The 2023 terahertz science and technology roadmap
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Published:2023-04-05
Issue:22
Volume:56
Page:223001
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ISSN:0022-3727
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Container-title:Journal of Physics D: Applied Physics
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language:
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Short-container-title:J. Phys. D: Appl. Phys.
Author:
Leitenstorfer Alfred, Moskalenko Andrey SORCID, Kampfrath TobiasORCID, Kono Junichiro, Castro-Camus EnriqueORCID, Peng KunORCID, Qureshi NaserORCID, Turchinovich DmitryORCID, Tanaka Koichiro, Markelz Andrea G, Havenith Martina, Hough CameronORCID, Joyce Hannah JORCID, Padilla Willie J, Zhou Binbin, Kim Ki-Yong, Zhang Xi-Cheng, Jepsen Peter UhdORCID, Dhillon Sukhdeep, Vitiello MiriamORCID, Linfield EdmundORCID, Davies A GilesORCID, Hoffmann Matthias C, Lewis RogerORCID, Tonouchi MasayoshiORCID, Klarskov Pernille, Seifert Tom SORCID, Gerasimenko Yaroslav AORCID, Mihailovic Dragan, Huber Rupert, Boland Jessica LORCID, Mitrofanov Oleg, Dean Paul, Ellison Brian N, Huggard Peter GORCID, Rea Simon P, Walker Christopher, Leisawitz David TORCID, Gao Jian RongORCID, Li Chong, Chen Qin, Valušis Gintaras, Wallace Vincent PORCID, Pickwell-MacPherson EmmaORCID, Shang XiaobangORCID, Hesler Jeffrey, Ridler Nick, Renaud Cyril C, Kallfass Ingmar, Nagatsuma Tadao, Zeitler J AxelORCID, Arnone Don, Johnston Michael BORCID, Cunningham JohnORCID
Abstract
Abstract
Terahertz (THz) radiation encompasses a wide spectral range within the electromagnetic spectrum that extends from microwaves to the far infrared (100 GHz–∼30 THz). Within its frequency boundaries exist a broad variety of scientific disciplines that have presented, and continue to present, technical challenges to researchers. During the past 50 years, for instance, the demands of the scientific community have substantially evolved and with a need for advanced instrumentation to support radio astronomy, Earth observation, weather forecasting, security imaging, telecommunications, non-destructive device testing and much more. Furthermore, applications have required an emergence of technology from the laboratory environment to production-scale supply and in-the-field deployments ranging from harsh ground-based locations to deep space. In addressing these requirements, the research and development community has advanced related technology and bridged the transition between electronics and photonics that high frequency operation demands. The multidisciplinary nature of THz work was our stimulus for creating the 2017 THz Science and Technology Roadmap (Dhillon et al 2017 J. Phys. D: Appl. Phys.
50 043001). As one might envisage, though, there remains much to explore both scientifically and technically and the field has continued to develop and expand rapidly. It is timely, therefore, to revise our previous roadmap and in this 2023 version we both provide an update on key developments in established technical areas that have important scientific and public benefit, and highlight new and emerging areas that show particular promise. The developments that we describe thus span from fundamental scientific research, such as THz astronomy and the emergent area of THz quantum optics, to highly applied and commercially and societally impactful subjects that include 6G THz communications, medical imaging, and climate monitoring and prediction. Our Roadmap vision draws upon the expertise and perspective of multiple international specialists that together provide an overview of past developments and the likely challenges facing the field of THz science and technology in future decades. The document is written in a form that is accessible to policy makers who wish to gain an overview of the current state of the THz art, and for the non-specialist and curious who wish to understand available technology and challenges. A such, our experts deliver a ‘snapshot’ introduction to the current status of the field and provide suggestions for exciting future technical development directions. Ultimately, we intend the Roadmap to portray the advantages and benefits of the THz domain and to stimulate further exploration of the field in support of scientific research and commercial realisation.
Funder
Universidad Nacional Autónoma de México Alexander von Humboldt Foundation Experienced Researcher Fellowship DFG Collaborative Deutsche Forschungsgemeinschaft National Science Foundation U.S. Department of Energy PAPIIT ERC European Union European Research Council Danish National Research Foundation Velux Foundation JSPS KAKENHI EPSRC the US Department of Energy, Office of Science, Office of Basic Energy Sciences STFC Centre for Instrumentation UKSA Centre for Earth Leverhulme Trust Research Center NRF Korea government Royal Society Australian Research Council Australian Government MIC Cancer Research UK UKRI University of Warwick BMBF Promotion Project DFG EU Army Research Office Air Force Office of Scientific Research DFG, German Research Foundation US Department of Energy
Subject
Surfaces, Coatings and Films,Acoustics and Ultrasonics,Condensed Matter Physics,Electronic, Optical and Magnetic Materials
Cited by
188 articles.
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