Publications of Yao Chen

A list of publications authored or co-authored by Yao Chen, derived from the SAO/NASA Astrophysics Data System (ADS). The number in brackets after each title indicates the number of citations that the paper has received.

Orcid ID: 0000-0001-6449-8838

List of publications ordered by citations
Number of papers: 195 (refereed: 194)
No. of citations: 3289
First author papers: 23 (refereed: 23)

2026

  1. Interaction of Four Homologous Coronal Mass Ejections near the Sun [0]
    Song, Hongqiang, Wang, Rui, Li, Leping, Shen, Fang, Wang, Bing, He, Ziqian, Xia, Lidong & Chen, Yao, ApJ, 997, 344
  2. Ionospheric Responses to the Recovery Phase of May 2024 Superstorm Over Shandong Peninsula of China [0]
    Wang, Yong, Zhang, Q. ‐H., Chen, Yao, Ning, Y. ‐F., Xing, Z. ‐Y., Ma, Y. ‐Z., Zhao, L. ‐X., Wang, X. ‐Y., Lu, S., Xiu, Z. ‐F., Zhang, D., Zhang, S. ‐R. & Jayachandran, P. T., Journal of Geophysical Research (Space Physics), 131, e2025JA034102
  3. Multiscale Magnetic Reconnection in the Genesis of Young Slow Solar Wind [1]
    Wu, Ziqi, He, Jiansen, Hou, Chuanpeng, Duan, Die, Huang, Jia, Rouillard, Alexis P., Verscharen, Daniel, Chen, Yao, Zhuo, Rui & Chen, Tianhang, ApJS, 282, 4
  4. Design of a New Solar Radio Observing System Working in 3─6 GHz [0]
    Yan, Fabao, Zhang, Yizhang, Liu, Geng, Shen, Yupeng, Wu, Zhao, Zhang, Lei, Chang, Shuwang, Su, Yanrui & Chen, Yao, Publications of the Astronomical Society of the Pacific, 138, 014504
  5. Exploring the Dominant Process of Solar Toroidal Magnetic Flux Loss [0]
    Zhang, Zebin & Chen, Yao, ApJ, 997, L32
  6. Distributed Synchronous Acquisition for Next-Generation Heliograph [0]
    Zhu, Liye, Li, Shuqi, Zhang, Yizhang, Xu, Xiaofeng, Li, Qinzheng, Yu, Yonglin, Song, Hongqiang, Su, Yanrui, Chen, Yao & Yan, Fabao, IEEE Transactions on Instrumentation and Measurement, 75, TIM.2026

2025

  1. Two-stage Nature of a Solar Flare with Parallel and Semicircular Ribbons [0]
    Huang, Ruifei, Ning, Hao, Zhong, Ze, Qiu, Ye, Hou, Zhenyong, Su, Yang, Li, Chuan, Kong, Xiangliang & Chen, Yao, ApJ, 995, 40
  2. Modeling the transport and anisotropy of energetic electrons in solar flares [1]
    Kong, Xiangliang, Ning, Hao & Chen, Yao, Frontiers in Astronomy and Space Sciences, 11, 1510579
  3. Observations of a peculiar coronal wave inside a pseudo-streamer structure [1]
    Li, Jun, Zheng, Ruisheng, Wang, Xiaoqian & Chen, Yao, Science China Physics, Mechanics, and Astronomy, 68, 259611
  4. Nonstandard Collapse of Strong Langmuir Turbulence: Constraints on Its Occurrence and Observation in the Solar Corona [0]
    Li, Yaokun, Sun, Haomin, Ning, Hao, Ni, Sulan, Kong, Xiangliang, He, Jiansen & Chen, Yao, ApJ, 988, L17
  5. Redefining SAR Arc Generation: The Competing Roles of Magnetospheric and Ionospheric Energy Injection [1]
    Liu, Jing, Wang, Wenbin, Liang, Jun, Liu, Libo, Martinis, Carlos, Wroten, Joei, Zhang, Yongliang, Chen, Yao, Cao, Tianyu & Lu, Yifan, AGU Advances, 6, e2025AV001881
  6. Solar Flare-Induced Prenoon-Postnoon Asymmetry of Ionospheric Electron Density [0]
    Liu, Xuanqing, Niu, Xiangyu, Liu, Jing, Chen, Yao, Kong, Xiangliang & Li, Shuhan, Journal of Geophysical Research (Space Physics), 130, e2024JA033581
  7. A Flare-related Decimetric Type-IV Radio Burst Induced by the X2 Radiation of Electron Cyclotron Maser Emission [1]
    Lv, Maoshui, Zhong, Ze, Kong, Xiangliang, Ning, Hao, Yu, Feiyu, Wang, Bing, Tan, Baolin, Melnikov, Victor, Kuznetsov, Alexey, Song, Hongqiang, Zheng, Ruisheng & Chen, Yao, ApJ, 989, L24
  8. Particle in Cell Simulation on Mode Conversion of Saturn's 20 kHz Narrowband Radio Emission [0]
    Mu, Zhoufan, Chen, Yao, Li, Tangmu, Ni, Sulan, Zhang, Zilong & Ning, Hao, Journal of Geophysical Research (Planets), 130, e2024JE008899
  9. Mapping Ground-based Coronagraphic Images to Helioprojective-Cartesian Coordinate System by Image Registration [0]
    Sha, Feiyang, Liu, Yu, Xia, Lidong, Chen, Yao, Zhou, Qing, Chen, Yangrui, Zhong, Chuyu, Zhang, Xuefei, Song, Tengfei, Sun, Mingzhe, Yu, Xiaoyu, Li, Haitang, Oloketuyi, Jacob, Liu, Qiang, Wang, Xinjian, Luo, Qiwang & Li, Xiaobo, ApJ, 990, 56
  10. Solar Energetic Particle Events During May 2024 Geomagnetic Superstorm [0]
    She, Zhenghao, Zhu, Hui, Kong, Xiangliang, Chen, Yao, Zhao, Yingying, Chen, Huicong, Qin, Zhijie & Ma, Wenqing, Geophysical Research Letters, 52, e2025GL119559
  11. On the Nature of the Bright Front of Solar Coronal Mass Ejections [2]
    Song, Hongqiang, Wang, Rui, Li, Leping, Wang, Bing & Chen, Yao, ApJ, 988, 270
  12. On the Nature of the Dark Cavity of Solar Coronal Mass Ejections [5]
    Song, Hongqiang, Li, Leping, Wang, Bing, Xia, Lidong & Chen, Yao, ApJ, 978, 40
  13. Influence of the Earthward and Tailward Ion Flows on the Lunar Surface Water in the Magnetotail [0]
    Wang, H. Z., Shi, Q. Q., Zhang, J., Xie, L. H., Yue, C., Guo, R. L., Chen, Y., Liu, W. L., Pitkänen, T., Park, J. ‐S., Degeling, A. W., Tian, A. M., Chen, T. L., Zhao, S. Q., Li, K. X., Fu, Y., Chen, J., Xiao, C., Shang, W. S., Liu, J., Zong, Q. G. & Fu, S. Y., Journal of Geophysical Research (Planets), 130, e2024JE008621
  14. Study on the Responses in the Transition Region of Coronal Extreme-ultraviolet Waves [2]
    Wang, Xiaoqian, Zheng, Ruisheng, Liu, Yihan, Zhang, Xuechao, Zhang, Liang, Li, Jun & Chen, Yao, ApJ, 980, 254
  15. Morphological Comparison of Standard Scintillation Indices at the Canadian Arctic During a Strong Geomagnetic Storm: A Case Study [0]
    Wang, Yong, Jayachandran, P. T., Zhang, Q. ‐H., Chen, Yao, Xing, Z. ‐Y., Ma, Y. ‐Z., Nie, W. F., Zhao, B. L., Sun, J. ‐C., Zhang, S. ‐R., Shepherd, Simon & Koustov, S., Journal of Geophysical Research (Space Physics), 130, e2025JA034211
  16. A 50─55 GHz Millimeter-wave Radiometer Spectrometer for Solar Flare Detection [1]
    Xu, XiaoFeng, Zhao, ZhanFeng, Liu, Qian, Li, QinZheng, Wu, Zhao, Lu, Guang, Su, YanRui, Chen, Yao & Yan, FaBao, ApJS, 279, 29
  17. Solar Radio Wide-Band Spectroscopy and Imaging Facilities of the Chinese Meridian Project Phase II [0]
    Yan, Yihua, Wang, Wei, Chen, Linjie, Fan, Jin, Chen, Yao, Chang, Shuwang, Yan, Fabao, Geng, Lihong, Li, Sha, Su, Cang, Chen, Zhijun, Tan, Chengming, Wang, Bing, Lu, Guang, Li, Chuanyang, Zhou, Zhichao, Liu, Fei, Ma, Suli, Cheng, Jun & Du, Jing, Space Weather, 23, e2025SW004595
  18. The Efficiency of Harmonic Emissions Excited by Energetic Electrons in Coronal Loops [0]
    Yousefzadeh, Mehdi, Kuznetsov, Alexey, Chen, Yao & Hosseinpour, Mahboub, ApJ, 984, 1
  19. The Magnetic Origin of the Mystery of Rare Hα Moreton Waves [2]
    Zhong, Ze, Chen, Yao, Ni, Y. W., Chen, P. F., Zheng, Ruisheng, Kong, Xiangliang & Li, Chuan, ApJ, 980, 42
  20. Research on High-precision Fiber Transmission and Compensation for a Solar Radio Heliograph [0]
    Zhu, Liye, Li, Shuqi, Zhang, Yizhang, Yu, Yonglin, Xu, Xiaofeng, Li, Qinzheng, Yang, Zilei, Wu, Zhao, Su, Yanrui, Song, HongQiang, Chen, Yao & Yan, Fabao, ApJS, 279, 4

