Integral joint driver of humanoid robot
A humanoid robot and joint technology, applied in manipulators, joints, manufacturing tools, etc., can solve the problems of poor control of power density, heavy weight, and large joint driver volume, and achieve a wide range of output power, light weight and small size. Effect
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specific Embodiment approach 1
[0011] Specific implementation mode one, combine figure 1 To illustrate this embodiment, the humanoid robot integrated joint drive control system includes a power board 1, a control board 2 and a drive control power supply 3,
[0012] The power board 1 includes a DC-DC converter 1-1, a three-phase inverter bridge circuit 1-2, a bus voltage detection circuit 1-3, a drive / overcurrent protection circuit 1-4, a current detection circuit 1-5 and drive control interface circuit 1-6, the first inverter sampling coil L1 and the second inverter sampling coil L2,
[0013] The control panel 2 includes a DSP controller 2-1, a code disc processing module 2-2, an SCI interface circuit 2-3, a CAN interface circuit 2-4 and a power interface circuit 2-5,
[0014] The DC-DC converter 1-1 and the three-phase inverter bridge circuit 1-2 are connected in parallel between the positive and negative poles of the input DC power supply, and the output terminal of the DC-DC converter 1-1 is connected...
specific Embodiment approach 2
[0024] Specific implementation mode two, to combine figure 1 Describe this embodiment, the difference between this embodiment and the first embodiment is that the humanoid robot integrated joint drive control system also includes an EEPROM memory 2-6, and the communication port of the EEPROM memory 2-6 and the DSP controller 2-1 communication port connected.
[0025] The EEPROM memory 2-6 is interconnected with the DSP controller 2-1, and is used for storing control parameters. When the driver is initialized, the appropriate control parameters can be called independently. When the driver is running, it can load appropriate control parameters from EEPROM memory 2-6 as needed to achieve the best performance.
specific Embodiment approach 3
[0026] Specific implementation mode three, to combine figure 2 Describe this embodiment. This embodiment is a further description of the drive control power supply 3 in the first specific embodiment. The drive control power supply 3 includes a first step-down converter 3-1, a second step-down converter 3-2 and a third step-down converter 3-1. Step-down converter 3-3, the input terminal of the first converter 3-1 is connected to the input terminal of the external DC voltage, the first converter 3-1 converts the voltage to 12.5V, and the second step-down converter 3- 2 is connected to the output of the first converter 3-1, the second step-down converter 3-2 converts the voltage to 5V, and the input of the third step-down converter 3-3 is connected to the second converter 3-3 The output terminals of -2 are connected, and the third step-down converter 3-3 outputs voltages of 3.3V and 1.8V.
[0027] The drive control power supply 3 adopts a step-down cascade structure design to...
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