| | | 发布人: 王俊 发布时间: 2025-06-03 浏览次数: |
|个人简介|科研|教学|管理|课题组成员|荣誉奖项|专业活动|员工奖项|发表文章|信道仿真器| --->779cn太阳集团-紫金山实验室-6G普适信道仿真器(点击链接获取)<--- --->2025年“6G无线信道测量与建模”国际研讨会(点击了解)<--- 个人简介王承祥,男,博士,779cn太阳集团副董事长、首席教授、移动通信全国重点实验室副主任、紫金山实验室教授、欧洲科公司院士、欧洲科学与艺术院院士、英国爱丁堡皇家学会院士、IEEE Fellow、IET Fellow、中国通信学会会士、科睿唯安“全球高被引科学家”、IEEE通信协会2019-2020杰出讲师、2020年“十佳中国电子学会优秀科技工作者”、江苏省双创团队领军人才、江苏省双创人才。 分别于1997年和2000年在山东大学获得电子与信息系统理学学士和通信与信息系统工学硕士学位,于2004年在丹麦奥尔堡大学获无线通信博士学位。2005年被英国赫瑞瓦特大学(Heriot-Watt University)聘为讲师,创建先进无线技术实验室并担任主任,于2009年晋升为副教授(Reader),于2011年晋升为教授,成为该校电子工程系历史上最年轻的教授。2018年被聘为779cn太阳集团移动通信全国重点实验室教授、博导。2020年12月、2025年4月先后任779cn太阳集团执行经理、经理,从2026年4月担任779cn太阳集团副董事长。 目前主要研究方向为无线信道测量与建模、6G/B6G全域智联网络、电磁信息论等,已出版专著5部,发表期刊和国际会议论文730多篇,其中IEEE核心期刊论文290多篇, ESI高被引论文35篇,授权国内外发明专利50余项,荣获2025中国电子学会自然科学一等奖、2024年IEEE尼尔谢菲尔德最佳传播论文奖、2023年《中国科学:信息科学》热点论文奖、2022中国电子学会电子信息领域优秀论文、2022年第七届中国科协优秀科技论文、2022年《物联网学报》优秀论文,有20篇国际会议论文获评“最佳论文奖”。担任过IEEE
Transactions on Wireless Communications的执行编委会成员(2019-2025)和16个国际期刊的编委或客座编委。在40个国际会议上被邀请作大会主旨报告(keynote),在24个国际会议上做专题报告 (Tutorials)。曾担任30多个国际会议的总主席、技术程序委员会主席或分会主席等。主持了国家自然科学基金重大项目、国家重点研发计划项目课题、英国工程与自然科学研究理事会(EPSRC)、欧盟及工业界资助的60多项项目。 科研研究领域:无线信道测量与建模 6G/B6G全域智联网络 电磁信息论 科研项目:779cn太阳集团项目:1. | 面向低空经济的6G通感智融合数字孪生在线信道建模及网规网优研发,江苏省科技重大专项(项目编号:BG2025039),项目负责人,2025.09-2028.08. | 2. | 连续立体空间无线电信道测量与建模理论,国家自然科学基金重大项目(项目批准号:62394291),课题一负责人,2024.1.1-2028.12.31. | 3. | 连续立体空间无线电信道基础研究,国家自然科学基金重大项目(项目批准号:62394290),项目负责人,2024.1.1-2028.12.31. | 4. | 大规模无线通信信道特性与理论建模,科技部国家重点研发计划项目“大规模无线通信物理层基础理论与技术”(项目编号:2018YFB1801100) 课题一(课题编号:2018YFB1801101),“大规模无线通信信道特性与理论建模”,课题负责人,2019.7.1-2023.6.30. | 5. | 非对称毫米波亚毫米波大规模 MIMO 信道测量与建模,科技部国家重点研发计划项目“非对称毫米波亚毫米波大规模 MIMO 关键技术研究及系统验证”(项目编号:2020YFB1804900) 课题一(课题编号:2020YFB1804901),“非对称毫米波亚毫米波大规模MIMO信道测量与建模”,课题骨干,2020.7.1-2023.6.30. | 6. | B5G移动通信信道测量与建模理论研究,国家自然科学基金重点国际合作项目(项目批准号:61960206006),项目负责人,2020.1.1-2024.12.31. | 7. | 未来6G无线通信信道测量、建模与性能评估技术研发,江苏省重点研发项目(项目编号:BE2022067),项目负责人,2022.06-2026.06. | 8. | 面向6G的太赫兹无线通信关键技术研究,江苏省双创团队项目(项目编号:1104000403),团队领军人才, 2019.11-2022.11. | 9. | 面向6G的室外毫米波通信信道测量与建模研究,江苏省双创人才项目(项目编号:1104000401),双创人才,2019.11-2022.11. |
赫瑞瓦特大学(Heriot-Watt University)项目:1. | 5G RuralFirst: Rural
Coverage and Dynamic Spectrum Access Testbed and Trial, Supported by DCMS(5G
Testbeds and Trials Programme: Phase 1), 1 June 2018-30 September 2019. | 2. | Downhole Wireless RF
Communications System for Deployment in Oil and Gas Wells, Supported by Oil and Gas Innovation Centre (OGIC), 1 August
2018-31 July 2021. | 3. | A Unified Multiple
Access Framework for Next Generation Mobile Networks By Removing
Orthogonality, Supported by EPSRC
(Ref.: EP/P009670/1), 1 May 2017-30 April 2020. | 4. | Testing and Evaluating
Sophisticated information and communication Technologies for enabling a smarter
grid (TESTBED), Supported
by Research and Innovation Staff Exchange (RISE) Scheme
(H2020-MSCA-RISE-2016), European Commission, 1 January 2017-31 December 2019. | 5. | Innovative
Architectures, Wireless Technologies and Tools for High Capacity and
Sustainable 5G Ultra-Dense Cellular Networks (5G Wireless), Supported by Horizon 2020, MARIE SKłODOWSKA-CURIE ACTIONS,
Innovative Training Networks (H2020-MSCA-ITN-2014), European Commission, 1
January 2015-31 December 2018. | 6. | Large Scale Antenna
Systems Made Practical: Advanced Signal Processing for Compact Deployments
[LSAS-SP], Supported by EPSRC
(Ref.: EP/M014126/1), 15 January 2015-14 January 2018. | 7. | Towards Ultimate Convergence
of All Networks (TOUCAN), Supported
by EPSRC
Programme Grant (Ref: EP/L020009/1), 11 November 2014-10 August 2020. | 8. | Quality-of-Experience Improvement
for Mobile Multimedia across Heterogeneous Wireless Networks (QUICK), Supported by International Research Staff Exchange Scheme
(FP7-PEOPLE-2013-IRSES), European Commission, 1 July 2014-30 June 2018. | 9. | Key Technologies for
5G Wireless Communication Networks, Supported by
SNCS Research Center, the University of Tabuk, and the Ministry of Higher
Education in Saudi Arabia, 1 Oct. 2013-30 April 2015. | 10. | Test and Consultancy
of Intelligent Wireless Communication Transceiver,
Supported by Scottish Funding Council,
22 June-31 December 2012. | 11. | End to End Capacity
Management of Mobile Broadband Networks,
Supported by Hutchison 3G UK, 1
March 2012-28 February 2015. | 12. | Ambulatory
Transcranial Doppler Ultrasound, Supported
by Southern
General Hospital, Glasgow, UK, 19 September 2011-18 September 2015. | 13. | Radio Resource
Management for Cognitive Green Communication Networks, Supported by Hutchison 3G
UK, 1 June 2011-31 May 2014. | 14. | UK-China Science
Bridges: R&D on (B)4G Wireless Mobile Communications, Supported by Research
Councils UK (EPSRC
Grant Information), 1 August 2009-31 July 2012. | 15. | Spectral-Energy
Efficiency Tradeoff of Cooperative Communication Networks, Supported by the EPSRC and Mobile VCE Core 5, 1 Jan. 2009-31
March 2012. | 16. | A Study of the Effect
of Local Objects on Indoor Propagation Channels,
Supported by the EPSRC and National Physical Laboratory (NPL), EngD Studentship, 2 Feb.
2009-1 Feb. 2013. | 17. | Synchronisation
Techniques for ECMA-368 Ultra-Wideband and DECT Wireless Systems, Supported by the EPSRC and TES
Electronic Solutions, EngD
Studentship, 18 Sept. 2008-17 Sept. 2012. | 18. | Interference Modelling
and Management for Cognitive Radio Networks,
Supported by ERP
JRI-SIP, PhD Studentship, Nov. 2007-Nov. 2010. | 19. | Error Models for
Digital Channels and Applications to Wireless Communication Systems, Supported by the EPSRC and Philips Research Cambridge, CASE
for New Academics (CNA), 1 June 2007-30 Nov. 2010. | 20. | MIMO Channel Modelling
and Simulation for Cellular and Mobile-to-Mobile Communication Systems, Supported by ERP JRI-SIP, PhD
Studentship, 1 Oct. 2006-30 Sept. 2009. | 21. | A Study on Novel PAPR
Reduction Methods in OFDM Wireless Communication Systems, Supported by the Royal
Society of Edinburgh, UK, Feb. 2007. | 22. | A Rapid Multipath MIMO
Channel Simulator for E-UTRA and E-UTRAN,
Supported by BenQ Mobile,
Germany, 2005-2007. | 23. | Advances in
Exploration Methods and Applications (ADEMA),
Supported by the European Commission's Research Fund for Coal and Steel,
2005-2008. |
教学779cn太阳集团教学:国际暑期公司课程:移动衰落信道建模(Mobile Fading Channel Modeling),2021- 国际暑期公司课程:无线通信系统概论(Introduction to Wireless Communication Systems),2021- 本科三年级春季全英文讨论课:移动衰落信道建模(Mobile Fading Channel Modeling),2019-2020 研究生春季全英文讨论课:无线信道测量与建模(Wireless Channel Measurements and Modeling),2020- 赫瑞瓦特大学(Heriot-Watt University)教学:UG course B37VA1:
Praxis Electronic Design (Semester 1 2018/2019, 2017/2018, 2016/2017,
2015/2016) UG course B38CN2:
Introduction to Communications and Networks (Semester 2 2016/2017, 2017/2018) MSc course B31SI2:
Principles of Mobile Communications (Semester 2 2016/2017, 2015/2016,
2014/2015, 2013/2014, 2012/2013, 2011/2012, 2010/2011, 2009/2010, 2008/2009) MSc course B31SF1:
Communications & Networks (Semester 1 2014/2015, 2013/2014, 2012/2013,
2011/2012, 2010/2011, 2009/2010, 2008/2009) UG course B38DB1:
Digital Design and Programming (Semester 1 2014/2015) MSc course B30PA1:
Software Engineering 1 (Semester 1 2009/2010, Semester 1 2008/2009) MSc course B39JT2:
Principles of Mobile Communications (Term 2 2007/2008) MSc course B39QE1:
Communications & Networks (Term 1 2007/2008, Term 1 2006/2007, Term 1
2005/2006) MSc course B39DQ1:
Computer Hardware (Term 1 2007/2008) MSc course B39CN2:
Communications 2 (Term 2 2006/2007, Term 2 2005/2006) 管理779cn太阳集团职务:779cn太阳集团副董事长 (2026.4.20-) 779cn太阳集团经理 (2025.4.16-) 779cn太阳集团执行经理 (2020.12.1-2025.4.16) 779cn太阳集团2011“无线通信技术协同创新中心”主任 (2023.6.26-) 移动通信全国重点实验室副主任 (2023.12.11-) 赫瑞瓦特大学(Heriot-Watt University)职务:Deputy Head
of Institute
of Sensors, Signals and Systems (2014.6-2018.6) Programme Director
for BEng
Telecommunications Engineering (2015.1-2018.6) Programme Director
for MSc Mobile
Communications (2008.5-2015.5) Director for EPS
China Development Group (2006.1-2018.6) 课题组教师(4):1. 黄杰,779cn太阳集团副教授,2020.11- 2. 李俊伶,779cn太阳集团副研究员,2022.09- 3. 吴希平,779cn太阳集团教授,2024.05- 4. 李映泉,779cn太阳集团副研究员,2026.03- 779cn太阳集团博士后(3):1. 黄杰,博新计划资助全职博士后,副教授,2018.09-2020.09 2. 刘洋,博士后,2019.03- 3. 颜晓娟,博士后(出站),2019.12-2021.12 紫金山实验室研究员 (5)1. 吕振,无线信道工程师,2020.09- 2. 王樱华,无线信道工程师,2021.07- 3. 辛立建,无线信道副研究员,2021.07- 4. 黄晨,无线信道副研究员,2023.04- 5. 冯瑞,无线信道副研究员,2024.03- 紫金山实验室博士后(9)1. 黄晨,紫金山实验室、779cn太阳集团双聘博士后,2021.04-2023.04 2. 冯瑞,紫金山实验室、779cn太阳集团双聘博士后,2020.10-2024.3 3. 常恒泰,紫金山实验室、779cn太阳集团双聘博士后,2021.09-2024.08 4. 杨松江,紫金山实验室博士后(出站),2022.08-2025.9 5. 陈帅飞,紫金山实验室、779cn太阳集团双聘博士后,2023.07- 6. 王俊,紫金山实验室博士后,2023.09- 7. 计涵,紫金山实验室博士后,2025.04- 8. 王龙河,紫金山实验室博士后,2025.10- 9. 俞凡,紫金山实验室博士后,2026.01- 779cn太阳集团博士研究生(46):1. 赖凡,硕博连读,2017.03-2023.09(入职:奇富科技(上海)) 2. 王俊,硕博连读,2018.09-2023.09(入职:紫金山实验室) 3. 郑一,硕博连读,2019.09-2023.09(入职:航天工程大学) 4. 张丽,直博,2019.09-2025.03(入职:华为上海研究所) 5. 周文奇,普博,2020.04-2026.03 6. 杨悦,直博,2020.09-2025.06(入职:中兴通讯股份有限公司) 7. 杨润若,硕博连读,2021.03-2025.09(入职:鹏城实验室) 8. 周子皓,硕博连读,2021.09-2025.11(入职:华为 2012 实验室) 9. 马一琳,直博,2021.09- 10. 周宇阳,直博,2022.09- 11. 顾晨轩,硕博连读,2022.09- 12. 侯琳,硕博连读,2022.09- 13. 卜颖澜,硕博连读,2022.09- 14. 毛曦晨,硕博贯通,2023.03- 15. 金峥嵘,直博,2023.09- 16. 吴彤,直博,2023.09- 17. 吴群,普博,2023.09- 18. 齐天润,硕博贯通,2024.03- 19. 欧阳,硕博贯通,2024.03- 20. 杨雨轩,硕博连读,2024.03- 21. 严鸿宇,硕博连读,2023.09- 22. 宿国纲,硕博连读,2023.09- 23. 张开元,硕博连读,2023.09- 24. 钱中玉,普博,2024.03- 25. 黄欢,普博,2024.09- 26. 张惟天,普博,2024.09- 27. 杨漪烨,普博,2024.09- 28. 杨乾泽,普博,2024.09- 29. 丁子豪,普博,2024.09- 30. 扎雅德,普博,2024.09- 31. 阿杜,普博,2024.09- 32. 王千瑞,在职博,2024.09- 33. 李周昊,普博,2025.03- 34. 肖诗宇,直博,2025.09- 35. 崔宸豪,直博,2025.09- 36. 张贝宁,保研直博,2025.09- 37. 赵浩博,普博,2025.09- 38. 李璎梦,普博,2025.09- 39. 席诗语,普博,2025.09- 40. 刘冠麟,普博,2025.09- 41. 吕振,非全日制工程博士,2025.09- 42. 上官星耀,硕博贯通,2024.09- 43. 陈子炫,硕博贯通,2024.09- 44. 杨宇,硕博连读,2024.09- 45. 王思杰,硕博连读,2024.09- 46. 李瀚甫,硕博连读,2024.09- 779cn太阳集团硕士研究生(73):1. 于龙,2019.09-2022.06(入职:华为上海研究所) 2. 陈心悦,2019.09-2022.06(入职:华为苏州研究所) 3. 孙颖卓,2020.09-2023.06(读博:瑞典皇家理工公司KTH) 4. 李子昕,2020.09-2023.06(入职:中国航空工业集团公司成都飞机设计研究所) 5. 朱秀铭,2020.09-2023.06(入职:中国航天科工集团八五一一研究所) 6. 续英杰,2020.09-2023.06(读博:隆德大学) 7. 李玉箫,2020.09-2023.06(入职:国网南京江宁供电公司) 8. 黄佳玲,2020.09-2023.06(入职:华为上海研究所) 9. 李哲鳌,2020.09-2023.06(读博:新加坡南洋理工大学) 10. 钱中玉,2020.09-2024.03(读博:779cn太阳集团) 11. 高佳峻,2021.09-2024.06(入职:大疆) 12. 季雯协,2021.09-2024.06(入职:华为上海研究所) 13. 吉星宇,2021.09-2024.06(入职:国网山东省电力公司信息通信公司) 14. 王若宇,2021.09-2024.06(入职:779cn太阳集团卓工公司) 15. 赵德源,2021.09-2024.06(入职:无锡技师公司) 16. 黄多贤,2021.09-2024.06(入职:华为南京研究所) 17. 马庆银,2022.09-2025.06(入职:华为技术有限公司(南京)) 18. 吕婧菀,2022.09-2025.06(读博:林雪平大学) 19. 王晨,2022.09-2025.06(入职:苏州瑞晟微电子有限公司) 20. 武阳,2022.09-2025.06(入职:国防科技大学) 21. 石佳粤,2022.09-2025.09(入职:上海华为技术有限公司) 22. 纵源,2022.09-2025.06(入职:小米科技有限公司) 23. 苏平凡,2022.09-2025.06(入职:华为上海技术有限公司) 24. 丁书艺,2022.09-2025.06(入职:中国移动浙江公司) 25. 扎雅德,2022.09-2024.09(读博:779cn太阳集团) 26. 刁思齐,2023.09- 27. 陈丹彤,2023.09- 28. 黄昱崧,2023.09- 29. 李涵成,2023.09- 30. 季姜晗,2023.09- 31. 徐凡,2023.09- 32. 白栋,2023.09- 33. 闫鹏鹏,2023.09- 34. 刘雍,2023.09- 35. 郭清旭,2023.09- 36. 周勇杉,2023.09- 37. 宋理想,2023.09- 38. 张世豪,2024.09- 39. 赵艺涵,2024.09- 40. 帅杰博,2024.09- 41. 潘宇航,2024.09- 42. 陈品翰,2024.09- 43. 白羽祺,2024.09- 44. 韩宇恒,2024.09- 45. 吴航,2024.09- 46. 曾文宇,2024.09- 47. 万苏宁,2024.09- 48. 罗天,2024.09- 49. 梁康骏,2024.09- 50. 姚茗川,2025.09- 51. 吴佳泽,2025.09- 52. 陈孝钰,2025.09- 53. 张世轩,2025.09- 54. 李雨轩,2025.09- 55. 俞皓凯,2025.09- 56. 顾绍博,2025.09- 57. 叶厚求,2025.09- 58. 孙诗宸,2025.09- 59. 张苇豪,2025.09- 60. 王非,2025.09- 61. 李嘉恒,2025.09- 62. 刘羿彤,2025.09- 63. 牛帅,2025.09- 64. 郭懿鋆,2025.09- 65. 赵海涛,2025.09- 66. 贺子涵,2025.09- 67. 周雅丽,2025.09- 68. 董雪珂,2025.09- 69. 原瑜岳,2025.09- 70. 丁卓奇,2025.09- 71. 王柯,2025.09- 72. 陈荣,2025.09- 73. 程嘉,2025.09- 赫瑞瓦特大学曾任研究助理(10):1. Dr. Yu
Fu, PDRA for the project TOwards Ultimate Convergence
of All Networks (TOUCAN), 1 May 2016-10 August 2020. 2. Dr.
Xuemin Hong, Network Manager for the project UK-China Science Bridges: R&D on
(B)4G Wireless Mobile Communications, 1 August 2009-31 July 2011. 3. Dr.
Pat Chambers, Wireless MIMO Testbed Developer for the project UK-China Science Bridges: R&D on
(B)4G Wireless Mobile Communications, 11 July 2011-31 July 2012. 4. Dr.
Zengmao Chen, Network Manager for the project UK-China Science Bridges: R&D on
(B)4G Wireless Mobile Communications, 1 August 2011-31 July 2012. 5. Dr.
Piya Patcharamaneepakorn, PDRA in Massive MIMO Systems for the
project Key Technologies for 5G Wireless Communication Networks, 1 May
2014-30 April 2015. 6. Dr.
Xianyue Wu, PDRA in mmWave Channel Measurements and Modelling for the
project Key Technologies for 5G Wireless Communication Networks, 1 May
2014-30 April 2015. 7. Dr.
Yan Zhang, PDRA for the project Non-Stationary IMT-A MIMO Channel
Models with Time-Varying Parameters, 15 August 2014-14 August 2015. 8. Dr.
Liang Gong, PDRA for the project TOwards Ultimate Convergence
of All Networks (TOUCAN), 1 May 2015-6 May 2016. 9. Mr.
Carlos Lopez, Early Stage Researcher for the project Innovative
Architectures, Wireless Technologies and Tools for High Capacity and
Sustainable 5G Ultra-Dense Cellular Networks (5G Wireless), 16 September
2015-15 September 2018. 10. Mr. Yi
Tan, Early Stage Researcher for the project Innovative Architectures,
Wireless Technologies and Tools for High Capacity and Sustainable 5G
Ultra-Dense Cellular Networks (5G Wireless), 16 September 2015-15 September
2018. 赫瑞瓦特大学已毕业博士研究生(19):1. Dr.
Xuemin Hong, “Secondary Mobile Access via Ultra-Wideband and Cognitive
Radio Networks”, October 2005 ~ October 2008 (successful viva on 10 October
2008); now Professor in Xiamen University, China. 2. Dr.
Xiang Cheng, “MIMO Channel Modelling and Simulation for Cellular and
Mobile-to-Mobile Communication Systems”, October 2006 ~ October 2009 (successful
viva on 6 October 2009); now Professor in Peking University, China. 3. Dr.
Michail Matthaiou (University of Edinburgh; Main Supervisor: Dr David Laurenson), “Characterisation
and Modelling of Indoor and Short-Range MIMO Communications”, September
2005-November 2008 (successful viva on 7 November 2008); now Assistant
Professor in Chalmers University
of Technology, Sweden. 4. Dr. Jun Zhou (University
of Edinburgh; Main Supervisor: Dr
John Thompson), “Interference Mitigation for Cognitive Radio”, September
2005-2009. 5. Dr. Hongjian Sun (University
of Edinburgh; Main Supervisor: Dr
David Laurenson), “Collaborative Spectral Sensing in Cognitive Radio
Networks”, June 2007-Dec. 2010 (successful viva on 20 December 2010);
now Lecturer in Durham University, UK. 6. Dr.
Zengmao Chen, “Interference Modelling and Management for Cognitive Radio
Networks”, November 2007-May 2011(successful viva on 12 May 2011); now
Assistant Professor in Nanjing University of Technology, China. 7. Dr.
Omar Saeed Salih, “Error Models for Digital Channels and Applications to
Wireless Communication Systems”, 1 June 2007-June 2013 (successful viva on
23 June 2013); now Assistant Lecturer in Coventry University, UK. 8. Dr.
Chui Choon Ivan Ku, “Spectral-Energy Efficiency Tradeoff of Cooperative
Communication Networks”, 22 April 2009 -June 2013 (successful viva on 24
June 2013); now Lecturer in Malaysia International University, Malaysia. 9. Dr.
Yi Yuan, “MIMO Channel Modelling and Simulation for Advanced Wireless
Communication Systems”, 18 January 2010-1 May 2014 (successful viva on 1 May
2014); now Wireless Engineer-Specialist/R&D at Ocado Technology, London. 10. Dr. Yu
Fu, “Performance Investigation of Spatial Modulation Systems Under
Realistic MIMO Channel Models”, 15 November 2010-April 2015 (successful viva
on 28 April 2015); now Postdoc at HWU. 11. Dr.
Fourat Haider, “Spectral-Energy Efficiency Tradeoff for Next-Generation
Wireless Communication Systems”, 6 December 2010-June 2015 (successful viva
on 5 June 2015); now with Hutchison 3G UK. 12. Dr.
Ammar Ghazal, “Propagation Channel Characterisation and Modelling for
High-Speed Train Communication Systems”, 14 January 2011-June 2015 (successful
viva on 11 September 2015); now Early Career Academic Fellow with School
of Engineering and Sustainable Development, De Montfort University,
Leicester, UK. 13. Dr.
Shangbin Wu, “Channel Characterisation and Modelling for Massive MIMO 5G
Wireless Communication Systems”, 28 September 2012-June 2015 (successful
viva on 30 September 2015); now with Samsung UK. 14. Dr.
Ahmed Al-Kinani, “Channel Modelling and Interference Management Techniques
for Visible Light Communication Networks”, September 2013-November 2017 (successful
viva on 28 November 2017) 15. Dr.
Qianru Zhou, “End-to-End Performance Evaluation of Converged Optical and
Wireless Networks”, 20 January 2015-May 2018 (successful viva on 3 May 2018) 16. Dr.
Carlos Lopez, Large-Scale and Spatial Modulation MIMOs: Algorithms, 3D
Channel Modelling and Experiments, 16 September 2015-August 2019 (successful
viva on 30 August 2019) 17. Dr. Yi
Tan, Measurement-Based Statistical Channel Modelling of mmWave
Communications, 16 September 2015-September 2019 (successful viva on 20
September 2019) 18. Dr. Andrew
Thompson (Heriot-Watt University; Main Supervisor: Prof. David Wolfe Corne),
“Exploring Self-Optimisation for Next Generation Mobile Networks”, August
2008-2014 19. Dr.
Abdelhamid H. F. Younis (The University of Edinburgh; Main
Supervisor: Prof. Harald
Haas), 'Spatial Modulation Techniques', 2010-2013 赫瑞瓦特大学已毕业工程博士研究生(2):1. Dr.
Margaret Uzunma Anyaegbu, “Synchronisation Techniques for ECMA-368
Ultra-Wideband and DECT Wireless Systems”, 18 September 2008~July 2013 (successful
viva on 19 July 2013); now Engineer in TES Electronic Solutions Ltd.,
Edinburgh, UK. 2. Dr. Sandy Weir, “Channel
Characterisation and Modelling for Transcranial Doppler Ultrasound”, 19
September 2011~October 2016 (successful viva on 28 October 2016); now
Head of Software Engineering (Medical Devices Unit), Southern General Hospital,
Glasgow, UK. 赫瑞瓦特大学已毕业硕士研究生(38):1. Mr Yuhang Zhang,
“3D Channel Models for Visible Light Communication Systems”, February-September
2018. 2. Miss Yola Jones, “Expanding
Functionality of an Embedded Device”, June-December
2017. 3. Mr Cameron Craig,
“Hardware Accelerated MPEG Transport Stream Encryption
using the Integrated Security Engine of a Freescale QorIQ P1022 Communications
Processor”, June-December 2016. 4. Mr Xiaotong Shen,
“3D Tunnel Channel Models for High-Speed Train Wireless Communication Systems”,
February-September 2016. 5. Mr Wei Lu,
“Space-Frequency Index Modulation Wireless Communication Systems”,
February-September 2015. 6. Mr Wenyu Sun,
“System Level Performance of Massive MIMO Wireless Communication Systems”,
February-September 2015. 7. Mr Jin Ju,
“Channel Models for High-Speed Train Wireless Communication Systems”,
February-September 2015. 8. Mr Bin Lin,
“Wireless Body Area Networks for Medical Monitoring Applications”,
February-September 2014. 9. Mr Zhou Zhou,
“A Performance Study of Spatial Modulation Techniques under High Velocity
Channel Models”, February-September 2014. 10. Mr Clément
Robert, “Spectrum Learning for Cognitive Radio Networks”,
February-September 2013. 11. Mr Seven
Marderosian, “Traffic Analysis and Management in LTE Mobile Cellular
Systems Using Opnet”, February-September 2013. 12. Mr Li JIANG,
“A Performance Study of Spatial Modulation Techniques under High-Speed Train
Channel Models”, February-September 2013. 13. Mr Yi Lu,
“Multi-Frequency Wireless Channel Measurements and Characterisation using the
NI Testbed ”, February-August 2012. 14. Ms Gunash
Rostamiaminlou, “A Performance Study of Spatial Modulation Techniques under
High Velocity Channel Models”, February-August 2012. 15. Ms Jiawei Song,
“A Performance Study of Spatial Modulation Techniques Using MIMO Channel
Models”, February- August 2012. 16. Ms Aruna P.