2024

  1. Development of a 90─600 MHz Meter-wave Solar Radio Spectrometer [6]
    Chang, ShuWang, Wang, Bing, Lu, Guang, Shen, YuPeng, Bai, Yu, Shang, ZiQian, Zhang, Lei, Wu, Zhao, Su, YanRui, Chen, Yao & Yan, FaBao, ApJS, 272, 21
  2. High-harmonic Plasma Emission Induced by Electron Beams in Weakly Magnetized Plasmas [1]
    Li, Chuanyang, Chen, Yao, Zhang, Zilong, Ning, Hao & Li, TangMu, ApJ, 960, 111
  3. Energy Deposition into the Ionosphere during a Solar Flare with Extreme-ultraviolet Late Phase [9]
    Liu, Jing, Qian, Liying, Wang, Wenbin, Pham, Kevin, Kong, Xiangliang, Chen, Yao, Liu, Wenlong, Liu, Libo & Liu, Xuanqing, ApJ, 963, L8
  4. Impacts of Extreme Ultraviolet Late Phase of the Solar Flare on Ionospheric Electrodynamics [3]
    Liu, Xuanqing, Liu, Jing, Chen, Junjie, Qian, Liying, Chamberlin, Phillip C., Chen, Yao, Kong, Xiangliang & Li, Shuhan, ApJ, 974, L19
  5. Data-driven Simulation of Effects of a Solar Flare with Extreme-ultraviolet Late Phase on Ionospheric Electron Density [4]
    Liu, Xuanqing, Qian, Liying, Chamberlin, Phillip C., Chen, Yao, Kong, Xiangliang, Zhang, Qing-He, Li, Shuhan & Liu, Jing, ApJ, 974, 157
  6. Response of Global Ionospheric Currents to Solar Flares with Extreme Ultraviolet Late Phases [7]
    Liu, Xuanqing, Fan, Xingyan, Liu, Jing, Kong, Xiangliang, Chen, Yao, Li, Qiaoling, Li, Shuhan & Zheng, Jiajun, ApJ, 963, 27
  7. Filament eruption by multiple reconnections [2]
    Liu, Y., Ruan, G. P., Schmieder, B., Guo, J. H., Chen, Y., Zheng, R. S., Su, J. T. & Wang, B., A&A, 687, A130
  8. A Multipeak Solar Flare with a High Turnover Frequency of the Gyrosynchrotron Spectra from the Loop-top Source [5]
    Wu, Zhao, Kuznetsov, Alexey, Anfinogentov, Sergey, Melnikov, Victor, Sych, Robert, Wang, Bing, Zheng, Ruisheng, Kong, Xiangliang, Tan, Baolin, Ning, Zongjun & Chen, Yao, ApJ, 968, 5
  9. Comparison of Ion─Proton Differential Speed between Interplanetary Coronal Mass Ejections and Solar Wind near 1 au [4]
    Zhang, Xuechao, Song, Hongqiang, Zhang, Chengxiao, Fu, Hui, Li, Leping, Li, Jinrong, Wang, Xiaoqian, Wang, Rui & Chen, Yao, ApJ, 967, 118
  10. Alpha─Proton Differential Flow of a Coronal Mass Ejection at 15 Solar Radii [0]
    Zhang, Xuechao, Song, Hongqiang, Wang, Xiaoqian, Li, Leping, Fu, Hui, Wang, Rui & Chen, Yao, ApJ, 973, L36
  11. Iterative algorithm computational spectrometer based on a single-hidden-layer neural network [3]
    Zheng, Yuanhao, Liao, Haojie, Yang, Lin & Chen, Yao, Optics Express, 32, 23316

