-
crossref
Yan He, S. Pelagatti
2006-10-24T13:07:05Z
置信度 0.70
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Mogbonjubola Rahman, Tom Walingo, Fambirai Takawira
2015-11-23T22:42:45Z
置信度 0.70
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crossref
Soohong Kim, Joohwan Chun, Kwangeog Lee
2013-08-28T16:48:05Z
置信度 0.70
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A novel load-balancing routing algorithm based on satellite-ground cooperation is proposed to reduce the impact of inter-satellite link congestion in LEO satellite optical networks. Simulations prove that our proposal can significantly improve the network thro…
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Yunxiao Ning, Yongli Zhao, Xin Li, Sabidur Rahman 等
2022-04-26T19:25:15Z
置信度 0.70
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Gyeongrae Im, Joon Gyu Ryu
2026-02-19T20:55:29Z
置信度 0.70
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Siyuan Cao, Tao Zhang
2020-01-03T00:42:22Z
置信度 0.70
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Mate Jagnjić, Josip Vuković, Dubravko Babić
2024-10-04T17:32:07Z
置信度 0.70
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V. Mancuso, G. Bianchi, N.B. Melazzi, U. Birnbacher
2005-12-10T20:49:09Z
置信度 0.70
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crossref
K. Sidibeh, T. Vladimirova
2008-02-07T09:52:44Z
置信度 0.70
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K.K. Chan, R. Blasing, B. Wallace
2002-12-23T20:16:22Z
置信度 0.70
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Mingjun Xu, Yizhou He, Cheng Wang, Gaofeng Cui 等
2017-01-26T23:02:16Z
置信度 0.70
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crossref
O. Korcak, F. Alagoz
2006-10-24T13:07:05Z
置信度 0.70
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crossref
Tongkai Yang, Shushi Gu, Zhikai Zhang, Qinyu Zhang 等
2026-01-06T18:33:45Z
置信度 0.70
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crossref
Xuekun Hao, Xianghui Hu, Gengxin Zhang, Yifei Ma
2004-01-23T23:33:03Z
置信度 0.70
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crossref
Jianhao Hu, Shiqi Wu, Leming Li
2002-11-27T18:28:21Z
置信度 0.70
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crossref
Wu Di, Li Qing
2005-12-13T20:55:52Z
置信度 0.70
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crossref
2021-02-09T08:09:17Z
置信度 0.70
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crossref
Tobias Rohe, Michael Kölle, Jan Matheis, Rüdiger Höpfl 等
2025-02-28T12:43:20Z
置信度 0.70
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crossref
Victor Kamel, Jinwei Zhao, Daoping Li, Jianping Pan
2024-10-22T12:20:28Z
置信度 0.70
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crossref
Jianjun Yu
2021-06-28T08:02:43Z
置信度 0.70
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crossref
Jianjun Ma, Peian Li, Wenbo Liu
2025-06-11T19:23:06Z
置信度 0.70
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crossref
Mingliang Li, Cong Wang
2010-08-24T18:58:28Z
置信度 0.70
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crossref
Kumud Ranjan Jha, Ghanshyam Singh
2014-01-10T07:06:28Z
置信度 0.70
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crossref
Goutam Chattopadhyay
2013-05-03T19:37:18Z
置信度 0.70
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crossref
Jiexin Lai, Yang Yang
2024-10-07T17:41:47Z
置信度 0.70
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crossref
Uri Nissanov, Ghanshyam Singh
2023-07-11T08:02:09Z
置信度 0.70
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crossref
Alwyn J. Seeds
2014-03-24T23:35:09Z
置信度 0.70
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crossref
Wei Shi, Zhijin Yan, Lei Hou, Suguo Chen 等
2014-12-16T13:04:40Z
置信度 0.70
-
We demonstrate a 32Gbps radio-over-fiber terahertz wireless communication scheme based on a 110 GHz TFLN MZM, which is immune to the frequency drift in lasers and avoids the use of the terahertz electrical mixers.