Vivekanand, “High Development of a Demonstrator for LTE Mobile
Communication Systems”, February- August 2011. 17. Mr Pradeep
Kemparaju, “Software Defined Radio on GPP-based Parallel Computing
Platform”, February-August 2011. 18. Mr Fengfeng Wu,
“Development of an OFDM Modem for a 4G Wireless Testbed”, February-August
2011. 19. Mr Raul
Jose Hernandez Fernandez, “Metrology-Oriented Wireless Communication
Technologies”, 2 February 2009-June 2011;(viva on 11 July 2011). 20. Mr
Ammar Ghazal, “Comparison of Standardised MIMO Channel Models for 4G
Wireless Communication Systems”, 30 October 2009 - October 2010 (successful
viva on 8 October 2010). 21. Mr Yu Fu,
“High Performance Software Radio Platform for LTE Systems”, January-August
2010. 22. Miss Ting Lang,
“Performance Measurement of LTE Transmitters and Receivers”, January-August
2010. 23. Mr. Osama
Elhodaire, “Carrier Aggregation for LTE-Advanced Systems”, January-August
2010. 24. Mr. Robert
Hemesley, “Development of a FPGA-based Software Defined Radio Platform”,
January-August 2010. 25. Mr Yi Yuan,
“A Study on Three-Dimensional Mobile-to-Mobile Channel Models”,
February-September 2009. 26. Miss Xiang Zhu,
“Adaptive Generative Models for Digital Wireless Channels”, February-September
2009. 27. Miss Jing Huang,
“Interference Modelling for Cognitive Radio Systems”, February-September 2009. 28. Mr Ruoheng
Huang, “Hidden Markov Modelling of Digital Wireless Channels”, January-June
2009. 29. Mr.
Chinazom Wilson Uwaoma, “Impact of Spatial Correlation and Mutual Coupling
on MIMO Channel Capacity”, May-August 2008. 30. Mr. Chuan
Wang, “Interference Mitigation for Cognitive Radio Systems”, May-August
2008. 31. Mr. Luis
Alfredo Mateos Guzman, “A Study on MIMO Mobile-To-Mobile Wireless Fading
Channel Models”, March-June 2008. 32. Mr.
Cheng Zhou, “A Study on Distributed MIMO Systems Based on UWB WBAN”,
May-September 2007. 33. Mr. Md
Mokaddes Hossain, “A Performance Study of Space-Time-Frequency Coded MIMO
MB-OFDM Wireless Communication Systems”, May-September 2007. 34. Mr.
Kingsley Ebruke, “A Study on Geometrically-Based Stochastic MIMO Channel
Models”, May-September 2007. 35. Mr.
Masood Ahmad Jan, “An Investigation of Correlation Based Stochastic MIMO
Channel Models”, May-November 2006. 36. Mr. Simon Marsol,
“An Investigation into the Suitability of Simulink and System Generator Tools
for Generating FPGA Codes from High Level Design of Pulse Compression”,
May-September 2006. 37. Ms. Sudhamathy
Muthuvel, “The Characterisation of MIMO-UWB Channels”, May-September 2006. 38. Mr. Thierry
Reynaud, “Error Models for MB-OFDM Wireless Communication Systems”,
May-September 2006. 赫瑞瓦特大学已毕业本科生 (5):1. Mr Ilias
Dimopoulos, “A Performance Study of Spatial Modulation Techniques Under
High Velocity Channel Models”, September 2012-April 2013. 2. Mr Ibrahim
Abotaibi, “Realistic MIMO Channel Models for Advanced Wireless
Communication Systems”, September 2011-April 2012. 3. Mr Robert
Muhumuza, “Realistic MIMO Channel Models for 4G Wireless Communication
Systems”, September 2010-April 2011. 4. Mr Philip
Taylor, “Simulator of LTE Wireless Communication Systems”, September
2009-April 2010. 5. Miss Aine
McGarry, “Comparison of Two Types of Sum-of-Sinusoids Mobile Fading Channel
Simulators”, October 2007-June 2008. 荣誉奖项人才荣誉:1. 欧洲科学与艺术院院士,2022.06 2. 英国爱丁堡皇家学会院士,2022.03 3. 中国通信学会会士,2021.05 4. 欧洲科公司院士,2020.07 5. 2019年江苏省“双创人才” 6. 2019年江苏省“双创团队”领军人才 7. IEEE Fellow,“因在车载网络无线信道建模领域的贡献入选”,2017.01.01 8. 客座教授,779cn太阳集团,中国,南京,2012.08.20 9. IET Fellow, 2012.04.03 10. 首席教授,山东大学, 中国,山东,2010.12- 2013.12 11. 客座教授,华中科技大学, 中国,武汉,2010.03- 2013.03 12. 客座研究员,综合业务网理论及关键技术国家重点实验室, 西安电子科技大学, 中国,西安,2007.01 13. 兼职教授,桂林电子科技大学, 中国,广西,2006.06 14. 荣誉研究员,电子工程公司, 爱丁堡大学, 英国,爱丁堡, 2006.06 15. 短期访问教授,山东大学, 2005.09, 2006.04, 2007.04, 2008. 06,
2009.04, 2010.04 16. 成员,Siemens International Students Circle (SISC), 西门子, 1999 科技表彰:1. 2025年度信息通信领域十大科技进展,中国通信学会,2026.05 2. 2025年中国电子学会自然科学一等奖,中国电子学会,2026.01 3. 第三届全国博士后创新创业大赛总决赛(金奖),团队指导教师:王承祥,2025.10.28 4. 中国通信学会科学技术一等奖,中国通信学会,2024.11 5. 物联网协同创新优秀成果优秀指导奖,江苏省教育厅,2024.08 6. 2023年度信息通信领域十大科技进展提名,中国通信学会,2024.12 7. 2022年度江苏省行业领域(电子信息领领域)十大科技进展,江苏省科学技术协会,2023.11 8. 2023年华为技术有限公司突出贡献奖,2023.04 9. 图形系统设计成就奖(射频和通信)"新型未来通信系统的无线测试平台解决方案", 美国国家仪器(NI), 英国,伦敦, 2013.11.19 10. 科研项目进步奖,中国,山东,2001 11. 西门子奖学金,2000 学术影响:1. 2025全球高被引科学家,科睿唯安,2025.11.12 2. 2025斯坦福全球前2%顶尖科学家榜单(终身影响力和年度影响力),2025.09 3. 2025电子与电气工程领袖奖,2025.04 4. 2024中国高被引学者,爱思唯尔,2025.03.25 5. 2024年斯坦福全球前2%顶尖科学家榜单(终身影响力和年度影响力),2024.09 6. 2024电子与电气工程领袖奖,2024.03 7. 2024年度高被引学者,Scilit,2024.11 8. 2023中国高被引学者,爱思唯尔,2024.03.27 9. 2023年斯坦福全球前 2% 顶尖科学家榜单(终身影响力和年度影响力),2023.10 10. 2023电子与电气工程领袖奖,2023.03 11. 2022中国高被引学者,爱思唯尔,2023.03.25 12. 2022年斯坦福全球前 2% 顶尖科学家榜单(终身影响力和年度影响力),2022.10 13. 2021中国高被引学者,爱思唯尔,2022.04.15 14. 2021年斯坦福全球前 2% 顶尖科学家榜单(终身影响力和年度影响力),2021.10 15. 2021年度人工智能全球最具影响力学者提名奖,2021.04.08 16. 2020年斯坦福全球前 2% 顶尖科学家榜单(终身影响力和年度影响力),2020.10 17. 2020年全球高被引科学家,科睿唯安,2020.11.18 18. 2020年度人工智能全球最具影响力学者提名奖,2020.03.16 19. 2019年全球高被引科学家,科睿唯安,2019.11.19 20. 2019-2020 IEEE通信协会杰出讲师 21. 2018年全球高被引科学家,科睿唯安,2018.11.27 22. 2017年全球高被引科学家,科睿唯安,2017.11.15 23. 入选“2009 Man of the Year” , 2009 24. 入选“Great Minds of the 21st Century 2009”, 第4届, 2009 25. 入选“Who's Who in the World 2009”, 第26届, 2009 26. 入选“Dictionary
of International Biography 2009”, 第35届, 2009 27. 入选“Dictionary
of International Biography 2008”, 第34届, 2008 28. 入选“Who's Who in the World 2008”, 25周年银奖, 2008 社会成就:1. 2023年度优秀编委,《物联网学报》,2024.05 2. 全国归侨侨眷先进个人,2023.08 3. 江苏省侨界杰出人物,2022.08江苏省侨界杰出人物(十杰),2022.08 4. 侨界卓越贡献者,2021.05 5. 2021年江苏留学回国先进个人奖 6. 江苏省侨联侨界专家委员会“金智囊”奖 7. 2021年度优秀编委,《中国科学:信息科学》,2022.03 8. 2020年度第七届“十佳中国电子学会优秀科技工作者”,中国电子学会,2020.05.20 9. 2022年度《中国科学》《科学通报》优秀作者,中国科公司,2022.12 10. 2019年度《中国科学》《科学通报》优秀编委,中国科公司,2019.12.02 11. 2018编委杰出贡献奖,《中国科学:信息科学》,2019.06 12. 2017编委杰出贡献奖,《中国科学:信息科学》,2018.03 13. 2015编委杰出贡献奖,《中国科学:信息科学》,2016.03 最佳论文:1. 最佳论文奖,IEEE
ICCT 2025,中国,沈阳,2025.10 2. 江苏省自然科学百篇优秀学术成果论文,江苏省科学技术协会,2025.08 3. C.-X. Wang*, X. You*, X. Gao, et al., et
al., “On
the road to 6G: Visions, requirements, key technologies and testbeds,” IEEE
Commun. Surveys Tuts., vol. 25, no. 2, pp. 905-974, 2nd Quart. 2023. 4. 最佳论文奖,IEEE
ICC 2025,加拿大,蒙特利尔,2025.06 5. 最佳论文奖,WCSP
2024,中国,合肥,2024.09 6. 2023年度《电波科学学报》优秀论文,《电波科学学报》编辑部,2024.10.23 7. 最佳平台演示奖,IEEE/CIC
ICCC 2024 中国,杭州,2024.08 8. IEEE VTS 2024尼尔谢菲尔德最佳传播论文奖,2024.10 9. 2023年度《中国科学:信息科学》热点论文奖,2024.03 10. 江苏省自然科学百篇优秀学术成果论文,江苏省科学技术协会,2023.12 11. X.-H. You*, C.-X. Wang*, J. Huang, et
al., “Towards
6G wireless communication networks: Vision, enabling technologies, and new
paradigm shifts,” Sci. China Inf. Sci., vol. 64, no. 1, Jan.
2021. 12. 最佳论文奖,IEEE
ICCT 2023, 中国,无锡,2023.11 13. 2023年SCIS综述论文入选中国知网高影响力论文,2023.08 14. X.-H. You*, C.-X. Wang*, J. Huang, et
al., “Towards
6G wireless communication networks: Vision, enabling technologies, and new
paradigm shifts,” Sci. China Inf. Sci., vol. 64, no. 1, Jan.
2021. 15. 第七届中国科协优秀科技论文,中国科协,2022.9.22 16. 最佳论文奖,IEEE/CIC
ICCC 2022 中国,佛山,2022.08 17. 2022年电子信息领域优秀论文,中国电子学会,2022.07.01 18. 最佳论文奖,WCSP
2021, 中国,上海,2021.10 19. 2021年度《物联网学报》优秀论文奖,2021.10.15 20. 最佳论文奖,CSPS
2021, 中国,长白山,2021.08 21. 最佳论文奖,WCSP
2020, 中国,南京,2020.10 22. 最佳论文奖,IWCMC
2020,塞浦路斯,利马索尔,2020.06 23. 最佳论文奖,WOCC
2019, 中国,北京,2019.04 24. 最佳员工论文奖,WPMC
2016, 中国,深圳,2016.11 25. 最佳论文奖,IWCMC
2016,塞浦路斯,2016.09 26. 最佳论文奖,IEEE/CIC
ICCC 2016, 中国,深圳,2016.07 27. 最佳论文奖,IWCMC
2015,克罗地亚,2015.08 28. 最佳员工论文奖,IEEE
VTC’13-Spring, 美国,洛杉矶,2013.09 29. 最佳论文奖,ITST’12, 台湾,2012.11 30. 2篇最佳论文奖 (Top 2%),IEEE ICCT’11, 中国,济南,2011.09 31. 最佳论文奖 (Top
0.3%),IEEE
Globecom’10, 美国,迈阿密,2010.12 32. 优秀硕士论文奖,中国,山东,2001 33. 最佳论文奖,第六届全国青年交流大会,中国,北京,1999 专业活动编委会成员/编委 (13):1. 《电子与信息学报》编委 2. ZTE Communications编委 (2022.3-) 3. Executive
Editorial Committee (EEC) Member for IEEE Transactions on Wireless
Communications (2019.3-2025.12) 4. Chinese Journal
on Internet of Things(物联网学报)编辑委员会委员 (2017.3-) 5. SCIENCE CHINA
Information Sciences (SCIS) (中国科学-信息科学),
Science China Press and Springer (2013.1-2022.12) 6. IEEE
Transactions on Communications (2015-2017) 7. IEEE
Transactions on Vehicular Technology (2011-2017) 8. Wireless
Communications and Mobile Computing Journal (2007-2017) 9. Physical
Communication Journal, Elsevier (2012-2015) 10. InTech (Open Access
Publisher) Scientific Board (2011-2012) 11. IEEE Transactions on
Wireless Communications (2007-2009) 12. Security and
Communication Networks Journal (2007-2013) 13. Hindawi
Journal of Computer Systems, Networks, and Communications (2007-2011) 客座编委 (5):1. Special Issue on: “Airborne
Communication Networks”(CFP), IEEE Journal on Selected Areas in Communications. 2. Special Issue on: “Wireless
Big Data”(CFP), IEEE Transactions on Big Data. 3. Special Issue on: “Spectrum
and Energy Efficient Design of Wireless Communication Networks”(CFP), IEEE Journal on Selected Areas in Communications. 4. Special Issue on: “Vehicular
Communications and Networks”(CFP), IEEE Journal on Selected Areas in Communications. 5. Special Issue on: “Cognitive
Radio Systems” (CFP), International Journal of Autonomous and Adaptive
Communications Systems (IJAACS). 6. 同行评审(EPSRC)成员 (1 April 2010-): 答辩外审 (21): 1. 加泰罗尼亚理工大学博士学位口试专家外审专家,西班牙,2020.07.22; 2. 天津大学博士学位口试专家外审专家,中国,2020.6.2; 3. 河海大学博士学位口试专家外审专家,中国,2019.5.27; 4. 厦门大学博士学位口试专家外审专家,中国,2018.12.9; 5. 谢菲尔德大学博士学位口试专家外审专家,英国,2018.5.11; 6. 萨里大学博士学位口试专家外审专家,英国,2018.5.10; 7. 博特拉大学博士学位口试专家外审专家,马来西亚,2017.2; 8. 伦敦玛丽女王大学博士学位口试专家,英国,2016.7.15; 9. 麦考瑞大学博士学位口试专家外审专家,澳大利亚,2015.10; 10. 爱丁堡大学博士学位口试专家,英国,2015.3.12; 11. 麦考瑞大学博士学位口试专家外审专家,澳大利亚,2014.10; 12. 毛里求斯大学博士学位口试专家外审专家,毛里求斯,2013.12; 13. 利兹大学理学硕士课程外审专家,英国,2013.10; 14. 华威大学博士学位口试专家,英国,2013.11.19; 15. 萨里大学博士学位口试专家,英国,2013.2.26; 16. 斯特拉斯克莱德大学博士学位口试专家,英国,2012.11.26; 17. 奥克兰大学博士学位口试专家外审专家,新西兰,2012.8; 18. 纽卡斯尔大学博士学位口试专家,英国,2012.7.23; 19. 埃塞克斯大学博士学位口试专家,英国,2010.12; 20. 爱丁堡大学博士学位口试专家,英国,2010.5; 21. 爱丁堡大学研究型硕士学位口试专家,英国 大会总主席 (5):1. 2026
International Conference on Artificial Intelligence and Smart Life (ICAISL
2026), Guangzhou, China, 29-31, May. 2026. 2. The
2nd International Conference on Industrial Automation and Robotics (IAR 2025), Tianjin,
China, 31 Oct.-2 Nov. 2025. 3. The 7th
International Workshop on High Mobility Wireless Communications (HMWC 2018)
(IEEE VTC 2018-Spring Workshop), Porto, Portugal, 3 June 2018. 4. International Conference on Communications and
Mobile Computing (CMC 2010), Shenzhen, China, 12-14 Apr. 2010. 5. The
First International Workshop on Vehicular Communication Technologies (VehiCom
2009), co-located with IEEE IWCMC 2009,
Leipzig, Germany, 21-24 June 2009. 技术程序委员会主席/共同主席 (14):1. 2024
International Workshop on 6G Wireless Channel Measurements and Modeling (6GCMM
2024), Nanjing, China, 30-31, May. 2024. 2. The 11th
International Conference on Wireless Communications and Signal Processing (WCSP
2019), Xi'an, China, 23-25, Oct. 2019. 3. The 6th
IEEE/CIC International Conference on Communications in China (IEEE/CIC ICCC
2017), Qingdao, China, 22-24 Oct. 2017. 4. The
4th International Workshop on High Mobility Wireless Communications (HMWC
2015), Xi'an, China, 21-3 Oct. 2015. 5. The
3rd International Workshop on High Mobility Wireless Communications (HMWC
2014), Beijing, China, 1-3 Nov. 2014. 6. The
2nd International Workshop on High Mobility Wireless Communications (HMWC
2013), Shanghai, China, 1-3 Nov. 2013. 7. The 4th International Workshop on Cross Layer
Design (IWCLD 2013), Qingdao, China, 28-29 Oct. 2013. 8. The 1st International Workshop on High Mobility
Wireless Communications (HMWC 2012), Chengdu, China, 10-12 Nov. 2012. 9. International Conference on Communications,
Mobility, and Computing (CMC 2012), Guilin, China, 21-23 May 2012. 10. IEEE International Conference on Intelligent
Computing and Integrated Systems (ICISS 2011), Guilin, China, 24-26 Oct. 2011. 11. IEEE 13th International Conference on
Communication Technology (ICCT 2011), Jinan, China, 25-28 Sept. 2011. 12. International Conference on Communications and
Mobile Computing (CMC 2011), Qingdao, China, 18-20 Apr. 2011. 13. IEEE International Conference on Intelligent
Computing and Integrated Systems (ICISS 2010), Guilin, China, 22-24 Oct. 2010. 14. International Conference on Communications and
Mobile Computing (CMC 2009), Kunming, China, 6-8 Jan. 2009. 指导委员会委员(1):1. 2nd International Workshop on Connecting All
Things for Enabling Smart Cities (CONTEST), in conjunction with VTC
2017-Spring, Sydney, Australia, 4-7 June 2017. 建设委员会常务委员 (1):1. 中国电子学会全国高校电子信息团队建设委员会第一届委员会. 专题报告主席 (1):1. The 2021 IEEE 94th Vehicular
Technology Conference (IEEE VTC 2021-Fall), online, Fall 2021. 研讨会(共同)主席 (3):1. IEEE
International Conference on Communications (IEEE ICC 2026), Glasgow,
Scotland, UK, 24–28 May 2026. 2. The
2015 IEEE 81st Vehicular Technology Conference (IEEE VTC 2015-Spring),
Glasgow, Scotland, Spring 2015. 3. The 2nd IEEE
International Conference on Communications in China (IEEE ICCC 2013),
Xi'an, China, 12-14 August 2013. 公共宣传(共同)主席 (3):1. 18th
European Conference on Antennas and Propagation (EuCAP’24), Glasgow,
Scotland, 17-22 March 2024. 2. The 1st IEEE
International Conference on Communications in China (IEEE ICCC 2012),
Beijing, China, 15-18 August 2012. 3. The 4th International Conference on Cognitive
Radio Oriented Wireless Networks and Communications (CrownCom 2009), Hannover,
Germany, 22-24 June 2009. 技术程序委员会研讨会共同主席 (4):1. Wireless Communications Symposium, 2013
International Conference on Wireless Communications and Signal Processing (WCSP
2013), Hangzhou, China, 24-26 Oct. 2013. 2. Wireless Communications Symposium, IEEE
International Conference on Communications, Circuits and Systems (ICCCAS 2010),
Chengdu, China, 28-30 July 2010. 3. Vehicular Communication Technology
Symposium, The 6th International Wireless
Communications & Mobile Computing Conference (IWCMC 2010), Cannes,
France, 28 June-2 July 2010. 4. MIMO Systems Symposium, ACM International Wireless Communications and Mobile
Computing Conference (IWCMC 2009), Leipzig, Germany, 21-24 June 2009. 技术程序委员会副主席 (1):1. IEEE 10th International Conference on High
Performance Computing and Communications (HPCC 2008), Dalian, China, 25-27
Sept. 2008. 技术程序委员会分会(共同)主席 (4):2. 2016
IEEE 85th Vehicular Technology Conference (VTC 2017-Spring), Sydney,
Australia, June 2016. 3. 2016
IEEE 83rd Vehicular Technology Conference (VTC 2016-Spring), Nanjing,
China, May 2016. 4. 2013 IEEE 77th Vehicular
Technology Conference (VTC 2013-Spring), Dresden, Germany, 2-5 June 2013. 5. IEEE 3rd
Conference on Industrial Electronics and Applications (ICIEA 2008),
Singapore, 3-5 June 2008. 专业委员会主任 (1):1. 第五届江苏省通信学会无线通信专业委员会. Panel Member (6):1. IPA 15: Electromegnatic Information Theory:
Theoretical Foundations for the Massive MIMO Evolution, IEEE Global
Communications Conference (GLOBECOM 2022), Rio de Janeiro, Brazil, 4-8 Dec.
2022. 2. Panel Discussion: 5G: Successes and
Challenges, 2nd International Symposium on Wireless Sensor &
Cellular Networks (WSCN 2013), Jeddah, Saudi Arabia, 13-16 Dec. 2013. 3. Panel Discussion 2: Challenges and opportunities
in Wireless Communications, 2013 International Forum on Advances in
Information Coding and Wireless Communications (AICWC 2013), Chengdu,
China, 4-6 Nov. 2013. 4. PA03:
Broadband wireless communications under high mobility scenarios: challenges and
opportunities, The 1st IEEE
International Conference on Communications in China (IEEE ICCC 2012),
Beijing, China, 15-18 Aug. 2012. 5. P3.
Collaboration between Wireless Industry and Academia, 2012 IEEE Wireless Communications and
Networking Conference (WCNC 2012), Paris, France, 1-4 Apr. 2012. 6. Panel Discussion 2: Challenges &
Opportunities in Future Wireless Communications, 2017 International
Forum on Advances in Information Coding and Wireless Communications (AICWC
2017), Chengdu, China, 5-8 Nov. 2017. 技术程序委员会成员 (52):1. IEEE
Wireless Communications & Networking Conference (WCNC 2013), Shanghai,
China, 7-10 April 2013. 2. Computing, Communications
and Applications Conference (ComComAp 2012), Hong Kong, China, 6-10
February 2012. 3. 2012 IEEE
Radio and Wireless Symposium (RWS 2012), Santa Clara, CA, USA, 15-19
January 2012. 4. IEEE
Global Communications Conference (GLOBECOM 2011), Houston, USA, 5-9
December 2011. 5. International Workshop on Cross-Layer Design
(IWCLD 2011), Rennes, France, 30 November-1 December 2011. 6. The
5th International Workshop on Broadband MIMO Channel Measurement and Modeling,
Beijing, China, 27-28 June 2011. 7. IEEE International Conference on Communications
(ICC 2011), Kyoto, Japan, 5-9 June 2011. 8. APSIPA
Annual Summit and Conference 2010 (APSIPA ASC 2010), Singapore, 14-17
December 2010. 9. IEEE
Global Communications Conference (GLOBECOM 2010), Florida, USA, 6-10
December 2010. 10. 2010
International Workshop on Green Communication of Cellular Networks (GCCN 2010),
Hangzhou, China, 30 Oct.-1 Nov. 2010. 11. Fifth
International Conference on Communications and Networking in China (CHINACOM
2010), Beijing, China, 25-27 August 2010. 12. Int. Workshop on Communication Technologies for
Vehicles (Nets4Cars 2010), Newcastle, UK, 21-23 July 2010. 13. The Third IEEE International
Symposium on Trust, Security and Privacy for Emerging Applications (TSP 2010),
Bradford, UK, 29 June-1 July 2010. 14. IEEE
International Conference on Communications (ICC 2010), Cape Town, South
Africa, 23-27 May 2010. 15. IEEE
Vehicular Technology Conference (VTC 2010-Spring), Taipei, Taiwan, 16-19
May 2010. 16. IEEE
Wireless Communications & Networking Conference (WCNC 2010), Sydney,
Australia, 18-21 April 2010. 17. 2nd International Conference on Wireless Access
in Vehicular Environments (WAVE 2009), Shanghai, China, 21-22 Dec. 2009. 18. IEEE Global Communications Conference (GLOBECOM
2009), Hawaii, USA, 30 November-4 December 2009. 19. IEEE Int. Conf. on Wireless and Mobile
Computing, Networking and Communications (WiMob 2009), Marrakech, Morocco,
12-14 Oct. 2009. 20. Int. Workshop on Communication Technologies for
Vehicles (Nets4Cars 2009), Saint-Petersburg, Russia, 13 Oct. 2009. 21. The 2009
International Symposium on Communications and Information Technologies (ISCIT
2009), Incheon, Korea, 28-30 September 2009. 22. International
Conference on Communications and Networking in China (ChinaCom 2009),
Xi'an, China, 26-28 August 2009. 23. The 3rd International Workshop on Broadband MIMO
Channel Measurement and Modeling (IWonCMM 2009), Xi'an, China, 26-28 August
2009. 24. International Workshop on Cognitive Networks and
Communications (COGCOM 2009), San Francisco, USA, 2-6 August 2009. 25. IEEE
Vehicular Networks & Applications Workshop (Vehi-Mobi 2009), Dresden,
Germany, 14-18 June 2009. 26. IEEE International Conference on Communications
(ICC 2009), Dresden, Germany, 14-18 June 2009. 27. IEEE
Wireless Communications & Networking Conference (WCNC 2009), Budapest,
Hungary, 5-8 April 2009. 28. IEEE
Global Communications Conference (GLOBECOM 2008), New Orleans, USA, 1-4
December 2008. 29. IEEE International Conf. on Wireless and Mobile
Computing, Networking and Communications (WiMob 2008), Avignon, France, 12-14
October 2008. 30. IEEE International Conference on Ultra-Wideband
(ICUWB 2008), Hannover, Germany, 10-12 September 2008. 31. The 5th
International Conference on Broadband Communications, Networks, and Systems
(BROADNETS 2008), London, UK, 8-11 September 2008. 32. The 2nd International Workshop on Cooperative
Wireless Communications and Networking (CONET 2008), London, UK, 8-11 September
2008. 33. IEEE International Wireless Communications and
Mobile Computing Conference (IWCMC 2008), Chania Crete Island, Greece, 6-8
August 2008. 34. IEEE International Conference on Communications,
Circuits and Systems (ICCCAS 2008), Xiamen, P. R. China, 25-27 May 2008. 35. IEEE
International Conference on Communications (ICC 2008), Beijing, P. R.
