Alert button
Picture for Cheng-Xiang Wang

Cheng-Xiang Wang

Alert button

Artificial intelligence enabled radio propagation for communications-Part II: Scenario identification and channel modeling

Nov 24, 2021
Chen Huang, Ruisi He, Bo Ai, Andreas F. Molisch, Buon Kiong Lau, Katsuyuki Haneda, Bo Liu, Cheng-Xiang Wang, Mi Yang, Claude Oestges, Zhangdui Zhong

Figure 1 for Artificial intelligence enabled radio propagation for communications-Part II: Scenario identification and channel modeling
Figure 2 for Artificial intelligence enabled radio propagation for communications-Part II: Scenario identification and channel modeling
Figure 3 for Artificial intelligence enabled radio propagation for communications-Part II: Scenario identification and channel modeling
Figure 4 for Artificial intelligence enabled radio propagation for communications-Part II: Scenario identification and channel modeling
Viaarxiv icon

Artificial intelligence enabled radio propagation for communications-Part I: Channel characterization and antenna-channel optimization

Nov 24, 2021
Chen Huang, Ruisi He, Bo Ai, Andreas F. Molisch, Buon Kiong Lau, Katsuyuki Haneda, Bo Liu, Cheng-Xiang Wang, Mi Yang, Claude Oestges, Zhangdui Zhong

Figure 1 for Artificial intelligence enabled radio propagation for communications-Part I: Channel characterization and antenna-channel optimization
Figure 2 for Artificial intelligence enabled radio propagation for communications-Part I: Channel characterization and antenna-channel optimization
Figure 3 for Artificial intelligence enabled radio propagation for communications-Part I: Channel characterization and antenna-channel optimization
Figure 4 for Artificial intelligence enabled radio propagation for communications-Part I: Channel characterization and antenna-channel optimization
Viaarxiv icon

A Geometry-Based Stochastic Model for Truck Communication Channels in Freeway Scenarios

Oct 25, 2021
Chen Huang, Rui Wang, Cheng-Xiang Wang, Pan Tang, Andreas F. Molisch

Figure 1 for A Geometry-Based Stochastic Model for Truck Communication Channels in Freeway Scenarios
Figure 2 for A Geometry-Based Stochastic Model for Truck Communication Channels in Freeway Scenarios
Figure 3 for A Geometry-Based Stochastic Model for Truck Communication Channels in Freeway Scenarios
Figure 4 for A Geometry-Based Stochastic Model for Truck Communication Channels in Freeway Scenarios
Viaarxiv icon

A 3D Non-Stationary Geometry-Based Stochastic Model for Industrial Automation Wireless Communication Systems

Aug 14, 2021
Yuxiao Li, Cheng-Xiang Wang, Yang Liu

Figure 1 for A 3D Non-Stationary Geometry-Based Stochastic Model for Industrial Automation Wireless Communication Systems
Figure 2 for A 3D Non-Stationary Geometry-Based Stochastic Model for Industrial Automation Wireless Communication Systems
Figure 3 for A 3D Non-Stationary Geometry-Based Stochastic Model for Industrial Automation Wireless Communication Systems
Figure 4 for A 3D Non-Stationary Geometry-Based Stochastic Model for Industrial Automation Wireless Communication Systems
Viaarxiv icon

A Novel 3D Non-Stationary GBSM for 6G THz Ultra-Massive MIMO Wireless Systems

Aug 14, 2021
Jun Wang, Cheng-Xiang Wang, Jie Huang, Haiming Wang, Xiqi Gao, Xiaohu You, Yang Hao

Figure 1 for A Novel 3D Non-Stationary GBSM for 6G THz Ultra-Massive MIMO Wireless Systems
Figure 2 for A Novel 3D Non-Stationary GBSM for 6G THz Ultra-Massive MIMO Wireless Systems
Figure 3 for A Novel 3D Non-Stationary GBSM for 6G THz Ultra-Massive MIMO Wireless Systems
Figure 4 for A Novel 3D Non-Stationary GBSM for 6G THz Ultra-Massive MIMO Wireless Systems
Viaarxiv icon

