Page 199 - 《振动工程学报》2026年第2期
P. 199

第 2 期                            李 青,等:空间站超静主动隔振技术                                         515

                  progress  of  the  optical  frequency  standard[J].  Laser  &  Opto-  YANG  Hongjie, LIU  Lei, LI  Xinguo.  Separated  active
                  electronics Progress,2023,60(11):1106003.         vibration  isolation  technology  for  ultra-quiet  scientific  satel-
              [7]  CAMPBELL S L,HUTSON R B,MARTI G E,et al. A       lites[J].  Chinese  Space  Science  and  Technology, 2021,
                  Fermi-degenerate  three-dimensional  optical  lattice  clock[J].  41(4):102-110.
                  Science,2017,358(6359):90-94.                 [17]  EDBERG  D,  BOUCHER  R,  SCHENCK  D,  et  al.  Results  of
              [8]  WHORTON  M  S.  Microgravity  vibration  isolation  for  the  the  STABLE  microgravity  vibration  isolation  flight  experi-
                  International  Space  Station[J].  AIP  Conference  Proceedings,  ment[R].National  Aeronautics  and  Space  Administration,
                  2000,504(1):605-610.                              Huntsville, AL. George C. Marshall Space Flight Center.1996.
              [9]  DONG  W  B, DUAN  W  X, LIU  W, et  al.  Microgravity  [18]  BUSHNELL  G  S, BECRAFT  M  D.  Microgravity  perfor-
                  disturbance  analysis  on  Chinese  space  laboratory[J].  npj  mance flight characterization of an International Space Station
                  Microgravity,2019,5(1):18.                        active rack isolation prototype system[C]//IMTC/99. Proceed-
              [10]  LIU C C,JING X J,DALEY S,et al. Recent advances in  ings of the 16th IEEE Instrumentation and Measurement Tech-
                  micro-vibration  isolation[J].  Mechanical  Systems  and  Signal  nology Conference. IEEE,2002:260-267.
                  Processing,2015,56:55-80.                     [19]  WHORTON M. g-LIMIT:a microgravity vibration isolation
              [11]  程志鹏,汪志昊,郜辉,等. 负刚度非线性黏滞阻尼器对                      system for the International Space Station[C]//Proceedings of
                  斜拉索振动控制研究        [J]. 振动工程学报,2022,35(3):          2001  Conference  and  Exhibit  on  International  Space  Station
                  652-662.                                          Utilization. AIAA, 2001:5090.
                  CHENG  Zhipeng, WANG  Zhihao, GAO  Hui, et  al.  [20]  LABIB M,PIONTEK D,VALSECCHI N,et al. The fluid
                  Nonlinear  viscous  dampers  paralleled  with  negative  stiffness  science  laboratory’s  microgravity  vibration  isolation  subsys-
                  for  cable  vibration  control[J].  Journal  of  Vibration  Engineer-  tem  overview  and  commissioning  update[C]//Proceedings  of
                  ing,2022,35(3):652-662.                           SpaceOps 2010 Conference. AIAA,2010:2007.
              [12]  NGUYEN  X  B, KOMATSUZAKI  T, IWATA  Y, et  al.  [21]  CASGRAIN C,VACHON E,MARRONE J. The Canadian
                  Robust adaptive controller for semi-active control of uncertain  space  agency  microgravity  science  program  overview[C]//
                  structures  using  a  magnetorheological  elastomer-based  isola-  Proceedings of 42nd AIAA Aerospace Sciences Meeting and
                  tor[J]. Journal of Sound and Vibration,2018,434:192-212.  Exhibit. AIAA,2004:121.
              [13]  涂奉臣,陈照波,刘望中,等. 新型半主动整星隔振平台                  [22]  LIU W,GAO Y,DONG W B,et al. Flight test results of
                  及其模糊最优控制研究        [J]. 振动工程学报,2010,23(2):         the  microgravity  active  vibration  isolation  system  in  China’s
                  133-139.                                          Tianzhou-1  Mission[J].  Microgravity  Science  and  Technol-
                  TU  Fengchen, CHEN  Zhaobo, LIU  Wangzhong, et  al.  A  ogy,2018,30(6):995-1009.
                  new type semi-active whole spacecraft isolation platform and  [23]  LIU W,GAO Y,ZHANG L,et al. Flight test results for
                  its  fuzzy  optimal  control[J].  Journal  of  Vibration  Engineer-  microgravity  active  vibration  isolation  system  on-board
                  ing,2010,23(2):133-139.                           Chinese Space Station[J]. npj Microgravity,2024,10(1):19.
              [14]  MIN C,DAHLMANN M,SATTEL T. A concept for semi-  [24]  卢晓同,常宏. 光晶格原子钟及其在基础物理学中的应用
                  active  vibration  control  with  a  serial-stiffness-switch  [J]. 物理,2023,52(7):467-475.
                  system[J]. Journal of Sound and Vibration,2017,405:234-  LU Xiaotong,CHANG Hong. Optical lattice clocks and their
                  250.                                              applications  in  fundamental  physics[J].  Physics, 2023,
              [15]  YUAN Z X,ZHANG Z G,ZENG L Z,et al. Microvibra-  52(7):467-475.
                  tion  isolation  in  sensitive  payloads: methodology  and
                  design[J].  Nonlinear  Dynamics, 2023, 111( 21) : 19563-  第一作者:李 青(1993—),女,博士,副教授。
                  19611.                                                E-mail:qingli029@mail.nwpu.edu.cn
              [16]  杨鸿杰,刘磊,李新国. 超静空间科学卫星分离式主动隔                  通信作者:刘 磊(1981—),男,博士,教授。
                  振技术  [J]. 中国空间科学技术,2021,41(4):102.                    E-mail:leiliu@nwpu.edu.cn
   194   195   196   197   198   199   200   201   202   203   204