China, 19-23 May 2008. 36. IEEE Vehicular Technology Conference (VTC
2008-Spring), Marina Bay, Singapore, 11-14 May 2008. 37. IEEE
Wireless Communications & Networking Conference (WCNC 2008), Las Vegas,
USA, 31 March-3 April 2008. 38. IEEE
International Symposium on Wireless Communication Systems 2007 (ISWCS 2007),
Trondheim, Norway, 17-19 October 2007. 39. International Symposium on Communications and
Information Technologies (ISCIT 2007), Sydney, Australia, 17-19 October 2007. 40. IEEE International Workshop on Cross Layer Design
(IWCLD 2007), Jinan, China, 20-21 September 2007. 41. International Conference on Intelligent
Computing (ICIC 2007), Qingdao, China, 21-24 August 2007. 42. International Wireless Communications and Mobile
Computing Conference (IWCMC 2007), Honolulu, Hawaii, USA, 12-16 August 2007. 43. International Conference of
Wireless Networks (ICWN 2007), London, UK, 2-4 July 2007. 44. IEEE International Conference on Communications
(ICC 2007), Glasgow, Scotland, UK, 24-28 June 2007. 45. IEEE
Wireless Communications and Networking Conference (WCNC 2007), Hong Kong,
11-15 March 2007. 46. IEEE Globecom 2006 Symposium on Wireless Ad Hoc
and Sensor Networks, San Francisco, USA, 27 November-1 December 2006. 47. International Conference on Communication
Technology (ICCT 2006), Guilin, China, 27-30 November 2006. 48. International Conference on Intelligent
Computing (ICIC 2006), Kunming, China, 16-19 August 2006. 49. International Conference on Wireless Algorithms,
Systems and Applications (WASA 2006), Xi'an, China, 15-18 August 2006. 50. International Wireless Communications and Mobile
Computing Conference (IWCMC 2006), Vancouver, Canada, 3-6 July 2006. 51. International Conference on Communications,
Circuits and Systems (ICCCAS 2006), Guilin, China, 25-28 June 2006. 52. IEEE 62nd Semiannual Vehicular Technology
Conference (VTC 2005-Fall), Dallas, USA, 25-28 September 2005. 分会场主席 (6):1. 2010
IEEE 72nd Vehicular Technology Conference (IEEE VTC 2010-Fall), 6-9
September 2010, Ottawa, Canada. 2. IEEE International
Wireless Communications and Mobile Computing Conference (IWCMC 2009),
Leipzig, Germany, 21-24 June 2009. 3. IEEE International Conference on Communications
(ICC 2009), Dresden, Germany, 14-18 June 2009. 4. IEEE International Conference on Communications,
Circuits and Systems (ICCCAS 2008), Xiamen, P. R. China, 25-27 May 2008. 5. IEEE International Conference on Communications
(ICC 2008), Beijing, P. R. China, 19-23 May 2008. 6. IEEE International Conference on Communications,
Circuits and Systems (ICCCAS 2006), Guilin, China, 25-28 June 2006. 员工奖项科研竞赛:1. 姚茗川,上官星耀,肖诗宇:2025年第二十届中国研究生电子设计竞赛,全国总决赛团队二等奖 2. 陈孝钰,董雪珂,贺子涵:2025年第四届“华为杯”无线通信算法大赛长三角赛区二等奖 3. 崔宸豪,肖诗宇,姚茗川:2025年第四届“华为杯”无线通信算法大赛长三角赛区二等奖 4. 姚茗川:IEEE
ICCT 2025会议的Excellent
Oral Presentation Award最佳口头报告奖 5. 武阳、潘宇航、季姜晗:2024年“华为杯”无线通信算法菁英赛华东赛区二等奖 6. 上官星耀、纵源、徐凡、闫鹏鹏、黄昱崧:2024年3S杯,全国老员工物联网技术与应用“三创”大赛一等奖 7. 武阳、严鸿宇、刘雍:2024年“兆易创新杯”第十九届中国研究生电子设计竞赛技术类竞赛全国总决赛团队二等奖 8. 毛曦晨、周勇杉、石佳粤:2024年“兆易创新杯”第十九届中国研究生电子设计竞赛华东赛区二等奖 9. 杨悦、张丽、周子皓、上官星耀、黄昱崧、帅杰博、姚茗川、王晨、吕婧菀、武阳、崔宸豪、陈孝钰:江苏老员工创新创业大赛(2024)高教主赛道一等奖 10. 吕婧菀、王晨、武阳:2023年3S杯,全国老员工物联网技术与应用“三创”大赛一等奖 11. 王晨、武阳、吕婧菀、周宇阳、陈丹彤、张开元、齐天润:2023年“挑战杯”全国老员工课外学术科技作品竞赛“黑科技”专项赛江苏省选拔赛特等奖 12. 王晨、武阳、吕婧菀、周宇阳、陈丹彤、张开元、齐天润:2023年“挑战杯”全国老员工课外学术科技作品竞赛“黑科技”专项赛全国一等奖 13. 周宇阳、齐天润、帅杰博、上官星耀、王晨、武阳、吕婧菀:2023 年全国老员工创新创业竞赛国际赛道铜奖 14. 吴彤、齐天润、李涵成:2023年“兆易创新杯”第十八届中国研究生电子设计竞赛华东分赛区团队三等奖 15. 刘翔宇、张四维:中国国际老员工创新大赛(2023)铜奖 16. 黄佳玲、李玉萧、吕婧菀:2022年3S杯,全国老员工物联网技术与应用“三创”大赛一等奖 奖励称号:1. 马一琳:江苏省研究生科研创新计划 2. 陈孝钰:779cn太阳集团2025年本科优秀毕业设计(论文)(校级) 3. 肖诗宇:779cn太阳集团2025年本科优秀毕业设计(论文)(省级) 4. 朱秀铭、毛曦晨、王晨、李涵成、季姜晗、陈丹彤、上官星耀:研究生国家奖学金 5. 李子昕:779cn太阳集团就业表彰奖 6. 朱秀铭:779cn太阳集团研究生优秀毕业生 7. 上官星耀:779cn太阳集团本科生优秀毕业设计 8. 季姜晗、上官星耀:779cn太阳集团本科生优秀毕业生 9. 帅杰博、上官星耀:江苏省优秀员工干部 10. 齐天润、上官星耀:779cn太阳集团十佳青年志愿者、779cn太阳集团最具影响力本科生 11. 齐天润:东大好青年 12. 齐天润:779cn太阳集团十佳运动员 13. 崔宸豪:779cn太阳集团本科生优秀毕业生 14. 崔宸豪:779cn太阳集团暑期社会实践活动十佳个人 15. 潘宇航:研究生至善奖学金 16. 武阳:779cn太阳集团优秀硕士学位论文 书籍(5) 书籍章节(3) 白皮书(1) IMT-2030提案(26) 专利(55) 期刊论文(373篇, 包括295篇IEEE期刊/杂志论文以及35篇高被引论文) 会议论文(360篇,包括26篇特邀论文,20篇最佳论文奖论文,以及3篇高被引论文) 国际会议主旨报告与特邀报告(40) 国内会议特邀报告(24) 专题报告(24) 报告(4) 学位论文(1) 书籍 (5):1. 王承祥 著, 无线信道测量与建模: 从基础理论到6G, 科学出版社,
2026年5月. 2. C.-X. Wang, Ed.,
“Propagation Channels and Antenna/RF Designs,” Section II in Wiley 5G
Ref, edited by Rahim Tafazolli, Chin-Liang Wang, and Periklis
Chatzimisios, published by John Wiley & Sons, Chichester, Oct. 2019. 3. Y. Wu, H. Huang, C.-X. Wang, and Y.
Pan, Ed., 5G-Enabled Internet of Things. CRC Press, June 2019. 4. Y. Yang, J. Xu, G. Shi, and C.-X. Wang,
Ed., 5G
Wireless Systems, Chippenham: Springer, Oct. 2017. 5. C.-X. Wang and
J.Mitola III, Ed., Advances
in Cognitive Radio Systems, Intech, July 5, 2012. 书籍章节 (3): 1. Q. Zhu*, C.-X. Wang*, B. Hua, K.
Mao, S. Jiang, and M. Yao, “3GPP TR 38.901 Channel Model,” Chapter in Wiley
5G Ref, edited by Rahim Tafazolli, Chin-Liang Wang, and Periklis
Chatzimisios, published by John Wiley & Sons, Chichester, 2020. 2. J. Bian and C.-X. Wang,
“Vehicle-to-Vehicle Channels,” Chapter in Wiley 5G Ref, edited
by Rahim Tafazolli, Chin-Liang Wang, and Periklis Chatzimisios, published
by John Wiley & Sons, Chichester, 2020. 3. X. Hong, C.-X. Wang, J. S. Thompson,
and H.-H. Chen, “Capacity analysis of cognitive radio networks”, in Cognitive Radio
Networks: Architectures, Protocols and Standards, edited by
Yan Zhang, Jun Zheng, and Hsiao-Hwa Chen, published by Auerbach Publications,
CRC Press, May 25, 2010. 白皮书 (1): 1. 尤肖虎,王承祥*,黄杰等,“6G研究白皮书:6G 无线网络:愿景、使能技术与新应用范式,”2020年8月. IMT-2030提案 (26): 1. | 王承祥 ,齐天润,黄晨,李俊伶,吴希平. 基于混合信道模型的动态信道地图构建方法,202511010,IMT-2030无线技术工作组第9次会议,2025.11. | 2. | 王承祥 ,李俊伶,张惟天,黄晨. 一种 6G数字孪生在线信道建模方法,202511011,IMT-2030无线技术工作组第9次会议,2025.11. | 3. | 王承祥 ,张丽,黄杰,辛立建,黄晨. 考虑镜面和密集多径分量的新型6G非平稳几何随机信道模型,202506007,IMT-2030无线技术工作组第8次会议,2025.06. | 4. | 王承祥 ,吕振,黄晨,徐凡,王俊,黄杰. 面向标准化的6G普适几何随机信道模型,202506015,IMT-2030无线技术工作组第8次会议,2025.06. | 5. | 王承祥 ,周子皓,黄杰,辛立建,黄晨. 城市宏小区场景Sub-6 GHz跨频段信道测量与建模,202506010,IMT-2030无线技术工作组第8次会议,2025.06. | 6. | 王承祥 ,周宇阳,杨松江,王樱华,黄杰,黄晨. 一种基于几何投影的射线追踪信道建模方法,202506016,IMT-2030无线技术工作组第8次会议,2025.06. | 7. | 王承祥 ,周子皓,辛立建,黄杰. 室外厘米波和毫米波跨频段信道测量与特性分析,202410010,IMT-2030无线技术工作组第7次会议,2024.10. | 8. | 王承祥 ,杨润若,黄杰,辛立建,黄晨. GHz室内通感一体化信道测量与特性分析,202410007,IMT-2030无线技术工作组第7次会议,2024.10. | 9. | 王承祥 ,张丽,黄杰,辛立建. 工业物联网场景无线信道测量与特性分析,202405029,IMT-2030无线技术工作组第6次会议,2024.05. | 10. | 王承祥 ,杨松江,王樱华,黄杰,李俊伶,黄晨. 一种向低轨卫星通信的射线追踪信道建模方法,202405024,IMT-2030无线技术工作组第6次会议,2024.05. | 11. | 王承祥 ,孙颖卓,吴群,吕振,黄杰. 面向6G的新型智能超表面信道模型,202405014,IMT-2030无线技术工作组第6次会议,2024.05. | 12. | 王承祥 ,孙颖卓,吴群,黄杰,辛立建. 6G智能超表面通信信道测量与特性分析,202405013,IMT-2030无线技术工作组第6次会议,2024.05. | 13. | 王承祥 ,杨润若,冯瑞,黄杰,辛立建. 一种新型6G ISAC毫米波大规模MIMO三维几何随机与波束域信道模型,202405006,IMT-2030无线技术工作组第6次会议,2024.05. | 14. | 王承祥 ,武阳,黄晨,李俊伶,王樱华. 适用于6G室内MIMO通信的加权随机森林定位方法,202403020,IMT-2030无线技术工作组第5次会议,2024.03. | 15. | 王承祥 ,吴彤,李俊伶,黄晨,王樱华. 基于图像处理和机器学习的信道预测方法,202403019,IMT-2030无线技术工作组第5次会议,2024.03. | 16. | 王承祥 ,周子皓,黄杰,辛立建,黄晨. 城市微小区场景Sub-6 GHz跨频段信道测量与建模,202310012,IMT-2030无线技术工作组第5次会议,2023.10.22. | 17. | 王承祥 ,黄晨,钱中玉,李俊伶,周文奇. 场景自适应信道模型,202310024,IMT-2030无线技术工作组第5次会议,2023.10.22. | 18. | 王承祥 ,常恒泰,侯琳. 6G无人机通信大规模MIMO波束域信道模型,202310021,IMT-2030无线技术工作组第5次会议,2023.10.22. | 19. | 王承祥 ,杨润若,黄杰,辛立建,黄晨. 一种结合前向散射与后向散射的新型6G通感一体化信道模型,202310007,IMT-2030无线技术工作组第5次会议,2023.10.22. | 20. | 王承祥 ,吕振,黄杰,黄晨,常恒泰. 6G普适信道模型全域信道统计特性分析,202310023,IMT-2030无线技术工作组第5次会议,2023.10.22. | 21. | 王承祥 ,李哲鳌,黄晨,李俊伶. 6G空时预测信道建模研究,IMT-2030(6G)推进组-无线AI任务组第1次会议,2023.04.28. | 22. | 王承祥 ,杨润若,黄杰,辛立建,黄晨. 一种结合前向散射和后向散射的新型6G通感一体化模型,IMT-2030(6G)推进组-通信感知一体化任务组第6次会议,2023.03.31. | 23. | 王承祥 ,朱秀铭,黄杰. 面向6G的室内可见光通信信道特性分析与建模,IMT-2030无线技术工作组第3次会议,2022.06.21. | 24. | 王承祥 ,吕振,黄杰. 普适信道建模理论与6G普适几何随机信道模型,IMT-2030无线技术工作组第3次会议,2022.06.21. | 25. | 王承祥 ,王俊,黄杰. 6G太赫兹无线通信信道特性与建模,IMT-2030无线技术工作组-太赫兹通信任务组,2022.11.02. | 26. | 王承祥 ,黄杰. 6G标准化信道模型的需求与普适信道建模理论方法,IMT-2030无线技术工作组第2次会议,2021.12.23. |
中国专利 (52):1. | 王承祥,吴彤,李俊伶,黄晨. 基于图像处理和机器学习的信道预测方法. 专利号:ZL 202311096516.6,授权公告日期:2026.01.06. | 2. | 王承祥,张开元,黄晨,李俊伶,钱中玉. 一种基于强化损失函数的空时域预测信道建模方法. 专利号:ZL 202411541287.9,授权公告日期:2025.12.16. | 3. | 王承祥,吕婧菀,王樱华,杨松江,黄杰,黄晨. 一种考虑遮挡效应的无线网络覆盖分析方法. 专利号:ZL 202411548320.0,授权公告日期:2025.12.02. | 4. | 王承祥,宿国纲,李俊伶,吴彤,周勇杉,黄晨. 基于激光雷达感知重构的室内场景无线信道建模方法. 专利号:ZL 202411710945.2,授权公告日期:2025.12.02. | 5. | 王承祥,周勇杉,李俊伶,吴彤,宿国纲,黄晨. 一种基于多源数据的无线信道三维电磁环境重构方法. 专利号:ZL 202411552275.6,授权公告日期:2025.11.25. | 6. | 王承祥,周宇阳,王樱华,杨松江,黄杰. 一种适用于密集城市场景射线追踪技术的相交判定方法. 专利号:ZL 202411710732.X,授权公告日期:2025.11.18. | 7. | 王承祥,周文奇,黄晨,李哲鳌,钱中玉,吕振. 一种基于6G全覆盖场景分类的场景自适应信道建模方法. 专利号:ZL 202211603711.9,授权公告日期:2025.11.11. | 8. | 王承祥,宋理想,李俊伶,吴彤,陈孝钰,黄晨. 一种基于机器学习和图像处理的6G动态信道地图构建方法. 专利号:ZL 202411617556.5,授权公告日期:2025.11.07. | 9. | 常恒泰,王承祥,黄杰,黄晨,冯瑞,辛立建. 无人机通信波束域信道仿真方法、装置、电子设备及介质. 专利号:ZL 202211027439.4,授权公告日期:2025.10.21. | 10. | 王承祥,周宇阳,王樱华,杨松江,黄杰,曹宝华,王小聪. 一种面向超大规模MIMO通信的射线追踪信道建模方法. 专利号:ZL 202510867372.2,授权公告日期:2025.09.30. | 11. | 王承祥,周宇阳,王樱华,杨松江,黄杰,曹宝华,王小聪. 一种动态射线追踪无线信道建模方法、装置、设备和介质. 专利号:ZL 202511013477.8,授权公告日期:2025.09.30. | 12. | 辛立建,王承祥,黄晨,黄杰,冯瑞,常恒泰. 无线信道的信道多径聚簇方法、装置、电子设备及介质. 专利号:ZL 202210891088.5,授权公告日期:2025.09.23. | 13. | 王承祥,武阳,王樱华,黄晨,李俊伶,杨松江. 适用于6G室内通信的视距/非视距识别辅助定位方法. 专利号:ZL 202411330758.7,授权公告日期:2025.09.12. | 14. | 王承祥,赖凡,黄杰,冯瑞. 一种短波频段的大规模MIMO无线信道建模方法. 专利号:ZL 202210758124.0,授权公告日期:2025.07.15. | 15. | 王承祥,周文奇,冯瑞. 一种基于降维复卷积网络的6G无线信道特性提取方法. 专利号:ZL 202211157608.6,授权公告日期:2025.06.27. | 16. | 王承祥,陈心悦,张丽,周子皓,黄杰. 一种跨频段无线MIMO信道的相似性量化方法. 专利号:ZL 202211150732.X,授权公告日期:2025.04.25. | 17. | 王承祥,周子皓,张丽,黄杰,辛立建. 一种高分辨率宽带空域非平稳信道参数估计方法. 专利号:ZL 202211151871.4,授权公告日期:2025.04.18. | 18. | 王承祥,郑一,黄杰,冯瑞. 一种超大规模MIMO几何随机及波束域无线信道建模方法. 专利号:ZL 202211603220.4,授权公告日期:2025.04.18. | 19. | 王承祥,李哲鳌,于龙,黄晨,黄杰,钱中玉. 一种基于机器学习的空时域预测信道建模方法. 专利号:ZL 202211189126.9,授权公告日期:2024.11.29. | 20. | 王承祥,武阳,黄杰,王樱华,曹宝华,王小聪. 一种基于信道状态信息的加权随机森林室内定位方法. 专利号:ZL 202210759439.7,授权公告日期:2024.10.12. | 21. | 王承祥,杨润若,黄杰. 一种结合前向散射与后向散射的新型通感一体化信道建模方法. 专利号:ZL 202210741508.1,授权公告日期:2024.08.23. | 22. | 王承祥,张丽,周子皓,黄杰. 一种多链路MIMO无线信道相关性计算方法. 专利号:ZL 202210750477.6,授权公告日期:2024.06.28. | 23. | 黄晨,王承祥,冯瑞,黄杰,辛立建,常恒泰. 信道建模方法、装置、电子设备及存储介质. 专利号:ZL 202111506183.0,授权公告日期:2024.05.03. | 24. | 王承祥,张开元,杨松江,王樱华,曹宝华,王小聪. 一种面向低轨卫星通信的射线追踪信道建模方法. 专利号:ZL 202311763522.2,授权公告日期:2024.04.12. | 25. | 冯瑞, 王承祥,黄杰,郑一,赖凡,周文奇. 用于 MIMO 无线通信信道的耦合特性分析方法、装置及存储介质. 专利号:ZL 202210773983.7.7,授权公告日期:2024.03.19. | 26. | 王承祥,吉星宇,常恒泰. 一种描述无线信道近场特性的多模波导建模方法. 专利号:ZL 202111233071.2,授权公告日期:2024.03.12. | 27. | 王承祥,吕振. 一种适用于全频段全场景的6G普适信道建模方法. 专利号:ZL 202210235058.9,授权公告日期:2024.02.27. | 28. | 王承祥,黄佳玲,孙颖卓,黄杰,郑福春. 一种面向智能超表面无线通信的射线追踪信道建模方法. 专利号:ZL 202210214609.3,授权公告日期:2024.02.02. | 29. | 王承祥,季雯协,黄杰,杨润若. 一种面向轨道角动量无线通信的几何随机信道建模方法. 专利号:ZL 202111261263.4,授权公告日期:2024.01.30. | 30. | 王承祥,王俊. 一种上下行非对称信道模型参数生成方法. 专利号:ZL 202210214614.4,授权公告日期:2024.01.30. | 31. | 王承祥,郑一,黄杰,冯瑞. 一种多场景多天线配置下的超大规模MIMO无线信道测量方法. 专利号:ZL 202210786916.9,授权公告日期:2024.01.30. | 32. | 王承祥,朱秀铭,黄杰. 一种面向室内可见光通信的几何随机信道建模方法. 专利号:ZL 202111232562.5,授权公告日期:2024.01.26. | 33. | 王承祥,毛曦晨,常恒泰. 一种面向无人机空对空通信的几何随机信道建模方法. 专利号:ZL 202111232552.1,授权公告日期:2024.01.26. | 34. | 王承祥,马一琳,朱秀铭,黄杰. 一种面向水声通信的非平稳几何随机信道建模方法. 专利号:ZL 202111233049.8,授权公告日期:2024.01.26. | 35. | 王承祥,高佳峻,黄杰,杨悦. 一种考虑天线尺寸与天线互耦的无线电信道建模方法. 专利号:ZL 202111232635.0,授权公告日期:2024.01.26. | 36. | 王承祥,续英杰,周子皓,冯瑞,辛立建,黄杰. 一种用于智能超表面无线通信的信道参数估计方法. 专利号:ZL 202210208990.2,授权公告日期:2024.01.26. | 37. | 王承祥,杨悦,郑一,黄杰. 大规模天线阵列通信的空域非平稳无线信道容量计算方法. 专利号:ZL 202210208323.4,授权公告日期:2024.01.26. | 38. | 王承祥,黄佳玲,杨松江,王樱华,黄杰,郑福春,曹宝华,王小聪. 基于分步仿真的智能超表面信道射线追踪建模方法和系统. 专利号:ZL 202311084059.9,授权公告日期:2023.11.14. | 39. | 王承祥,陈丹彤,杨松江,王樱华,曹宝华,王小聪. 一种基于射线追踪的毫米波频段室内多基站位置优化方法. 专利号:ZL 202311085001.6,授权公告日期:2023.11.14. | 40. | 王承祥,黄杰,王樱华,廖天一,翟天奕,张浩天,李睿佳,黄佳玲,李玉箫,曹宝华,王小聪. 一种基于射线追踪的复杂移动时变无线信道仿真方法. 专利号:ZL 202210680310.7,授权公告日期:2023.10.31. | 41. | 王承祥,王晨,黄杰,王樱华,曹宝华,王小聪. 适用于射线追踪无线信道建模的空间分割加速方法及系统. 专利号:ZL 202210732171.8,授权公告日期:2023.09.26. | 42. | 王承祥,周宇阳,黄杰,王樱华,曹宝华,王小聪. 一种基于正向射线追踪的无线信道多径仿真精确度优化方法. 专利号:ZL 202210560501.X,授权公告日期:2023.08.29. | 43. | 王承祥,黄杰,王樱华,王元哲,曹昊,金逸凡,周子哲,黄佳玲,李玉箫,曹宝华,王小聪. 一种基于射线追踪的太赫兹频段MIMO信道建模方法. 专利号:ZL 202210560478.4,授权公告日期:2023.08.29. | 44. | 王承祥,吕婧菀,黄杰,王樱华,曹宝华,王小聪. 一种适用于射线追踪信道建模的角度Z缓冲区优化方法. 专利号:ZL 202210560477.X,授权公告日期:2023.08.04. | 45. | 王承祥,李哲鳌,黄杰,周文奇,黄晨. 一种基于对抗网络与长短期记忆网络的预测信道建模方法. 专利号:ZL 202210214717.0,授权公告日期:2023.06.20. | 46. | 张文胜,田丁卉,刘玉,孙健,王承祥. 一种基于人工智能干扰技术的可见光安全通信方法. 专利号:ZL 201910735834.X,授权公告日期:2021.10.15. | 47. | 张文胜,李连杰,孙健,王承祥. 一种基于张量计算的6G移动通信系统及其数据处理方法. 专利号:ZL 201911327251.X,授权公告日期:2021.05.25. | 48. | 张文胜,李浩东,徐加利,范建国,郭信山,王承祥. 一种基于载波索引调制的可见光通信调制方法及其实现系统. 专利号:ZL 201810311653.X,授权公告日期:2021.02.09. | 49. | 王承祥,宋健,孙健,张文胜. 一种基于可见光通信的新型光源及其功率分配方法. 专利号:ZL 201710571376.1,授权公告日期:2020.01.03. | 50. | 张文胜,宋健,孙健,王承祥. 一种基于多脉冲位置的可见光通信色移键控调制方法. 专利号:ZL 201611167667.6,授权公告日期:2019.02.22. | 51. | 刘治,王承祥,宋佳花,杨明,舒明雷. 基于多普勒探测器与传感器联合的跌倒检测系统和方法. 专利号: ZL 201610040326.6,授权公告日期:2018.11.13. | 52. | 张文胜,曹雅丽,周晓天,孙健,王承祥. 一种基于哈特莱变换的可见光通信空间调制方法及系统. 专利号:ZL 201610983972.6,授权公告日期:2018.06.19. |
国外专利 (3):1. | 王承祥,李哲鳌,黄杰,周文奇,黄晨. 一种基于对抗网络与长短期记忆网络的预测信道建模方法. 专利号:US 12,621,067 B2,授权公告日期:2026.05.05. | 2. | 王承祥,黄佳玲,孙颖卓,黄杰,郑福春. 一种面向智能超表面无线通信的射线追踪信道建模方法. 专利号:US 12,505,608 B2,授权公告日期:2025.12.23. | 3. | 王承祥,吕振. 一种适用于全频段全场景的6G普适信道建模方法. 专利号:US 12,451,984 B2,授权公告日期:2025.10.21. |
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Opportunities and challenges of generative artificial intelligence,” IEEE
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25, pp. 15644-15659, 2026. | 19. | 王承祥*, 高跃, 郭庆, 付雅茹, 陆杨, 夏文超, “6G跨域通感智算融合物联网,” 物联网学报, 2026, 10(01): 1-29, doi:
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25, pp. 15149-15165, 2026. | 21. | H. Zhao, T. Zhang, G. Tang, M. Liu, S. Chen,
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region characterization for rate control in multi-user systems and Nash
bargaining,” IEEE Trans. Automatic Control, vol. 57, no. 12,
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Gao, X.-H. You, D. Yuan, B. Ai, Q. Huo, L. Song, and B. Jiao, “Cooperative
MIMO channel modeling and multi-link spatial correlation properties,” IEEE
J. Sel. Areas Commun., vol. 30, no. 2, pp. 388-396, Feb. 2012. Highly Cited Paper | 318. | Z. Chen, C.-X. Wang*, X. Hong, J.
S. Thompson, S. A. Vorobyov, X. Ge, H. Xiao, and F. Zhao, “Aggregate interference modeling in cognitive radio networks
with power and contention control,” IEEE Trans. Commun.,
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and X. Yang, “Energy efficiency analysis of MISO-OFDM communication systems
considering power and capacity constraints,” Mobile Networks
and Applications, Springer, vol. 17, no. 1, pp. 29-35, Feb.
2012. | 320. | H. Xiao, S. Ouyang, C.-X. Wang, and
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Personal Communications, vol. 63, no. 1, pp. 167-176, Feb.
2012. | 321. | X. Ge, K. Huang, C.-X. Wang*, X.
