Dryden型大气紊流对平流层飞艇能量最优轨迹影响

doi:10.7527/S1000-6893.2016.0157

Abstract

Abstract:

This paper investigates the ascent optimal trajectory of stratospheric airship with constant wind and the effect of atmospheric turbulence on optimal trajectory. First, three-degree-of-freedom dynamics model of stratospheric airship was completed by forces analysis, considering the constant wind, earth rotation, mass rate and other factors, and then the variables were scaled to obtain a normalized system equation. Second, this problem of optimal trajectory was transformed into a problem of nonlinear programming by using the direct collocation method. Considering the minimum energy scenario, an appropriate solution for nonlinear programming problem was determined, and the feasible solution was obtained. Then the control history of solution was taken into the system equation to examine the feasibility and the acceleration components were analyzed. Finally, the Dryden atmospheric turbulence was introduced to the minimum energy scene, and then the data of computation and comparison analysis were obtained. By discussing the error between calculation and simulation, the relation of the error of final position and the mean of complex wind was found, and a strategy for resisting the interference of Dryden atmospheric turbulence for stratospheric airships was raised.

Key words: stratospheric airship, trajectory optimization, direct collocation method, nonlinear programming, Dryden atmospheric turbulence

CLC Number:

V19
V274

ZHANG Liming, XING Jianjun, CHEN Ziang, WANG Yi, YU Yang. Effect of Dryden atmospheric turbulence on minimum-energy trajectory of stratospheric airships[J]. ACTA AERONAUTICAET ASTRONAUTICA SINICA, 2017, 38(1): 120180-120180.

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Effect of Dryden atmospheric turbulence on minimum-energy trajectory of stratospheric airships

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