Direktlänk till inlägg 25 januari 2024
NATO releases first ever quantum strategy
https://www.nato.int/cps/en/natohq/news_221601.htm?selectedLocale=en
Quantum technologies are getting closer to revolutionizing the world of innovation and can be game-changers for security, including modern warfare. Ensuring that the Alliance is ''quantum-ready'' is the aim of NATO’s first-ever quantum strategy that was approved by NATO Foreign Ministers on 28 November. On Wednesday (17 January 2024), NATO released a summary of the strategy.
The strategy outlines how quantum can be applied to defence and security in areas such as sensing, imaging, precise positioning, navigation and timing, improve the detection of submarines, and upgrade and secure data communications using quantum resistant cryptography.
Many of these technologies are already used in the private sector and have become the subject of strategic competition. NATO’s quantum strategy helps foster and guide NATO’s cooperation with industry to develop a transatlantic quantum technologies ecosystem, while preparing NATO to defend itself against the malicious use of quantum technologies.
Quantum is one of the technological areas that NATO Allies have prioritized due to their implications for defence and security. These include artificial intelligence, data and computing, autonomy, biotechnology and human enhancements, hypersonic technologies, energy and propulsion, novel materials, next-generation communications networks and space.
Quantum technologies are already part of NATO’s innovation efforts. Six of the 44 companies selected to join NATO’s Defence Innovation Accelerator for the North Atlantic (DIANA)’s programme are specialised in quantum. Their innovations are expected to help progress in the areas of next-generation cryptography, develop high-speed lasers to improve satellite connectivity, and deploy quantum-enhanced 3-D imaging sensors in challenging undersea environments. DIANA also anticipates quantum technologies forming a key part of solutions to its future challenge programme.
Building on its new strategy, NATO will now start work to establish a Transatlantic Quantum Community to engage with government, industry and academia from across the innovation ecosystems.
https://www.nato.int/cps/en/natohq/official_texts_221777.htm
Introduction
Strategic Vision: A Quantum-ready Alliance
Fostering a Quantum-Ready Alliance
Responsible Innovation
A Transatlantic Quantum Community
Protecting the Alliance from the Quantum Threat
https://www.nato.int/cps/en/natohq/news_207634.htm
Innovative projects led by scientists in NATO and partner countries are breaking new ground to harness the power of quantum to make communications impossible to intercept and hack. The application of these quantum technologies in the security and defence sectors could help to future-proof the transmission of information, protecting it from increasingly advanced hacking systems and contributing to NATO’s efforts to maintain its technological edge.
NATO Science for Peace and Security (SPS) Programme research and development projects have been examining the security-related applications of quantum technologies, addressing their three main fields: computing, sensing and communications. Quantum computing and sensing are improving the abilities of computer and remote measurement technologies to levels that they are not traditionally able to achieve. In the field of quantum communications, SPS activities are showing the most promising results. These projects develop systems for the encryption and secure transmission of information using quantum key distribution (QKD) and post-quantum cryptography (PQC). Through these techniques, they respond to rising security concerns related to new technologies – such as quantum computers, which can decipher secret communications – by preventing unauthorised access.
Testing quantum key distribution (QKD)
QKD is a quantum communication method to share decryption keys. In this system, an encrypted message is sent over traditional networks, while the keys to decrypt the information are transmitted through quantum means. This way, only the intended recipient can decode the message, making any eavesdropping impossible. By applying this method, an SPS project succeeded in connecting Italy and Malta with a prototypical QKD link using submarine optical fibre cables for the first time.
Another SPS-supported research initiative investigated QKD techniques to send cryptographic keys from one endpoint to another, which was located hundreds of kilometres away. Meanwhile, researchers at a university in the Czech Republic are studying the application of QKD technology on a 5G network to explore its potential to enhance cyber security in future communication systems.
Demonstrating post-quantum cryptography (PQC)
Unlike QKD, which uses physical quantum properties to protect information, PQC uses cryptography and mathematical functions as an alternative approach to secure communications. An international group of scientists supported by SPS recently demonstrated that, using PQC, it is possible to securely transmit information without the possibility of decryption by a hacker, even one who has a quantum computer. Through a secure protocol, five research groups based in Malta, Slovakia, Spain, the United States and NATO Headquarters in Brussels, Belgium, succeeded in communicating in a completely secure space, free from the risk of intrusion.
NATO’s new Strategic Concept, agreed by Allies at the 2022 Madrid Summit, recognises the critical role of technology, and in particular, emerging and disruptive technologies (EDTs), in shaping the future of the Alliance. To explore the potential and risks associated with EDTs, the SPS Programme is supporting research activities that address technological trends in EDTs, like artificial intelligence, autonomy, bioengineering, and especially quantum technologies. Future SPS activities investigating quantum will look at how to integrate both QKD and PQC to secure information infrastructure in the best and most holistic way for the Alliance.
Introduction to Quantum Computing in Fluid Dynamics
Published | 11/27/2023 | ||
Author(s) | Multiple | ||
STOPublicationType | Educational Notes RDP | ||
Publication Reference | STO-EN-AVT-377 | ||
DOI | 10.14339/STO-EN-AVT-377 | ||
ISBN | ISBN 978-92-837-2405-6 | ||
STOPublisher | STO | ||
Access | Open Access | ||
STOKeywords |
Type ![]() ![]() ![]() | Name ![]() ![]() ![]() | Title ![]() ![]() ![]() | Published ![]() ![]() ![]() | Access |
---|---|---|---|---|
![]() | $EN-AVT-377-Cover | Cover Pages | 11/27/2023 | Open Access |
![]() | EN-AVT-377-01 | An Introduction to Algorithms in Quantum Computation of Fluid Dynamics | 5/17/2022 | Open Access |
![]() | EN-AVT-377-02 | Grover’s Algorithm & Quantum Monte Carlo Integration | 5/17/2022 | Open Access |
![]() | EN-AVT-377-05 | Key Challenges & Prospects for Quantum Computational Fluid Dynamics | 5/17/2022 | Open Access |
![]() | EN-AVT-377-06 | Quantum Linear PDE Solution Methods | 5/17/2022 | Open Access |
![]() | EN-AVT-377-07 | Quantum Lattice-Based Modelling & Future Developments | 5/17/2022 | Open Access |
![]() | EN-AVT-377-08 | Classical Lattice-Boltzmann Methods for fluid dynamics | 5/17/2022 | Open Access |
![]() | EN-AVT-377-09 | Towards quantum lattice-Boltzmann methods | 5/17/2022 | Open Access |
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