研究状況の概観

• 2019, He W, Ying Z, He S
  [標準的なダイポールを用いた比吸収率と入射電力密度を組合せた電磁界ばく露分析] [tech./dosim.]
  2019 13th European Conference on Antennas and Propagation (EuCAP), Krakow, Poland. IEEE: pp. 1-5; ISBN 978-1-5386-8127-5
• 2019, Rodríguez-Cano R, Zhang S, Zhao K, Pedersen GF
  [28 GHzのモバイル端末用5G切替可能アンテナシステムのユーザーの身体との相互作用] [tech./dosim.]
  2019 13th European Conference on Antennas and Propagation (EuCAP), Krakow, Poland. IEEE: pp. 1-4; ISBN 978-1-5386-8127-5
• 2019, Aminzadeh R, Thielens A, Gaillot DP, Liinard M, Koni L, Agneessens S, Van Torre P, Van Den Bossche M, Verloock L, Dongus S, Eeftens M, Huss A, Vermeulen R, de Seze R, Cardis E, Rogier H, Röösli M, Martens L, Joseph W
  [拡散性の屋内環境における個人用の無線周波ドシメトリのためのマルチバンド身体装着型ばく露メータ] [tech./dosim.]
  IEEE Sens J 19 (16): 6927 - 6937
• 2019, Keller H
  [5G基地局から発せられる電磁界へのヒトのばく露の評価] [tech./dosim.]
  Health Phys 117 (5): 541-545
• 2019, Shikhantsov S, Thielens A, Vermeeren G, Tanghe E, Demeester P, Martens L, Torfs G, Joseph W
  Hybrid Ray-Tracing/FDTD Method for Human Exposure Evaluation of a Massive MIMO Technology in an Industrial Indoor Environment [tech./dosim.]
  IEEE Access 7: 21020 - 21031
• 2019, Kaburcuk F
  Effects of a brain tumor in a dispersive human head on SAR and temperature rise distributions due to RF sources at 4G and 5G frequencies [tech./dosim.]
  Electromagn Biol Med 38 (2): 168-176
• 2019, Pawlak R, Krawiec P, Żurek J
  [5G技術における電磁界の測定] [tech./dosim.]
  IEEE Access 7: 29826 - 29835
• 2019, Xu B, Zhao K, Ying Z, Sjöberg D, He W, He S
  [28 GHz及び39 GHzの5Gユーザー機器のピークEIRP［等価等方放射電力］に対する無線周波電磁界ばく露制限のインパクトの分析] [tech./dosim.]
  IEEE Access 7: 20996 - 21005
• 2019, Carrasco E, Colombi D, Foster KR, Ziskin M, Balzano Q
  [6 GHz超のポータブルワイヤレスデバイスのばく露評価] [tech./dosim.]
  Radiat Prot Dosimetry 183 (4): 488-495
• 2019, Xu B, Gustafsson M, Shi S, Zhao K, Ying Z, He S
  Radio Frequency Exposure Compliance of Multiple Antennas for Cellular Equipment Based on Semidefinite Relaxation [tech./dosim.]
  IEEE Trans Electromagn Compat 61 (2): 327 - 336