WG4: Implementations
Leader:
Christoph Marquardt
Max Planck Institute for the Science of Light
Vice Leader:
Vladyslav Usenko
Palacky University
The studies and applications put forward and identified in the other Working Groups are tested in proof-of-principle experiments and finally have to be implemented in real space missions. Implementation in space hardware is a complex process that requires substantial coordination, which WG4 is aiming for.
The process implies not only the discussion of concrete implementations of ideas that have been recognized in the other Working Groups. From the beginning there is a need to identify common challenges regarding technology needs and building up a network of available infrastructure both on the technical and on the management level. Already early in the design process one has to identify mission parameters and mission designs.
The technology development that is required has to be performed in international collaboration between academia, national research institutes, space agencies and industrial partners. Hardware testing in space relevant environment (vibrations, radiation hardness, vacuum and temperature parameters) is costly and complex. Sharing experience and coordinating efforts thus is crucial.
We will also focus on identifying funding opportunities and communicate with space agencies. Space implementations heavily rely on international collaboration. We will further broaden the support by international researchers and their respective national space agencies beyond the European level. Finally it will be important to determine and coordinate technology-development and mission-proposal opportunities. Here we will communicate with industry and space agencies and identify synergetic effects.
QTSpace enables the unique opportunity to find out common technological platforms and methods that can be developed jointly for the different scientific fields ranging from optical quantum communication to cold-atom interferometry, optomechanics or optical atomic clocks. Joint development and implementation technologies will reduce cost and make missions feasible by combining technology in a single payload. Towards these goals the working group is organizing meetings, workshops and training schools.
Deliverables:
D4.1 List of relevant mission parameters for future missions in space
D4.2 List of necessary technological requirements for future missions in space
D4.3 List of potential partners interested in participating to future space missions
D4.4 List of opportunities for future space missions with quantum technologies
WG4 Members
Aidan
Arnold
University of Strathclyde
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Marco
Avesani
Universita' degli studi di Padova
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Peter
Barker
University College London
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Angelo
Bassi
University of Trieste
|
James
Bateman
Swansea University
|
Ömer
Bayraktar
Max Planck Institute for the Science of Light
|
Erik
Beckert
Fraunhofer IOF
|
Robert
Bedington
Centre for Quantum Technologies
|
Paolo
Bianco
AIRBUS
|
Cristian
Bonato
Heriot-Watt University
|
Jean-Philippe
Bourgoin
University of Waterloo
|
Félix
Bussières
University of Geneva - ID Quantique
|
Olivier
Carraz
RHEA for ESA
|
Catalina Oana
Curceanu
LNF-INFN
|
Daniele
Dequal
Agenzia Spaziale Italiana
|
Eleni
Diamanti
CNRS, Sorbonne Université
|
Aline
Dinkelaker
Humboldt-Universität zu Berlin
|
Bob
Dirks
TNO
|
Pedro
Duque
Lusospace Lda
|
Kadir
Durak
Oezyeğin University
|
Omid
Faizy Namarvar
LPT-IRSAMC & CEMES-CNRS
|
Stefan
Filipp
IBM Research - Zurich
|
Matthias
Fink
IQOQI Vienna
|
Naceur
Gaaloul
Institute of Quantum Optics / Leibniz University of Hanover
|
Dinaol
Gadisa
Ethiopian space science and technology institute and African Aeronautics and Astronautics Center
|
Santanu
Ganguly
Cisco Systems, Liverpool John Moores University
|
Barry
Garraway
University of Sussex
|
Domenico
Gerardi
AIRBUS
|
Paul
Griffin
University of Strathclyde
|
Jens
Grosse
University Bremen & DLR Bremen
|
Jai
Grover
ESA
|
S. Deniz
Han
İstanbul University
|
Heleri Ramler
Heleri Ramler
RAL Space
|
PAULO
HENRIQUE
Aarhus University
|
Waldemar
Herr
University of Hannover
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Ronald
Holzwarth
Menlo Systems GmbH
|
Radu
Ionicioiu
Horia Hulubei National Institute of Physics and Nuclear Engineering (IFIN-HH)
|
Rainer
Kaltenbaek
University of Ljubljana
|
Andrej
Krzic
ESA
|
Jean
Lautier-Gaud
Muquans
|
Bruno
Leone
European Space Agency
|
Matthias
Lettner
OHB
|
Ying Lia
Li
University College London
|
Vadim
Makarov
University of Waterloo
|
Jean Pierre
Marburger
JGU Mainz
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Marco
Mariola
University of KwaZulu-Natal
|
Christoph
Marquardt
Max Planck Institute for the Science of Light
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Luca
Mazzarella
University of Strathclyde
|
Florian
Moll
German Aerospace Center (DLR)
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Gavin
Morley
University of Warwick
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Manfred
Niehus
Instituto Telecomunicações & Lisbon Polytechnical School of Engineering
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Daniel
Oi
University of Strathclyde
|
Fatih
Ozkaynak
Firat University
|
Christoph
Pacher
Austrian Institute of Technology GmbH
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Sungdong
Park
Satrec Initiative
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Emanuele
Pelucchi
Tyndall National Institute
|
Bruno
Pierobon
RAL Space
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Simon
Pigeon
Direction Générale de l'Armement
|
Heike
Poignand
SES Satelites
|
Christopher
Pugh
University of Waterloo
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John
Rarity
University of Bristol
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Mohsen
Razavi
University of Leeds
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Stefan
Riedl
Airbus Defence and Space GmbH
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Dondu
Sahin
University of Bristol
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Bernhard
Sang
OHB System AG
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Matteo
Schiavon
University of Padova
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Stephan
Seidel
Leibniz Universität Hannover
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Rui
Semide
Lusospace Lda
|
Niccolo
Somaschi
Quandela
|
Joe
Spencer
IoniQ
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Mario
Stipčević
Ruđer Bošković Institute
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Boris
Stoyanov
BRANE HEPLAB
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Guglielmo M.
Tino
Università di Firenze, LENS, INFN
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Vladyslav
Usenko
Palacky University in Olomouc
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Tristan
Valenzuela-Salazar
STFC
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Giuseppe
Vallone
University of Padova
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Mathias
Van Den Bossche
Thales Alenia Space
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Francesco
Vedovato
University of Padova
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Paolo
Villoresi
University of Padova
INF-CNR
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Wolf
von Klitzing
IESL-FORTH
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Harald
Weinfurter
University of Munich
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André
Wenzlawski
Johannes Gutenberg-University Mainz
|
Yao
Zhou
IQOQI
|
Zoltán
Zimborás
Wigner Research Centre for Physics
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אסף
אבנון
Bar Ilan
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