A Microcathode Arc Thrust Array System
A cathodic arc and array technology, applied in the field of satellite micro-propulsion, can solve the problems of large volume and mass of the micro-cathode arc thrust system, decreased thrust-weight ratio of the micro-cathode arc thrust system, complicated control methods, etc. The effect of improving the ratio and reliability and meeting the propulsion demand
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Embodiment 1
[0030] Such as figure 1 , figure 2 and image 3 As shown, the microcathode arc thrust array system provided in this embodiment includes a thruster integration part, a power output unit and a control part. The output end of the power output unit is connected to the anode of the thruster integration part through the control part, and the cathode of the thruster integration part is connected to the input end of the power output unit, thus forming a complete conductive circuit.
[0031] Wherein, the thruster integration part is arranged and integrated by multiple sets of micro-cathode arc thrusters arranged in an even-numbered regular polygon, and the cathodes 14 of multiple sets of micro-cathode arc thrusters are shared.
[0032] The control part includes control switches with the same number as the micro-cathode arc thrusters and connected in parallel, and one control switch is connected to one micro-cathode arc thruster, and different control switches are connected to differ...
Embodiment 2
[0048] The micro-cathode arc thrust array system in this embodiment is exactly the same as the micro-cathode arc thrust array system in Embodiment 1, also combining figure 1 , figure 2 , image 3 , Figure 4 The implementation of this example will be described. In this embodiment, L1 in the PPU is 1.2mh, R1 is 5Ω, T 1 ≈80μs. T can be obtained according to the formula in Example 1 2 ≈240μs, 7T≈1680μs. The ΔT of the micro-cathode arc thruster in each conductive branch is 40 μs, and when the working cycle is 1680 μs, the working interval of the micro-cathode arc thrust array system is shortened from 240 μs to 200 μs. work steadily.
Embodiment 3
[0050] The micro-cathode arc thrust array system in this embodiment is exactly the same as the micro-cathode arc thrust array system in Embodiment 1, also combining figure 1 , figure 2 , image 3 , Figure 4 The implementation of this example will be described. During the implementation of this embodiment, when the micro-cathode arc thrust array system continues to work under certain modal conditions, due to avoiding the torque caused by the inconsistency of the working hours of each micro-cathode arc thruster, the geometric configuration should be guaranteed Opposite microcathode arc thrusters work simultaneously, e.g. figure 1 The micro-cathode arc thruster 2 and micro-cathode arc thruster 5, the micro-cathode arc thruster 3 and the micro-cathode arc thruster 6, the micro-cathode arc thruster 4 and the micro-cathode arc thruster 7 work simultaneously, and the micro-cathode arc thruster Device 1 is a central thruster, and its working control method is consistent with tha...
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