Propulsion of targets with different confinement geometries in water by Nd:YAG laser at 1064nm

被引:4
作者
Chen, Jun [1 ]
Li, Bei-Bei [1 ]
Zhang, Hong-Chao [1 ]
Han, Bing [1 ]
Shen, Zhong-Hua [1 ]
Ni, Xiao-Wu [1 ]
机构
[1] Nanjing Univ Sci & Technol, Sch Sci, Nanjing 210094, Jiangsu, Peoples R China
来源
HIGH-POWER LASER MATERIALS PROCESSING: LASERS, BEAM DELIVERY, DIAGNOSTICS, AND APPLICATIONS II | 2013年 / 8603卷
关键词
laser propulsion; momentum; momentum coupling coefficient;
D O I
10.1117/12.2001493
中图分类号
O43 [光学];
学科分类号
070207 ; 0803 ;
摘要
Laser propulsion in air or vacuum has been developed as a thruster technology for the attitude control of micro class satellites. Laser propulsion in water can be used as a technology for propelling underwater platform or controlling microfluid device. Laser propulsion effects in water are much better in air due to the force from laser-induced bubble in water. The target geometries will influence the propulsion effects in air. In order to investigate the influence of target geometries on laser propulsion in water, targets with/without conical cavity and hemispherical cavity are designed in this paper. The momentum IT gained by targets and the momentum coupling coefficient Cm are investigated experimentally by high-speed photography method. It shows that the propulsion effects are better if there is a cavity on the laser irradiated surface of the target, and a hemispherical cavity works better than a conical cavity. In addition, IT increases with the laser energy, but the increasing trend slows gradually, and Cm increases with the laser energy first, and then levels off for all four targets. These results are both due to the laser plasma shielding. In conclusion, we need design suitable target geometries and use optimal laser energy to get the best propulsion effect for controlling microfluid device or micro class satellites.
引用
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页数:6
相关论文
共 14 条
  • [1] Air-breathing mode laser propulsion with a long-pulse TE CO2 laser
    Chen, Jing
    Tan, Rongqing
    Wu, Jin
    Lu, Yuantian
    Xu, Cheng
    Zhu, Yufeng
    [J]. CHINESE OPTICS LETTERS, 2010, 8 (08) : 771 - 772
  • [2] Thrust enhancement via gel-type liquid confinement of laser ablation of solid metal propellant
    Choi, Soojin
    Han, Tae-hee
    Gojani, Ardian B.
    Yoh, Jack J.
    [J]. APPLIED PHYSICS A-MATERIALS SCIENCE & PROCESSING, 2010, 98 (01): : 147 - 151
  • [3] Mechanical effects of laser-induced cavitation bubble on different geometrical confinements for laser propulsion in water
    Han, Bing
    Pan, Yun-Xiang
    Xue, Ya-Li
    Chen, Jun
    Shen, Zhong-Hua
    Lu, Jian
    Ni, Xiao-Wu
    [J]. OPTICS AND LASERS IN ENGINEERING, 2011, 49 (03) : 428 - 433
  • [4] LASER PROPULSION FOR TRANSPORT IN WATER ENVIRONMENT
    Han, Bing
    Shen, Zhong-Hua
    Lu, Jian
    Ni, Xiao-Wu
    [J]. MODERN PHYSICS LETTERS B, 2010, 24 (07): : 641 - 648
  • [5] Jian T., 2009, P SPIE, V7276
  • [6] KANTROWI.A, 1972, ASTRONAUT AERONAUT, V10, P74
  • [7] Mori K, 2006, AIP CONF PROC, V830, P38, DOI 10.1063/1.2203245
  • [8] Pulsed laser propulsion performance of 11-cm parabolic 'bell' engines within the atmosphere
    Myrabo, LN
    Libeau, MA
    Meloney, ED
    Bracken, RL
    Knowles, TB
    [J]. HIGH-POWER LASER ABLATION V, PTS 1 AND 2, 2004, 5448 : 450 - 464
  • [9] Laser impulse coupling at 130 fs
    Phipps, C.
    Luke, J.
    Funk, D.
    Moore, D.
    Glownia, J.
    Lippert, T.
    [J]. APPLIED SURFACE SCIENCE, 2006, 252 (13) : 4838 - 4844
  • [10] Laser ablation of organic coatings as a basis for micropropulsion
    Phipps, C
    Luke, J
    Lippert, T
    [J]. THIN SOLID FILMS, 2004, 453 : 573 - 583