2023

  1. Comparison of the Composition of ICMEs from Active Regions and Quiet-Sun Regions [3]
    Li, Jinrong, Song, Hongqiang, Lv, Qi, Fu, Hui, Li, Leping, Zheng, Ruisheng & Chen, Yao, ApJ, 945, 163
  2. Effects of Coronal Magnetic Field Configuration on Particle Acceleration and Release during the Ground Level Enhancement Events in Solar Cycle 24 [5]
    Liu, Wenlong, Kong, Xiangliang, Guo, Fan, Zhao, Lulu, Feng, Shiwei, Yu, Feiyu, Jiang, Zelong, Chen, Yao & Giacalone, Joe, ApJ, 954, 203
  3. Lightweight computational spectrometer enabled by learned high-correlation optical filters [3]
    Liu, Zhen, Liao, Haojie, Yang, Lin, Du, Guiqiang, Wei, Lei, Wang, Yansong & Chen, Yao, Optics Express, 31, 23325
  4. Imaging Preflare Broadband Pulsations in the Decimetric-metric Wavelengths [2]
    Lv, Maoshui, Tan, Baolin, Zheng, Ruisheng, Wu, Zhao, Wang, Bing, Kong, Xiangliang & Chen, Yao, ApJ, 950, 2
  5. Excitation of extraordinary modes inside the source of Saturn's kilometric radiation [2]
    Ning, Hao, Chen, Yao, Li, Chuanyang, Ye, Shengyi, Kuznetsov, Alexey & Wu, Siyuan, A&A, 678, A94
  6. The Calibration of the 35-40 GHz Solar Radio Spectrometer with the New Moon and a Noise Source [8]
    Shang, ZiQian, Wu, Zhao, Liu, Yan, Bai, Yu, Lu, Guang, Zhang, YuanYuan, Zhang, Lei, Su, YanRui, Chen, Yao & Yan, FaBao, ApJS, 268, 45
  7. The Structure of Coronal Mass Ejections Recorded by the K-Coronagraph at Mauna Loa Solar Observatory [15]
    Song, Hongqiang, Li, Leping, Zhou, Zhenjun, Xia, Lidong, Cheng, Xin & Chen, Yao, ApJ, 952, L22
  8. On the Nature of the Three-part Structure of Solar Coronal Mass Ejections [19]
    Song, Hongqiang, Zhang, Jie, Li, Leping, Yang, Zihao, Xia, Lidong, Zheng, Ruisheng & Chen, Yao, ApJ, 942, 19
  9. The Impulsive Acceleration of a Solar Filament Eruption Associated with a B-class Flare [8]
    Wang, Xinyue, Song, Hongqiang, Chen, Yao, Li, Leping, Hou, Zhenyong & Zheng, Ruisheng, ApJ, 957, 58
  10. The First Flare Observation with a New Solar Microwave Spectrometer Working in 35-40 GHz [18]
    Yan, Fabao, Wu, Zhao, Shang, Ziqian, Wang, Bing, Zhang, Lei & Chen, Yao, ApJ, 942, L11
  11. Identification of reaction wheel assembly disturbances based on variable modal frequencies [3]
    Yang, Lin, Wang, Yansong, Wei, Lei & Chen, Yao, Mechanical Systems and Signal Processing, 205, 110868
  12. A Two-element Interferometer for Millimeter-wave Solar Flare Observations [5]
    Yu, YongLin, Xu, Shuo, Zhang, Lei, Shang, ZiQian, Qiao, ChengLong, Li, ShuQi, Wu, Zhao, Su, YanRui, Song, HongQiang, Chen, Yao & Yan, FaBao, ApJS, 267, 14
  13. A New 6-15 GHz Solar Radio Observation System [5]
    Zhang, Lei, Su, Yanrui, Wu, Zhao, Chang, Shuwang, Chen, Yao & Yan, Fabao, ApJS, 268, 27
  14. Waves and plasma emissions excited by ring-beam energetic electrons interacting with weakly magnetized plasmas [2]
    Zhang, Zilong, Chen, Yao, Li, Chuanyang, Ni, Sulan, Ning, Hao, Li, Yaokun, Li, TangMu & Kong, Xiangliang, Physics of Plasmas, 30, 122106
  15. The Deformation of an Erupting Magnetic Flux Rope in a Confined Solar Flare [6]
    Zheng, Ruisheng, Liu, Yihan, Zhang, Liang, Liu, Yang, Rao, Changhui, Lin, Qing, Du, Zhimao, Zhong, Libo, Chen, Huadong & Chen, Yao, ApJ, 942, L16
  16. Why "Solar Tsunamis" Rarely Leave Their Imprints in the Chromosphere [22]
    Zheng, Ruisheng, Liu, Yihan, Liu, Wenlong, Wang, Bing, Hou, Zhenyong, Feng, Shiwei, Kong, Xiangliang, Huang, Zhenghua, Song, Hongqiang, Tian, Hui, Chen, Pengfei, Erdélyi, Robertus & Chen, Yao, ApJ, 949, L8
  17. Unveiling the Mechanism for the Rapid Acceleration Phase in a Solar Eruption [12]
    Zhong, Ze, Guo, Yang, Wiegelmann, Thomas, Ding, M. D. & Chen, Yao, ApJ, 947, L2

2022

  1. Plasma emission induced by ring-distributed energetic electrons in overdense plasmas [7]
    Chen, Yao, Zhang, Zilong, Ni, Sulan, Ning, Hao, Li, Chuanyang & Li, Yaokun, Physics of Plasmas, 29, 112113
  2. Plasma Emission Induced by Electron Beams in Weakly Magnetized Plasmas [21]
    Chen, Yao, Zhang, Zilong, Ni, Sulan, Li, Chuanyang, Ning, Hao & Kong, Xiangliang, ApJ, 924, L34
  3. A Model of Double Coronal Hard X-Ray Sources in Solar Flares [10]
    Kong, Xiangliang, Ye, Jing, Chen, Bin, Guo, Fan, Shen, Chengcai, Li, Xiaocan, Yu, Sijie, Chen, Yao & Giacalone, Joe, ApJ, 933, 93
  4. Numerical Modeling of Energetic Electron Acceleration, Transport, and Emission in Solar Flares: Connecting Loop-top and Footpoint Hard X-Ray Sources [25]
    Kong, Xiangliang, Chen, Bin, Guo, Fan, Shen, Chengcai, Li, Xiaocan, Ye, Jing, Zhao, Lulu, Jiang, Zelong, Yu, Sijie, Chen, Yao & Giacalone, Joe, ApJ, 941, L22
  5. A Broadband Solar Radio Dynamic Spectrometer Working in the Millimeter-wave Band [37]
    Shang, ZiQian, Xu, Ke, Liu, Yang, Wu, Zhao, Lu, Guang, Zhang, YuanYuan, Zhang, Lei, Su, YanRui, Chen, Yao & Yan, FaBao, ApJS, 258, 25
  6. Toward a Unified Explanation for the Three-part Structure of Solar Coronal Mass Ejections [25]
    Song, Hongqiang, Li, Leping & Chen, Yao, ApJ, 933, 68
  7. Comparison of Helium Abundance between ICMEs and Solar Wind near 1 au [14]
    Song, Hongqiang, Cheng, Xin, Li, Leping, Zhang, Jie & Chen, Yao, ApJ, 925, 137
  8. Design of a high-resolution antenna array solar observing system for radio frequencies of 25-110 MHz [4]
    Wang, Yuxi, Dong, Zhen, Lu, Guang, Wu, Zhao, Su, Yanrui, Chen, Yao & Yan, Fabao, Publications of the Astronomical Society of Australia, 39, e030
  9. Harmonic Electron Cyclotron Maser Emission along the Coronal Loop [6]
    Yousefzadeh, Mehdi, Chen, Yao, Ning, Hao & Hosseinpour, Mahboub, ApJ, 932, 35
  10. Double-power-law Feature of Energetic Particles Accelerated at Coronal Shocks [10]
    Yu, Feiyu, Kong, Xiangliang, Guo, Fan, Liu, Wenlong, Jiang, Zelong, Chen, Yao & Giacalone, Joe, ApJ, 925, L13
  11. Birthplaces of Extreme Ultraviolet Waves Driven by Impingement of Solar Jets upon Coronal Loops [8]
    Zhang, Liang, Zheng, Ruisheng, Chen, Huadong & Chen, Yao, ApJ, 931, 162
  12. A 3 Giga Sample Per Second 14-bit Digital Receiver with 9 GHz Input Bandwidth for Solar Radio Observation [4]
    Zhang, Yuanyuan, Zhang, Lei, Shang, Ziqian, Lu, Guang, Wu, Zhao, Su, Yanrui, Chen, Yao & Yan, Fabao, Research in Astronomy and Astrophysics, 22, 085012
  13. Verification of the Standard Theory of Plasma Emission with Particle-in-cell Simulations [13]
    Zhang, Zilong, Chen, Yao, Ni, Sulan, Li, Chuanyang, Ning, Hao, Li, Yaokun & Kong, Xiangliang, ApJ, 939, 63
  14. Formation and Immediate Deformation of a Small Filament Through Intermittent Magnetic Interactions [0]
    Zheng, Ruisheng, Zhang, Liang, Rao, Changhui, Wang, Bing, Chen, Huadong, Zhong, Libo & Chen, Yao, Solar Physics, 297, 56
  15. Twin Extreme Ultraviolet Waves in the Solar Corona [11]
    Zheng, Ruisheng, Wang, Bing, Zhang, Liang, Chen, Yao & Erdélyi, Robertus, ApJ, 929, L4

