Ionization Acceleration Integrated Space Debris Plasma Thruster
A technology of space debris and plasma, applied in the field of thrusters, can solve problems such as discontinuous plasma flow, large difference in ionization energy, grid electrode blockage, etc., to achieve improved control accuracy and stability, sufficient and uniform ionization, The effect of reducing the diffusivity
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specific Embodiment approach 1
[0020] Specific implementation mode one: as figure 1 with Figure 4 As shown, an ionization acceleration integrated space debris plasma thruster includes: pulverizer 1, ball mill 2, powder particle charging system 3 and propeller 4;
[0021] The outlet of the pulverizer 1 is connected to the entrance of the ball mill 2, and the powder particle charging system 3 is fixed inside the outlet of the ball mill 2. The pulverizer 1 is used for primary pulverization of space debris, and the ball mill 2 is used for primary pulverization of space debris. Pulverized into submicron powder particles, the powder particle charging system 3 is used to positively charge the submicron powder particles;
[0022] The propeller 4 includes a No. 1 base 5, an anode 6, a No. 2 base 7, an outer yoke 8, a No. 1 outer magnetic pole 9, a No. 1 outer coil 10, a No. 2 outer magnetic pole 11, a No. 3 outer magnetic pole 12, a No. 2 outer coil 13, and a jacket Tube 14, inner casing 15, No. 1 inner magnetic ...
specific Embodiment approach 2
[0043] Specific implementation mode two: as shown in Figure 2 and image 3 As shown, the geometric structure parameters of the propeller 4 are: h=15mm, L=62mm, d=51mm; The cross-sectional size is 15mm×10mm, and the current passed is 500A, so the current density is 3.33A / mm 2 , within the insulation limits of copper conductors. Simulation in ANSYS Maxwell shows that the ionization acceleration integrated space debris plasma thruster of the present invention can generate the required magnetic field configuration. Compared with the traditional electromagnetic plasma thruster, there are more places on the inner wall of the four channels A "tangential" magnetic field with a strength of 0.023-0.031T (intensified radially from the centerline of the discharge channel to the inner wall), and the radial gradient of this magnetic field is 107Gass / cm, but the diameter near the exit of the discharge channel The configuration of the radial magnetic field is basically the same. The largest...
specific Embodiment approach 3
[0044] Specific implementation mode three: as figure 1 As shown, the axial positions of No. 1 inner coil 17 and No. 1 outer coil 10 relative to the propeller 4 main shaft 20 are the same, and the number of ampere turns and the cross section are the same. Align with the No. 2 outer magnetic pole 11 in the axial direction, so as to ensure that the tangential magnetic field generated at the inner wall of the discharge channel is symmetrical with respect to the center line of the channel, and the plasma in the discharge channel is confined in a narrow area; the No. 2 inner coil 19 The axial position of No. 2 outer coil 13 and propeller 4 main shaft 20 is the same, and the number of ampere turns and cross-section are the same. No. 3 inner magnetic pole 21 and No. 3 outer magnetic pole 12 are at the outlet of propeller 4 and the inner casing 15 of discharge channel and the outer casing 14 are respectively aligned to ensure that the magnetic field at the outlet of the discharge chann...
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