crossref
Zheng Wang, Xukai Ji, Yin He, Feifei Yin 等
2026-07-28T21:00:21Z
置信度 0.70
-
Conception de la Couche Physique pour les Futurs Systèmes de Communication Sub-TeraHertz Les futurs réseaux de communications pour déployer des services sans-fil très haut-débit envisagent l’utilisation de larges bandes de fréquences. Alors que les bandes de f…
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Simon Bicais
2026-04-04T05:58:19Z
置信度 0.70
-
crossref
2019-11-29T03:18:05Z
置信度 0.70
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crossref
Kumud Ranjan Jha, Ghanshyam Singh
2014-01-10T07:06:28Z
置信度 0.70
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crossref
Ruiliang Song, Chunting Wang
2020-02-28T10:31:57Z
置信度 0.70
-
crossref
2019-11-29T08:18:05Z
置信度 0.70
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crossref
Mustafa Alper Akkaş
2019-03-23T10:19:50Z
置信度 0.70
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crossref
2021-12-17T03:07:55Z
置信度 0.70
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crossref
Wang Cheng, Lin Changxing, Deng Xianjin, Xiao Shiwei
2011-12-22T18:09:14Z
置信度 0.70
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crossref
2021-12-17T03:07:55Z
置信度 0.70
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crossref
2021-12-17T03:07:55Z
置信度 0.70
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crossref
Kumud Ranjan Jha, Ghanshyam Singh
2014-01-10T07:06:28Z
置信度 0.70
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crossref
Yongzhi Wu, Chong Han, Zhi Chen
2021-10-20T22:54:01Z
置信度 0.70
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crossref
2021-12-17T03:07:55Z
置信度 0.70
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crossref
Iqra Ejaz, Maheen Zulfiqar, Rehan Mahmood
2024-10-07T17:41:47Z
置信度 0.70
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crossref
2019-11-29T08:18:05Z
置信度 0.70
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crossref
Minoru Fujishima
2019-03-01T16:19:25Z
置信度 0.70
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2023-06-06T17:43:42Z
置信度 0.70
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crossref
Saim Ghafoor, Mubashir Husain Rehmani, Alan Davy
2021-06-28T12:32:23Z
置信度 0.70
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2021-12-17T03:07:55Z
置信度 0.70
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crossref
Mohamed El Jbari, Mohamed Moussaoui
2024-12-03T18:01:29Z
置信度 0.70
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Rakesh Kumar Bhardwaj, V. P. Dutta, Naresh Bhatnagar
2022-04-03T00:03:36Z
置信度 0.70
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2023-03-31T05:03:00Z
置信度 0.70
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2022-04-03T00:03:36Z
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2019-11-29T08:18:05Z
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2021-12-17T03:07:55Z
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2021-12-17T03:07:55Z
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2014-01-10T07:06:28Z
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europepmc
2026
置信度 0.80
-
Abstract The development of 6 G networks has promoted related research based on terahertz communication. As submillimeter radiation, signal transportation via terahertz waves has several superior properties, including non-ionizing and easy penetration of non-m…
europepmc
Guanxuan Lu, Jiaqi Wang, Rui Zhou, Zhemiao Xie 等
2024
置信度 0.80
-
europepmc
2025
置信度 0.80
-
Abstract In this paper, we find that utilizing the resonance of photodiode with a collector can lead to a flat frequency response within the terahertz frequency range. To enhance the resonant peak output power, we propose a large-sized terahertz band photodiod…
europepmc
Shuhu Tan, Yongqing Huang, Xuejie Wamh, Mingxi Yang 等
2024
置信度 0.80
-
europepmc
2024
置信度 0.80
-
In terahertz communication systems, lens antennas used in transceivers are basically plano-convex dielectric lenses. As the aperture increases and the focal length decreases, the thickness and mass of the plano-convex lens increase rapidly. Through theory and …
europepmc
Peng Tian, Yang Han, Weipin Li, XiongWei Yang 等
2024
置信度 0.80
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Abstract Millimeter-wave (mmWave) technology has improved to overcome propagation issues and enable high data speeds in 5G and 6G wireless networks. The capabilities of 5G networks are limited in their ability to support future applications such as extended re…
europepmc
Sijia Chen, Qingquan Wang, Yuan Guo
2024
置信度 0.80
-
europepmc
2024
置信度 0.80
-
Terahertz (THz) band will play an important role in enabling sixth generation (6G) envisioned applications. Compared with lower frequency signals, THz waves are severely attenuated by the atmosphere temperature, pressure, and humidity. Thus, designing a THz co…
pubmed
E Silva JDS, Ribeiro JAP, Adanvo VF, Mafra SB 等
2023
置信度 0.82
-
europepmc
2024
置信度 0.80
-
europepmc
2023
置信度 0.80
-
europepmc
2023
置信度 0.80
-
europepmc
2021
置信度 0.80
-
europepmc
2019
置信度 0.80
-
europepmc
2018
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2017
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
Terahertz waves hold immense potential across diverse fields, including healthcare monitoring, biomedical imaging, precision navigation, high-speed communication, security screening, industrial quality control, and space exploration. However, the widespread ad…
pubmed
Zhao Y, Zumrat SE, Tsao SA, Jarrahi M
2026
置信度 0.82
-
Terahertz (THz) waves have garnered growing attention for applications in communication, imaging, and spectroscopy, yet compact and efficient on-chip THz sources remain scarce. In this work, we achieve the in-situ generation, modulation, and sensing of coheren…
pubmed
Ge Z, Jin Z, Li Z, Huang C 等
2026
置信度 0.82
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80