Research Area 1: Quantum Information

Quantum information (QI) aims to set the course for the transition from the information age to a quantum information age. It refers to properties and applications of quantum systems that are largely independent of their physical carriers. QI is intimately related to foundational aspects of quantum computing (QC).

The advancement of fundamental concepts and tools in quantum information and quantum computing is a multidisciplinary endeavor. A broad spectrum of research directions is covered by this area: the development of theoretical and mathematical methods for the classification and effective description of quantum states and information processing tasks, new protocols and algorithms for quantum devices, resource-oriented analysis and implementations, as well as validation and benchmarking methods. Theoretical methods underpin the experimental side of QI, which develops the building blocks for quantum information processing and quantum computing.

The main goal of Research Area 1 (RA-1) is to establish new ways of understanding and generating multipartite entangled quantum systems and to identify their applications. Focus areas include:

  • Entanglement and complexity properties of multipartite quantum systems
  • Quantum information with limited resources
  • Creation and application of multipartite quantum resources
  • Quantum channels

The understanding of multipartite entangled systems will be explored both from a theoretical and experimental perspective. We will advance the implementation of quantum resource states on different platforms, ranging from optical traps to superconducting systems. Next-generation quantum gates will help to process and also transfer QI between different platforms. Theory will be crucial in guiding experimental advances by developing algorithms and schemes for quantum information with limited resources. The research in RA-1 will strengthen links between quantum information science and quantum many-body physics.

RA-1 Coordinators

Robert König

Quantum Communication Theory and Quantum Computation

Research Website
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Simone Warzel

Mathematical Physics

Equal Opportunity Manager
RU-F Co-coordinator

Research Website
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RA-1 Members

Monika Aidelsburger

Synthetic Quantum Matter

RU-G Co-coordinator

Research Website
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Immanuel Bloch

Quantum Many Body Systems

MCQST Spokesperson
RU-B Co-coordinator

Research Website
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Holger Boche

Theoretical Information Technology

Research Website
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Ignacio Cirac

Quantum Theory

MCQST Speaker
RU-A Co-coordinator

Research Website
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Stefan Filipp

Quantum Computing

Research Website
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Rupert Frank

Mathematical Physics and Spectral Theory

Research Website
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Barbara Kraus

Quantum Computing, Verification of Quantum Device

MCQST Speaker
Equal Opportunity Manager
RA-2 Co-coordinator

Research Website
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Gitta Kutyniok

Mathematical Foundations of Artificial Intelligence

Research Website
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Kai Müller

Photonic Quantum Engineering

Research Website
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Peter Müller

Analysis and Mathematical Physics

Research Website
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Philipp Preiss

Quantum Simulation, Quantum Many Body Systems

Research Website
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Andreas Reiserer

Quantum Networks

Jr. Group Representative

Research Website
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Christian Schilling

Quantum Information Theory & Quantum Many-Body Physics

Research Website
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Harald Weinfurter

Experimental Quantum Physics

RU-D Co-coordinator

Research Website
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Robert Wille

Chair for Design Automation

Research Website
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Michael Wolf

Mathematical Physics

RU-A Co-coordinator

Research Website
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Johannes Zeiher

Quantum Matter Interfaces

Jr. Group Representative

Research Website
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