Hong, and X. Yang, “Capacity analysis of a multi-cell multi-antenna cooperative
cellular network with co-channel interference,” IEEE Trans.
Wireless Commun., vol. 10, no. 10, pp. 3298-3309, Oct. 2011. Highly Cited Paper | 322. | Y. Chen, C.-X. Wang, H. Xiao, and
D. Yuan, “Novel partial selection schemes for AF relaying in Nakagami-m
fading channels,” IEEE Trans. Veh. Technol., vol. 60,
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I Laurenson, S. Salous, and A. V. Vasilakos, “New deterministic and stochastic simulation models for non-isotropic
scattering mobile-to-mobile Rayleigh fading channels,” Wireless Commun.
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Ku, C.-X. Wang, T. A. Le, M. R. Nakhai, J. Zhang, and
L. Hanzo, “Green radio: Radio techniques to enable energy efficient
wireless networks,” IEEE Commun. Magazine, vol. 49, no.
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Cited Paper | 325. | C.-X. Wang, A.
V. Vasilakos, R. Murch, G. Stüber, X. Shen, W. Chen and
T. Kosch, “Guest Editorial: Vehicular Communications and Networks—Part II,” IEEE
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V. Vasilakos, R. Murch, G. Stüber, X. Shen, W. Chen, and
T. Kosch, “Guest Editorial: Vehicular Communications and Networks—Part I,” IEEE
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“Channel modeling of information transmission over cognitive
interrogator-sensor networks,” IEEE Trans. Veh. Technol.,
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Thompson, B. Allen, W. Q. Malik, and X. Ge, “On space-frequency correlation of UWB MIMO channels,” IEEE
Trans. Veh. Technol. vol. 59, no. 9, pp. 4201-4213, Nov.
2010. | 329. | H. Sun, D. I. Laurenson, and C.-X.
Wang, “Computationally
tractable model of energy detection performance over slow fading channels,” IEEE Commun.
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X. Ge*, and S. Ouyang “Capacity analysis of hybrid cognitive radio networks with
distributed VAAs,” IEEE Trans. Veh. Technol., vol. 59,
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V. Vasilakos, N. Ghani, C.-X. Wang, and Y. Pan, “Distributed explicit rate schemes in multi-input multi-output
network systems,” IEEE Trans. Syst., Man, Cybern. A, Syst.,
Humans, vol. 40, no. 4, pp. 448-459, July 2010. | 332. | X. Ge, C.-X. Wang, Y. Yang, L. Shu,
C. Liu, and L. Xiang, “AFSO: An adaptive frame size optimization mechanism for IEEE
802.11 wireless networks,” KSII Trans. Int. Inf. Systems,
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Yang, C.-X. Wang, R. Kannan, C.-C. Chang, and Y. Pan, “A novel self-tuning feedback controller for active queue
management supporting TCP flows,” Information Sciences, vol.
180, no. 11, pp. 2249-2263, June 2010. | 334. | X. Ge, Y. Yang, C.-X. Wang, Y.-Z.
Liu, C. Liu, and L. Xiang, “Characteristics analysis and modeling of frame traffic in
802.11 wireless networks,” Wireless Commun. Mob. Com.,
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Hong, X. Ge, X. Cheng, G. Zhang, and J. S. Thompson, “Cooperative MIMO channel models: A survey,” IEEE Commun.
Mag., vol. 48, no. 2, pp. 80-87, Feb. 2010. Highly Cited Paper | 336. | C.-X. Wang, X.
Cheng, and D. I. Laurenson, “Vehicle-to-vehicle channel modeling and measurements: recent
advances and future challenges,” IEEE Commun. Mag., vol.
47, no. 11, pp. 96-103, Nov. 2009. Highly
Cited Paper | 337. | X. Hong, Z. Chen, C.-X. Wang,
S. Vorobroy, and J. S. Thompson, “Cognitive radio networks: Interference cancellation and
management techniques,” IEEE Veh. Technol. Mag., vol.
4, no. 4, pp. 76-84, Nov. 2009. | 338. | X. Cheng, C.-X. Wang*, D.
I Laurenson, S. Salous, and A. V. Vasilakos, “An adaptive geometry-based stochastic model for non-isotropic
MIMO mobile-to-mobile channels,” IEEE Trans.
Wireless Commun., vol. 8, no. 9, pp. 4824-4835, Sept. 2009. Highly Cited Paper | 339. | Y. Zhang, Y. Chen, J. He, C.-X.
Wang, and A. V. Vasilakos, “Call admission control algorithms in OFDM-based wireless
multiservice networks,” Wireless Personal Commun., vol.
50, no. 1, pp. 99-114, July 2009. | 340. | X. Hong, C.-X. Wang, H.-H. Chen,
and Y. Zhang, “Secondary spectrum access networks: Recent developments on the
spatial models,” IEEE Veh. Technol. Mag., vol. 4,
no. 2, pp. 36-43, June 2009. | 341. | M. Pätzold, C.-X. Wang*, and
B. O. Hogstad, “Two new sum-of-sinusoids-based methods for the efficient
generation of multiple uncorrelated Rayleigh fading waveforms,” IEEE
Trans. Wireless Commun., vol. 8, no. 6, pp. 3122-3131, June
2009. | 342. | C.-X. Wang, X.
Hong, H.-H. Chen, and J. S. Thompson, “On capacity of cognitive radio networks with average
interference power constraints,” IEEE Trans.
Wireless Commun., vol. 8, no. 4, pp. 1620-1625, Apr. 2009. Highly Cited Paper | 343. | M. Matthaiou, D. I. Laurenson
and, C.-X. Wang, “On analytical derivations of the condition number
distributions of dual non-central Wishart matrices,” IEEE Trans.
Wireless Commun., vol. 8, no. 3, pp. 1212-1217, Mar. 2009. | 344. | Y. Zhang, D. Yuan, and C.-X. Wang,
“Cross-layer design based on RC-LDPC codes in MIMO channels
with estimation errors,” Int. J. Elec. Commun., AEUE,
vol. 62, no. 9, pp. 659-665, Oct. 2008. | 345. | C.-X. Wang, D.
Yuan, H.-H. Chen, and W. Xu, “An improved deterministic SoS channel simulator for efficient
simulation of multiple uncorrelated Rayleigh fading channels,” IEEE
Trans. Wireless Commun., vol. 7, no. 9, pp. 3307-3311, Sept.
2008. | 346. | C.-X. Wang,
H.-H. Chen, X. Hong, and M. Guizani, “Cognitive radio network management: tuning in to real-time
conditions,” IEEE Veh. Technol. Mag., vol. 3, no. 1, pp.
28-35, Mar. 2008. | 347. | X. Hong, C.-X. Wang, B. Allen, and
W. Malik, “A correlation based double-directional stochastic channel
model for multiple-antenna UWB systems,” IET Microwaves, Antennas
& Propagation,vol. 1, no. 6, pp. 1182-1191, Dec. 2007. | 348. | C.-X. Wang,
M. Pätzold, and Q. Yao, “Stochastic modeling and simulation of frequency correlated
wideband fading channels,” IEEE Trans. Veh. Technol.,
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W. Xu, “A new class of generative models for burst error
characterization in digital wireless channels,” IEEE
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M. Pätzold, and D. Yuan, “Accurate and efficient simulation of multiple uncorrelated
Rayleigh fading waveforms,” IEEE Trans. Wireless Commun.,
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Hong, H. Wu, and W. Xu, “Spatial temporal correlation properties of the 3GPP spatial
channel model and the Kronecker MIMO channel model,” EURASIP J.
Wireless Commun. Netw., vol. 2007, Article ID 39871, 9 pages,
2007. | 352. | H. Zhang, D. Yuan, and C.-X. Wang,
“A study on the PAPRs in multicarrier modulation systems with
different orthogonal bases,” Wireless Commun. Mob. Com.,
John Wiley & Sons, vol. 7, no. 3, pp. 311-318, Mar. 2007. | 353. | N. Youssef, C.-X. Wang, and
M. Pätzold, “A study on the second order statistics of Nakagami-Hoyt mobile
fading channels,” IEEE Trans. Veh. Technol., vol. 54,
no. 4, pp. 1259-1265, July 2005. | 354. | C. E. D. Sterian, C.-X. Wang,
R. Johnsen, and M. Pätzold, “Rotationally invariant space-time trellis codes with 4-D
rectangular constellations for high data rate wireless communications,” J.
Commun. Netw., vol. 6, no. 3, pp. 258-268, Sept. 2004. | 355. | C.-X. Wang and
M. Pätzold, “A generative deterministic model for digital mobile fading
channels,” IEEE Commun. Lett., vol. 8, no. 4, pp.
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Wang, “Performance study of COFDM systems with time and frequency
interleaving over COST 207 frequency-selective channels,” Journal of
Shandong University, vol. 39, no. 1, 2004. (in Chinese) | 357. | D. Yuan, H. Zhang, C.-X. Wang, Q.
Yao, X. Song, and J. B. Huber, “Optimum design criterion and multilevel coding for radio
systems over AWGN and Rayleigh fading channels,” Wireless Commun.
Mob. Com., John Wiley & Sons, vol.3, no. 5, pp. 617-628, Aug.
2003. | 358. | D. Yuan, C.-X. Wang, Q. Yao, and Z.
Cao, “Performance of multilevel coding schemes with different decoding
methods and mapping strategies in mobile fading channels,” Chinese
Journal of Electronics, English edition, vol. 10, no. 3, pp. 350-355,
July 2001. | 359. | D. Yuan, C.-X. Wang, Q. Yao, and Z.
Cao, “A novel criterion for optimum multilevel coding systems in mobile
fading channels,” Chinese Journal of Electronics, English
edition, vol. 10, no. 1, pp. 69-73, Jan. 2001. | 360. | D. Yuan, Q. Yao, C.-X. Wang, Z.
Cao, and J. B. Huber, “Performance study of multilevel coding schemes with
different mapping strategies in mobile fading channels,” ACTA
ELECTRONICA SINICA, no. 5, 2001. (in Chinese) | 361. | D. Yuan, Q. Yao, C.-X. Wang, Z.
Cao, and J. B. Huber, “Performance comparison of MLC/MSD and MLC/PDL over
mobile fading channels,” ACTA ELECTRONICA SINICA, no. 4, 2001.
(in Chinese) | 362. | D. Yuan, Q. Yao, C.-X. Wang, Z.
Cao, and J. B. Huber, “A non-Euclidean metric for the design of optimum MLC
schemes in mobile fading channels,” ACTA ELECTRONICA SINICA, no.
1, 2001. (in Chinese) | 363. | D. Yuan, Q. Yao, and C.-X. Wang,
“Performance study on RS-MPSK coded modulation scheme over M-distribution
fading channels,” Journal of Shandong University, no. 4, 2000.
(in Chinese) | 364. | D. Yuan, C.-X. Wang, and Q. Yao,
“Performance study on bit interleaving scheme of the convolutional code in
the mobile image communication system,” Journal of Shandong
University, no. 3, 2000. (in Chinese) | 365. | D. Yuan, X. Ren, Q. Yao, and C.-X. Wang,
“Performance comparison of mobile image communication systems with
interleaved (2,1,3) convolutional codes and interleaved BCH codes,” Journal
of Shandong University, no. 2, 2000. (in Chinese) | 366. | D. Yuan, C.-X. Wang, L. Zhang, and
Q. Yao, “Two novel interleaving schemes of BCH codes in mobile fading
channels,” Journal of Shandong University, no. 1, 2000. (in
Chinese) | 367. | D. Yuan, C.-X. Wang, and Q. Yao,
“Rayleigh-distributed pseudonym random interleaving scheme of block
codes,” Communications Technology, no. 2, 2000. (in Chinese) | 368. | D. Yuan, C.-X. Wang, and Q. Yao,
“Error-correcting performance of the (2,1,3) Convolutional Code using
different interleaving schemes over Rayleigh fading channels,” Wireless
Engineering, no. 1, 2000. (in Chinese) | 369. | D. Yuan, Q. Yao, and C.-X. Wang,
“Channel modeling of M-distributed fading wave channels,” Communications
Technology, no. 1, 2000. (in Chinese) | 370. | D. Yuan, Q. Yao, and C.-X. Wang,
“Application of block interleaving scheme in mobile image communication
system,” Communications Technology, no. 1, 2000. (in Chinese) | 371. | D. Yuan, C.-X. Wang, and Q. Yao,
“Capacity design and simulation for even CDMA mobile cellular communication
system,” Computer & Network, Nov. 1999. (in Chinese) | 372. | D. Yuan, C.-X. Wang, and Q. Yao,
“Software design and computer simulation of uneven CDMA mobile cellular
communication systems,” Communications Technology, no. 2, June
1999. (in Chinese) | 373. | D. Yuan, Q. Yao, and C.-X. Wang,
“On performance of space diversity over Rayleigh fading channels,” Communications
Technology, no. 2, June 1999. (in Chinese) |
会议论文 (360篇,包括26篇特邀论文,20篇最佳论文奖论文,以及3篇高被引论文):1. | T. Qi, C. Huang*, J. Li, X. Wu, C.-X.
Wang*, and J. Thompson, “Indoor and outdoor continuous-space channel
measurements and characterization for 6G wireless communication systems,” in Proc. ICC'26 Workshops, Glasgow, Scotland,
accepted for publication, May 2026. | 2. | X. Chen, J. Li*, Z. He, T. Wu, C. Huang,
and C.-X. Wang*, “A fine-tuned LLMs-based text-driven
predictive channel model for 6G wireless communications,” in Proc. ICC'26 Workshops, Glasgow, Scotland,
accepted for publication, May 2026. | 3. | Q. Yang, Z. Ding, S. Chen, C. Huang*, J. Li,
and C.-X. Wang*, “Boosting near-field user tracking via channel
map-aided movable antenna optimization,” in Proc.
ICC'26 Workshops, Glasgow, Scotland, accepted for publication, May
2026. | 4. | J. Shuai, X. Wu*, and C.-X. Wang*,
“ISAC performance trade-off through a unified
information-theoretic metric,” in Proc.
IEEE VTC'26-Spring, Nice, France, accepted for publication, June
2026. | 5. | Z. Haleed, Q. Wu, J. Huang*, and C.-X.
Wang*, “A novel 3D GBSM for STAR-RIS assisted
integrated sensing and communication systems,”
in Proc. IEEE VTC'26-Spring, Nice, France, accepted for
publication, June 2026. | 6. | S. Xu, G. Su, J. Li*, and C.-X. Wang*,
“Transformer-based propagation path prediction
for wireless channel modeling using 3D point clouds,” in Proc. IEEE VTC'26-Spring, Nice, France,
accepted for publication, June 2026. | 7. | D. Zhao, J. Li*, S. Xi, S. Xiao, and C.-X.
Wang*, “Joint placement and beamforming optimization
for movable antenna-enhanced multi-user multi-target ISAC system,” in Proc. IEEE VTC'26-Spring Workshops, Nice,
France, accepted for publication, June 2026. | 8. | T. Wu, X. Chen, C.-X. Wang*, J.
Li*, and C. Huang, “A diffusion-driven learning framework for
enhanced predictive channel modeling in 6G wireless communications,” in Proc. IEEE WCNC'26, Kuala Lumpur, Malaysia,
accepted for publication, Apr. 2026. | 9. | Y. Bai, J. Huang*, C. Huang, and C.-X.
Wang*, “A novel 3D non-stationary GBSM for
underground parking lot scenarios,” in Proc.
IEEE WCNC'26, Kuala Lumpur, Malaysia, accepted for publication, Apr.
2026. | 10. | S. Zhang, S. Yang*, J. Huang*, C.-X.
Wang*, and K. Wang, “Interference modeling and performance
analysis of LEO satellite networks based on beam hopping,” in Proc. IEEE WCNC'26, Kuala Lumpur, Malaysia,
accepted for publication, Apr. 2026. | 11. | Y. Zhao, S. Yang*, Y. Wang, J. Li*, H. Yan,
and C.-X. Wang*, “A novel ray-tracing channel model with
full-wave simulations for THz communication systems,” in Proc. IEEE WCNC'26, Kuala Lumpur, Malaysia,
accepted for publication, Apr. 2026. | 12. | J. Shi, C. Huang, T. Qi, J. Li, and C.-X.
Wang*, “A novel material parameter calibration algorithm for 6G
ray-tracing channel modeling,” in Proc. IEEE
ECIS'25, Yueyang, China, July 2025, pp. 1-6. | 13. | Y. Wang, X. Wu, C.-X. Wang, G. Zheng,
and T. Xu, “A novel VLC positioning method upon retroreflective OIRS-assisted
optical communications,” in Proc. IEEE OGC'25,
Shenzhen, China, Sept. 2025, pp. 26-29. | 14. | S. Yao, J. Sun*, F. Wang, H. Chang, W. Zhang,
and C.-X. Wang*, “High-accuracy Wi-Fi ranging via joint FTM-CSI processing and
super-resolution ToF estimation,” in Proc.
IEEE ICCT'25, Shenyang, China, Oct. 2025, pp. 432-436. | 15. | Z. Zhang, J. Sun*, H. Chang, W. Zhang, and C.-X.
Wang*, “Low-complexity joint beamforming for RIS-assisted broadband
systems based on fractional programming with complex circle manifold,” in Proc. IEEE ICCT'25, Shenyang, China, Oct. 2025, pp.
533-537. | 16. | J. Tang, X. Gao, L. You, X.-G. Xia, and C.-X.
Wang, “Massive MIMO-OFDM statistical CSI acquisition with physical
channel charting,” in Proc. WCSP'25,
Chongqing, China, Oct. 2025, pp. 1-6. | 17. | Y. Pan, L. Xin, H. Chang, J. Huang, J. Li,
and C.-X. Wang*, “A general 6G large-scale fading channel model
for multiple frequency bands and scenarios,”
in Proc. IEEE/CIC ICCC'25, Shanghai, China,
2025. | 18. | X. Jiang, J. Sun*, S. Yao, T. Liu, W. Zhang,
and C.-X. Wang*, “Environment-related SIMO channel generation
based on virtual transmitter,” in Proc.
IEEE/CIC ICCC'25, Shanghai, China, 2025. | 19. | Y. Liu, S. Yang*, Y. Wang, J. Wang, L.
Xin, C.-X. Wang*, and F.-C. Zheng*, “Channel measurements and characteristics
analysis for suburban scenarios at 10 GHz,”
in Proc. IEEE/CIC ICCC'25, Shanghai, China,
2025. | 20. | C. Chen, J. Sun*, X. Jiang, W. Zhang, and C.-X.
Wang*, “Near-field channel estimation for uniform
circular arrays based on an end-to-end spherical wavefront channel model,” in Proc. IEEE/CIC ICCC'25, Shanghai, China,
2025. | 21. | S. Diao, J. Huang*, Z. Lv, and C.-X.
Wang*, “Performance analysis of OTFS systems with a
6GPCM in high-mobility scenarios,” in Proc.
IEEE/CIC ICCC'25, Shanghai, China, 2025. | 22. | S. Luo, J. Huang, Z. Xie, Z. Zhao, J. Wang, Z.
Lv, J. Huang, and C.-X. Wang*, “Transitional scenario channel characteristics
analysis for 6G wireless communications,” in Proc.
IEEE ICCT'25, Shenyang, China, Oct. 2025, pp. 174-179. | 23. | Y. Bu, J. Huang*, Y. Yang, C. Huang, and C.-X.
Wang*, “Performance analysis of holographic MIMO
communication systems with propagation and radio channel models,” in Proc. IEEE ICCT'25, Shenyang, China, Oct.
2025. | 24. | H. Ye, Z. Lv*, L. Xin, and C.-X. Wang*,
“A 3-D MIMO GBSM for In-Vehicle communication
scenarios,” in Proc. WCSP'25, Chongqing,
China, Oct. 2025, pp. 1-6. | 25. | X. Dong, Z. Lv*, Z. -R Jin, and C.-X.
Wang*, “Mapping relationships of the 6G pervasive
channel model parameters, statistical properties, and system performance in
terrestrial scenarios,” in Proc.
WCSP'25, Chongqing, China, Oct. 2025, pp. 1-6. | 26. | R. Chen, H. Ji, X. Wu*, and C.-X. Wang*,
“A mininet-based SD-WLAN emulator for hybrid
LiFi and WiFi networks with performance analysis,”
in Proc. IEEE ICWOC'25, Chengdu, China, June
2025. | 27. | Y. Yang, H. Huang, J. Huang*, C.-X.
Wang*, “A novel GBSM for long-distance skywave MIMO
communications,” in Proc. IEEE
ICCT'25, Shenyang, China, Oct. 2025, pp. 264-269. | 28. | Y. Guo, S. Yang, Y. Wang, J. Huang, C.-X.
Wang, and Y. Zhou, “Fast reconstruction of indoor electromagnetic
environment based on floor plans,” in Proc.
IEEE ICCT'25, Shenyang, China, Oct. 2025, pp. 253-258. Best Paper Award | 29. | M. Yao, X. Shangguan, S. Xiao, T. Qi, J. Li*,
C. Huang, and C.-X. Wang*, “An environment-aware digital-twin online
channel modeling platform for indoor scenarios,”
in Proc. IEEE ICCT'25, Shenyang, China, Oct. 2025, pp.
200-205. | 30. | Z. Ding, X. Wu*, and C.-X. Wang*, “Spatio-temporal features-based deep learning
for indoor MIMO fingerprint positioning,”
in Proc. IEEE Globecom'25, Taipei, Chinese Taiwan, Dec.
2025, pp. 4215-4220. | 31. | X. Yan, C.-X. Wang*, K. An, and J.
Wu, “Optimal power allocation for NOMA-based
satellite networks under delay QoS constraints,”
in Proc. IEEE/CIC ICCC'25, Workshop, Shanghai, China, Aug. 2025,
pp. 1-5. | 32. | W. Jia, C. Zhu, S. Luo, J. Yang, J. Li*, C.
Huang, and C.-X. Wang*, “Swin transformer aided urban digital twin
online channel modeling platform,” in Proc.
IEEE VTC'25-Fall, Chengdu, China, Oct. 2025, pp. 1-6. | 33. | D. Bai, S. Yang*, Y. Wang, J. Huang, C.-X.
Wang*, and F.-C. Zheng*, “Ray tracing channel modeling for 6G
RIS-beamforming communications at 28 GHz,”
in Proc. IEEE VTC'25-Fall, Chengdu, China, Oct. 2025, pp.
1-5. | 34. | D. Chen, S. Chen*, S. Yang, J. Huang, X. Wu,
and C.-X. Wang*, “A novel base station deployment scheme for
network planning in 6G outdoor hotspot scenarios,”
in Proc. IEEE VTC'25-Fall, Chengdu, China, Oct. 2025, pp.
1-5. | 35. | F. Xu, L. Xin, J. Huang*, and C.-X.
Wang*, “An improved fuzzy C-Means algorithm for
clustering of wireless channel multipath components,” in Proc. IEEE VTC'25-Fall, Chengdu, China, Oct.
2025, pp. 1-6. | 36. | G. Su, J. Li*, T. Wu, Y. Zhou, C. Huang, C.-X.
Wang*, and F.-C.Zheng, “A novel scenario reconstruction method based
on 3D point cloud data and RT channel modeling for 6G indoor communications,” in Proc. IEEE VTC'25-Fall, Chengdu, China, Oct.
2025, pp. 1-6. | 37. | X. Yin, Z. Zhang, S. Fu, G. Hu, S. Yang*, Y.
Wang, J. Huang, and C.-X. Wang, “Network planning for IIoT scenarios based on
ray tracing,” in Proc. IEEE
VTC'25-Spring, Oslo, Norway, June 2025, pp. 1-5. | 38. | P. Yan, J. Huang*, S. Yang, Z. Lv, and C.-X.
Wang*, “A novel 3D GBSM for satellite-to-maritime
communications,” in Proc. IEEE
VTC'25-Spring, Oslo, Norway, June 2025, pp. 1-6. | 39. | S. Xiao, C. Gu, J. Li*, J. Huang, and C.-X.
Wang*, “A stochastic framework for radio channel
modeling incorporating random antenna arrays,”
in Proc. IEEE VTC'25-Spring, Oslo, Norway, June 2025, pp.
1-6. | 40. | P. Chen, C.-X. Wang*, H. Chang*,
and Z. Lv, “Channel modeling and characteristics analysis
of UAV-to-ground communication systems with random UAV trajectories,” in Proc. IEEE VTC'25-Spring, Oslo, Norway, June
2025, pp. 1-6. | 41. | S. Chen, C.-X. Wang*, J. Li, C.
Huang*, H. Chang, and Y. Chen, “Improving cell-free massive MIMO through
channel map-based angle domain multiple access,”
in Proc. IEEE ICC'25, Montreal, Canada, June 2025, pp.
1031-1036. Best Paper Award | 42. | S. Ding, C. Huang*, C.-X. Wang*, Y.
Zheng, J. Li, Z. Xiang, and P. Zhao, “A novel adaptive scenario classification
algorithm for 6G wireless communications,”
in Proc. IEEE ICC'25, Montreal, Canada, June 2025, pp.
7067-7072. | 43. | Y. Wu, Y. Pan, J. Ji, C.-X. Wang*,
J. Li, and C. Huang*, “An improved Triplet-based channel charting
algorithm for positioning via covariance feature,”
in Proc. IEEE ICC'25, Montreal, Canada, June 2025, pp.
3852-3857. | 44. | Q. Wu, J. Huang*, L. Xin, C.-X. Wang*,
and R. Feng, “Channel measurements and characteristics
analysis for RIS-assisted communication systems at 28 GHz band,” in Proc. IEEE ICC'25, Montreal, Canada, June
2025, pp. 6862-6867. | 45. | X. Shangguan, J. Wang*, L. Xin, R. Feng, J.
Huang, and C.-X. Wang*, “28 GHz indoor channel measurements and
characteristics analysis for multi-scenarios,”
in Proc. IEEE ICC'25, Montreal, Canada, June 2025, pp.
3297-3302. | 46. | Z. Chen, R. Feng*, J. Wang, R. Yang, C.-X.
Wang*, “A spatially consistent cluster-based GBSM for
integrated sensing and communication scenarios,”
in Proc. IEEE ICC'25, Montreal, Canada, June 2025, pp.
6674-6679. | 47. | Y. Zhou, S. Yang*, Y.Wang, J.Huang, and C.-X.
Wang*, “Ray launching based super-resolution method
for antenna elements of massive MIMO scenario,”
in Proc. IEEE ICC'25, Canada, June 2025, pp.
4848-4853. | 48. | Y. Wang, W. Feng, J. Wang, S. Zhou,
and C.-X. Wang, “Link-Cluster-Based spectrum sharing for
hybrid satellite-UAV-terrestrial maritime networks,” in Proc. IEEE Globecom'24, Cape Town, South
Africa, 2024. | 49. | Z. Zhang, J. Sun*, W. Zhang, and C.-X.
Wang, “A non-cooperative transmitter localization
algorithm based on deep learning with time-frequency and spatial angular
information,” in Proc. WCSP'24, Hefei,
China, 2024. | 50. | Z. Qian, C. Huang*, C.-X. Wang*, J.
Li, and W. Zhou, “A novel intelligent scenario identification algorithm and channel
characteristics analysis for 6G urban wireless communications,” in Proc. IEEE Globecom'24, Cape Town, South
Africa, Dec. 2024. | 51. | Y. Ou, J. Huang*, S. Chen, S. Yang, and C.-X.
Wang*, “Impacts of user mobility on uRLLC system performance metrics over
time-varying channels,” in Proc. IEEE
Globecom'24, Cape Town, South Africa, Dec. 2024. | 52. | J. Lyu, S. Yang*, Y. Wang, C.-X. Wang*,
J. Huang, and F. Zheng, “IIoT network planning and coverage analysis considering blockage
effects,”in Proc. WCSP'24, Hefei,
China, Oct. 2024. Best Paper Award | 53. | Y. Huang, Z. Lv, J. Huang*, and C.-X.