A 2D Non-Stationary Channel Model for Underwater Acoustic Communication Systems

Aug 14, 2021
Xiuming Zhu, Cheng-Xiang Wang, Ruofei Ma

Figure 1 for A 2D Non-Stationary Channel Model for Underwater Acoustic Communication Systems
Figure 2 for A 2D Non-Stationary Channel Model for Underwater Acoustic Communication Systems
Figure 3 for A 2D Non-Stationary Channel Model for Underwater Acoustic Communication Systems
Figure 4 for A 2D Non-Stationary Channel Model for Underwater Acoustic Communication Systems
Viaarxiv icon

Multi-Frequency Wireless Channel Measurements and Characteristics Analysis in Indoor Corridor Scenarios

Aug 14, 2021
Zihao Zhou, Li Zhang, Xinyue Chen, Cheng-Xiang Wang, Jie Huang

Figure 1 for Multi-Frequency Wireless Channel Measurements and Characteristics Analysis in Indoor Corridor Scenarios
Figure 2 for Multi-Frequency Wireless Channel Measurements and Characteristics Analysis in Indoor Corridor Scenarios
Figure 3 for Multi-Frequency Wireless Channel Measurements and Characteristics Analysis in Indoor Corridor Scenarios
Figure 4 for Multi-Frequency Wireless Channel Measurements and Characteristics Analysis in Indoor Corridor Scenarios
Viaarxiv icon

A 3D Non-Stationary Channel Model for 6G Wireless Systems Employing Intelligent Reflecting Surfaces with Practical Phase Shifts

Apr 25, 2021
Yingzhuo Sun, Cheng-Xiang Wang, Jie Huang, Jun Wang

Figure 1 for A 3D Non-Stationary Channel Model for 6G Wireless Systems Employing Intelligent Reflecting Surfaces with Practical Phase Shifts
Figure 2 for A 3D Non-Stationary Channel Model for 6G Wireless Systems Employing Intelligent Reflecting Surfaces with Practical Phase Shifts
Figure 3 for A 3D Non-Stationary Channel Model for 6G Wireless Systems Employing Intelligent Reflecting Surfaces with Practical Phase Shifts
Figure 4 for A 3D Non-Stationary Channel Model for 6G Wireless Systems Employing Intelligent Reflecting Surfaces with Practical Phase Shifts
Viaarxiv icon

A General 3D Space-Time-Frequency Non-Stationary THz Channel Model for 6G Ultra-Massive MIMO Wireless Communication Systems

Apr 20, 2021
Jun Wang, Cheng-Xiang Wang, Jie Huang, Haiming Wang, Xiqi Gao

Figure 1 for A General 3D Space-Time-Frequency Non-Stationary THz Channel Model for 6G Ultra-Massive MIMO Wireless Communication Systems
Figure 2 for A General 3D Space-Time-Frequency Non-Stationary THz Channel Model for 6G Ultra-Massive MIMO Wireless Communication Systems
Figure 3 for A General 3D Space-Time-Frequency Non-Stationary THz Channel Model for 6G Ultra-Massive MIMO Wireless Communication Systems
Figure 4 for A General 3D Space-Time-Frequency Non-Stationary THz Channel Model for 6G Ultra-Massive MIMO Wireless Communication Systems
Viaarxiv icon

A 3D Non-stationary MmWave Channel Model for Vacuum Tube Ultra-High-Speed Train Channels

Feb 09, 2021
Yingjie Xu, Kai Yu, Li Li, Xianfu Lei, Li Hao, Cheng-Xiang Wang

Figure 1 for A 3D Non-stationary MmWave Channel Model for Vacuum Tube Ultra-High-Speed Train Channels
Figure 2 for A 3D Non-stationary MmWave Channel Model for Vacuum Tube Ultra-High-Speed Train Channels
Figure 3 for A 3D Non-stationary MmWave Channel Model for Vacuum Tube Ultra-High-Speed Train Channels
Figure 4 for A 3D Non-stationary MmWave Channel Model for Vacuum Tube Ultra-High-Speed Train Channels
Viaarxiv icon