Beyond IID in Information Theory 10
Sep 26- Sep 30, 2022 (Beijing time, GMT+8, online event)
Beyond IID in Information Theory 10 (BIID’10)
"Beyond IID in Information Theory" started as a workshop in Cambridge, UK in 2013, as a forum for the growing interest in information-theoretic problems and techniques beyond the strict asymptotic limit, and aimed at bringing together researchers from a range of different backgrounds, ranging from coding theory, Shannon theory in the finite block length regime, one-shot information theory, cryptography and quantum information, all the way to quantum thermodynamics and other resource theories.
Quantum Shannon theory is arguably the core of the new “physics of information,” which has revolutionized our understanding of information processing by demonstrating new possibilities that cannot occur in a classical theory of information. It is also a very elegant generalization of Shannon's theory of classical communication. The origins of quantum Shannon theory lie in the 1960s, with a slow development until the 1990s when the subject exploded; the last 10-25 years have seen a plethora of new results and methods.
In recent years, both in classical and quantum Shannon theory, attention has shifted from the strictly asymptotic point of view towards questions of finite block length. For this reason, and fundamentally, there is a strong drive to establish the basic protocols and performance limits in the one-shot setting. This one-shot information theory requires the development of new tools, in particular non-standard entropies and relative entropies (min-, Rényi-, hypothesis testing), both in the classical and quantum settings. These tools have found numerous applications, ranging from cryptography to strong converses, to second and third order asymptotics of various source and channel coding problems. A particularly exciting set of applications links back to physics, with the development of a resource theory of thermodynamic work extraction and, more generally, of state transformations. Physicists have furthermore found other resource theories, for instance, that of coherence and that of asymmetry, which are both relevant to the thermodynamics of quantum systems and interesting in their own right.
The whole area is extremely dynamic, as the success of previous "Beyond IID" workshops has shown.
The present workshop, the tenth in a series that started in 2013 in Cambridge, will bring together specialists and students of classical and quantum Shannon theory, of cryptography, mathematical physics, thermodynamics, etc., in the hope to foster collaboration in this exciting field of one-shot information theory and its applications. The plan is to have a modest number of talks over the course of the week. Participation is open to all.
The topics covered under "Beyond IID" include but are not limited to the following:
● Finite block length coding
● Second, third and fourth order analysis
● Strong converses
● Quantum Shannon theory
● Cryptography and quantum cryptography
● New information tasks
● One-shot information theory and unstructured channels
● Information spectrum method
● Entropy inequalities
● Non-standard entropies (e.g. Rényi entropies, min-entropy, ...)
● Matrix analysis
● Generalized resource theories
● Physics of information
The focus of this workshop does not inlcude an implementation of quantum information processing.
Important dates (AoE, anywhere on earth):
● Submission Deadline: July 15, 2022
● Notification of Accepted Talks: Aug 31, 2022
● Conference Dates: Sep 26 - Sep 30, 2022 (online event)
There is no strict format for the submission. However, the authors have to provide at least a 3-page extended abstract if the full paper is not available at the time of submission. All submissions must be made electronically through the online submission system EasyChair: https://easychair.org/conferences/?conf=biid2022.
We also solicit poster-only submissions.
Please direct any questions or comments to the PC chair at email@example.com
Siddhartha Das (International Institute of Information Technology, Hyderabad)
Frédéric Dupuis (University of Montreal)
Daniel Stilck França (Copenhagen University/ Inria ENS Lyon)
Masahito Hayashi (Southern University of Science and Technology/Nagoya) (Chair)
Christoph Hirche (National University of Singapore)
Zi-Wen Liu (Perimeter Institute)
Cambyse Rouzé (Technische Universität München)
Ryuji Takagi (Nanyang Technological University)
Ligong Wang (CNRS)
Shun Watanabe (Tokyo University of Agriculture and Technology)
Yuxiang Yang (The University of Hong Kong)
Holger Boche (Technische Universität München)
Nilanjana Datta (University of Cambridge)
Serge Fehr (CWI & Leiden University)
Masahito Hayashi (Southern University of Science and Technology & Nagoya University)
Min-Hsiu Hsieh (Hon Hai Quantum Computing Research Center)
Oliver Johnson (University of Bristol)
Ioannis Kontoyiannis (University of Cambridge)
Vincent Y. F. Tan (National University of Singapore)
Mark M. Wilde (Louisiana State University/Cornell University)
Dong Yang (Southern University of Science and Technology)
Baichu Yu (Southern University of Science and Technology)
Contact information: firstname.lastname@example.org