2021

  1. PIC Simulation of Double Plasma Resonance and Zebra Pattern of Solar Radio Bursts [20]
    Li, Chuanyang, Chen, Yao, Ni, Sulan, Tan, Baolin, Ning, Hao & Zhang, Zilong, ApJ, 909, L5
  2. Performance Comparison of Power Divider and Fiber Splitter in the Fiber-Based Frequency Transmission System of Solar Radio Observation [3]
    Liu, Yuqing, Ren, Daopeng, Yan, Fabao, Wu, Zhao, Dong, Zhen & Chen, Yao, IEEE Access, 9, 24925
  3. An Observational Revisit of Stationary Type IV Solar Radio Bursts [5]
    Lv, Maoshui, Chen, Yao, Vasanth, V., Radzi, Mohd Shazwan, Abidin, Zamri Zainal & Monstein, Christian, Solar Physics, 296, 38
  4. An alternative form of the fundamental plasma emission through the coalescence of Z-mode waves with whistlers [14]
    Ni, Sulan, Chen, Yao, Li, Chuanyang, Sun, Jicheng, Ning, Hao & Zhang, Zilong, Physics of Plasmas, 28, 040701
  5. Harmonic Maser Emissions from Electrons with Loss-cone Distribution in Solar Active Regions [12]
    Ning, Hao, Chen, Yao, Ni, Sulan, Li, Chuanyang, Zhang, Zilong, Kong, Xiangliang & Yousefzadeh, Mehdi, ApJ, 920, L40
  6. Harmonic electron-cyclotron maser emissions driven by energetic electrons of the horseshoe distribution with application to solar radio spikes [13]
    Ning, Hao, Chen, Yao, Ni, Sulan, Li, Chuanyang, Zhang, Zilong, Kong, Xiangliang & Yousefzadeh, Mehdi, A&A, 651, A118
  7. The Inhomogeneity of Composition along the Magnetic Cloud Axis [5]
    Song, Hongqiang, Hu, Qiang, Cheng, Xin, Zhang, Jie, Li, Leping, Zhao, Ake, Wang, Bing, Zheng, Ruisheng & Chen, Yao, Frontiers in Physics, 9, 375
  8. Solar Cycle Dependence of ICME Composition [15]
    Song, Hongqiang, Li, Leping, Sun, Yanyan, Lv, Qi, Zheng, Ruisheng & Chen, Yao, Solar Physics, 296, 111
  9. Study of the truncation strategy in the FPGA of a solar radio digital receiver [14]
    Yan, Fabao, Liu, Yang, Xu, Ke, Shang, Ziqian, Zhang, Yuanyuan, Zhang, Lei, Su, Yanrui, Lu, Guang, Wu, Zhao & Chen, Yao, Publications of the Astronomical Society of Japan, 73, 439
  10. Harmonic Electron Cyclotron Maser Emission Excited by Energetic Electrons Traveling inside a Coronal Loop [11]
    Yousefzadeh, Mehdi, Ning, Hao & Chen, Yao, ApJ, 909, 3
  11. Auto Recognition of Solar Radio Bursts Using the C-DCGAN Method [15]
    Zhang, Weidan, Yan, Fabao, Han, Fuyun, He, Ruopu, Li, Enze, Wu, Zhao & Chen, Yao, Frontiers in Physics, 9, 646556
  12. Compound Eruptions of Twin Flux Ropes in a Solar Active Region [6]
    Zheng, Ruisheng, Zhang, Liang, Wang, Bing, Kong, Xiangliang, Song, Hongqiang, Wu, Zhao, Feng, Shiwei, Chen, Huadong & Chen, Yao, ApJ, 921, L39

2020

  1. Dynamical Modulation of Solar Flare Electron Acceleration due to Plasmoid-shock Interactions in the Looptop Region [18]
    Kong, Xiangliang, Guo, Fan, Shen, Chengcai, Chen, Bin, Chen, Yao & Giacalone, Joe, ApJ, 905, L16
  2. Microwave Study of a Solar Circular Ribbon Flare [11]
    Lee, Jeongwoo, White, Stephen M., Chen, Xingyao, Chen, Yao, Ning, Hao, Li, Bo & Masuda, Satoshi, ApJ, 901, L10
  3. Plasma Emission Induced by Electron Cyclotron Maser Instability in Solar Plasmas with a Large Ratio of Plasma Frequency to Gyrofrequency [37]
    Ni, Sulan, Chen, Yao, Li, Chuanyang, Zhang, Zilong, Ning, Hao, Kong, Xiangliang, Wang, Bing & Hosseinpour, M., ApJ, 891, L25
  4. Do All Interplanetary Coronal Mass Ejections Have a Magnetic Flux Rope Structure Near 1 au? [21]
    Song, H. Q., Zhang, J., Cheng, X., Li, G., Hu, Q., Li, L. P., Chen, S. J., Zheng, R. S. & Chen, Y., ApJ, 901, L21
  5. A method of forced extrapolation of the global magnetic field in the solar corona [5]
    Wang, Bing, Chen, Yao, Hu, Qiang, Jiang, ChaoWei, Song, HongQiang, Wu, Zhao & Ning, Hao, Science in China E: Technological Sciences, 63, 234
  6. A broadband digital receiving system with large dynamic range for solar radio observation [10]
    Yan, Fa-Bao, Liu, Yang, Xu, Ke, Shang, Zi-Qian, Su, Yan-Rui, Lu, Guang, Chen, Yao & Wu, Zhao, Research in Astronomy and Astrophysics, 20, 156
  7. The Initiation of a Solar Streamer Blowout Coronal Mass Ejection Arising from the Streamer Flank [2]
    Zheng, Ruisheng, Chen, Yao & Wang, Bing, ApJ, 897, L21
  8. An Extreme Ultraviolet Wave Associated with a Solar Filament Activation [15]
    Zheng, Ruisheng, Chen, Yao, Wang, Bing & Song, Hongqiang, ApJ, 894, 139
  9. Formation of a tiny flux rope in the center of an active region driven by magnetic flux emergence, convergence, and cancellation [7]
    Zheng, Ruisheng, Chen, Yao, Wang, Bing, Song, Hongqiang & Cao, Wenda, A&A, 642, A199