Wang*, “Impacts of channel parameters on the SER in 6G hRLLC systems,”in Proc. IEEE ICCT'24, Chengdu, China, Oct. 2024.
| 54. | Y. Zhou, J. Li*, T. Wu, G. Su, C. Huang,
and C.-X. Wang*, “Efficient 3D electromagnetic environment reconstruction with fused
data for 6G digital twin online channel modeling,”
in Proc. IEEE ICCT'24, Chengdu, China, Oct. 2024. | 55. | L. Song, J. Li*, T. Wu, X. Chen, C. Huang,
and C.-X. Wang*, “6G dynamic channel map construction based on AI
and image processing,” in Proc. IEEE ICCT'24, Chengdu, China,
Oct. 2024. | 56. | K. Zhang, C. Huang*, J. Li, Z. Qian, and C.-X.
Wang*, “An enhanced loss function for space-time domain predictive
channel model,” in Proc. IEEE ICCT'24, Chengdu, China, Oct. 2024.
| 57. | H. Yan, S. Yang*, Y. Wang, J. Huang, and C.-X.
Wang*, “An improved QPSO material calibration algorithm for ray-tracing at
terahertz band,”in Proc. IEEE ICCT'24,
Chengdu, China, Oct. 2024. | 58. | X. Mao, J. Gao, C. Gu, J. Huang*, and C.-X.
Wang*, “Effects of digital precoding schemes on performance of holographic
MIMO systems,”in Proc. IEEE ICCT'24,
Chengdu, China, Oct. 2024. | 59. | P. Su, S. Yang*, H. Chang, Y. Wang, J. Huang,
and C.-X. Wang*, “Ray-tracing based channel modeling and characteristics analysis
for maritime land-to-ship communication systems,”
in Proc. IEEE ICCT'24, Chengdu, China, Oct. 2024. | 60. | Q. Ma, J. Huang*, Y. Yang, and C.-X.
Wang*, “Degree of freedom and channel capacity studies of near-field
holographic MIMO,” in Proc. IEEE ICCT'24,
Chengdu, China, Oct. 2024. | 61. | S. Xiao, H. Zhang, M. Yao, C. Cui, J. Li*, C.
Huang, and C.-X. Wang*, “Demo: A novel 3D environment-aware digital twin online channel
modeling platform,”in Proc. IEEE/CIC
ICCC'24, Hangzhou, China, Aug. 2024. Best Demo Award | 62. | R. Wang, H. Chang, R. Yang,C.-X. Wang*,
and X. You, “A novel GBSM and a RT channel model for 6G ISAC systems,”in Proc. IEEE/CIC ICCC'24, Hangzhou, China, Aug.
2024. | 63. | D. Yang, J. Sun*, C. Chen, W. Zhang, Z.
Bai, C.-X. Wang*, “Comparison of OTFS and OFDM in high-mobility scenarios based on
ray-tracing simulated channel,”in Proc.
IEEE/CIC ICCC'24, Hangzhou, China, Aug. 2024. | 64. | H. Lv, J. Bian*, C.-X. Wang*, X.
Zhang, J. Tian and Y. Liu, “Multi-scenario channel parameter generation with transformer-based
conditional generative adversarial network,”in Proc.
IEEE/CIC ICCC'24, Hangzhou, China, Aug. 2024. | 65. | R. Yang, L. Xin, R. Feng, J. Huang, and C.-X.
Wang*, “Channel measurements and characteristics analysis for ISAC at 10
GHz band,” in Proc. IEEE/CIC ICCC'24,
Hangzhou, China, Aug. 2024. | 66. | Z. Zhou, L. Zhang, C.-X. Wang*, J.
Huang, and L. Xin, “Centimeter- and millimeter-wave channel measurements and
spatial similarity analysis for 6G multi-frequency collaboration
communications,” in Proc. IEEE/CIC ICCC'24, Hangzhou, China, Aug.
2024. | 67. | T. Qi, C. Huang*, S. Yue, J. Li, S. Chen,
and C.-X. Wang*, “A novel dynamic channel map for 6G MIMO communications,” in Proc. IEEE/CIC ICCC'24, Hangzhou, China, Aug.
2024. | 68. | J. Ning, J. Deng, Y. Li, C. Zhao, J. Liu, S.
Yang, Y. Wang, J. Huang, and C.-X. Wang, “Ray-tracing channel
modeling for LEO satellite-to-ground communication systems,” in Proc.
IEEE/CIC ICCC'24, Hangzhou, China, Aug. 2024. | 69. | C. Wang, S. Yang*, Y. Wang, C.-X. Wang*,
and J. Huang, “An improved bounding volume hierarchies method for V2V ray tracing
channel modeling,” in Proc. IEEE
VTC'24-Spring, Singapore, June 2024. | 70. | P. Su, H. Chang*, C.-X. Wang*, Y.
Ma, and Y. He, “A maritime multi-user GBSM for land-to-ship communications,” in Proc. IEEE VTC'24-Spring, Singapore, June 2024.
| 71. | Y. X. Yang, Y. Ma, H. Chang*, and C.-X.
Wang*, “A quasi-deterministic channel model for underwater acoustic
communication systems,” in Proc. IEEE
VTC'24-Spring, Singapore, June 2024. | 72. | Z. Haleed, X. Mao, J. Huang*, and C.-X.
Wang*, “A novel 3D GBSM for 6G satellite-UAV-ground wireless
communications,” in Proc. IEEE VTC'24-Spring, Singapore, June
2024. | 73. | J. Lyu, S. Yang*, X. Mao, Y. Wang, C.-X.
Wang*, and J. Huang, “Incremental deployment of base stations for optimal coverage in
urban environments,” in Proc. IEEE
VTC'24-Spring, Singapore, June 2024. | 74. | Y. Zong, L. Xin*, J. Huang, and C.-X.
Wang*, “A novel non-stationary channel emulator for 6G MIMO wireless
channels,” in Proc. IEEE WCNC'24.,
Dubai, UAE, Apr. 2024. | 75. | Q. Ma, C.-X. Wang*, J. Huang, and
Y. Yang, “A novel 6G continuous-space channel model based on electromagnetic
information theory,” in Proc. IEEE
WCNC'24., Dubai, UAE, Apr. 2024. | 76. | L. Hou, H. Chang*, C.-X. Wang*, J.
Huang, and S. Yang, “Beam domain channel estimation for spatial non-stationary massive
MIMO systems,” in Proc. IEEE WCNC'24.,
Dubai, UAE, Apr. 2024. | 77. | H. Li, C. Huang*, C.-X. Wang*, and
J. Li, “Scenario classification and channel modeling for MIMO
communications in dense urban street scenarios,”
in Proc. EuCAP'24, Glasgow, Scotland, 17-22 March 2024. | 78. | D. Zhao, C. Huang*, C.-X. Wang*, J.
Li, Z. Qian, and W. Zhou, “Channel characterization and modeling for wireless MIMO
communication systems in intersection scenarios,”
in Proc. EuCAP'24, Glasgow, Scotland, 17-22 March 2024. | 79. | D. Zhao, C. Huang*, C.-X. Wang*,
and J. Li, “Scenario classification and channel modeling for MIMO
communications in suburban road scenarios,”
in Proc. EuCAP'24, Glasgow, Scotland, 17-22 March 2024. | 80. | K. Zhang, S. Yang*, Y. Wang, J. Huang,
and C.-X. Wang*, “Ray-tracing based channel modeling and
characteristics analysis for LEO satellite-to-ground systems,” in Proc.
EuCAP'24, Glasgow, Scotland, 17-22 Mar. 2024. | 81. | Y. Zheng, Y. Yang, C.-X. Wang, J.
Huang, and R. Feng, “A novel ultra-massive MIMO beam domain channel model for
6G maritime communications,” in Proc. IEEE Global Commun., Kuala
Lumpur, Malaysia, Dec. 2023. | 82. | Y. Ou, J. Huang, X. Mao, and C.-X. Wang,
“Performance analysis of a uRLLC system based on a quasi-static GBSM,”
in Proc. IEEE Globecom'23, Kuala Lumpur, Malaysia, Dec.
2023, pp. 1940-1945. | 83. | K. Zhi, C. Pan, H. Ren, K. K. Chai, C.-X.
Wang, R. Schober, and X. You, “XL-MIMO with near-field spatial
non-stationarities: Low-complexity detector design,” in Proc. IEEE
Globecom'23., Kuala Lumpur, Malaysia, Dec. 2023. pp. 7194-7199 | 84. | B. Qi, W. Zhang, Q. Li, J. Sun, Z. Liu, C.
Wang, and C.-X. Wang, “Signal tensor model and eigenvalue
distributions for THz uplink UM-MIMO communications,” in Proc.
WCSP'23, Hangzhou, China, Nov. 2023, pp. 1050-1055. | 85. | D. Huang, L. Xin*, J. Huang, H. Chang,
and C.-X. Wang*, “A non-stationary channel emulator for 6G THz
wireless channels,” in Proc. WCSP'23, Hangzhou, China, Nov. 2023,
pp. 563-568. | 86. | X. Zhao, Y. Liu, and C.-X. Wang*,
“A novel grant-free random access scheme for mMTC,” in Proc. IEEE
ICCT'23, Wuxi, China, Oct. 2023, pp. 835-839. | 87. | J. Ji, H. Chang*, C.-X. Wang*, J.
Huang and C. Huang, “A beam domain channel estimation algorithm based on
sparse bayesian learning,” in Proc. IEEE ICCT'23, Wuxi, China,
Oct. 2023, pp. 384-388. | 88. | S. Ding, C. Huang*, C.-X. Wang*, J.
Li, W. Zhou and D. Zhao, “A Novel Scenario Segmentation-Identification
Algorithm for 6G Wireless Channel Modeling,” in Proc. IEEE ICCT'23,
Wuxi, China, Oct. 2023, pp. 613-617. Best
Paper Award | 89. | T. Wu, C.-X. Wang*, J. Li*, and C.
Huang, “Machine learning-based predictive channel modeling for 6G wireless
communications using image semantic segmentation,” in Proc. IEEE
PIMRC'23, Toronto, Canada, Sept. 2023.
| 90. | X. Ji, C.-X. Wang, and H. Chang, “A
novel MIMO channel model for underground mine communications,” in Proc.
IEEE/CIC ICCC'23, Dalian, China, Aug. 2023. | 91. | X. Zhang, J. Sun*, L. Ma, W. Zhang, and C.-X.
Wang*, “1-bit reconfigurable intelligent surface element design and its
equivalent circuit model,” in Proc. IEEE/CIC ICCC'23, Dalian,
China, Aug. 2023. | 92. | Y. Li, L. Zhang, C.-X. Wang*, F.
Zheng*, S. Yang, Y. Wang, and J. Huang*, “Ray tracing based channel modeling
and characteristic analysis in 6G IIoT scenarios,” in Proc. IEEE/CIC
ICCC'23, Dalian, China, Aug. 2023. | 93. | X. Zhu, J. Wang, R. Feng, and C.-X.
Wang*, “A general 3D GBSM for 6G indoor optical wireless communication
systems,” in Proc. IEEE/CIC ICCC'23, Dalian, China, Aug. 2023.
| 94. | Z. Li, H. Chang, and C.-X. Wang*,
“A general 3D GBSM for 6G satellite communication systems,” in Proc.
IEEE/CIC ICCC'23, Dalian, China, Aug. 2023. | 95. | D. Chen, S. Yang*, Y. Wang, J. Huang, C.-X.
Wang*, and Q. Zhu, “Ray-tracing based large indoor office base station
deployment optimization in millimeter-wave bands,” in Proc. IEEE/CIC
ICCC'23, Dalian, China, Aug. 2023. | 96. | J. Huang, C.-X. Wang, S. Yang, Y.
Wang, Y. Xu, Y. Sun, J. Huang, and F.-C. Zheng, “Ray tracing based 6G
RIS-assisted MIMO channel modeling and verification,” in Proc.
IEEE/CIC ICCC'23, Dalian, China, Aug. 2023. | 97. | Z. -R Jin, Y. Yang, J. Huang, C.-X.
Wang*, and Q. Zhu, “A novel GBSM for holographic MIMO communication
systems,” in Proc. IEEE VTC'23-Spring, Florence, Italy, June
2023. | 98. | L. Ma, X. Zhang, J. Sun*, W. Zhang, and C.-X.
Wang*, “Joint optimization of reconfigurable intelligent surfaces and
base station beamforming in MISO system based on deep reinforcement
learning,” in Proc. VTC'23-Spring, Florence, Italy, June 2023.
| 99. | W. Ji, C.-X. Wang*, J. Huang*, and
Y. Yang, “A novel beam domain channel model for orbital angular momentum
communication systems with massive uniform circular array,” in Proc.
VTC'23-Spring, Florence, Italy, June 2023. | 100. | Z. Li, C.-X. Wang*, C. Huang*, L.
Yu, J. Li, and Z. Qian, “A novel scatter density-based predictive channel
model for 6G communications,” in Proc. VTC'23-Spring, Florence,
Italy, June 2023. | 101. | Z. Qian, Z. Li, W. Zhou, C. Huang*, and C.-X.
Wang*, “6G wireless channel scenario extensions and characteristics
analysis,” in Proc. IEEE VTC'23-Spring, Florence, Italy, June
2023. | 102. | T. Yang, W. Zhang*, Y. Bo, J. Sun, and C.-X.
Wang*, “Dynamic spectrum sharing based on federated learning and
multi-agent actor-critic reinforcement learning,” in Proc. IWCMC'23,
Marrakesh, Morocco, June 2023. | 103. | B. Shu, W. Zhang*, Y. He, J. Sun, and C.-X.
Wang*, “Application of ray tracing for beyond-line-of-sight maritime
communication in evaporation ducts,” in Proc. IWCMC'23,
Marrakesh, Morocco, June 2023. | 104. | Y. Bo, W. Zhang*, T. Yang, M. Jiang, J. Sun,
and C.-X. Wang*, “A specific emitter identification approach
based on multi-head attention mechanism,” in Proc. IWCMC'23,
Marrakesh, Morocco, June 2023. | 105. | J. Hong, J. Wang, C. Liu, J. Sun*, W. Zhang,
and C.-X. Wang*, “A tensor-based high resolution millimeter wave
massive MIMO channel parameters estimation scheme,” in Proc. ICC'23,
Rome, Italy, May 2023. | 106. | D. Huang, L. Xin, J. Huang, and C.-X.
Wang*, “Adaptive non-stationary vehicle-to-vehicle MIMO channel simulator
and emulator,” in Proc. IEEE WCNC'23, Glasgow, Scotland, UK, Mar.
2023. | 107. | J. Chen, Y. Wang, J. Huang*, and C.-X.
Wang*, “A novel GPU acceleration algorithm based on CUDA and MPI for ray
tracing wireless channel modeling,” in Proc. IEEE WCNC'23,
Glasgow, Scotland, UK, Mar. 2023. | 108. | R. Yang, Y. Wu, J. Huang*, and C.-X.
Wang*, “A novel 3D non-stationary localization-assisted ISAC channel
model,” in Proc. IEEE WCNC'23, Glasgow, Scotland, UK, Mar. 2023.
| 109. | T. Qi, Y. Sun, J. Huang, and C.-X.
Wang*, “A novel 3D non-stationary double-RIS-assisted channel model for
6G wireless communication systems,” in Proc. IEEE WCNC'23,
Glasgow, Scotland, UK, Mar. 2023. | 110. | D. Shi, L. Song, W. Zhou, X. Gao, C.-X.
Wang, and G. Li, “Channel estimation for HF skywave massive MIMO-OFDM
with triple-beam based channel model,” in Proc. IEEE Globecom'22,
Rio de Janeiro, Brazil, Dec. 2022. | 111. | T. Liao, T. Zhai, H. Zhang, R. Li, J. Huang, Y.
Li, Y. Wang, J. Huang*, and C.-X. Wang*, “Image method based 6G
channel modeling for IIoT and mobility scenarios,” in Proc. IEEE
VTC'22-Fall, London/Beijing, China, Sept. 2022. | 112. | Y. Zhou, Y. Wang, Y. Li, J. Huang, J. Huang,
and C.-X. Wang*, “An improved equiangular division algorithm for
SBR based ray tracing channel modeling,” in Proc. IEEE VTC'22-Fall,
London/Beijing, China, Sept. 2022. | 113. | Y. Wu, Y. Wang, J. Huang, C.-X. Wang*,
and C. Huang, “A weighted random forest based positioning algorithm for 6G
indoor communications,” in Proc. IEEE VTC'22-Fall,
London/Beijing, China, Sept. 2022. | 114. | C. Wang, Y. Wang, Y. Li, J. Huang, J. Huang
and C.-X. Wang*, “An improved ray tracing acceleration algorithm
based on bounding volume hierarchies,” in Proc. IEEE VTC'22-Fall,
London/Beijing, China, Sept. 2022. | 115. | Y.-Z. Wang, H. Cao, Y.-F. Jin, Z.-Z. Zhou,
Y.-H. Wang, J.-L. Huang, Y.-X. Li, J. Huang*, and C.-X. Wang*,
“An SBR based ray tracing channel modeling method for THz and massive MIMO
communications,” in Proc. IEEE VTC'22-Fall, London/Beijing,
China, Sept. 2022. | 116. | J. Huang, C.-X. Wang*, Y. Sun, J.
Huang, and F.-C. Zheng, “A novel ray tracing-based 6G RIS wireless channel
model and RIS deployment studies in indoor scenarios,” in Proc. IEEE
PIMRC'22, Kyoto, Japan, Sept. 2022. | 117. | Y. Yang, Y. Zheng, C.-X. Wang*, and
J. Huang, “Channel capacities of non-stationary 6G massive MIMO channels with
mutual coupling verified by channel measurements,” in Proc. IEEE
PIMRC'22, Kyoto, Japan, Sept. 2022. | 118. | Z. Zhang, J. Huang, C.-X. Wang*, J.
Sun, W. Zhang, and Z. He, “A novel map matching based localization method for
ISAC,” in Proc. IEEE/CIC ICCC'22, Foshan, China, Aug. 2022.
| 119. | Z. He, J. Sun*, W. Zhang, K. An, and C.-X.
Wang*, “A passive broadband radar system design for low, slow and small
target detection,” in Proc. IEEE/CIC ICCC'22, Foshan, China, Aug.
2022. | 120. | C. Liu, J. Sun*, W. Zhang, and C.-X.
Wang*, “A new SAGE-based channel estimation scheme for millimeter wave
MIMO-OFDM systems with hybrid beamforming techniques,” in Proc.
IEEE/CIC ICCC'22, Foshan, China, Aug. 2022. | 121. | Y. Wang, W. Zhang*, C. Liu, J. Sun, and C.-X.
Wang*, “Reconfigurable intelligent surface for NLOS integrated sensing
and communications,” in Proc. IEEE/CIC ICCC'22, Foshan, China,
Aug. 2022. | 122. | J. Lv, Y. Wang, J. Huang, Y. Li, J. Huang*,
and C.-X. Wang*, “An improved triangular facets based angular
Z-buffer algorithm for IM ray tracing channel modeling,” in Proc.
IEEE/CIC ICCC'22, Foshan, China, Aug. 2022. | 123. | K. Chen, C. Qi, and C.-X. Wang,
“Two-stage hybrid-field beam training for ultra-massive MIMO
system,” in Proc. IEEE/CIC ICCC'22, Foshan, China, Aug.
2022. Best Paper Award | 124. | Q. Zhu, M. Pang, C.-X. Wang*, Z.
Lin, F. Bai, Y. Tian, K.Mao, and H. Chang, “A data-driven multi-height
empirical LoS probability model for urban A2G channels,” in Proc.
IEEE VTC'22-Spring 5.5G EIT Workshop, Helsinki, Finland, June 2022.
| 125. | Y. Yuan, C. Wang, C. Li, Z. Zhong, W. Han
and C.-X. Wang, “Spatial correlations of measured MIMO channels
with an extremely large aperture array (ELAA),” in Proc. IEEE
VTC'22-Spring 5.5G EIT Workshop, Helsinki, Finland, June 2022. | 126. | C. Wang, C. Li, Z. Zhong, L. Fan, W. Han, Q.
Qin, and C.-X. Wang, “Characteristics of 5.3 GHz MIMO channels
with an extremely large antenna array in urban macro scenarios,” in Proc.
IEEE VTC'22-Spring 5.5G EIT Workshop, Helsinki, Finland, June 2022. | 127. | X. Ji, C.-X. Wang*, and H. Chang,
“Characteristic analysis and modeling of underground space wireless
communication channels,” in Proc. IEEE VTC’22-Spring, Helsinki,
Finland, June 2022. | 128. | R. Wang, C.-X. Wang*, and H. Chang,
“Amplitude distributions of mobile fading channels: Impact on communication
performances,” in Proc. IEEE VTC'22-Spring, Helsinki, Finland,
June 2022. | 129. | Z. Li, C.-X. Wang*, J. Huang*, W.
Zhou, and C. Huang, “A GAN-LSTM based AI framework for 6G wireless channel
prediction,” in Proc. IEEE VTC'22-Spring, Helsinki, Finland, June
2022. | 130. | Y. Yang, C.-X. Wang*, and J. Huang,
“Comparisons of channel characteristics and capacities of three 5G/B5G
wireless channel models,” in Proc. IEEE VTC'22-Spring, Helsinki,
Finland, June 2022. | 131. | T. Sheng, W. Zhang*, W. Ding, J. Sun, and C.-X.
Wang*, “Dynamic spectrum sharing and aggregation scheme based on
deep reinforcement learning,” in Proc. IWCMC'22, Dubrovnik,
Croatia, May 2022. | 132. | J. Wang, C.-X. Wang*, J. Huang, R.
Feng, and H. Wang, “6G asymmetric channel modeling and statistical properties
analysis”, in Proc. ICC'22, Seoul, South Korea, May 2022. | 133. | R. Feng, C.-X. Wang*, J. Huang, Y.
Zheng, F. Lai, and W. Q. Zhou, “Mutual coupling analysis of 6G ultra-massive
MIMO channel measurements and models”, in Proc. ICC'22, Seoul,
South Korea, May 2022. | 134. | Y. Xu, C.-X. Wang*, Z. Zhou, R.
Feng, L. Xin, and J. Huang, “A novel SAGE-based channel parameter estimation
scheme for 6G RIS-assisted wireless channel measurements”, in Proc.
ICC'22, Seoul, South Korea, May 2022. | 135. | H. Zhou, N. Liu, Z. Pan, and C.-X.
Wang*, “Grant-free random access in smart-grid networks with power
control and data retransmission,” in Proc. CTISC'22, Suzhou,
China, April 2022. | 136. | W. Ji, C.-X. Wang*, J. Huang, and
R. Yang, “A novel 3D wideband time-varying channel model for orbital angular
momentum communication systems”, in Proc. IEEE WCNC'22, Austin,
USA, Apr. 2022. | 137. | S. Mei, Y. Liu*, S. Zhang, J. Luo, M. J. Zhang,
Q. Fu, S. Hu, and C.-X. Wang*, “Characteristics analysis of sub-6
GHz and mmWave propagation channels in residential area for smart meter communications,”
in Proc. IEEE ComComAP'21, Shenzhen, China, Nov. 2021. | 138. | Y. Yang, W. Zhang*, J. Sun, and C.-X.
Wang*, “A 3D wideband non-stationary GBSM for RIS-assisted communications
in outdoor scenarios”, in Proc. IEEE ICECE'21, Xi' an, China,
Dec. 2021. | 139. | X. Li, C. Zhang, J. Sun*, W. Zhang, and C.-X.
Wang*, “Ray tracing based sub-6 GHz wireless channel characteristics
analysis in underground garage environments”, in Proc. IEEE ICECE'21,
Xi' an, China, Dec. 2021. | 140. | X. Yu, A.-A. Lu, X. Gao, G. Y. Li, G. Ding,
and C.-X. Wang, “Massive MIMO communication over HF skywave
channels,” in Proc. IEEE Globecom'21, Madrid, Spain, Dec. 2021. | 141. | S. Mei, M. J. Zhang, S. Zhang, C. Y. Yu, J.
Luo, Q. Fu, S. Hu, and Y. Liu*, C.-X. Wang*, “Characteristics
analysis on NB-IoT channels in rural scenario for smart grid communications,”
in Proc. IEEE ISAPE'21,Zhuhai, China, Dec. 2021. | 142. | Y. Ma, C.-X. Wang*, X. Zhu, R. Ma,
and J. Huang, “A 3D non-stationary GBSM for underwater acoustic MIMO
communication systems,” in Proc. WCSP'21, Changsha, China, Oct.
2021. | 143. | X. Mao, C.-X. Wang*, and H. Chang,
“A 3D non-stationary geometry-based stochastic model for 6G UAV air-to-air
channels,” in Proc. WCSP'21, Changsha, China, Oct. 2021. | 144. | J. Gao, C.-X. Wang*, J. Huang, and
Y. Yang, “A novel circuit-based MIMO channel model considering antenna size
and mutual coupling,” in Proc. WCSP'21, Changsha, China, Oct.
2021. Best Paper Award | 145. | W. Ding, W. Zhang, D. Wang, J. Sun, and C.-X.
Wang*, “Dynamic spectrum aggregation and access scheme based on
multi-agent actor-critic reinforcement learning,” in Proc. WCSP'21,
Changsha, China, Oct. 2021. | 146. | H. Chang, C.-X. Wang*, Y. He, Z.
Bai, J. Sun, and W. Zhang, “Multi-user UAV channel modeling with massive MIMO
configuration,” in Proc. IEEE VTC-Fall'21, Sept. 2021. | 147. | Z. Zhou, L. Zhang, X. Chen, C.-X. Wang*,
and J. Huang, “Multi-frequency wireless channel measurements and
characteristics analysis in indoor corridor scenarios,” in Proc. IEEE
VTC-Fall'21, Sept. 2021. | 148. | Y. Li, C.-X. Wang*, Y. Liu, and X.
Zhu, “A 3D non-stationary GBSM for industrial automation wireless
communication systems,” in Proc. IEEE PIMRC'21, online, Sept.
2021. | 149. | B. Hua, Q. Zhu, C.-X. Wang, et
al., “Effects of fuselage scattering and posture on UAV channel,”
in Proc. CSPS’ 21, Changbaishan, China, Aug. 2021. Best Paper Award | 150. | X. Chen, Z. Zhou, L. Zhang, C.-X. Wang*,
and J. Huang, “Comparison and modeling of multi-frequency wideband channels
at sub-6 GHz bands,” in Proc. IEEE/CIC ICCC'21, Xiamen, China,
July 2021. | 151. | Z. Li, C.-X. Wang*, J. Huang, and
Y. Zheng, “A 3D non-stationary GBSM for 6G LEO satellite communication
systems,” in Proc. IEEE/CIC ICCC'21, Xiamen, China, July 2021. | 152. | Y. Wang, C.-X. Wang*, X. Zhu, Y.
He, H. Chang, J. Sun, and W. Zhang, “A 3D non-stationary GBSM for
mobile-to-mobile underwater acoustic communication channels,” in Proc.
IEEE/CIC ICCC'21, Xiamen, China, July 2021. | 153. | J. Wang, W. Zhang*, J. Sun, and C.-X.
Wang*, “Tensor-based channel estimation for 3D mmWave massive MIMO
systems,” in Proc. IEEE/CIC ICCC'21, Xiamen, China, July 2021. | 154. | X. Zhu, C.-X. Wang*, and R. Ma, “A 2D non-stationary channel model for
underwater acoustic communication systems,”
in Proc. IEEE VTC'21-Spring, Helsinki, Finland, Apr. 2021. | 155. | Y. Zheng, L. Yu, R. Yang, and C.-X.
Wang*, “A general 3D non-stationary massive MIMO GBSM
for 6G communication systems,” in Proc.
IEEE WCNC'21, Nanjing, China, Apr. 2021. | 156. | Y. Xu, K. Yu, L. Li, X. Lei, L. Hao, and C.-X.
