Adjusting method of electromagnet driven rotating fluid self-variable resistor capable of being applied to electronic or electric system
An electromagnetic drive, power system technology, applied in the direction of liquid resistors, etc., can solve the problems of reducing starting current, easy damage, short life, etc., and achieve the effects of not easy to damage, low cost and simple structure
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Embodiment 1
[0046] Implementation example 1, such as figure 1 As shown, the electromagnetically driven rotating fluid variable resistor that can be used in electronic or electric power systems is composed of a container 1, a conductive liquid 103, a resistor 101, an electrode 102, and a magnet 104;
[0047] The conductive liquid 103 is loaded in the cavity of the container 1, and the volume of the conductive liquid 103 is smaller than the effective volume of the cavity of the container 1; the electrode 102 is located in the center of the cavity of the container 1, and the electrode 102 is in contact with the conductive liquid 103;
[0048] The resistor body 101 is located in the cavity of the container 1, part of the resistor body 101 is in contact with the conductive liquid 103, and part of the resistor body 101 is exposed in the empty cavity of the cavity (the part of the cavity of the container 1 that is not filled with the conductive liquid);
[0049] The electrode 102 and the resisto...
Embodiment 2
[0053] Implementation example 2, such as figure 2 As shown, the electromagnetically driven rotating fluid variable resistor that can be used in electronic or electric power systems is composed of a container 2, a conductive liquid 203, an electrode 201, a resistor 202, and a magnet 204;
[0054] The conductive liquid 203 is loaded in the cavity of the container 2, and the volume of the conductive liquid 203 is smaller than the effective volume of the cavity of the container 2; the resistor 202 is located in the center of the cavity of the container 2, and the resistor 202 is in contact with the conductive liquid 203;
[0055] Part of the electrode 201 is exposed in the empty cavity of the cavity (the part of the cavity of the container 2 that is not filled with the conductive liquid);
[0056] The electrode 201 is located in the cavity of the container 1, and the electrode 201 is in contact with the conductive liquid 203;
[0057] The electrode 201 and the resistor 202 form ...
Embodiment 3
[0061] Implementation Example 3: On the basis of implementation example 1, the electrode 102 is made of a resistive material, so that the electrode 102 becomes a resistor.
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