Venus round trip using solar sail

被引:0
作者
KaiJian Zhu
RongZhi Zhang
Dong Xu
JiaSong Wang
ShaoMin Li
机构
[1] State Key Laboratory of Astronautic Dynamics,
[2] Xi’an Satellite Control Center,undefined
来源
Science China Physics, Mechanics and Astronomy | 2012年 / 55卷
关键词
venus round trip; solar sail; analytical control laws; direct attitude angle optimization;
D O I
暂无
中图分类号
学科分类号
摘要
Trajectory optimization and simulation is performed for Venus round trip (VeRT) mission using solar sail propulsion. Solar gravity is included but atmospheric drag and shadowing effects are neglected in the planet-centered escape and capture stages. The spacecraft starts from the Geostationary orbit (GEO) at a predetermined time to prepare a good initial condition for the Earth-Venus transfer, although the launch window is not an issue for spacecraft with solar sails. The Earth-Venus phase and the return trip are divided into three segments. Two methods are adopted to maintain the mission trajectory for the VeRT mission and then compared through a numerical simulation. According to the first approach, Planet-centered and heliocentric maneuvers are modeled using a set of blended analytical control laws instead of the optimal control techniques. The second procedure is the Direct Attitude Angle Optimization in which the attitude angles of the solar sail are adopted as the optimization variables during the heliocentric transfer. Although neither of the two methods guarantees a globally optimal trajectory, they are more efficient and will produce a near-optimal solution if employed properly. The second method has produced a better result for the minimum-time transfer of the VeRT mission demonstrating the effectiveness of the methods in the preliminary design of the complex optimal interplanetary orbit transfers.
引用
收藏
页码:1485 / 1499
页数:14
相关论文
共 58 条
  • [11] McInnes C.(2003)Low cost Mercury orbiter and Mercury sample return mission susing solar sail propulsion Aeronaut J 107 469-478
  • [12] Baoyin H.(2006)Sample return from Mercury and other terrestrial planets using solar sail propulsion J Spacecraft Rockets 43 828-835
  • [13] McInnes C.(2005)Solar sail orbits at artificial sun-Earth libration points J Guidance Control Dyn 28 1328-1331
  • [14] Baoyin H.(2011)New applications of the H-reversal trajectory using solar sails Res Astron Astrophys 11 863-878
  • [15] McInnes C.(2011)Feasibility analysis of the angular momentum reversal trajectory via hodograph method for high performance solar sails Sci China-Tech Sci 54 2951-2957
  • [16] Baoyin H.(2009)Coupled attitude-orbit dynamics and control for displaced solar orbits Acta Astronaut 65 730-737
  • [17] Li J.(2003)A technique for escape from geosynchronous transfer orbit using a solar sail J Guidance Control Dyn 26 628-634
  • [18] Gao Y.(2001)Analytic control laws for near-optimal geocentric solar sail transfers(AAS 01-473) Adv Astronaut Sci 109 2393-2413
  • [19] Gong S. P.(2003)Simple control laws for low-thrust orbit transfers( AAS-03-630) Adv Astronaut Sci 116 2031-2049
  • [20] Baoyin H.(2006)Indirect optimization of low-thrust capture trajectories J Guidance Control Dyn 29 1011-1014