2019

  1. The Acceleration of Energetic Particles at Coronal Shocks and Emergence of a Double Power-law Feature in Particle Energy Spectra [29]
    Kong, Xiangliang, Guo, Fan, Chen, Yao & Giacalone, Joe, ApJ, 883, 49
  2. The Acceleration and Confinement of Energetic Electrons by a Termination Shock in a Magnetic Trap: An Explanation for Nonthermal Loop-top Sources during Solar Flares [47]
    Kong, Xiangliang, Guo, Fan, Shen, Chengcai, Chen, Bin, Chen, Yao, Musset, Sophie, Glesener, Lindsay, Pongkitiwanichakul, Peera & Giacalone, Joe, ApJ, 887, L37
  3. Direct Observations of Traveling Ionospheric Disturbances as Focusers of Solar Radiation: Spectral Caustics [7]
    Koval, Artem, Chen, Yao, Tsugawa, Takuya, Otsuka, Yuichi, Shinbori, Atsuki, Nishioka, Michi, Brazhenko, Anatoliy, Stanislavsky, Aleksander, Konovalenko, Aleksander, Zhang, Qing-He, Monstein, Christian & Gorgutsa, Roman, ApJ, 877, 98
  4. Effect of the Temperature of Background Plasma and the Energy of Energetic Electrons on Z-mode Excitation [7]
    Li, Chuanyang, Chen, Yao, Kong, Xiangliang, Hosseinpour, M. & Wang, Bing, ApJ, 880, 31
  5. Large area subwavelength cavity antenna with planar metamaterials [4]
    Lu, Guang, Wang, Wei, Yan, Fabao, Diao, Chao, Zhou, Xiachen, Wu, Zhao, Liu, Fen, Sun, Yong, Du, Guiqiang & Chen, Yao, AIP Advances, 9, 025032
  6. Broken-up spectra of the loop-top hard X-ray source during a solar limb flare [10]
    Ning, Hao, Chen, Yao, Lee, Jeongwoo, Wu, Zhao, Su, Yang & Kong, Xiang-Liang, Research in Astronomy and Astrophysics, 19, 173
  7. COronal Magnetism and Plasma ASsembled Scopes(COMPASS) [2]
    Qu, Zhongquan, Li, Hui, Zhong, Yue, Liang, Yu, Song, Zhiming, Zhang, Haiying, Zhang, Hongxin, Chen, Yao, Tian, Hui, Cheng, Xin, Xia, Lidong, Li, Bo, Chen, Bo, Yan, Xiaoli, Liu, Rui, Shen, Chenglong, Feng, Li, Hou, Junfeng, Li, Hao, Li, Zheng & Li, Shaoying, Scientia Sinica Physica, Mechanica & Astronomica, 49, 059606
  8. Diagnostics of the Prominence Plasma from Hα and Mg II Spectral Observations [24]
    Ruan, Guiping, Jejčič, Sonja, Schmieder, Brigitte, Mein, Pierre, Mein, Nicole, Heinzel, Petr, Gunár, Stanislav & Chen, Yao, ApJ, 886, 134
  9. Bidirectional Reconnection Outflows in an Active Region [23]
    Ruan, Guiping, Schmieder, Brigitte, Masson, Sophie, Mein, Pierre, Mein, Nicole, Aulanier, Guillaume & Chen, Yao, ApJ, 883, 52
  10. On the Nature of the Bright Core of Solar Coronal Mass Ejections [27]
    Song, H. Q., Zhang, J., Cheng, X., Li, L. P., Tang, Y. Z., Wang, B., Zheng, R. S. & Chen, Y., ApJ, 883, 43
  11. The Structure of Solar Coronal Mass Ejections in the Extreme-ultraviolet Passbands [24]
    Song, H. Q., Zhang, J., Li, L. P., Liu, Y. D., Zhu, B., Wang, B., Zheng, R. S. & Chen, Y., ApJ, 887, 124
  12. Source Imaging of a Moving Type IV Solar Radio Burst and Its Role in Tracking Coronal Mass Ejection from the Inner to the Outer Corona [35]
    Vasanth, V., Chen, Yao, Lv, Maoshui, Ning, Hao, Li, Chuangyang, Feng, Shiwei, Wu, Zhao & Du, Guohui, ApJ, 870, 30
  13. Gyrosynchrotron Emission Generated by Nonthermal Electrons with the Energy Spectra of a Broken Power Law [12]
    Wu, Zhao, Chen, Yao, Ning, Hao, Kong, Xiangliang & Lee, Jeongwoo, ApJ, 871, 22
  14. The Initial Morphologies of the Wavefronts of Extreme Ultraviolet Waves [15]
    Zheng, Ruisheng, Xue, Zhike, Chen, Yao, Wang, Bing & Song, Hongqiang, ApJ, 871, 232
  15. A Confined Partial Eruption of Double-decker Filaments [28]
    Zheng, Ruisheng, Yang, Shuhong, Rao, Changhui, Liu, Yangyi, Zhong, Libo, Wang, Bing, Song, Hongqiang, Li, Zhen & Chen, Yao, ApJ, 875, 71

2018

  1. Formation of Large-scale Coronal Loops Interconnecting Two Active Regions through Gradual Magnetic Reconnection and an Associated Heating Process [3]
    Du, Guohui, Chen, Yao, Zhu, Chunming, Liu, Chang, Ge, Lili, Wang, Bing, Li, Chuanyang & Wang, Haimin, ApJ, 860, 40
  2. Harmonics of Solar Radio Spikes at Metric Wavelengths [19]
    Feng, S. W., Chen, Y., Li, C. Y., Wang, B., Wu, Z., Kong, X. L., Du, Q. F., Zhang, J. R. & Zhao, G. Q., Solar Physics, 293, 39
  3. Magnetic Braids in Eruptions of a Spiral Structure in the Solar Atmosphere [29]
    Huang, Zhenghua, Xia, Lidong, Nelson, Chris J., Liu, Jiajia, Wiegelmann, Thomas, Tian, Hui, Klimchuk, James A., Chen, Yao & Li, Bo, ApJ, 854, 80
  4. Simulation of Focusing Effect of Traveling Ionospheric Disturbances on Meter-Decameter Solar Dynamic Spectra [6]
    Koval, Artem, Chen, Yao, Stanislavsky, Aleksander, Kashcheyev, Anton & Zhang, Qing-He, Journal of Geophysical Research (Space Physics), 123, 8940
  5. A Solar Stationary Type IV Radio Burst and Its Radiation Mechanism [28]
    Liu, Hongyu, Chen, Yao, Cho, Kyungsuk, Feng, Shiwei, Vasanth, Veluchamy, Koval, Artem, Du, Guohui, Wu, Zhao & Li, Chuanyang, Solar Physics, 293, 58
  6. Two-stage Energy Release Process of a Confined Flare with Double HXR Peaks [20]
    Ning, Hao, Chen, Yao, Wu, Zhao, Su, Yang, Tian, Hui, Li, Gang, Du, Guohui & Song, Hongqiang, ApJ, 854, 178
  7. On the Dynamic Nature of a Quiescent Prominence Observed by IRIS and MSDP Spectrographs [33]
    Ruan, Guiping, Schmieder, Brigitte, Mein, Pierre, Mein, Nicole, Labrosse, Nicolas, Gunár, Stanislav & Chen, Yao, ApJ, 865, 123
  8. The Reversal of a Solar Prominence Rotation about Its Ascending Direction during a Failed Eruption [18]
    Song, H. Q., Zhou, Z. J., Li, L. P., Cheng, X., Zhang, J., Chen, Y., Chen, C. X., Ma, X. W., Wang, B. & Zheng, R. S., ApJ, 864, L37
  9. The Acceleration Process of a Solar Quiescent Filament in the Inner Corona [21]
    Song, H. Q., Chen, Y., Qiu, J., Chen, C. X., Zhang, J., Cheng, X., Shen, Y. D. & Zheng, R. S., ApJ, 857, L21
  10. Two-sided-loop Jets Associated with Magnetic Reconnection between Emerging Loops and Twisted Filament Threads [29]
    Zheng, Ruisheng, Chen, Yao, Huang, Zhenghua, Wang, Bing, Song, Hongqiang & Ning, Hao, ApJ, 861, 108
  11. An Extreme-ultraviolet Wave Generating Upward Secondary Waves in a Streamer-like Solar Structure [12]
    Zheng, Ruisheng, Chen, Yao, Feng, Shiwei, Wang, Bing & Song, Hongqiang, ApJ, 858, L1

