Prof. Jupeng Ding
Key Laboratory of Signal Detection and Processing in Xinjiang Uygur Autonomous Region, School of Information Science and Engineering, Xinjiang University, Urumqi Xinjiang 830046, China
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Academic Career Length
17Years (2010-Present)
(Calculated once Scilit publication data is synced: current year − year of first publication + 1)
Representative Publications
View All Publications1 January 2020 in IEEE Access
Journal Article
Wenwen LiuJupeng DingJZJiong Zheng
Jiong Zheng
XCXifeng Chen
Xifeng ChenCIChih-Lin I
Chih-Lin I
When the distance between the source and the target is long, the signal will be affected by atmospheric turbulence, weather conditions and obstacles, which cannot support the information transmission. One of the existing solutions is to use relay-assisted technology (RAT). It makes the communications between the source and the destination possible under better channel conditions by setting up relay between the source and the destination. There are few comprehensive articles about relay-assisted technology in OWC. To fill this gap, this paper introduces the RAT of indoor optical wireless communications (IOWC), outdoor optical wireless communications (OOWC) and underwater optical wireless communications (UOWC) in different application scenarios, which has a better effect than direct communication between source and destination. The relay protocols, channel models, modulation techniques under three relay modes are reviewed. Finally, challenges of RAT in OWC are put forward and potential solutions are also given.
Journal Article
Jupeng DingHMHongye Mei
Hongye MeiCIChih-Lin I
Chih-Lin IHZHui Zhang
Hui ZhangWLWenwen Liu
Wenwen LiuWith the continuous maturity of unmanned aerial vehicles (UAV) in materials, communications, and other related technologies, the UAV industry has developed rapidly in recent years. In order to cope with the diversified emerging business forms, the explosive growth of the scale of data traffic, number of terminal connections, high reliability, low-latency, and high transmission rate provided by the fifth generation (5G) network will inject new vitality into the development of the UAVs industry. In this paper, optical wireless technology is introduced into the UAV platform, combining theory with practical applications. We explain many research advances and key technologies in the four aspects of “air, space, earth, and sea” to achieve a strong and broadband communication link. This discussion focuses on link modeling, parameter optimization, experimental testing, and the status quo of UAVs in different application scenarios with optical wireless link configurations. At the same time, based on the current situation of UAV optical wireless technology, the technical problems and the research direction in the future are also discussed.
18 September 2020 in IEEE Access
Journal Article
HMHongye Mei
Hongye MeiJupeng DingJZJiong Zheng
Jiong Zheng
XCXifeng Chen
Xifeng ChenWenwen LiuEffective information transmission between vehicles has become one of the solutions to improve road safety. Based on the huge advantages of optical wireless data transmission technology, this paper summarizes the research status of unmanned vehicles in optical wireless communication (OWC). The article not only studies the actual progress of building optical links through an unmanned vehicle, connecting air communication, ground communication, and underwater communication into a unified wireless network, and realizing the fast, stable, large-capacity data transmission system. The technical challenges of unmanned vehicle OWC are also discussed and its future development has prospected.
Journal Article
Jupeng DingWenwen LiuCIChih-Lin I
Chih-Lin IHZHui Zhang
Hui ZhangHMHongye Mei
Hongye MeiOptical wireless communications have attracted widespread attention in the traditional power industry because of the advantages of large spectrum resources, strong confidentiality, and freedom from traditional electromagnetic interference. This paper mainly summarizes the major classification and frontier development of power industry optical wireless technologies, including the indoor and outdoor channel characteristics of power industry optical wireless communication system, modulation scheme, the performance of hybrid power line, and indoor wireless optical communications system. Furthermore, this article compares domestic and foreign experiments, analyzes parameters for instance transmission rate, and reviews different application scenarios such as power wireless optical positioning and monitoring. In addition, in view of the shortcomings of traditional power technology, optical wireless power transfer technology is proposed and combined with unmanned aerial vehicles to achieve remote communication. At last, the main challenges and possible solutions faced by power industry wireless optical technologies are proposed.
23 May 2012 in Journal of the Optical Society of America A
Journal Article
In this paper, an evolutionary algorithm based optimization scheme is proposed to realize uniform received power and illumination distribution on the communication floor for fully diffuse indoor visible light communication. Simulation results show that in three distributed lighting configurations, by dynamically modifying the relative optical intensity of transmitters the dynamic range of the received power, referenced against the peak received power, can be reduced to about 40.0% while the uniformity illuminance ratio can be improved up to about 0.70 with the impact to the root mean square delay spread and bandwidth being negligible. Furthermore, the relationship between the field of view of the receivers and the optimization performance is presented as well.
17 December 2021 in IEEE Photonics Journal
Journal Article
Jupeng DingCIChih-Lin I
Chih-Lin I
JWJintao Wang
Jintao WangHYHui Yang
Hui Yang
LWLili Wang
Lili WangVisible light communications (VLC) techniques are viewed as promising candidates for the upcoming B5G&6G mobile wireless networks. Due to the broadcast nature of VLC channel, physical layer security (PLS) techniques have been considered and explored to improve the confidentiality of VLC transmission. Nevertheless, almost all current designs focus on application scenarios including sufficient transmitters and fail to match the scenarios with limited, even just two transmitters. For addressing this challenge, in this article, multiple optical beam switching scheme is proposed. Unlike conventional Lambertian beam based technique paradigm, the given scheme tentatively utilize two asymmetry non-Lambertian beams to configure each VLC transmitter. Numerical results show that, for the typical center legitimate receiver, compared with about 0.92 bps/Hz average secrecy capacity (SC) of the conventional Lambertian beam configuration, up to 5.55 bps/Hz average SC gain is acquired through the proposed beam switching scheme. Moreover, this potential gain will be enhanced to about 5.86 bps/Hz when three candidate non-Lambertian beams are available for each transmitter.
About Me
JUPENG DING received the M.Sc. and Ph. D. degree from the Communication, Beijing University of Posts and Telecommunications (BUPT), Beijing, China. In 2013, he joined Key Laboratory of Wireless-Optical Communications, Chinese Academy of Sciences, Optical Wireless Communication and Network Center, School of Information Science and Technology, University of Science and Technology of China, Hefei, China. In 2017, he worked in one world top 500 enterprises. Then he joined Xinjiang University working on optical wireless communication. His current research interests include visible light communication, optical wireless links, B5G&6G mobile systems & networks, and free space optics. Now he is an Associate Professor in College of Information Science and Engineering, Xinjiang University. He has published more than 50 journal and conference papers and holds more than 20 national and international patents, in most of which he worked as the first author, the first author & corresponding author, or the first inventor. He works as one active reviewer of numerous high level journals including IEEE Wireless Communications Magazine, IEEE Communications Magazine, IEEE Communications Letters, IEEE Wireless Communications Letters, IEEE Journal of Lightwave Technology, Elsevier Optics Communications, OSA Optics Letters, and OSA Optics Express. He is a senior member of Chinese Institute of Electronics, Chinese Optical Society, and China Institute of Communications.