Method and device for controlling vibration of motor
US-2018123494-A1 · May 3, 2018 · US
US11264864B2 · US · B2
| Field | Value |
|---|---|
| Publication number | US-11264864-B2 |
| Application number | US-201716616020-A |
| Country | US |
| Kind code | B2 |
| Filing date | Sep 30, 2017 |
| Priority date | May 24, 2017 |
| Publication date | Mar 1, 2022 |
| Grant date | Mar 1, 2022 |
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An electronic device includes a signal trigger circuit, a flat-motor drive circuit, and a flat motor. The signal trigger circuit sends a starting instruction to the flat-motor drive circuit for instructing to start the flat motor. A processor of the flat-motor drive circuit sends a first triggering instruction to a voltage processing circuit of the flat-motor drive circuit after receiving the starting instruction. The voltage processing circuit provides a first working voltage V 1 to the flat motor after receiving the first triggering instruction, and provides a second working voltage V 0 to the flat motor after a first time period. V 0 <V 1 ≤V 2 , V 0 is a rated voltage value of the flat motor, and V 2 is a maximum forward voltage value that the flat motor can bear when the flat motor is started.
Opening claim text (preview).
What is claimed is: 1. A flat-motor driving method, implemented by an electronic device, wherein the electronic device comprises a signal trigger circuit, a flat-motor drive circuit, and a flat motor, wherein the flat-motor drive circuit comprises a processor and a voltage processing circuit, and wherein the flat-motor driving method comprises: sending, by the signal trigger circuit to the processor, a starting instruction to start the flat motor; receiving, by the processor, the starting instruction; sending, by the processor to the voltage processing circuit and after the processor receives the starting instruction, a first triggering instruction to trigger the voltage processing circuit to provide a forward voltage to the flat motor; receiving, by the voltage processing circuit from the processor, the first triggering instruction; providing, by the voltage processing circuit to the flat motor and after the voltage processing circuit receives the first triggering instruction, a first working voltage (V 1 ); and providing, by the voltage processing circuit to the flat motor and after a first time period, a second working voltage (V 0 ), wherein the V 0 is less than the V 1 and the V 1 is less than or equal to a maximum forward voltage value (V 2 ) that the flat motor can bear when the flat motor is started, and wherein V 0 is a rated voltage value of the flat motor. 2. The flat-motor driving method of claim 1 , wherein the voltage processing circuit comprises a boost circuit and a first circuit coupled to the boost circuit in parallel, wherein providing the V 1 and the V 0 to the flat motor comprises: outputting, by the boost circuit and after receiving the first triggering instruction, the V 1 to the flat motor in the first time period; and outputting, by the first circuit and after receiving the first triggering instruction, the V 0 to the flat motor after the first time period. 3. The flat-motor driving method of claim 2 , wherein the boost circuit comprises a first capacitor (C 1 ), a first resistor (R 1 ), and a boost chip, wherein a first end of the C 1 is coupled to the processor and is configured to receive the first triggering instruction from the processor, wherein a second end of the C 1 is grounded using the R 1 , wherein the second end of the C 1 is further coupled to an input end of the boost chip, wherein an output end of the boost chip is coupled to the flat motor, wherein outputting the V 1 to the flat motor comprises providing, by the second end of the first capacitor to the input end of the boost chip in the first time period and after the first end of the C 1 receives the first triggering instruction, a voltage signal greater than a minimum working voltage of the boost chip to trigger the boost chip to output the V 1 to the flat motor. 4. The flat-motor driving method of claim 2 , wherein the first circuit comprises a voltage stabilizing circuit and a first unidirectional conduction circuit coupled to the voltage stabilizing circuit in series, wherein outputting the V 0 to the flat motor comprises outputting, by the voltage stabilizing circuit and after an input end of the voltage stabilizing circuit receives the first triggering instruction, the V 0 , and wherein the first unidirectional conduction circuit is configured to prevent an output current of the boost circuit from flowing backward to the first circuit in the first time period. 5. The flat-motor driving method of claim 4 , wherein the first circuit further comprises a suspending circuit coupled between the processor and the voltage stabilizing circuit in series, wherein the suspending circuit comprises an energy storage element, wherein the flat-motor drive circuit further comprises an on-off circuit, wherein the on-off circuit comprises a grounding circuit and a control circuit, and wherein the flat-motor driving method further comprises: sending, by the signal trigger circuit to the processor, a motor running stop instruction; receiving, by the processor from the signal trigger circuit, the motor running stop instruction; stopping the processor from sending the first triggering instruction to the voltage processing circuit when the processor receives the motor running stop instruction; providing, by the suspending circuit and after the processor stops sending the first triggering instruction to the voltage processing circuit, a trigger voltage to the voltage stabilizing circuit in a second time period to trigger the voltage stabilizing circuit to output an output voltage; outputting, in the second time period and by the control circuit, the output voltage of the voltage stabilizing circuit to a negative electrode end of the flat motor; and grounding a positive electrode end of the flat motor using the grounding circuit. 6. A flat-motor drive circuit, comprising: a voltage processing circuit; and a processor coupled to the voltage processing circuit and configured to: receive a starting instruction to start a flat motor; and send a first triggering instruction to the voltage processing circuit after receiving the starting instruction, wherein the first triggering instruction is configured to trigger the voltage processing circuit to provide a forward voltage to the flat motor, wherein the voltage processing circuit is configured to: receive, from the processor, the first triggering instruction; provide a first working voltage (V 1 ) to the flat motor after receiving the first triggering instruction; and provide a second working voltage (V 0 ) to the flat motor after a first time period, wherein the V 0 is less than the V 1 and the V 1 is less than or equal to a maximum forward voltage value (V 2 ) that the flat motor can bear when the flat motor is started, and wherein the V 0 is a rated voltage value of the flat motor. 7. The flat-motor drive circuit of claim 6 , wherein the voltage processing circuit comprises a boost circuit and a first circuit coupled to the boost circuit in parallel, wherein the boost circuit is configured to output the V 1 in the first time period and after receiving the first triggering instruction, and wherein the first circuit is configured to output the V 0 after receiving the first triggering instruction. 8. The flat-motor drive circuit of claim 7 , wherein the boost circuit comprises a first capacitor (C 1 ), a first resistor (R 1 ), and a boost chip, wherein a first end of the C 1 is coupled to the processor, wherein the C 1 is configured to receive the first triggering instruction from the processor, wherein a second end of the C 1 is grounded using the R 1 , wherein the second end of the C 1 is further coupled to an input end of the boost chip, wherein an output end of the boost chip is coupled to the flat motor, wherein the boost chip is configured to provide the V 1 to the flat motor, wherein the first triggering instruction is a voltage signal (V 3 ), and wherein a minimum working voltage value (V 4 ) of the boost chip is less than or equal to V 3 and V 3 is less than or equal to a maximum working voltage value (V 5 ) of the boost chip. 9. The flat-motor drive circuit of claim 8 , wherein the first circuit comprises a voltage stabilizing circuit and a first unidirectional conduction circuit coupled to the voltage stabilizing circuit in series, wherein an input end of the voltage stabilizing circuit is coupled to an output end of the processor, wherein an output end of the voltage stabilizing circuit is coupled to an input end of the first unidirectional conduction circuit, wherein an output end of the first unidirectional conduction circuit is coupled to an output end of the boost chip, wherein the first unidirectional conduction circuit is configured to prevent a current of the
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