2017

  1. Double-coronal X-Ray and Microwave Sources Associated with a Magnetic Breakout Solar Eruption [24]
    Chen, Yao, Wu, Zhao, Liu, Wei, Schwartz, Richard A., Zhao, Di, Wang, Bing & Du, Guohui, ApJ, 843, 8
  2. A solar radio dynamic spectrograph with flexible temporal-spectral resolution [16]
    Du, Qing-Fu, Chen, Lei, Zhao, Yue-Chang, Li, Xin, Zhou, Yan, Zhang, Jun-Rui, Yan, Fa-Bao, Feng, Shi-Wei, Li, Chuan-Yang & Chen, Yao, Research in Astronomy and Astrophysics, 17, 098
  3. The Acceleration of High-energy Protons at Coronal Shocks: The Effect of Large-scale Streamer-like Magnetic Field Structures [44]
    Kong, Xiangliang, Guo, Fan, Giacalone, Joe, Li, Hui & Chen, Yao, ApJ, 851, 38
  4. Traveling ionospheric disturbances as huge natural lenses: Solar radio emission focusing effect [10]
    Koval, Artem, Chen, Yao, Stanislavsky, Aleksander & Zhang, Qing-He, Journal of Geophysical Research (Space Physics), 122, 9092
  5. EUV and Magnetic Activities Associated with Type-I Solar Radio Bursts [17]
    Li, C. Y., Chen, Y., Wang, B., Ruan, G. P., Feng, S. W., Du, G. H. & Kong, X. L., Solar Physics, 292, 82
  6. Sources of the Multi-Lane Type II Solar Radio Burst on 5 November 2014 [11]
    Lv, M. S., Chen, Y., Li, C. Y., Zimovets, I., Du, G. H., Wang, B., Feng, S. W. & Ma, S. L., Solar Physics, 292, 194
  7. The Three-part Structure of a Filament-unrelated Solar Coronal Mass Ejection [27]
    Song, H. Q., Cheng, X., Chen, Y., Zhang, J., Wang, B., Li, L. P., Li, B., Hu, Q. & Li, G., ApJ, 848, 21
  8. The Origin of Solar Filament Plasma Inferred from In Situ Observations of Elemental Abundances [37]
    Song, H. Q., Chen, Y., Li, B., Li, L. P., Zhao, L., He, J. S., Duan, D., Cheng, X. & Zhang, J., ApJ, 836, L11
  9. Interaction of Two Filaments in a Long Filament Channel Associated with Twin Coronal Mass Ejections [24]
    Zheng, Ruisheng, Zhang, Qingmin, Chen, Yao, Wang, Bing, Du, Guohui, Li, Chuanyang & Yang, Kai, ApJ, 836, 160
  10. Interchange Reconnection Associated with a Confined Filament Eruption: Implications for the Source of Transient Cold-dense Plasma in Solar Winds [17]
    Zheng, Ruisheng, Chen, Yao, Wang, Bing, Li, Gang & Xiang, Yongyuan, ApJ, 840, 3

2016

  1. Imaging a Magnetic-breakout Solar Eruption [60]
    Chen, Yao, Du, Guohui, Zhao, Di, Wu, Zhao, Liu, Wei, Wang, Bing, Ruan, Guiping, Feng, Shiwei & Song, Hongqiang, ApJ, 820, L37
  2. An Imaging Study of a Complex Solar Coronal Radio Eruption [10]
    Feng, S. W., Chen, Y., Song, H. Q., Wang, B. & Kong, X. L., ApJ, 827, L9
  3. Coincidence of heliospheric current sheet and stream interface: Implications for the origin and evolution of the solar wind [26]
    Huang, Jia, Liu, Yong C.-M., Klecker, Berndt & Chen, Yao, Journal of Geophysical Research (Space Physics), 121, 19
  4. The acceleration of electrons at a spherical coronal shock in a streamer-like coronal field [1]
    Kong, Xiangliang, Chen, Yao & Guo, Fan, Solar Wind 14, American Institute of Physics Conference Series, 1720, p. 070003
  5. Observation of a Metric Type N Solar Radio Burst [14]
    Kong, Xiangliang, Chen, Yao, Feng, Shiwei, Du, Guohui, Li, Chuanyang, Koval, Artem, Vasanth, V., Wang, Bing, Guo, Fan & Li, Gang, ApJ, 830, 37
  6. Electron Acceleration at a Coronal Shock Propagating through a Large-scale Streamer-like Magnetic Field [20]
    Kong, Xiangliang, Chen, Yao, Guo, Fan, Feng, Shiwei, Du, Guohui & Li, Gang, ApJ, 821, 32
  7. A Decameter Stationary Type IV Burst in Imaging Observations on 2014 September 6 [12]
    Koval, Artem, Stanislavsky, Aleksander, Chen, Yao, Feng, Shiwei, Konovalenko, Aleksander & Volvach, Yaroslav, ApJ, 826, 125
  8. A Statistical Study of the Average Iron Charge State Distributions inside Magnetic Clouds for Solar Cycle 23 [37]
    Song, H. Q., Zhong, Z., Chen, Y., Zhang, J., Cheng, X., Zhao, L., Hu, Q. & Li, G., ApJS, 224, 27
  9. Numerical Simulations of Kelvin-Helmholtz Instability: A Two-dimensional Parametric Study [17]
    Tian, Chunlin & Chen, Yao, ApJ, 824, 60
  10. An Eruptive Hot-channel Structure Observed at Metric Wavelength as a Moving Type-IV Solar Radio Burst [26]
    Vasanth, V., Chen, Yao, Feng, Shiwei, Ma, Suli, Du, Guohui, Song, Hongqiang, Kong, Xiangliang & Wang, Bing, ApJ, 830, L2
  11. Dynamics of a Prominence-horn Structure during Its Evaporation in the Solar Corona [21]
    Wang, Bing, Chen, Yao, Fu, Jie, Li, Bo, Li, Xing & Liu, Wei, ApJ, 827, L33
  12. Microwave Imaging of a Hot Flux Rope Structure during the Pre-impulsive Stage of an Eruptive M7.7 Solar Flare [28]
    Wu, Zhao, Chen, Yao, Huang, Guangli, Nakajima, Hiroshi, Song, Hongqiang, Melnikov, Victor, Liu, Wei, Li, Gang, Chandrashekhar, Kalugodu & Jiao, Fangran, ApJ, 820, L29
  13. Modeling transport of energetic particles in corotating interaction regions: A case study [26]
    Zhao, Lulu, Li, Gang, Ebert, R. W., Dayeh, M. A., Desai, M. I., Mason, G. M., Wu, Z. & Chen, Y., Journal of Geophysical Research (Space Physics), 121, 77
  14. Solar Jet-Coronal Hole Collision and a Closely Related Coronal Mass Ejection [18]
    Zheng, Ruisheng, Chen, Yao, Du, Guohui & Li, Chuanyang, ApJ, 819, L18
  15. Slipping Magnetic Reconnections with Multiple Flare Ribbons during an X-class Solar Flare [24]
    Zheng, Ruisheng, Chen, Yao & Wang, Bing, ApJ, 823, 136

