Rotary transformer system and rotator with rotary transformer system
A rotary transformer and rotary body technology, applied in the detection field, can solve problems such as the detection accuracy of the rotary transformer to be improved, the adverse effect of the consistency of the rotary transformer, and the failure of the winding rotary transformer, so as to prevent adverse effects, overcome the risk of short circuit, and eliminate the magnetic Effect of Coupling Interference
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no. 1 example
[0050] In the first embodiment, the number of detected teeth of the stator in the first resolver is set according to the aforementioned 4*(M+1), and at this time, the value of M is 2, so the number of detected teeth of the stator of the first resolver is 12, and the number of salient poles of the rotor is 12. is 1. The number of detected teeth of the stator and the number of salient poles of the rotor in the second resolver are respectively 4*(K+1)*S and (K+1)*(2N-1)*S, where K is 2 and S is 2. The value of N is 1, and the value of N is 2, so the number of detected teeth of the stator of the second resolver is 12, and the number of salient poles of the rotor is 9.
[0051] Figure 1a A schematic cross-sectional view of the stator and rotor of the first rotary transformer in this embodiment; Figure 1b It is a schematic cross-sectional view of the stator and rotor of the second rotary transformer in this embodiment. In the first resolver and the second resolver, the stator in...
no. 2 example
[0092] In the second embodiment, stator decoupling teeth are provided on both resolvers. The number of detected teeth of the stator of the first resolver is 4, and the number of salient poles of the rotor is 1. In the second resolver, the number of detected teeth of the stator and the number of salient poles of the rotor are respectively 4P and Q. At this time, the value of P is 2 and the value of Q is 10. Therefore, the number of teeth detected by the stator of the second resolver is 8, and the number of salient rotors is 8. The number of poles is 10. In the first rotary transformer, there are 4 stator decoupling teeth; in the second rotary transformer, there are 8 stator decoupling teeth.
[0093] Figure 4a A schematic cross-sectional view of the stator and rotor of the first rotary transformer in this embodiment; Figure 4b It is a schematic cross-sectional view of the stator and rotor of the second rotary transformer in this embodiment. In the first resolver and the s...
no. 3 example
[0103] In the third embodiment, the number of detected teeth of the stator in the first resolver is 4*(M+1), and the value of M is 7, so the number of detected teeth of the stator of the first resolver is 32 and the number of salient poles of the rotor is 1. The number of detected teeth of the stator and the number of salient poles of the rotor in the second resolver are respectively 4*(K+1)*S and (K+1)*(2N-1)*S, K is 7, S is 7 is 1, and N is 2, so the number of detected teeth of the stator of the second resolver is 32, and the number of salient poles of the rotor is 24.
[0104] Figure 5a A schematic cross-sectional view of the stator and rotor of the first rotary transformer in this embodiment; Figure 5b It is a schematic cross-sectional view of the stator and rotor of the second rotary transformer in this embodiment. In the first resolver and the second resolver, the stator includes a stator iron core, the rotor includes a rotor iron core, and both the stator iron core ...
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