Wang*,“A 3D non-stationarity mmWave channel model
for vacuum tube ultra-high-speed train wireless communication systems,” in Proc. IEEE WCNC'21, Nanjing, China, Apr. 2021. | 157. | L. Yu, C.-X. Wang*, “Prediction of wireless mmWave massive MIMO
channel characteristics based on graph attention networks,” in Proc. ICETC'20, Tokyo, Japan, Dec. 2020. | 158. | Y. Liu, C.-X. Wang*, R. Dai, X.
Guo, and Y. Yu, “A general 3D geometry-based stochastic model
for industrial IoT environments,” in Proc.
IEEE Globecom wkshps'20, Taipei, China, Dec. 2020. | 159. | Z. Song, J. Sun, W. Zhang, C.-X. Wang,
and M. Zhang, “A novel channel estimation scheme for
frequency-selective mmWave massive MIMO systems,”
in Proc. WCSP'20, Nanjing, China, Oct. 2020. | 160. | R. Dai, Y. Liu, C.-X. Wang, Y, Yu,
and X. Guo, “A stochastic coupling-based channel impulse
response matrix model for massive MIMO channels,”
in Proc. WCSP'20, Nanjing, China, Oct. 2020. | 161. | L. Zhang, Z. Zhou, X. Chen, and C.-X.
Wang, “A novel 3D non-stationarity multi-frequency
multi-link wideband MIMO WLAN channel model,”
in Proc. WCSP'20, Nanjing, China, Oct. 2020. | 162. | Y. Sun, C.-X. Wang, J. Huang, and
J. Wang, “A 3D non-stationary channel model for 6G
wireless systems employing intelligent reflecting surface,” in Proc. WCSP'20, Nanjing, China, Oct. 2020. Best Paper Award | 163. | C. Zhang, J. Sun, Y. Liu, W. Zhang, and C.-X.
Wang, “Channel characteristics analysis of 60 GHz wireless communications
in staircase environments,” in Proc.
IEEE/CIC ICCC’20 Workshop, Jilin, China, Aug. 2020. | 164. | S. Jiang, Q. Zhu*, C.-X. Wang*, K.
Mao, W. Xie, W. Zhong, and M. Yao, “Map-based UAV mmWave channel model and characteristic analysis,” in Proc. IEEE/CIC ICCC’20 Workshop, Jilin, China,
Aug. 2020. | 165. | H. Zhang, J. Sun, W. Zhang, Z. Bai, and C.-X.
Wang, “Comparison of OFDM and SC-FDE for VLC systems with a nonlinear LED
model,” in Proc. IEEE/CIC ICCC’20,
Jilin, China, Aug. 2020. | 166. | C. Liu, W. Feng, Y. Chen, C.-X. Wang,
X. Li, and N. Ge, “Process-oriented optimization for beyond 5G cognitive
satellite-UAV networks,” in Proc. WOCCC’20, New Jersey, USA, May
2020. Invited Paper | 167. | Q. Chen, C.-X. Wang, J. Sun,
W. Zhang, and Q. Zhu, “A non-stationary VVLC MIMO channel model for street corner
scenarios,” in Proc. IWCMC’20,
Limassol, Cyprus, June 2020.Invited Paper | 168. | Q. Zhu*, S. Jiang, C.-X. Wang,
B. Hua, X. Chen, M. Yao, and W. Zhong, “Effects of Digital Map on the RT-based Channel Model for UAV
mmWave communications,” in Proc. IWCMC’20,
Limassol, Cyprus, June 2020. Invited
Paper, Best Paper Award | 169. | W. Zhang, J. Wu, and C.-X. Wang, “Tensor-computing-based spectrum usage framework for 6G,” in Proc. IEEE ICC’20, Dublin, Ireland, June 2020. | 170. | Y. Fu, M. D. Soltani, H. Alshaer, C.-X.
Wang, M. Safari, S. Mclaughlin, and H. Haas, “End-to-end energy efficiency evaluation for a beyond 5G wireless
communication network,” in Proc. IEEE
VTC’20-Spring Workshop, Antwerp, Belgium, May 2020. | 171. | X. Yan, K. An, C.-X. Wang, W. Zhu,
Y. Li, and Z. Feng, “Genetic algorithm optimized support vector machine in NOMA-based
satellite networks with imperfect CSI,” in Proc.
ICASSP’20, Barcelona, Spain, May 2020. | 172. | J. Wang, C.-X. Wang, J. Huang, and
H. Wang, “A novel 3D space-time-frequency non-stationary channel model for
6G THz indoor communication systems,” in Proc.
IEEE WCNC'20, Seoul, Korea, Apr. 2020. | 173. | F. Lai, C.-X. Wang, J. Huang, X.
Gao, and F. Zheng, “A novel massive MIMO beam domain channel model,” in Proc. IEEE WCNC'20, Seoul, Korea, Apr.
2020, pp. 1-6. | 174. | W. Li, Q. Zhu, C.-X. Wang, F. Bai,
X. Xiao, and D. Xu, “A practical non-stationary channel model for vehicle-to-vehicle
MIMO communication,” in Proc. IEEE
WCNC'20, Seoul, Korea, Apr. 2020, pp. 1-6. | 175. | L. Cheng, Q. Zhu, C-X Wang, W.
Zhong, B. Hua, and S. Jiang, “Modeling and simulation for UAV air-to-ground mmWave channels,” in Proc.EuCAP 2020, Copenhagen, Denmark, Mar. 2020. | 176. | Y. Huang, H. Chang, J. Huang, W. Zhang, J. Sun,
and C.-X. Wang, “ A 3D wideband GBSM for THz communications in indoor scenarios,” in Proc. WCSP’19, Xian, China, Oct. 2019. | 177. | Y. He, H. Chang, Y. Liu, W. Zhang, J. Sun,
and C.-X. Wang, “ A 3D GBSM for ship-to-land communications,” in Proc. IEEE/CIC ICCC’19, Changchun, China, Aug.
2019. | 178. | D. Tian, W. Zhang, J. Sun, and C.-X.
Wang, “ Physical-layer security of visible light communications with
jamming,” in Proc. IEEE/CIC ICCC’19,
Changchun, China, Aug. 2019. | 179. | L. Zhang, W. Zhang, Y. Li, J. Sun, and C.-X.
Wang, “ Standard condition number of Hessian matrix for neural networks,” in Proc. IEEE ICC'19, Shanghai, China, May 2019. | 180. | X. Li, W. Feng, Y. Chen, C.-X. Wang,
and N. Ge, “ UAV-enabled accompanying coverage for hybrid
satellite-UAV-terrestrial maritime communications,”
in Proc. WOCC'19, Beijing, China, May 2019. Best Paper Award | 181. | Y. Ruan, R. Zhang, Y. Li, C.-X. Wang and
H. Zhang, “ Spectral-energy efficiency tradeoff in cognitive
satellite-vehicular networks towards beyond 5G,”
in Proc. IEEE WCNC'19, Marrakech, Morocco, Apr. 2019. | 182. | H. Chang, J. Bian, C.-X.
Wang, Z. Bai, J. Sun, and X. Gao, “ A 3D wideband geometry-based stochastic model for UAV
air-to-ground channels,” in Proc. IEEE
Globecom'18, Abu Dhabi, UAE, Dec. 2018. | 183. | L. Zhou, Z. Yang, G. Zhao, S. Zhou,
and C.-X. Wang, “ Propagation characteristics of air-to-air channels in urban
environments,” in Proc. IEEE Globecom'18,
Abu Dhabi, UAE, Dec. 2018. | 184. | F. Lai, C. F. Lopez, X. Gao, C.-X.
Wang, and F. Zheng, “ Analysis of performances for three massive MIMO channel models,” in Proc. WCSP'18, Hangzhou, China, Oct. 2018. | 185. | Y. Wang, Y. Wei, W. Zhang, and C.-X.
Wang, “ Filtered-OFDM for visible light communications,” in Proc. CONTEST'18 (IEEE/CIC ICCC'18 Workshop),
Beijing, China, Aug. 2018. Invited Paper | 186. | Y. Liu, L. Feng, J. Sun, W. Zhang, C.-X.
Wang, and P. Fan, “ 3D non-stationary GBSMs for high-speed train tunnel channels,” in Proc. HMWC'18 (IEEE VTC'18-Spring Workshop),
Porto, Portugal, June 2018. | 187. | C. Rotsos, A. Frashad, K. Daniel, D.
Hutchison, Q. Zhou, G. A. J. G, C.-X. Wang, and S. Mclaughlin, “ ReasoNet: Inferring network policies using ontologies,” in Proc. IEEE NetSoft, Montreal, Canada, June 2018. | 188. | C. Lopez and C.-X. Wang, “ A study of delay drifts on massive MIMO wideband channel models,” in Proc. WSA'18, Bochum, Germany, Mar. 2018. | 189. | Y. Tan, C.-X. Wang, Q. Zhu,
Z. Zhang, Z. Wang, J. Huang, and R. Feng, “ A novel beamforming scheme for mobile-to-mobile millimeter wave
communications,” in Proc. WSA'18,
Bochum, Germany, Mar. 2018. | 190. | H. Chang, J. Bian, J. Sun, W. Zhang,
and C.-X. Wang, “ A novel channel model for molecular communications based on
inter-cellular calcium wave,” in Proc.
WiCON'17, Tianjin, China, Dec. 2017. Invited
Paper | 191. | H. Li, J. Sun, W. Zhang, and C.-X.
Wang, “ A novel optical index modulation aided DCO-OFDM scheme for VLC
systems,” in Proc. WiCON'17, Tianjin,
China, Dec. 2017. | 192. | Y. Li, M. Chen, Y. Yang, M. Zhou,
and C.-X. Wang, “ Convolutional recurrent neural network based channel
equalization: An experimental study,” in Proc.
IEEE APCC'17, Perth, Australia, Dec. 2017. Invited Paper | 193. | Y. Yang, J. Sun, W. Zhang, C.-X.
Wang, and X. Ge, “ Ray tracing based 60 GHz channel clustering and analysis in
staircase environment,” in Proc. IEEE
Globecom'17, Singapore, Dec. 2017. | 194. | R. Feng, J. Huang, J. Sun, Y. Tan, C.-X.
Wang, and S. Zhou, “ Spatial cross-correlation properties of mmWave massive
MIMO channels,” in Proc. IEEE/CIC ICCC'17, Qingdao,
China, Oct. 2017. Invited Paper | 195. | L. Bai, C.-X. Wang, S. Wu, C.
F. Lopez, X. Gao, W. Zhang, and Y. Liu, “ Performance comparison of six massive MIMO channel models,” in Proc. IEEE/CIC ICCC'17, Qingdao, China,
Oct. 2017. Invited Paper | 196. | J. Bian, C.-X. Wang, J.
Sun, W. Zhang, and M. Zhang, “ A non-stationary MIMO channel model for street corner scenarios
considering velocity variations of the mobile station and scatterers,” in Proc. IEEE/CIC ICCC'17, Qingdao, China, Oct.
2017. | 197. | J. Huang, Y. Liu, J. Sun, W. Zhang,
and C.-X. Wang, “ Effects of antenna height and directivity on 60 GHz indoor
channels,” in Proc. IEEE/CIC ICCC'17,
Qingdao, China, Oct. 2017. | 198. | R. Feng, Y. Liu, J. Huang, and C.-X.
Wang, “ Comparison of MUSIC, unitary ESPRIT, and SAGE algorithms for
estimating 3D angles in wireless channels,”
in Proc. IEEE/CIC ICCC'17, Qingdao, China, Oct. 2017. | 199. | Q. Zhu, K. Jiang, X. Chen, C.-X.
Wang, X. Hu, and Y. Yang, “ A modified non-stationary MIMO channel model under 3D scattering
scenarios,” in Proc. IEEE/CIC ICCC'17,
Qingdao, China, Oct. 2017. | 200. | A. Al-Kinani, C.-X. Wang, F.
Haider, H. Haas, W. Zhang, and X. Cheng, “ Light and RF dual connectivity for the next generation cellular
systems,” in Proc. IEEE/CIC ICCC'17,
Qingdao, China, Oct. 2017. | 201. | J. Wang, A. Alkinani, J. Sun, W.
Zhang, and C.-X. Wang, “ A path loss channel model for visible light communications in
underground mines,” in Proc. IEEE/CIC
ICCC'17, Qingdao, China, Oct. 2017. | 202. | D. Li, W. Zhang, J. Sun, and C.-X.
Wang, “ An improved generalized spatial modulation scheme for indoor
visible light communications,” in Proc.
IEEE/CIC ICCC'17, Qingdao, China, Oct. 2017. | 203. | J. Song, W. Zhang, L. Zhou, X. Zhou, J.
Sun, and C.-X. Wang, “ A new light source of VLC combining white LEDs and RGB LEDs,” in Proc. IEEE/CIC ICCC'17, Qingdao, China, Oct.
2017. | 204. | X. Yan, H. Xiao, C.-X. Wang,
and K. An, “ On the ergodic capacity of NOMA-based cognitive hybrid satellite
terrestrial networks,” in Proc. IEEE/CIC
ICCC'17, Qingdao, China, Oct. 2017. | 205. | L. Zhang, T. Du, and C.-X. Wang,
“ Detection of an unknown radio transmitter using joint RSSD
and AoA information based on factor graph,” in Proc. IEEE/CIC ICCC'17, Qingdao, China, Oct.
2017. | 206. | Y. Cao, X. Zhou, J. Sun, W. Zhang,
and C.-X. Wang, “ Optical spatial modulation with DHT-based OFDM in visible light
communication systems,” in Proc. WCSP'17,
Nanjing, China, Oct. 2017. | 207. | A. Zhou, J. Huang, J. Sun, Q. Zhu, C.-X.
Wang, and Y. Yang, “ 60 GHz channel measurements and ray tracing modeling in an indoor
environment,” in Proc. WCSP'17,
Nanjing, China, Oct. 2017. | 208. | R. Zhang, Y. Li, C.-X. Wang,
Y. Ruan, and H. Zhang, “ Energy efficiency of relay aided D2D communications underlaying
cellular networks,” in Proc. IEEE
PIMRC'17, Montreal, Canada, Oct. 2017. | 209. | L. Zeng, X. Cheng, C.-X. Wang,
and X. Yin, “ Second order statistics of non-isotropic
UAV Ricean fading channels,” in Proc.
IEEE VTC'17-Fall, Toronto, Canada, Sept. 2017. Invited Paper | 210. | Y. Tan, J. Huang, R. Feng, and C.-X,
Wang, “ A study of angular stationarity of 5G millimeter wave channels,” in Proc. ISWCS'18 Workshop, Bologna, Italy, Aug.
2017. | 211. | X. Fu, Z. Tan, C. Yan, Z. Li, C. Wang,
and C.-X. Wang, “ Your body de?nes your fall detection system: a somatotype-based
feature selection method,” in Proc.
CBD'17, Shanghai, Aug. 2017. | 212. | Q. Zhou, S. Mclaughlin, A. G. C. Gary, S.
Wu, and C.-X. Wang, “ Lost silence: An emergency response early detection service
through continuous processing of telecommunication data streams,” in Proc. ISWC, Vienna, Austria, June 2017. | 213. | J. Wang, A. Alkinani, W. Zhang,
and C.-X. Wang, “ A new VLC channel model for underground mining environments,” in Proc. IWCMC'17, Valencia, Spain, June
2017. Invited Paper | 214. | Y. Tan, C.-X Wang, J. ?.
Nielsen, and G. F. Pedersen, “ Comparison of stationarity regions for wireless
channels from 2 GHz to 30 GHz,”
in Proc. IWCMC'17, Valencia, Spain, June 2017. Invited Paper | 215. | W. Qi. J. Huang, J. Sun, Y. Tan, C.-X.
Wang, and X. Ge, “ Measurements and modeling of human blockage effects for multiple
millimeter wave bands,” in Proc. IWCMC'17,
Valencia, Spain, June 2017. | 216. | Y. Zhang, Y. Liu, J. Sun, C.-X.
Wang, and X. Ge, “ Impact of different parameters on channel characteristics in a
high-speed train ray tracing tunnel channel model,”
in Proc. IEEE VTC'17-Spring, Sydney, Australia, June 2017. | 217. | L. Bai, C.-X. Wang, S. Wu, J.
Sun, and W. Zhang, “ A 3-D wideband multi-confocal ellipsoid model for wireless massive
MIMO communication channels with uniform planar antenna array,” in Proc. IEEE VTC'17-Spring, Sydney, Australia,
June 2017. | 218. | J. Huang, R. Feng, J. Sun, C.-X.
Wang, W. Zhang, and Y. Yang, “ Comparison of propagation channel characteristics for multiple
millimeter wave bands,” in Proc. IEEE
VTC'17-Spring, Sydney, Australia, June 2017. | 219. | J. Bian, C.-X. Wang, M.
Zhang, X. Ge, and X. Gao, “ A 3-D non-stationary wideband MIMO channel model allowing for
velocity variations of the mobile station,”
in Proc. IEEE ICC'17, Paris, France, May 2017. | 220. | J. Huang, R. Feng, J. Sun, C.-X.
Wang, W. Zhang, and Y. Yang, “ Multi-frequency millimeter wave massive MIMO channel measurements
and analysis,” in Proc. IEEE ICC'17,
Paris, France, May 2017. | 221. | Y. Ruan, Y. Li, and C.-X.
Wang, R. Zhang, and H. Zhang, “ Effective capacity analysis for underlay cognitive
satellite-terrestrial networks,” in Proc. IEEE ICC'17, Paris, France, May 2017. | 222. | J. Chen, F. Bin, X. Ge, Q. Li, and C.-X.
Wang, “ A dual-directional path-loss model in 5G wireless fractal small
cell networks,” in Proc. IEEE ICC'17,
Paris, France, May 2017. | 223. | L. Zeng, X. Cheng, C.-X. Wang,
and X. Yin, “ A 3D Geometry-based Stochastic Channel Model for UAV-MIMO Channels,” in Proc. IEEE WCNC'17, San Francisco, USA,
Mar. 2017. | 224. | Y. Wu, S. Yao, Y. Yang, Z. Hu, and C.-X.
Wang, “ Semigradient-based cooperative caching algorithm for mobile social
networks,” in Proc. IEEE Globecom'16,
Washington, USA, Dec. 2016. | 225. | R. Feng, J. Huang, J. Sun, C.-X. Wang,
and X. Ge, “ Millimeter wave channel parameter estimation using a 3D frequency
domain SAGE algorithm,” in Proc. WPMC'16,
Shenzhen, China, Nov. 2016. Best Student
Paper Award | 226. | W. Zhang, D. Xin, H. Xiong, W. Zhu,
and C.-X. Wang, “ A statistical weighting average approach for cognitive radio
networks,” in Proc. WPMC'16,
Shenzhen, China, Nov. 2016. | 227. | C. F. Lopez, C.-X. Wang, and
R. Feng, “ A novel 2D non-stationary wideband massive MIMO channel model,” in Proc. IEEE CAMAD'16, Toronto, Canada, Oct.
2016. | 228. | X. Ge, L. Pan, S. Tu, H.-H. Chen,
and C.-X. Wang, “ Wireless backhaul capacity of 5G ultra-dense cellular networks,” in Proc. IEEE VTC'16-Fall, Montreal, Canada,
Sept. 2016. Invited Paper | 229. | A. Al-Kinani, C.-X. Wang, H.
Haas, and Y. Yang, “ A geometry-based multiple bounce model for visible light
communication channels,” in Proc. IEEE
IWCMC'16, Peyia, Cyprus, Sept. 2016. Invited
Paper, Best Paper Award | 230. | A. Weir, C.-X. Wang, and S. Parks, “ Pre-clinical investigations of multi-path propagation in
transcranial Doppler ultrasound flow phantom,”
in Proc. IEEE EMBC'16, Orlando, FL, USA, Aug. 2016. | 231. | S. Wu, C.-X. Wang, Y. Yang, W. Wang, and
X. Gao, “ Performance comparison of massive MIMO channel models,” in Proc. IEEE/CIC ICCC'16, Chengdu, China, July
2016. | 232. | E. Li, W. Zhang, J. Sun, C.-X. Wang, and
X. Ge, “ Energy-spectral efficiency tradeoff of visible light communication
systems,” in Proc. IEEE/CIC ICCC'16,
Chengdu, China, July 2016. | 233. | J. Sun, W. Zhang, J. Sun, C.-X. Wang, Y.
Chen, “ Energy-spectral efficiency in simultaneous wireless information
and power transfer,” in Proc. IEEE/CIC
ICCC'16, Chengdu, China, July 2016. Best
Paper Award | 234. | L. Bai, C.-X. Wang, S. Wu, H. Wang, Y.
Yang, “ A 3D wideband multi-confocal ellipsoid model for wireless MIMO
communication channels,” in Proc. IEEE
ICC'16, Malaysia, June 2016. | 235. | P. Ju, M. Zhang, X. Cheng, C.-X. Wang,
and L. Yang, “ Generalized spatial modulation with transmit antenna grouping for
correlated channels,” in Proc. IEEE
ICC'16, Malaysia, June 2016. | 236. | A. Al-Kinani, C.-X. Wang, H. Haas, and Y.
Yang, “ Characterization and modeling of visible light communication
channels,” in Proc. IEEE VTC'16-Spring,
Nanjing, China, May 2016. | 237. | Y. Liu, Y. Zhang, A. Ghazal, C.-X. Wang,
and Y. Yang, “ Statistical properties of high-speed train wireless channels in
different scenarios,” in Proc. IEEE
VTC'16-Spring, Nanjing, China, May 2016. | 238. | S. Wu, C.-X. Wang, e.-H. M. Aggoune, and
M. M. Alwakeel, “ A novel Kronecker-based stochastic model for 5G massive MIMO
channels,” in Proc. IEEE/CIC ICCC'15,
Shenzhen, China, Nov. 2015. | 239. | A. Ghazal, C.-X. Wang, Y. Liu, P. Fan,
and M. K. Chahine, “ A generic non-stationary MIMO channel model for different
high-speed train scenarios,” in Proc.
IEEE/CIC ICCC'15, Shenzhen, China, Nov. 2015. | 240. | W. Zhang, C.-X. Wang, X. Zhou, and X.
Tao, “ Design principles for simultaneous wireless information and power
transmission systems,” in Proc. IEEE/CIC
ICCC'15, Shenzhen, China, Nov. 2015. | 241. | P. Dong, Z. Bai, S. Gao, X. Zhou,
and C.-X. Wang, “ Finite length buffer relaying based incremental hybrid
decode-amplify-forward cooperative system,”
in Proc. IEEE ICCC'15, Shenzhen, China, Nov. 2015. | 242. | L. Feng, P. Fan, C.-X. Wang,
and A. Ghazal, “ A three dimensional geometrical model for deep cutting
scenario of high-speed railway,” in Proc.
HMWC'15, Xi’an, China, Oct. 2015. | 243. | S. Wu, P. Patcharamaneepakorn, C.-X. Wang, e.-H. M. Aggoune, M. M. Alwakeel,
and Y. He, “A novel method for ergodic sum rate analysis of spatial modulation
systems with maximum likelihood receiver,”
in Proc. IWCMC'15, Dubrovnik, Croatia, Aug. 2015. Invited Paper, Best Paper Award | 244. | Weir, R. Sayer, C.-X. Wang,
and S. Parks, “ A wall-less poly (vinyl alcohol) cryogel flow phantom
with accurate scattering properties for transcranial Doppler ultrasound
propagation channels analysis,” in Proc.
IEEE EMBC'15, Milan, Italy, Aug. 2015. | 245. | Y. Liu, C.-X. Wang, A.
Ghazal, S. Wu, and W. Zhang, “ A multi-mode waveguide tunnel channel model for high-speed train
wireless communication systems,” in Proc.
EuCAP'15, Lisbon, Spain, Apr. 2015. Invited
Paper | 246. | X. Wu, Y. Zhang, C.-X. Wang,
G. Goussetis, e.-H. M. Aggoune, and M. M. Alwakeel, “ 28 GHz indoor channel measurements and modelling in laboratory
environment using directional antennas,” in Proc.
EuCAP'15, Lisbon, Spain, Apr. 2015. Invited
Paper | 247. | R. Zi, X. Ge, H. Wang, J. Zhang,
and C.-X. Wang, “ Multiuser massive MIMO uplink performance with mutual coupling
effects,” in Proc. IEEE Globecom'14,
Austin, USA, Dec. 2014. | 248. | Weir, C.-X. Wang, and S.
Parks, “ 3-D half-spheroid models for transcranial Doppler ultrasound
propagation channels,” in Proc. IEEE
BHI'14, Valencia, Spain, Jun. 2014. | 249. | S. Wu, C.-X. Wang, B. Ai, and
Y. He, “ Capacity analysis of finite-scatterer MIMO wireless channels,” in Proc. IEEE ICC'14, Sydney, Australia, Jun.
2014. | 250. | Robert, C. Moy, and C.-X. Wang,
“ Reinforcement learning approaches and evaluation criteria for
opportunistic spectrum access,” in Proc.
IEEE ICC'14, Sydney, Australia, Jun. 2014. | 251. | M. Wen, X. Cheng, C.-X. Wang,
M. Wang, and B. Jiao, “ Optimal selection of pilot positions for frequency domain pilot
multiplexing channel estimation in SC-FDE systems,”
in Proc. IEEE ICC'14, Sydney, Australia, June 2014. | 252. | Y. Fu, C.-X. Wang, R.
M. Mesleh, X. Cheng, H. Haas, and Y. He, “ A performance study of spatial modulation technology under
vehicle-to-vehicle channel models,” in Proc.
IEEE VTC'14-Spring, Seoul, South Korea, May 2014. | 253. | S. Wu, C.-X. Wang, and e.-H.
M. Aggoune, “ Non-stationary wideband channel models for massive MIMO systems,” in Proc. WSCN'13, Jeddah, Saudi Arabia, Dec.
2013. | 254. | K. Xue, X. Hong, L. Chen,
J. Xiong, J. Shi, and C.-X. Wang, “ Performance analysis and resource allocation of heterogeneous
cognitive Gaussian relay channels,” in Proc.
IEEE Globecom'13, Atlanta, USA, Dec. 2013. | 255. | A. Younis, W. Thompson, M. Di
Renzo, C.-X. Wang, M. A. Beach, H. Haas, and P. M. Grant, “ Performance of spatial modulation over measured real-world
channels,” in Proc. IEEE VTC'13-Spring,
Las Vegas, USA, Sept. 2013. Best Student
Paper Award | 256. | O. Salih, C.-X. Wang,
R. Mesleh, X. Ge, and D. Yuan, “ Predicting burst error statistics of digital wireless systems with
HARQ,” in Proc. IWCMC'13, Cagliari,
Italy, Jul. 2013. Invited Paper | 257. | Z. Li, J. Zhang, X. Ge, and C.-X.
Wang, “ Modeling and performance analysis of maximum achievable rate
over Nakagami-m-fading uplink channels,”
in Proc. IEEE ICC'13, Budapest, Hungary, Jun. 2013. | 258. | I. Ku, C.-X. Wang, and J. S.
Thompson, “ Spectral-energy efficiency tradeoff in multicell cellular networks
with adaptive relay cooperation,” in Proc.
IEEE Globecom'12, California, USA, Dec. 2012. | 259. | P. Chambers, X. Hong, Z. Chen, C.-X.
Wang, M. Beach, and H. Haas, “ The UC4G wireless MIMO testbed,”
in Proc. IEEE Globecom'12, California, USA, Dec. 2012. | 260. | H. Sun, A. Nallanathan, N. Zhao,
and C.-X. Wang, “ Green data transmission in power line communications,” in Proc. IEEE Globecom'12, California, USA, Dec.
2012. | 261. | A. Ghazal, C.-X. Wang, H.
Haas, M. A. Beach, R. M. Mesleh, D. Yuan, X. Ge, and M. K. Chahine, “ A non-stationary geometry-based stochastic model for MIMO
high-speed train channels,” in Proc.
ITST'12, Taiwan, Nov. 2012. Invited
Paper | 262. | M. Anyaegbu, C.-X. Wang,
and W. Berrie, “ A sample-mode packet delay variation filter for IEEE 1588
synchronization,” in Proc. ITST'12,
Taiwan, Nov. 2012. Highly Cited Paper,
Invited Paper | 263. | Z. Zhao, M. Mao, X. Cheng, C.-X.