2015

  1. An Observational Revisit of Band-split Solar Type-II Radio Bursts [27]
    Du, Guohui, Kong, Xiangliang, Chen, Yao, Feng, Shiwei, Wang, Bing & Li, Gang, ApJ, 812, 52
  2. Simultaneous Radio and EUV Imaging of a Multi-lane Coronal Type II Radio Burst [23]
    Feng, S. W., Du, G. H., Chen, Y., Kong, X. L., Li, G. & Guo, F., Solar Physics, 290, 1195
  3. The Possible Role of Coronal Streamers as Magnetically Closed Structures in Shock-induced Energetic Electrons and Metric Type II Radio Bursts [36]
    Kong, Xiangliang, Chen, Yao, Guo, Fan, Feng, Shiwei, Wang, Bing, Du, Guohui & Li, Gang, ApJ, 798, 81
  4. Gradual Magnetic Evolution of Sunspot Structure and Filament-Corona Dynamics Associated with the X1.8 Flare in AR11283 [14]
    Ruan, Guiping, Chen, Yao & Wang, Haimin, ApJ, 812, 120
  5. Evidence of the Solar EUV Hot Channel as a Magnetic Flux Rope from Remote-sensing and In Situ Observations [40]
    SONG, H. Q., CHEN, Y., ZHANG, J., CHENG, X., Wang, B., HU, Q., LI, G. & WANG, Y. M., ApJ, 808, L15
  6. Acceleration Phases of a Solar Filament During Its Eruption [38]
    Song, H. Q., Chen, Y., Zhang, J., Cheng, X., Fu, H. & LI, G., ApJ, 804, L38
  7. First Taste of Hot Channel in Interplanetary Space [15]
    Song, H. Q., Zhang, J., Chen, Y., Cheng, X., Li, G. & Wang, Y. M., ApJ, 803, 96
  8. Investigation of the Geoeffectiveness of CMEs Associated with IP Type II Radio Bursts [16]
    Vasanth, V., Chen, Y., Kong, X. L. & Wang, B., Solar Physics, 290, 1815

2014

  1. A Solar Type II Radio Burst from Coronal Mass Ejection-Coronal Ray Interaction: Simultaneous Radio and Extreme Ultraviolet Imaging [67]
    Chen, Yao, Du, Guohui, Feng, Li, Feng, Shiwei, Kong, Xiangliang, Guo, Fan, Wang, Bing & Li, Gang, ApJ, 787, 59
  2. Interaction between Two Coronal Mass Ejections in the 2013 May 22 Large Solar Energetic Particle Event [32]
    Ding, Liu-Guan, Li, Gang, Jiang, Yong, Le, Gui-Ming, Shen, Cheng-Long, Wang, Yu-Ming, Chen, Yao, Xu, Fei, Gu, Bin & Zhang, Ya-Nan, ApJ, 793, L35
  3. Temporal Spectral Shift and Polarization of a Band-splitting Solar Type II Radio Burst [23]
    Du, Guohui, Chen, Yao, Lv, Maoshui, Kong, Xiangliang, Feng, Shiwei, Guo, Fan & Li, Gang, ApJ, 793, L39
  4. A Solar Eruption Driven by Rapid Sunspot Rotation [46]
    Ruan, Guiping, Chen, Yao, Wang, Shuo, Zhang, Hongqi, Li, Gang, Jing, Ju, Su, Jiangtao, Li, Xing, Xu, Haiqing, Du, Guohui & Wang, Haimin, ApJ, 784, 165
  5. Direct Observations of Magnetic Flux Rope Formation during a Solar Coronal Mass Ejection [63]
    Song, H. Q., Zhang, J., Chen, Y. & Cheng, X., ApJ, 792, L40
  6. Temperature Evolution of a Magnetic Flux Rope in a Failed Solar Eruption [55]
    Song, H. Q., Zhang, J., Cheng, X., Chen, Y., Liu, R., Wang, Y. M. & Li, B., ApJ, 784, 48
  7. Observations of Energetic Particles between a Pair of Corotating Interaction Regions [14]
    Wu, Z., Chen, Y., Li, G., Zhao, L. L., Ebert, R. W., Desai, M. I., Mason, G. M., Lavraud, B., Zhao, L., Liu, Y. C.-M., Guo, F., Tang, C. L., Landi, E. & Sauvaud, J., ApJ, 781, 17

2013

  1. A review of recent studies on coronal dynamics: Streamers, coronal mass ejections, and their interactions [23]
    Chen, Yao, Chinese Science Bulletin, 58, 1599
  2. Diagnostics on the Source Properties of a Type II Radio Burst with Spectral Bumps [52]
    Feng, S. W., Chen, Y., Kong, X. L., Li, G., Song, H. Q., Feng, X. S. & Guo, Fan, ApJ, 767, 29
  3. A Statistical Study of the Spectral Hardening of Continuum Emission in Solar Flares [16]
    Kong, X., Li, G. & Chen, Y., ApJ, 774, 140
  4. On the Spectral Hardening at gsim300 keV in Solar Flares [43]
    Li, G., Kong, X., Zank, G. & Chen, Y., ApJ, 769, 22
  5. Compound Twin Coronal Mass Ejections in the 2012 May 17 GLE Event [45]
    Shen, C., Li, G., Kong, X., Hu, J., Sun, X. D., Ding, L., Chen, Y., Wang, Yuming & Xia, L., ApJ, 763, 114
  6. A Study of Fast Flareless Coronal Mass Ejections [34]
    Song, H. Q., Chen, Y., Ye, D. D., Han, G. Q., Du, G. H., Li, G., Zhang, J. & Hu, Q., ApJ, 773, 129

