Platform for simulating link satellite photo-communication terminal-to-terminal relative sighting angle movement
A satellite optical communication and analog link technology, which is applied to the platform field of the relative aiming angle movement between satellite optical communication terminals of the analog link, and can solve the problems of inability to simulate and detect the dynamic tracking performance of the satellite link.
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specific Embodiment approach 1
[0008] Specific implementation mode one: according to the instructions attached figure 1 Describe this embodiment in detail, a kind of platform described in this embodiment simulates the relative aiming angle movement between link satellite optical communication terminals, it is composed of host computer 1, guide rail controller 2, turntable controller 3, one-dimensional guide rail 4 and The two-axis turntable 5 is composed of a pitch axis and an azimuth axis, the motion range of the pitch axis is at least -60°~+60°, and the motion range of the azimuth axis is at least -180°~+ 180°, a signal output end of the host computer 1 is connected to the signal input end of the guide rail controller 2, and the signal output end of the guide rail controller 2 is connected to the mover movement control signal input end of the one-dimensional guide rail 4 on the guide rail , another signal output end of host computer 1 is connected with the signal input end of turntable controller 3, and t...
specific Embodiment approach 2
[0011] Specific implementation mode two: according to the instructions attached figure 2 Describe this embodiment in detail. The difference between this embodiment and Embodiment 1 is that the two-axis turntable 5 includes a turntable pitch axis 5-1, a moving frame 5-3, a pitch frame 5-4, a base 5-5 and a turntable. The azimuth axis, the turntable azimuth axis includes the turntable azimuth shaft sleeve 5-2 and the azimuth axis R, the optical communication terminal 7 under test includes the signal receiving terminal 7-1, the terminal pitch axis 7-2 and the terminal azimuth axis, the terminal azimuth The shaft includes a terminal azimuth shaft sleeve 7-3, the pitch axis 5-1 of the turntable is located on the mobile frame 5-3, and the mobile frame 5-3 and the pitch frame 5-4 are hinged through the pitch axis 5-1 of the turntable, and the terminal azimuth The shaft sleeve 7-3 is located between the base 5-5 and the turntable azimuth shaft sleeve 5-2, and the terminal azimuth sha...
specific Embodiment approach 3
[0012] Specific implementation mode three: according to the instructions attached figure 2 Describe this embodiment in detail. This embodiment is a further description of Embodiment 2. In this embodiment, the pitch axis 5-1 of the turntable and the pitch axis 7-2 of the terminal have a range of motion of -80° to +80°. The motion ranges of the azimuth axis of the turntable and the terminal azimuth axis are both -180°~+180°.
[0013] In this embodiment, the one-dimensional guide rail 4 is also used to compensate the translation error of the aiming beam of the optical communication terminal 7 under test.
[0014] For this implementation mode, carry out example analysis:
[0015] The pitching frame 5-4 is a tuning-fork-type open structure, which enables the optical communication terminal 7 under test to communicate without obstruction within the range of motion, and the tuning-fork-type open structure facilitates the installation and debugging of the optical communication termin...
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