The 5 kW BLDC motor controller for 48V/96V electric vehicles is a high-performance solution for electric vehicles, motorcycles, and boats. With a power rating of 5,000 watts and compatibility with 48V and 96V systems, it delivers reliable motor control and supports sensors like Hall, photoelectric, and magnetic encoders. Housed in a V-0 flame retardant casing with IP66 protection, it ensures durability, and its ARM 32-bit Cortex-M4 processor optimizes performance while safeguarding the motor from thermal damage.
Specification
| Model |
BLDC-EZ-A48500 |
BLDC-EZ-A96400 |
| Rated Voltage |
48V |
96V |
| Rated Power |
5kW |
5kW |
| Max Voltage |
75V |
130V |
| Max Phase Current |
500A |
400A |
| Rated Phase Current |
200A |
160A |
| Max Bus Current |
250A |
200A |
| Weight |
3.5 kg |
2.8 kg |
Features
- 5 kW BLDC electric car motor controller has built-in Bluetooth, which can monitor the status of the controller in real-time with the host software.
- 48V and 96V motor controllers support communication protocols: CAN-BUS, RS485, UART, etc.
- Electric car motor controller has the support of automatic motor matching.
- Electric car motor controller is compatible with various motor sensors: Hall, photoelectric encoder, magnetic encoder, etc.
- Precise bus current control to protect controller battery life from over-discharge.
- Motor controller torque, speed, and power can be set individually.
- Integrated DC contactor control circuits, and other modes are also available.
Wiring Diagram with DC Contactor
Wiring Diagram without DC Contactor
Dimension (Unit: mm)
Applications
5 kW electric vehicle motor controllers are suitable for cars, motorcycles, golf carts, ATVs, UTVs and yachts.
Q: How to reduce BLDC motor noise?
A: To reduce noise in a BLDC motor, it's important to optimize the motor control strategy and address the root causes of acoustic emissions. Using Field-Oriented Control (FOC) and smooth PWM control, such as sinusoidal or space vector modulation, helps minimize torque ripple and ensures smoother motor operation, thereby reducing noise. Additionally, lowering the switching frequency of the inverter can reduce high-frequency noise, although this may affect performance in some cases. Implementing proper motor design, including selecting high-quality bearings and minimizing mechanical vibrations, also plays a crucial role in minimizing noise. Lastly, ensuring that the motor runs within its optimal operating range can reduce unnecessary stress and prevent excessive noise generation.