Wang, and B. Jiao, “ A novel effective channel estimation scheme applicable to IEEE
802.11p,” in Proc. ITST'12,
Taiwan, Nov. 2012. Invited Paper, Best
Paper Award | 264. | X. Cheng, C.-X. Wang, B. Ai,
X. Yin, and B. Jiao, “ Investigation of multi-link spatial correlation properties for
cooperative MIMO channels,” in Proc.
WCSP'12, Huangshan, China, Oct. 2012. Invited
Paper | 265. | F. S. Haider, C.-X. Wang, H.
Haas, E. Hepsaydir, and X. Ge, “ Energy-efficient subcarrier-and-bit allocation in multi-user OFDMA
systems,” in Proc. IEEE VTC'12-Spring,
Yokohama, Japan, May 2012. | 266. | A. Ghazal, C.-X. Wang, H.
Haas, M. A. Beach, X. Lu, and D. Yuan, “ A non-stationary MIMO channel model for high speed train
communication systems,” in Proc. IEEE
VTC'12-Spring, Yokohama, Japan, May 2012. | 267. | Q. Yao, Y. Yuan, A. Ghazal, C.-X.
Wang, L. Luan, and X. Lu, “ Comparison of the statistical properties of the LTE-A and IMT-A
channel models,” in Proc. IEEE WCNC'12,
Paris, France, Apr. 2012. | 268. | H. Sun, A. Nallanathan, J. Jiang, D.
I. Laurenson, C.-X. Wang, and H. V. Poor, “ A novel wideband spectrum sensing system for distributed cognitive
radio networks,” in Proc. IEEE
Globecom'11, Houston, USA, Dec. 2011. | 269. | F. Haider, C.-X. Wang, X.
Hong, H. Haas, D. Yuan, and E. Hepsaydir, “ Spectral-energy efficiency tradeoff in cognitive radio networks
with peak interference power constraints,” in Proc.
IEEE ICCT'11, Jinan, China, Sept. 2011. Invited
Paper, Best Paper Award | 270. | F. Haider, C.-X. Wang, H.
Haas, D. Yuan, H. Wang, X. Gao, X.-H. You, and E. Hepsaydir, “ Spectral efficiency analysis of mobile femtocell based cellular
systems,” in Proc. IEEE
ICCT'11, Jinan, China, Sept. 2011. Best Paper Award | 271. | I. Ku, C.-X. Wang, J. S.
Thompson, and P. M. Grant, “ Impact of receiver interference cancellation techniques on the
base station power consumption in MIMO systems under inter-cell interference,” in Proc. IEEE PIMRC'11, Toronto, Canada, Sept.
2011. | 272. | H. Sun, A. Nallanathan, J. Jiang,
and C.-X. Wang, “ Cooperative spectrum sensing with diversity reception in cognitive
radios,” in Proc. Chinacom'11,
Harbin, China, Aug. 2011. | 273. | I. Ku, C.-X. Wang, J. S.
Thompson, and P. M. Grant, “ Transmission energy consumption in MIMO systems under inter-cell
interference,” in Proc. WiAd'11,
London, UK, Jun. 2011. | 274. | Z. Chen, C.-X. Wang, X. Hong,
J. S. Thompson, S. A. Vorobyov, and D. Yuan, “ Cross-layer interference mitigation for MIMO cognitive radio
systems,” in Proc. IEEE ICC'11,
Kyoto, Japan, Jun. 2011. | 275. | Q. Jin, H. Zhang, D. Yuan, J. Xu,
and C.-X. Wang, “ Energy-efficient spectrum leasing in cognitive relay networks,” in Proc. CMC'11, Qingdao, China, Apr.
2011. | 276. | J. Xu, H. Zhang, D. Yuan, Q. Jin,
and C.-X. Wang, “ Novel multiple relay selection schemes in two-hop cognitive relay
networks,” in Proc. CMC'11, Qingdao,
China, Apr. 2011. | 277. | Y. Yuan, X. Cheng, C.-X. Wang,
D. I. Laurenson, X. Ge, and F. Zhao, “ Space-time correlation properties of a 3D two-sphere model for
non-isotropic MIMO mobile-to-mobile channels,”
in Proc. IEEE Globecom'10, Miami, USA, Dec. 2010. | 278. | L. Xiang, X. Ge, C. Liu, L. Shu,
and C.-X. Wang, “ A new hybrid network traffic prediction method,” in Proc. IEEE Globecom'10, Miami, USA, Dec.
2010. Best Paper Award | 279. | A. Thompson, D. Corne, C.-X.
Wang, and C. Murphy, “ Optimization of UMTS-LTE scheduling using multi-objective
evolutionary algorithms,” in Proc.
UKCI'10, Essex, UK, Sept. 2010. | 280. | U. Anyaegbu, A. Weir, and C.-X.
Wang, “ Higher layer synchronization in an ECMA-368 USB network,” in Proc. ICUWB'10, Nanjing, China, Sept. 2010. | 281. | X. Cheng, C.-X. Wang, Y.
Yuan, D. I. Laurenson, and X. Ge, “ A novel 3D regular-shaped geometry-based stochastic model for
non-isotropic MIMO mobile-to-mobile channels,” in Proc. IEEE VTC'10-Fall,
Ottawa, Canada, Sept. 2010. Invited Paper | 282. | Z. Chen, C.-X. Wang, X. Hong,
J. S. Thompson, S. A. Vorobyov, and X. Ge, “ Interference modeling for cognitive radio networks with power and
contention control,” in Proc. IEEE
WCNC'10, Sydney, Australia, Apr. 2010. | 283. | X. Cheng, C.-X. Wang, and D.
I. Laurenson, “ A geometry-based stochastic model for wideband MIMO
mobile-to-mobile channels,” in Proc. IEEE Globecom'09,
Hawaii, USA, Nov.-Dec. 2009. | 284. | O. Salih, C.-X. Wang, D.
I. Laurenson, and Y. He, “ Hidden Markov models for packet-level errors in bursty digital
wireless channels,” in Proc. LAPC'09,
Loughborough, UK, Nov. 2009, pp. 385-388. | 285. | D. I. Laurenson, M. Matthaiou, X.
Cheng, and C.-X. Wang, “ Modelling for vehicle to vehicle applications,” in Proc. LAPC'09, Loughborough, UK,
Nov. 2009, pp. 42-48. Invited Paper | 286. | X. Cheng, C.-X. Wang, D.
I. Laurenson, S. Salos, and A. V. Vasilakos, “ New simulation models for non-isotropic scattering
mobile-to-mobile Rayleigh fading channels,” in Proc.the
First International Workshop on Vehicular Communication Technologies, VehiCom
2009, co-located with IWCMC'09, Leipzig, Germany, Jun. 2009. | 287. | S. Iqbal, S. R. Chowdhury, C.
S. Hyder, A. V. Vasilakos, and C.-X. Wang, “ Vehicular communication: protocol design, testbed implementation
and performance analysis,” in Proc.the
First International Workshop on Vehicular Communication Technologies, VehiCom
2009, co-located with IWCMC'09, Leipzig, Germany, Jun. 2009. | 288. | X. Cheng, C.-X. Wang, and D.
I. Laurenson, “ New deterministic and stochastic simulation models for
non-isotropic scattering MIMO channels,” in Proc. IEEE IWCMC'09, Leipzig, Germany,
Jun. 2009. | 289. | Salih, C.-X. Wang, and D.
I. Laurenson, “ Soft bit error modeling for discrete wireless channels,” in Proc. IEEE IWCMC'09, Leipzig, Germany,
Jun. 2009. | 290. | C.-X. Wang,
H.-G. Ryu, H.-H. Chen, and Y. He, “ Hybrid ARQ with rate adaptation in multiband OFDM UWB systems,” in Proc. IEEE ICC'09, Dresden, Germany, Jun.
2009. | 291. | X. Cheng, C.-X. Wang, D.
I. Laurenson, and A. V. Vasilakos, “ Second order statistics of non-isotropic mobile-to-mobile Ricean
fading channels,” in Proc. IEEE
ICC'09, Dresden, Germany, Jun. 2009. | 292. | X. Cheng, C.-X. Wang, and D.
I. Laurenson, “ Multiple-ring based modeling and simulation of wideband
space-time-frequency MIMO channels,” in Proc.
IEEE ICC'09, Dresden, Germany, Jun. 2009. | 293. | O. S. Salih, C.-X. Wang, and
D. I. Laurenson, “ Three-layered hidden Markov models for binary digital wireless
channels,” in Proc. IEEE ICC'09,
Dresden, Germany, Jun. 2009. | 294. | Z. Chen, S. A. Vorobyov, C.-X.
Wang, and J. S. Thompson, “ Nash bargaining over MIMO interference systems,” in Proc. IEEE ICC'09, Dresden, Germany,
Jun. 2009. | 295. | O. S Salih, C.-X. Wang, and
D. I. Laurenson, “ Double embedded processes based hidden Markow models for binary
digital wireless channels,” in Proc.
IEEE ISWCS'08, Iceland, Oct. 2008, pp. 219-223. | 296. | H. Zhang, D. Yuan, and C.-X. Wang,
“ A modified weighted bit-flipping algorithm for LDPC codes,” in Proc. IET ICWMMN'08, Beijing, China, Oct.
2008. | 297. | H. Zhang, D. Yuan, and C.-X. Wang,
“ An improved normalized BP-based decoding algorithm for LDPC codes,” in Proc. IET ICWMMN'08, Beijing, China, Oct.
2008. | 298. | X. Hong, C.-X. Wang, J. S.
Thompson, B. Allen, and W. Q. Malik, “ Deconstructing space-frequency correlated ultrawideband MIMO
channels,” in Proc. ICUWB'08,
Hannover, Germany, Sept. 2008, pp. 47-50. Invited
Paper | 299. | X. Cheng, C.-X. Wang, D.
I. Laurenson, H.-H. Chen, and A. V. Vasilakos, “ A generic geometrical-based MIMO mobile-to-mobile channel model,” in Proc. IEEE IWCMC'08, Chania Crete
Island, Greece, Aug. 2008, pp. 1000-1005. | 300. | X. Cheng, C.-X. Wang, D.
I. Laurenson, H.-H. Chen, and A. V. Vasilakos, “ Space-time-frequency characterization of non-isotropic MIMO
mobile-to-mobile multicarrier Ricean fading channels,” in Proc. IEEE IWCMC'08, Chania Crete
Island, Greece, Aug. 2008, pp. 994-999. | 301. | Matthaiou, D. I. Laurenson,
and C.-X. Wang, “ Reduced complexity detection for Ricean MIMO channels based on
condition number thresholding,” in Proc. IEEE IWCMC'08, Chania Crete
Island, Greece, Aug. 2008, pp. 988-993. | 302. | L. Li, K.-M. Liu, C.-X. Wang,
and Y.-A. Liu, “ A new reliable scheme for IP service transmission in T-DMB systems,” in Proc. IEEE IWCMC'08, Chania Crete
Island, Greece, Aug. 2008, pp. 1037-1041. | 303. | X. Hong, C.-X. Wang, and J.
S. Thompson, “ Uplink cell capacity of cognitive radio networks with peak
interference power constraints,” in Proc. ICCCAS'08, Xiamen, China, May 2008, pp. 372-377. | 304. | X. Hong, C.-X. Wang, J. S.
Thompson, and Y. Zhang, “ Demystifying spatial white spaces using stochastic geometry,” in Proc. ICCCAS'08, Xiamen, China, May 2008, pp. 350-354. | 305. | X. Hong, C.-X. Wang, and J.
S. Thompson, “ Uplink cell capacity of cognitive radio networks with interference
outage constraints,” in Proc. ICCCAS'08, Xiamen, China, May 2008, pp. 333-338. | 306. | X. Hong, C.-X. Wang, H.-H.
Chen, and J. Thompson, “ Performance analysis of cognitive radio networks with average
interference power constraints,” in Proc. IEEE ICC'08,
Beijing, China, May 2008, pp. 3578-3582. Highly
Cited Paper | 307. | H. Sun, D. I. Laurenson, J. S.
Thompson, and C.-X. Wang, “ A novel centralized network for sensing spectrum in cognitive
radio,” in Proc. IEEE ICC'08,
Beijing, China, May 2008, pp. 4186-4190. | 308. | X. Hong, C.-X. Wang, and J.
S. Thompson, “ Interference modeling of cognitive radio networks,” in Proc. IEEE VTC’08-Spring, Singapore, May
2008, pp. 1851-1855. Highly Cited Paper | 309. | M. Matthaiou, D. I. Laurenson,
and C.-X. Wang, “ Capacity study of vehicle-to-roadside MIMO channels with a
line-of-sight component,” in Proc.
IEEE WCNC’08, Las Vegas, USA, Mar.-Apr. 2008, pp. 775-779. | 310. | X. Cheng, C.-X. Wang, and D.
I. Laurenson, “ A generic space-time-frequency correlation model and its
corresponding simulation model for narrowband MIMO channels,” in Proc. EuCAP’07, Edinburgh, UK, Nov. 2007,
pp. 1-6. | 311. | H.-G. Ryu, C.-X. Wang, and
S.-E. Lee, “ Nonlinear distortion reduction for the improvement of the BER
performance in OFDM communication systems,” in Proc. ISCIT’07, Sydney, Australia, Oct. 2007, pp. 67-71. | 312. | C. Li, Y. Zhang, D. Yuan, and C.-X.
Wang, “ AMC-HARQ system based on RC-LDPC codes in MIMO channels,” in Proc. IEEE IWCLD’07, Jinan, China, Sept. 2007, pp. 161-164. | 313. | H.-G. Ryu, S.-K. Kim, S.-E. Lee,
and C.-X. Wang, “ A PAPR reduction method using constraint code
in multicode CDMA system,” in Proc.
IEEE PACRIM’07, Victoria, Canada, Aug. 2007, pp. 296-299. | 314. | H.-G. Ryu, S.-A. Kim, and C.-X.
Wang, “ A side information embedded PTS scheme in the OFDM communication
system,” in Proc.IEEE PACRIM’07,
Victoria, Canada, Aug. 2007, pp. 300-303. | 315. | T. H. Nguyen, H.-G.
Ryu, C.-X. Wang, and H.-H. Chen, “ The impact of the I/Q mismatching errors on the BER performance of
OFDM communication systems,” in Proc.
IEEE ICC’07, Glasgow, UK, Jun. 2007, pp. 5423-5427. | 316. | X. Cheng, C.-X. Wang, D.
Yuan, and H.-H. Chen, “ A novel iterative method for turbo equalization,” in Proc. IEEE WCNC’07, HongKong, China,
Mar. 2007, pp. 488-492. | 317. | C.-X. Wang, “ Modeling MIMO fading channels: background, comparison and some
progress,” in Proc. ICCCAS’06,
Guilin, China, Jun. 2006, pp. 664-669. Invited
Paper | 318. | C.-X. Wang, D.
Yuan, and W. Xu, “ A new efficient method for simulating multiple uncorrelated
Rayleigh fading channels,” in Proc. ICCCAS’06,
Guilin, China, Jun. 2006, pp. 829-833. | 319. | X. Cheng, D. Yuan, and C.-X. Wang,
“ A modified iterative packet combining scheme
for intersymbol interference channels,” in Proc.
ICCCAS’06, Guilin, China, Jun. 2006, pp. 124-127. | 320. | C.-X. Wang, X.
Hong, H. Wu, and W. Xu, “ A comparative study on the spatial correlation characteristics of
the 3GPP spatial channel model and the Kronecker MIMO channel model,” in Proc. WWC’06, San Francisco, USA,
May 2006. | 321. | C.-X. Wang and
D. Xu, “ A study on burst error statistics and error modelling for MB-OFDM
UWB systems,” in Proc. the IET
Seminar on Ultra Wideband Systems, Technologies and Applications,
London, UK, Apr. 2006, pp. 244-248. | 322. | X. Hong and C.-X. Wang, “ A correlation based double directional stochastic model for
MIMO-UWB propagation channels,” in Proc. the IET Seminar
on Ultra Wideband Systems, Technologies and Applications,
London, UK, Apr. 2006, pp. 249-253. | 323. | C.-X. Wang and
W. Xu, “ Packet-level error models for digital wireless channels,” in Proc. IEEE ICC’05, Seoul, Korea, May 2005, pp.
2184-2189. | 324. | C.-X. Wang, W.
Xu, and M. Pätzold, “ Error models for evaluating error control strategies in EGPRS
systems,” in Proc. IEEE VTC’04-Fall,
Los Angeles, USA, Sept. 2004, pp. 4238-4244. | 325. | C.-X. Wang and
M. Pätzold, “ A new deterministic process based generative model for
characterizing bursty error sequences,” in Proc.
IEEE PIMRC’04, Barcelona, Spain, Sept. 2004, pp. 2134-2139. | 326. | C.-X. Wang, Wen
Xu, and Matthias Pätzold, “ A novel generative model for the characterization of digital
wireless channels with soft decision outputs,” in Proc.
NRS/FWCW’04, Oulu, Finland, Aug. 2004. | 327. | C.-X. Wang and
M. Pätzold, “ Deterministic modeling and simulation of error sequences in
digital mobile fading channels,” in Proc.
IEEE ICC’04, Paris, France, Jun. 2004, pp. 3374-3378. | 328. | Youssef, C.-X. Wang,
M. Pätzold, I. Jaafar, and S. Tabbane, “ On the statistical properties of generalized Rice multipath fading
channels,” in Proc. IEEE
VTC’04-Spring, Milan, Italy, May 2004, pp. 162-165. | 329. | C.-X. Wang and
M. Pätzold, “ Efficient simulation of multiple cross-correlated Rayleigh fading
channels,” in Proc. IEEE PIMRC’03,
Beijing, China, Sept. 2003, pp. 1526-1530. | 330. | C.-X. Wang and
M. Pätzold, “ A novel generative model for burst error characterization in
Rayleigh fading channels,” in Proc.
IEEE PIMRC’03, Beijing, China, Sept. 2003, pp. 960-964. | 331. | H. Zhang, D. Yuan, M. Jiang, C.-X.
Wang, D. Wu, “ Performance analysis of coded OFDM and uncoded OFDM
system on AWGN and frequency selective fading channel,” in Proc. ISCTA’03, Ambleside, UK, July 2003. | 332. | C.-X. Wang,
M. Pätzold, and Q. Yao, “ Stochastic modeling and simulation of frequency hopping wideband
fading channels,” in Proc. IEEE
VTC’03-Spring, Jeju, Korea, April 2003, pp. 803-807. | 333. | C.-X. Wang and
M. Pätzold, “ Methods of generating multiple uncorrelated Rayleigh fading
processes,” in Proc. IEEE
VTC’03-Spring, Jeju, Korea, Apr. 2003, pp. 510-514. | 334. | C.-X. Wang, N.
Youssef, and M. Pätzold, “ Level-crossing rate and average duration of fades of deterministic
simulation models for Nakagami-Hoyt fading channels,” in Proc. WPMC’02, Honolulu, Hawaii, Oct. 2002,
pp. 272-276. | 335. | C.-X. Wang and
M. Pätzold, “ Design of a stochastic frequency hopping Rayleigh fading channel
simulator with given correlation properties,” in Proc. 2nd Int.
Workshop on Research Directions in Mobile Communications and Services, Grimstad,
Norway, Sept. 2002, pp. 69-72. | 336. | C.-X. Wang,
M. Pätzold, and B. Itsarachai, “ A deterministic frequency hopping Rayleigh fading channel
simulator designed by using optimization techniques,” in Proc. IEEE PIMRC’02, Lisbon, Portugal,
Sept. 2002, pp. 478-483. | 337. | C.-X. Wang and
M. Pätzold, “ A novel stochastic slow frequency hopping simulation model for
Rayleigh channels,” in Proc. WPMC’01,
Aalborg, Denmark, Sept. 2001, pp. 479-484. | 338. | M. Pätzold, Q. Yao, C.-X.
Wang, and F. Laue, “Modelling and simulation of spatial-temporal channels
for mobile communication systems with adaptive antennas,” in Proc. ITG
Diskussionssitzung “Systeme mit intelligentenAntennen”, Ilmenau,
Germany, Mar. 2001. | 339. | D. Yuan, Q. Yao, C.-X. Wang,
and Z. Cao, “ Research on improved multilevel coding schemes over Rayleigh
fading channels,” in Proc. IEEE
WCNC’00, Chicago, Illinois, USA, Sept. 2000, pp. 1432-1435. | 340. | D. Yuan, Q. Yao, C.-X. Wang,
and Z. Cao, “ Comparison of multilevel coded modulation with different decoding
methods over AWGN channels,” in Proc.
IEEE PIMRC’00, London, UK, Sept. 2000, pp. 567-571. | 341. | D. Yuan, C.-X. Wang, Q. Yao,
and Z. Cao, “ Optimum criterion for multilevel coding systems in AWGN channels,” in Proc. IEEE ICCT’00, Beijing, China, Aug.
2000, pp. 1706-1709. | 342. | D. Yuan, Q. Yao, C.-X. Wang,
and Z. Cao, “ Different decoding methods for multilevel coded modulation over
Rayleigh fading channels,” in Proc.
IEEE ICCT’00, Beijing, China, Aug. 2000, pp.1542-1545. | 343. | D. Yuan, C.-X. Wang, Q. Yao,
and Z. Cao, “Research on rate design for 64QAM multilevel coding system over
Rayleigh fading channels,” in Proc. SCI/ISAS’00, Orlando,
Florida, USA, Jul. 2000. | 344. | D. Yuan, C.-X. Wang, Q. Yao,
and Z. Cao, “Multilevel coded modulation with interleaving and iterative
decoding techniques over Rayleigh fading channels,” in Proc.
SCI/ISAS’00, Orlando, Florida, USA, Jul. 2000. | 345. | D. Yuan, C.-X. Wang, Q. Yao,
and Z. Cao, “Different set partitioning strategies for multilevel coded
modulation over mobile fading channels,” in Proc. SCI/ISAS’00,
Orlando, Florida, USA, Jul. 2000. | 346. | D. Yuan, C.-X. Wang, Q. Yao,
and Z. Cao, “ Comparison of multilevel coded modulations with different decoding
methods for AWGN and Rayleigh fading channels,” in Proc.
IEEE ICC’00, New Orleans, USA, Jun. 2000, pp. 1193-1197. | 347. | D. Yuan, C.-X. Wang, Q. Yao,
and Z. Cao, “Optimization criterion for multilevel coding systems over mobile
fading channels,” in Proc. FTF’99, Beijing, China, Dec.
1999, pp. 266-270. | 348. | D. Yuan, C.-X. Wang, and Q.
Yao, “ Two novel interleaving schemes of (2,1,3) convolutional code and
its performance in the mobile image communication system,” in Proc. IEEE MILCOM’99, New Jersey, USA,
Oct.-Nov. 1999. | 349. | D. Yuan, X. Ren, Q. Yao, and C.-X.
Wang, “ Performance research of the convolutional code using a novel
interleaving scheme in mobile image communication systems and the comparison
with interleaved BCH code,” in Proc.
IEEE APCC/OECC’99, Beijing, China, Oct. 1999, pp. 998-1001. | 350. | D. Yuan, C.-X. Wang, and Q.
Yao, “ On performance of BCH codes using two novel interleaving schemes
in Rayleigh fading channels,” in Proc.
IEEE WCNC’99, New Orleans, LA, USA, Sept. 1999, pp. 589-592. | 351. | D. Yuan, C.-X. Wang, and Q.
Yao, “The software design and computer simulation of uneven CDMA mobile
cellular communication systems,” in Proc. IEEE PIMRC’99,
Osaka, Japan, Sept. 1999, pp. 1164-1168. | 352. | D. Yuan, C.-X. Wang, and Q.
Yao, “Error-correcting performance of the (2,1,3) convolutional code using
different interleaving schemes over Rayleigh fading channels,” in Proc.
IEEE PIMRC’99, Osaka, Japan, Sept. 1999, pp. 450-454. | 353. | D. Yuan, Q. Yao, and C.-X. Wang,
“On the performance of the (2,1,3) convolutional code using a novel
interleaving scheme and the comparison with interleaved BCH code over
Rayleigh fading channels,” in Proc. IEEE PIMRC’99, Osaka,
Japan, Sept. 1999, pp. 867-870. | 354. | D. Yuan, C.-X. Wang, L. Zhang, and
Q. Yao, “Error-correcting performance of BCH codes using two novel
interleaving scheme over Rayleigh fading channels,” in Proc.
IEEE PIMRC’99, Osaka, Japan, Sept. 1999. | 355. | D. Yuan, C.-X. Wang, and Q. Yao,
“The design and simulation of capacity for even CDMA mobile cellular
communication system,” in Proc.International Workshop on Mobile
Communications focused on UMTS & IMT-2000, Chania, Crete, Greece,
Jun. 1999. | 356. | D. Yuan, Q. Yao, and C.-X. Wang,
“Performance research and computer simulation of space diversity in Rayleigh
fading channels,” in Proc.International Workshop on Mobile
Communications focused on UMTS & IMT-2000, Chania, Crete, Greece,
Jun. 1999. | 357. | D. Yuan, Q. Yao, and C.-X. Wang,
“On performance of RS codes in the m-distribution fading
channels,” in Proc.International Workshop on Mobile
Communications focused on UMTS & IMT-2000, Chania, Crete, Greece,
Jun. 1999. | 358. | D. Yuan, Q. Yao, and C.-X. Wang,
“Performance research on RS codes in the M-distribution fading
channels,” in Proc.the Sixth National Youth Communication
Conference, Beijing, China, May 1999. (in Chinese) | 359. | D. Yuan, C.-X. Wang, and Q. Yao,
“Capacity design and simulation of uneven CDMA mobile cellular communication
system,” in Proc.the Sixth National Youth Communication
Conference, Beijing, China, May 1999. (in Chinese) | 360. | D. Yuan, C.-X. Wang, L. Zhang, and
Q. Yao, “Two novel interleaving schemes of BCH codes in Rayleigh fading
channels,” in Proc.the Sixth National Youth Communication
Conference, Beijing, China, May 1999. (in Chinese) |
国际会议主旨报告与特邀报告 (40次):1. | C.-X.
Wang, “Methods of constructing wireless channel
maps and applications to 6G system design,” invited
keynote speech, 2026
6th International Conference on Electronics, Circuits and Information
Engineering (ECIE'26), Suzhou, China, May 2026. https://www.confecie.org/keynotespeaker | 2. | C.-X. Wang, “6G
channel map construction and enabling system design,” invited keynote speech, 2025 20th
EAl International Conference on Communication and Networking in China(EAI
ChinaCom'25), Xi'an, China, Nov. 2025. https://chinacom.eai-conferences.org/2025/ | 3. | C.-X. Wang,
“Channel measurements and modeling theory, methods, and inspirations for
6G/B6G wireless networks,” invited
keynote speech, 2025 2nd
International Conference on Industrial Automation and Robotics(IAR'25), Tianjin,
China, Oct. 2025. https://www.ic-iar.org/speaker | 4. | C.-X. Wang,
“Pervasive channel modeling for 6G/B6G radio and optical wireless
communication networks,” invited keynote
speech, 2025 13th International Conference on Intelligent Computing
and Wireless Optical Communications (ICWOC'25), Chengdu,
China, June 2025. https://www.icwoc.org/icwoc25.html | 5. | C.-X. Wang, “A
3D continuous-space radio channel modeling theory for 6G/B6G wireless
communications,” invited keynote speech, 2025
Global 6G Conference , Nanjing, China, Apr.
2025. https://www.c114.com.cn/topic/6556/a1287404.html | 6. | C.-X. Wang,
“Electromagnetic information theory enabling 6G/B6G wireless system
design,” invited keynote speech, 2025 IEEE
4th International Conference on Computing, Communication, Perception and
Quantum Technology (CCPQT'25), Ordos, China, Oct.