2012

  1. Radio Signatures of Coronal-mass-ejection-Streamer Interaction and Source Diagnostics of Type II Radio Burst [67]
    Feng, S. W., Chen, Y., Kong, X. L., Li, G., Song, H. Q., Feng, X. S. & Liu, Ying, ApJ, 753, 21
  2. A Broken Solar Type II Radio Burst Induced by a Coronal Shock Propagating across the Streamer Boundary [51]
    Kong, X. L., Chen, Y., Li, G., Feng, S. W., Song, H. Q., Guo, F. & Jiao, F. R., ApJ, 750, 158
  3. What geometrical factors determine the in situ solar wind speed? [2]
    Li, Bo, Chen, Yao & Xia, LiDong, Chinese Science Bulletin, 57, 1409
  4. A Statistical Study on the Morphology of Rays and Dynamics of Blobs in the Wake of Coronal Mass Ejections [38]
    Song, H. Q., Kong, X. L., Chen, Y., Li, B., Li, G., Feng, S. W. & Xia, L. D., Solar Physics, 276, 261
  5. Coalescence of Macroscopic Magnetic Islands and Electron Acceleration from STEREO Observation [38]
    Song, Hong-Qiang, Chen, Yao, Li, Gang, Kong, Xiang-Liang & Feng, Shi-Wei, Physical Review X, 2, 021015

2011

  1. A Coronal Seismological Study with Streamer Waves [56]
    Chen, Y., Feng, S. W., Li, B., Song, H. Q., Xia, L. D., Kong, X. L. & Li, Xing, ApJ, 728, 147
  2. Streamer Wave Events Observed in Solar Cycle 23 [34]
    Feng, S. W., Chen, Y., Li, B., Song, H. Q., Kong, X. L., Xia, L. D. & Feng, X. S., Solar Physics, 272, 119
  3. Solar winds along curved magnetic field lines [17]
    Li, B., Xia, L. D. & Chen, Y., A&A, 529, A148

2010

  1. Streamer Waves Driven by Coronal Mass Ejections [66]
    Chen, Y., Song, H. Q., Li, B., Xia, L. D., Wu, Z., Fu, H. & Li, Xing, ApJ, 714, 644
  2. A Kinetic Alfvén Wave and the Proton Distribution Function in the Fast Solar Wind [14]
    Li, Xing, Lu, Quanming, Chen, Yao, Li, Bo & Xia, Lidong, ApJ, 719, L190
  3. Statistical study on the relationship between halo CME and coronal dimming [0]
    Liu, Kai, Xia, LiDong, Chen, Yao & Song, HongQiang, Science in China E: Technological Sciences, 53, 2020
  4. Signatures of transition region explosive events in hydrogen Lyβ profiles [8]
    Zhang, M., Xia, L.-D., Tian, H. & Chen, Y., A&A, 520, A37

2009

  1. Intrinsic Instability of Coronal Streamers [45]
    Chen, Y., Li, X., Song, H. Q., Shi, Q. Q., Feng, S. W. & Xia, L. D., ApJ, 691, 1936
  2. Cluster observations of the entry layer equatorward of the cusp under northward interplanetary magnetic field [35]
    Shi, Q. Q., Zong, Q.-G., Zhang, H., Pu, Z. Y., Fu, S. Y., Xie, L., Wang, Y. F., Chen, Y., Li, L., Xia, L. D., Liu, Z. X., Fazakerley, A. N., Reme, H. & Lucek, E., Journal of Geophysical Research (Space Physics), 114, A12219
  3. Spatial structures of magnetic depression in the Earth's high-altitude cusp: Cluster multipoint observations [49]
    Shi, Q. Q., Pu, Z. Y., Soucek, J., Zong, Q.-G., Fu, S. Y., Xie, L., Chen, Y., Zhang, H., Li, L., Xia, L. D., Liu, Z. X., Lucek, E., Fazakerley, A. N. & Reme, H., Journal of Geophysical Research (Space Physics), 114, A10202
  4. Quasi-Periodic Releases of Streamer Blobs and Velocity Variability of the Slow Solar Wind near the Sun [47]
    Song, H. Q., Chen, Y., Liu, K., Feng, S. W. & Xia, L. D., Solar Physics, 258, 129

2007

  1. Catastrophic Eruption of Magnetic Flux Rope in the Corona and Solar Wind With and Without Magnetic Reconnection [43]
    Chen, Y., Hu, Y. Q. & Sun, S. J., ApJ, 665, 1421
  2. Two energy release processes for CMEs: MHD catastrophe and magnetic reconnection [10]
    Chen, Y., Hu, Y. Q. & Xia, L. D., Advances in Space Research, 40, 1780
  3. Influence of Photospheric Magnetic Flux Distribution on Coronal Flux Rope Catastrophe [3]
    Sun, S. J., Hu, Y. Q. & Chen, Y., ApJ, 654, L167

2006

  1. Force Balance Analysis of a Coronal Magnetic Flux Rope in Equilibrium or Eruption [20]
    Chen, Y., Li, G. Q. & Hu, Y. Q., ApJ, 649, 1093
  2. Catastrophe of Coronal Flux Rope in Unsheared and Sheared Bipolar Magnetic Fields [8]
    Chen, Y., Chen, X. H. & Hu, Y. Q., ApJ, 644, 587
  3. On the self-heating phenomenon in nonmodal shear flow [10]
    Li, J. W., Chen, Y. & Li, Z. Y., Physics of Plasmas, 13, 042101

2005

  1. Velocity shear induced transition of magnetohydrodynamic to kinetic Alfvén waves [5]
    Chen, Yao, Physics of Plasmas, 12, 052110
  2. Reproducing the UVCS/SOHO measurements in the slow wind source region at solar minimum [2]
    Chen, Yao, Advances in Space Research, 36, 1461

2004

  1. An Ion-Cyclotron Resonance-driven Three-Fluid Model of the Slow Wind near the Sun [10]
    Chen, Y. & Li, X., ApJ, 609, L41
  2. Stagnated Outflow of O+5 Ions in the Source Region of the Slow Solar Wind at Solar Minimum [18]
    Chen, Y., Esser, R., Strachan, L. & Hu, Y., ApJ, 602, 415

2003

  1. Numerical modeling of the halo electrons in the fast solar wind [4]
    Chen, Y., Esser, R. & Hu, Y. Q., Journal of Geophysical Research (Space Physics), 108, 1371
  2. Formation of Minor-Ion Charge States in the Fast Solar Wind: Roles of Differential Flow Speeds of Ions of the Same Element [34]
    Chen, Y., Esser, R. & Hu, Y., ApJ, 582, 467
  3. Are coronal holes the only source of fast solar wind at solar minimum? [28]
    Hu, Y. Q., Habbal, S. R., Chen, Y. & Li, X., Journal of Geophysical Research (Space Physics), 108, 1377

2002

  1. Effect of Flow-Tube Geometry on Solar Wind Properties [14]
    Chen, Y. & Hu, Y. Q., Astrophysics and Space Science, 282, 447
  2. A theoretical model for O5+ (O7+) ions in the fast solar wind [4]
    Chen, Yao, Esser, Ruth & Hu, You Qiu, Journal of Geophysical Research (Space Physics), 107, 1368

2001

  1. A Two-Dimensional Alfvén-Wave-Driven Solar Wind Model [42]
    Chen, Y. & Hu, Y. Q., Solar Physics, 199, 371

2000

  1. Solitary kinetic Alfvén waves in the inertial limit region [13]
    Chen, Yao, Li, Zhong-yuan, Liu, Wei & Shi, Zhi-Dong, Physics of Plasmas, 7, 371

Created on Wed Apr 22 04:27:27 2026.