weiler, Mathias: Non-collinear spin dynamics in magnetic insulators icon-document-red icon-video-red
    Yamamoto, Kei: Spin current in magnetic insulators driven by stochastic fluctuations icon-document-red icon-video-red
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