2025. https://www.ccpqt.org/keynote-speakers/ | 7. | C.-X. Wang, “3D
continuous-space radio channel measurements and modeling for 6G/B6G wireless
networks,” invited keynote speech, 2025
IEEE 7th International Conference on Communications, Information System and
Computer Engineering(CISCE’25), Guangzhou, China, May 2025. https://www.ais.cn/attendees/index/YJIFFF?invite=BZ606 | 8. | C.-X. Wang,
“Digital twin online channel modeling for 6G and beyond,” invited keynote speech, 2024
International Workshop on Mathematical Issues in Information Sciences
(MIIS’24), Shenzhen, China, Dec. 2024. https://www.sribd.cn/MIIS2024/index.html | 9. | C.-X. Wang,
“Digital twin online channel modeling for 6G and beyond,” invited keynote speech, 2024 12th IEEE
International Conference on Information and Communications Networks,circuits
(ICICN’24), Guilin, China, Aug. 2024. https://www.icicn.org/program.html | 10. | C.-X. Wang,
“Digital twin online channel modeling: A solver for wireless network
optimization,” invited keynote speech, 2024 13th IEEE/CIC International Conference on
Communications in China,circuits (ICCC’24), Hangzhou,
China, Aug. 2024. https://iccc2024.ieee-iccc.org/channel-knowledge-map-environment-aware-communications-and-sensing | 11. | C.-X. Wang, “6G
wireless channel: Measurements,characteristics and modeling methods,” invited keynote speech, 2024
IEEE the 13th international conference on communications,circuits,and systems
(ICCCAS’24), Xiamen, China, May 2024. https://www.icccas.org/keynote-speaker.html | 12. | C.-X. Wang,
“Standardization of 6G pervasive channel models,” invited keynote speech, 2024 7th international
conference on electronics technology (ICET’24), Chengdu,
China, May 2024. http://icet.net/speakers.html | 13. | C.-X. Wang, “6G
Wireless Channel Characteristics, Modeling, and Chanllenges,” invited keynote speech, 2023
5th International Workshop on Advanced Intelligent and Self-organizing
Networks (AISN’23), Xi'an, China, Dec. 2023. https://mp.weixin.qq.com/s/XWx-PISv7QOgNwEn7VZfww | 14. | C.-X. Wang,
“Electromagnetic information theory and applications to 6G/B6G,” invited keynote speech, 2023 International Conference
on Intelligent Communication and Networking (ICN’23), Changzhou,
China, Nov. 2023. http://www.awitec-cmm.com/ | 15. | C.-X. Wang, “6G
Wireless Channel Measurements and Modeling: Advances and Challenges,” invited keynote speech, IEEE 23rd
International Conference on Communication Technology (ICCT’23), Wuxi,
China, Oct. 2023. https://www.ieee-icct-wuxi.com/schedule | 16. | C.-X. Wang, “Channel
measurements and modeling for 6G: recent advances and future challenges,” invited keynote speech, 2023 International
Workshop on 6G Wireless Channel Measurements and Modeling (6GCMM 2023), Nanjing,
China, June 2023. http://www.awitec-cmm.com/ | 17. | C.-X. Wang,
“Paving the way towards 6G: channel measurements, modeling and performance
evaluations,” invited keynote speech, The
2nd International Forum on Internet of Things and Intelligent Applications
(ITIA 2022), Nanjing, China, May 2022. | 18. | C.-X. Wang, “6G
wireless channel measurements and pervasive channel modeling: Advances and
challenges,” invited talk, WutongForum,
Aug. 2021. | 19. | C.-X. Wang, “6G:
Vision, Enabling Technologies, and Channel Models,” invited keynote speech, IEEE 21st
International Conference on Communication Technology (ICCT’20), Nanning,
China, Oct. 2020. http://www.ieee-icct.org/icct-2020.html | 20. | C.-X. Wang, “6G
Wireless Channel Measurements and Models: Advances and Future Challenges,” invited keynote speech,International
Conference on Wireless Communications and Signal Processing (WCSP’20), Nanjing,
China, Oct. 2020. http://www.ic-wcsp.org/2020/show.asp?id=134 | 21. | C.-X. Wang,
“Channel measurement and modeling for 6G,” invited
talk,International Conference on Microwave and Millimeter Wave
Technology and International Wireless Symposium (Joint
ICMMT’20 & IWS’20), Shanghai, China, Sept. 2020. http://www.em-conf.com/icmmt2020/conference/htm.php?title=Invited%20Talk | 22. | C.-X. Wang, “6G
wireless channel characteristics analysis and modeling developments” invited talk, International
Conference on Intelligent Networks and Communication Systems,
Shenzhen, China, 11-12 Jan. 2020. https://sse.cuhk.edu.cn/event/93 | 23. | C.-X. Wang,
“Evolution of wireless channel models from 1G to 6G,” invited keynote speech, IEEE Computing,
Communications and IoT Applications Conference (ComComAp’19),
Shenzhen, China, 26-28 Oct. 2019. http://comcomap.net/2019/keynote-3/ | 24. | C.-X. Wang, “Can
Current Standard 5G Channel Models Satisfy Requirements?” invited talk,International
Workshop on Advances in Information Coding and Wireless Communications
(AICWC'2017), Chengdu, China, 7 Nov. 2017. https://events.vtools.ieee.org/m/48347 | 25. | C.-X. Wang, “5G
Channel Models: From Fundamentals to Standardization,” invited keynote speech, IEEE 5G Tutorial,
Shanghai, China, 27 July 2017. http://www.5gsummit.org/shanghai/ | 26. | C.-X. Wang, “5G
Key Technologies and Standardized Channel Models,” invited keynote speech, The 14th International Symposium on Pervasive Systems,
Algorithms, and Networks (I-SPAN 2017), Exeter, UK, 21-23 June
2017. https://www.computer.org/csdl/proceedings-article/ispan-fcst-iscc/2017/0840ztoc/12OmNxcdFZP | 27. | C.-X. Wang, “Recent Developments and Future Challenges of 5G Massive MIMO
Channel Models,” invited
plenary talk, The 19th International Symposium on Wireless Personal
Multimedia Communications (WPMC 2016), Shenzhen, China,
14-16 Nov. 2016. https://www.yrp.co.jp/event/event-archive/wpmc2016/index.html | 28. | C.-X. Wang,
“Recent Developments and Future Challenges on 5G Channel Models,” invited keynote speech, The Global
5G Technology Summit 2016, Shanghai, China, 20-22 July 2016. http://en.c114.com.cn/2503/a966941.html | 29. | C.-X. Wang,
“Spectral-energy efficiency trade-off of cellular systems with MFemtocell
deployment,” invited talk, IEEE Online Green Communications, 11
Nov. 2015. http://onlinegreencomm2015.ieee-onlinegreencomm.org/program.html | 30. | C.-X. Wang,
“Spectral, energy, and economic efficiency of 5G multi-cell massive MIMO
systems with generalized spatial modulation,” invited
talk, 973 Project Workshop, Shenzhen, China, 4 Nov.
2015. | 31. | C.-X. Wang, “A
non-stationary IMT-A MIMO channel model for high-mobility systems,” invited keynote speech, 4th International Workshop on High Mobility Wireless
Communications (HMWC 2015), Xi'an, China, 21-23 Oct.
2015. https://meeting.xidian.edu.cn/conference/hmwc2015/html/invitedspeakers.htm | 32. | C.-X. Wang,
“Recent advances and future challenges for standardized 5G channel
models,” invited keynote speech,
2015 International Forum on Advances in Information Coding and Wireless
Communications (AICWC 2015), Chengdu, China, 18-20 Oct. 2015. | 33. | C.-X. Wang,
“Non-stationary wideband MIMO channel models for high-speed train wireless
communication systems,” invited talk, 3rd International Workshop on High Mobility Wireless
Communications (HMWC 2014), Beijing, China, 1-3 Nov.
2014. https://events.vtsociety.org/vtc2021-spring/conference-sessions/call-for-workshops/w9-the-10th-international-workshop-on-high-mobility-wireless-communications/ | 34. | C.-X. Wang,
“Non-stationary wideband channel models for massive MIMO systems,” invited talk, 2nd International Symposium
on Wireless Sensor and Cellular Networks (WSCN 2013), Jeddah, Saudi
Arabia, 13-16 Dec. 2013. | 35. | C.-X. Wang,
“Characterization and modeling of rapid time-varying MIMO channels for
high-mobility wireless communication systems,” invited
talk, 2013 International Forum on Advances in Information
Coding and Wireless Communications (AICWC 2013), Chengdu, China, 4-6
Nov. 2013. | 36. | C.-X. Wang,
“MIMO vehicle-to-vehicle channel models: recent advances and future
challenges,” invited keynote speech,
International Workshop Series of Sensor Networks and Cellular Systems
Research Centre, University of Tabuk, Saudi Arabia, 7 April
2012. | 37. | C.-X. Wang,
“Recent developments on realistic MIMO channel models,” invited keynote speech, International Workshop on
Planning and Optimization of Wireless Networks (OPTNet 2012), Sheffiled,
UK, 21-23 Mar. 2012. | 38. | C.-X. Wang, “Key
wireless technologies for B4G,” invited
keynote speech, Wireless World Research Forum (WWRF), Meeting 25,
London, UK, 16-18 Nov. 2010. https://www.wwrf.ch/ | 39. | C.-X. Wang,
“Cognitive radio networks: recent advances and future challenges,” invited keynote speech, IEEE
International Conference on Intelligent Computing and Integrated Systems
(ICISS2010), Guilin, China, 22-24 Oct. 2010. http://www.wikicfp.com/cfp/servlet/event.showcfp?eventid=9466©ownerid=11194 | 40. | C.-X. Wang,
“Sum-of-sinusoids mobile radio channel models: principles and
applications,” invited keynote speech,
CIE-YC 2005, Jinan, Shandong, P. R. China, 24-26 Sept. 2005. |
国内会议特邀报告 (24) 1. | 王承祥,“6G/B6G无线信道地图构建理论方法与使能系统设计,”特邀报告,第十九届电子信息年会电磁信息论专题论坛,中国,武汉,2026.4.18. | 2. | 王承祥,“基于多源感知的6G数字孪生在线信道建模及赋能无人机网络优化,”特邀报告,第十九届电子信息年会广域智能专网通信与感知专题论坛,中国,武汉,2026.4.18. | 3. | 王承祥,“电磁信息论使能 6G/B6G 连续立体空间无线电信道建模,”特邀报告,第二十二届信号处理学术年会,中国,北京,2025.9.19. | 4. | 王承祥,“面向6G/B6G的连续立体空间无线电信道测量与建模理论,”特邀报告,2025年先进MIMO无线通信理论与技术研讨会,中国,北京,2025.8.17. | 5. | 王承祥,“AI使能6G数字孪生在线信道建模,”特邀报告,第10届无线大数据研讨会,中国,合肥,2025.7.12. http://wirelessbigdata.ustc.edu.cn/home/#/ | 6. | 王承祥,“AI使能6G数字孪生实时信道建模,”特邀报告,2025年江苏省5.17世界电信和信息社会日纪念大会暨“在数字化转型中实现AI赋能”学术论坛,中国,南京,2025.5.15. | 7. | 王承祥,“无线信道测量与建模:从1G到6G/B6G,”特邀报告,清华大学114周年校庆(电子系73周年)学术论坛,中国,北京,2025.4.27. | 8. | 王承祥,“6G使能新质生产力变革:信道视角,”特邀报告,发现东大独角兽新一代信息技术大赛,中国,无锡,2025.2.20. | 9. | 王承祥,“6G愿景、关键技术与基础理论展望,”特邀报告,2021太湖湾物联网科创人才论坛,中国,无锡,2021.10.20. https://baijiahao.baidu.com/s?id=1714175733561191661&wfr=spider&for=pc | 10. | 王承祥,“中国持续引领6G/B5G无线通信,”特邀报告,2021“才赋新城”高质量发展论坛,中国,无锡,2021.10.20.https://baijiahao.baidu.com/s?id=1714131438389024995&wfr=spider&for=pc | 11. | 王承祥,“电磁信息论及在未来无线通信系统中的应用,”特邀报告,2021全国通信理论与技术学术会议,中国,无锡,2021.10.14. http://www.njupt.edu.cn/2021/1021/c53a207101/page.htm | 12. | 王承祥,“6G无线信道研究进展与挑战,”特邀报告,2021年强网论坛,中国,郑州,2021.7.10. https://www.henandaily.cn/content/2021/0710/306980.html | 13. | 王承祥,“5G垂直行业应用与6G展望,”特邀报告,第二届绽放滨江·5G+全球创新应用南京峰会,中国,南京,2021.6.22. https://baijiahao.baidu.com/s?id=1703389229360985276&wfr=spider&for=pc | 14. | 王承祥,“6G愿景、关键技术与普适信道建模理论,”特邀报告,未来网络发展大会未来网络博士后论坛,中国,南京,2021.6.17. http://www.gaoxiaojob.com/zhaopin/zhuanti/wltxyaqzjssys2019/page3.html | 15. | 王承祥,“无线信道研究驱动6G通信感知一体化,”特邀报告,第一届6G通信感知一体化学术研讨会,中国,成都,2021.4.15. http://ict.njupt.edu.cn/2021/0423/c10818a191196/page.htm | 16. | 王承祥,“基于人工智能的6G预测信道建模,”特邀报告,2021年中国人工智能产业年会·智能信号处理专题论坛,中国,苏州,2021.4.12. | 17. | 王承祥,“6G全频段全场景普适信道建模探索,”特邀报告,2020年全国通信理论与技术学术会议,中国,南京,2020.12.11. https://www.cie-info.org.cn/site/content/4013.html | 18. | 王承祥,“6G 网络架构与关键使能技术:进展与挑战,”特邀报告,2020 中国信息通信大会研讨会,中国,成都,2020.12.4-6. https://www.china-cic.cn/index | 19. | 王承祥,“6G全频段全场景普适无线信道模型,”特邀报告,2020嵌入式智能大会,中国,广东,深圳,2020.11.13-15. https://www.embedded-ai.org/ | 20. | 王承祥,“6G无线智能网络使能万物智联,”特邀报告,第三届数字中国建设峰会物联网分论坛,中国,福州,2020.10.13. https://www.gongkongjia.com/news/202010/113065.html | 21. | 王承祥,“下一代WiFi全频段全场景无线信道研究进展与挑战,”特邀报告,华为第三届网络天下·WiFi技术论坛,中国,苏州,2020.9.28-29. | 22. | 王承祥,“6G愿景与信道研究进展,”特邀报告,第四届陕西物联网技术及应用研讨会暨智慧生态专技组委员会议,中国,西安,2020.9.19-20. https://m.sohu.com/a/420389783_100185418/ | 23. | 王承祥,“基于机器学习的 6G 预测信道建模,”特邀报告,第六届无线大数据研讨会,中国,河北,张家口,2020.9.15-16. http://wbd2020.csp.escience.cn/dct/page/65581 | 24. | 王承祥,“人工智能使能的6G无线信道研究,”特邀报告,华为无线通信与人工智能2020·Workshop,中国,2020.4.30. |
专题报告 (24次):1. | C.-X. Wang, Z.
Zhang, Y. Liu, and S. Zhou, “Modeling, capacity analysis, antenna and system
designs for 6G/B6G 3D continuous-space radio channels enabled by
electromagnetic information theory,” Tutorial,
in Proc. IEEE/CIC ICCC’25, Shanghai, China, 10-13 Aug.
2025. https://iccc2025.ieee-iccc.org/program/tutorials-0 | 2. | C.-X. Wang, J.
Huang, C. Huang, and H. Haas, “Towards 6G and B6G communications: Wireless
channel measurements, characteristics analysis, and modeling,” Tutorial,
in Proc. IEEE VTC’25-Spring, Oslo, Norway, June.
2025. https://events.vtsociety.org/vtc2025-spring/ | 3. | C.-X. Wang, J.
Huang, C. Huang, J. Li, H. Haas, and X. Wu, “Towards 6G and B6G
communications: Wireless channel measurements, characteristics analysis, and
modeling,” Tutorial,
in Proc. IEEE ICC’25, Montreal, Canada, June.
2025. https://icc2025.ieee-icc.org/program/tutorials | 4. | C.-X. Wang, J.
Huang, C. Huang, and H. Haas, “Towards 6G Communications: Wireless Channel
Measurements and Modeling Methodologies,” Tutorial, in Proc.
IEEE Globecom’24, Cape Town, South Africa, Dec. 2024. https://globecom2024.ieee-globecom.org/ | 5. | C.-X. Wang, J.
Huang, C. Huang, and H. Haas, “6G wireless channels: measurements,
characteristics analysis, and modeling methodologies,” Tutorial, in Proc.
IEEE WCNC’24, Dubai, United Arab Emirates, 21–24 Apr. 2024. https://wcnc2024.ieee-wcnc.org/ | 6. | C.-X. Wang, J.
Huang, C. Huang, and H. Haas, “Towards 6G communications: wireless channel
measurements, characteristics analysis, and modeling,” Tutorial, in Proc.
IEEE Globecom’23, Kuala Lumpur, Malaysia, 4-10 Dec. 2023. https://globecom2023.ieee-globecom.org/ | 7. | C.-X. Wang, J.
Huang, C. Huang, and H. Haas, “Wireless channel measurements, characteristics
analysis, and modeling methodologies towards 6G,” Tutorial, in Proc.
IEEE/CIC ICCC'23, Dalian, China, 10-12 Aug. 2023. https://www.iccc.org/2023.html | 8. | C.-X. Wang, J.
Huang, H. Wang, and H. Haas, “6G wireless channel measurements,
characteristics analysis, and modeling methodologies,” Tutorial,
in Proc. IEEE ICC’23, Rome, Italy, 28 May–1 June
2023. https://icc2023.ieee-icc.org/about/about-ieee-icc-2023 | 9. | C.-X. Wang, J.
Huang, C. Huang, H. Wang, and H. Haas, “Channel measurements and modeling
methods for 6G wireless communication systems,” Tutorial, in Proc.
IEEE WCNC’23, Glasgow, Scotland, UK, 26–29 Mar. 2023. https://wcnc2023.ieee-wcnc.org/ | 10. | C.-X. Wang, J.
Huang, H. Wang, and H. Haas, “Wireless channel measurements, characteristics
analysis, and models towards 6G,” Tutorial, in Proc.
IEEE Globecom’22, Rio de Janeiro, Brazil, 4–8 Dec. 2022. https://globecom2022.ieee-globecom.org/ | 11. | C.-X. Wang, J.
Huang, H. Wang, and H. Haas, “6G wireless channel measurements,
characteristics analysis, and channel modeling,” Tutorial, in Proc.
IEEE VTC’22-Fall, London/ Beijing, 26–29 Sept. 2022. https://events.vtsociety.org/vtc2022-fall/ | 12. | C.-X. Wang, J.
Huang, H. Wang, and H. Haas, “Wireless channel measurements, characteristics
analysis, and channel modeling for 6G era,” Tutorial, in Proc.
IEEE PIMRC’22, Virtual, 12-15 Sept. 2022. https://pimrc2022.ieee-pimrc.org/ | 13. | C.-X. Wang, J.
Huang, H. Wang, and H. Haas, “6G wireless channels: Measurements, parameter
estimation, characteristics analysis and modeling,” Tutorial, in Proc.
IEEE/CIC ICCC’22, Foshan, China, 11-13 Aug. 2022. https://iccc2022.ieee-iccc.org/ | 14. | C.-X. Wang, J.
Huang, H. Wang, and H. Haas, “6G wireless channel measurements and modeling
for all frequency bands and all scenarios,” Tutorial,
in Proc. IEEE VTC’22-Spring, Helsinki, Finland, 19-22 June
2022. https://events.vtsociety.org/vtc2022-spring/ | 15. | C.-X. Wang
H. Wang, J. Huang, and H. Haas, “Recent advances and future challenges on 6G
wireless channel measurements and models,” Tutorial,
in Proc. IEEE ICC'22, Seoul, South Korea, 16 May 2022.https://icc2022.ieee-icc.org/ | 16. | C.-X. Wang
H. Wang, J. Huang, and H. Haas, “Advances and future challenges on 6G
wireless channel measurements and models,” Tutorial,
in Proc. IEEE PIMRC'21, Sept. 2021. https://pimrc2021.ieee-pimrc.org/program/tutorials/ | 17. | C.-X. Wang
H. Wang, J. Huang, and H. Haas, “Advances and future challenges on 6G
wireless channel measurements and models,” Tutorial,
in Proc. IEEE ICCC'21, Xiamen, China, July 2021. https://iccc2021.ieee-iccc.org/program/tutorials/ | 18. | C.-X. Wang, Z.
Zhang, and H. Wang, “Wireless channel measurements and models for 5G and
beyond,” Tutorial,
in Proc. IEEE ICC’19, Shanghai, China, May 2019. https://icc2019.ieee-icc.org/program/tutorials#tut-33 | 19. | C.-X. Wang,
“Wireless channel models and standards development for 5G and beyond,” Tutorial,
in IEEE/CIC ICCC’18, Beijing, China, 16 Aug.
2018. https://iccc2018.ieee-iccc.org/program/invited-talks-2/ | 20. | C.-X. Wang,
“Channel characterization and modeling of 5G wireless communication
systems,” Tutorial,
in IEEE/CIC ICCC’16, Chengdu, China, 27 July 2016. https://iccc2016.ieee-iccc.org/program/tutorials/ | 21. | M. D. Renzo and C.-X. Wang, “The
path towards 5G—essential technologies, protocols and tools for enabling 5G
mobile communications,” Tutorial,
in IEEE ICCC’15, Shenzhen, China, 2 Nov. 2015. http://iccc2015.ieee-iccc.org/tutorials.html | 22. | M. D. Renzo, C. Verikoukis, E. Björnson, E.
Jorswieck, and C.-X. Wang, “The path towards 5G—essential
technologies, protocols and tools for enabling 5G mobile
communications,” Tutorial,
in IEEE ICC’15, London, U.K., 12 June 2015. https://icc2015.ieee-icc.org/sites/icc2015.ieee-icc.org/files/u39/Tutorial_T16.pdf | 23. | M. D. Renzo, C. Verikoukis, E. G. Larsson, E.
Jorswieck, and C.-X. Wang, “The path towards 5G—essential
technologies, protocols and tools for enabling 5G mobile
communications,” Tutorial,
in European Wireless’15, Budapest, Hungary, 20 May 2015. https://ew2015.european-wireless.org/ | 24. | M. D. Renzo, C. Verikoukis, E. Björnson, E.
Jorswieck, and C.-X. Wang, “The path towards 5G—essential
technologies, protocols and tools for enabling 5G mobile
communications,” Tutorial,
in IEEE VTC’15-Spring, Glasgow, U.K., 11 May 2015. http://www.ieeevtc.org/vtc2015spring/tutorials.php#tut_5 |
报告 (4次):1. | C.-X. Wang, “6G
wireless channel measurements and modeling: advances and future
challenges”, University of Edinburgh, Edinburgh Mar. 2023. | 2. | W. Thompson, M. Beach, J. McGeehan, A. Younis,
H. Haas, P. Grant, P. Chambers, Z. Chen, C.-X. Wang, and M.
Renzo, “Spatial modulation explained and routs for practical evaluation”,
COST IC1004 TD(11)02047, COST IC1004 2nd MCM, Lisbon,
Portugal, Oct. 2011. | 3. | X. Cheng, C.-X. Wang, and D. I.
Laurenson, “An adaptive geometrical-based stochastic model for
space-time-frequency correlated MIMO mobile-to-mobile channels”, COST 2100
TD(08) 472, COST 2100 4th MCM, Wroclaw, Poland, 6-8 Feb. 2008. | 4. | C.-X. Wang and
W. Xu, “A novel generative approach to speed up performance simulations of
wireless communication systems”, invention report, Siemens AG,
Munich, Germany, registration number: 2004E05718 DE. |
学位论文:1. | C.-X. Wang,
“Sum-of-sinusoids mobile fading channel models with applications to error
models”, PhD thesis, Aalborg University, Aalborg, Denmark, Defensed on Sept.
22, 2004, 240 pages. |
信道仿真器779cn太阳集团-紫金山实验室-6G普适信道仿真器779cn太阳集团-紫金山实验室-6G普适信道仿真器(SEU-PML-6GPCS)是对6G全频段全场景普适信道模型的实现。该模型是基于普适信道建模理论,使用统一的几何随机信道建模方法和框架、统一的信道冲激响应表达式,并融合6G全频段全场景信道特性而提出的一种6G普适信道模型。支持6G全频段(Sub-6
GHz、毫米波、太赫兹、光无线频段),全场景(包含卫星、无人机、陆地、海洋全覆盖场景和工业物联网、智能反射面、超大规模天线、车联网、高铁和通感一体化全应用场景)信道仿真;支持全域(空/时/频/角度/多普勒/时延域)信道统计特性仿真;支持5G标准化信道仿真(3GPP TR38.901, IMT-2020)。同时,软件具有用户友好的可视化界面,提供菜单式的6G信道参数配置选项,可配置频段、场景、天线阵列,以及收发端和散射簇的任意运动轨迹等。 SEU-PML-6GPCS软件致力于为广大科研人员及产业界工作者提供涵盖频段和场景最多、信道特性最全的信道模型和无线信道仿真工具,支撑6G标准化信道模型落地应用。 与v3.0相比,SEU-PML-6GPCS软件v4.0进一步增加了几大功能: 1. 全覆盖场景精细划分 - 支持空、天、地、海全覆盖场景的125种子场景划分,支持5000余种频段和收发端所在场景的组合,满足多样化仿真需求
2. 交叉场景仿真扩展 - 新增卫星-无人机、卫星-海洋、无人机-无人机、无人机-海洋等交叉场景信道仿真 3. 特殊场景深度覆盖 - 地下空间通信场景:矿井、隧道、洞穴、地下楼梯间、地铁、地下停车场等场景 - 车内通信场景:汽车座舱、底盘、引擎盖内等子场景 - 极端环境通信场景:高原山地、沙漠、雪山、草原等偏远地区场景
4. 3GPP R19兼容升级 - 兼容最新3GPP TR 38.901 Release 19,支持R19中新增的ISAC仿真、空域非平稳和球面波等特性仿真
5. 卫星场景动态仿真与实时可视化 - 支持卫星对无人机/陆地/海洋场景的动态信道特性仿真,实时展示大尺度衰落值与信道统计特性
6. 仿真结果应用界面 - 仿真界面新增频效、能效、信道容量、信道估计等信道矩阵使用示例
SEU-PML-6GPCS v4.0同时提供对应的中文和英文使用手册,再次期待您的试用和宝贵意见! 试用期截至2026年6月15日,之后将完全商业化,不再提供试用版本。 如果您的工作中使用了本软件或者本软件的修改版本,请使用以下引文: 1. C.-X. Wang*, Z.
Lv, X. Gao, X.-H. You, Y. Hao, and H. Haas, “Pervasive wireless channel modeling theory and applications to
6G GBSMs for all frequency bands and all scenarios,” IEEE
Trans. Veh. Technol., vol. 71, no. 9, pp. 9159-9173, Sept. 2022. 2. C.-X. Wang, Z.
Lv, Y. Chen, and H. Haas, “A
complete study of space-time-frequency statistical properties of the 6G
pervasive channel model,” IEEE Trans. Commun., vol. 71, no. 12, pp.
7273-7287, Dec. 2023. 3. C.-X. Wang, Z.
Lv, C. Huang, Y. Huang, J. Wang, J. Huang, and X. You, “An
enhanced 6G pervasive channel model towards standardization,” Sci. China
Inf. Sci., vol. 68, no. 6, pp. 162301:1-162301:22, June. 2025, doi:
10.1007/s11432-025-4419-9. 4. C.-X. Wang*, X
.-H You, X. Gao, et al.,“On the road to 6G: Visions, requirements, key technologies and
testbeds,” IEEE Commun. Surveys Tuts.vol. 25, no. 2, pp.
905-974, 2nd Quart. 2023. 5. C.-X. Wang, L.
Xin, Y. Pan, H. Chang, X. You, and H. Haas, “A novel 6G pervasive large-scale
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