Our company’s 800kW adjustable power supply incorporates innovative control methods.  Each aims at enhancing performance and ensuring precise control:

1) control mode

1.1. Multi-Channel Independent Output Power Closed-Loop Control:

This mode allows each module to independently monitor and adjust its output power to adapt to load requirements. It is a key control strategy for achieving system scalability and fault tolerance.

1.2. Multi-Channel Independent Output Voltage Closed-Loop Control:

In this mode, each module can monitor and adjust its output voltage to ensure it stays within specified limits. It is ideal for applications demanding precise voltage control. They like medical equipment and precision instruments.

1.3. Multi-Channel Independent Output Current Closed-Loop Control:

This mode is designed for applications requiring precise current control, such as electroplating and electrochemical reactions.

1.4. Module Coordination:

The purpose of this mode is to ensure load balance, and pressure regulation precision, and to cut the high-order harmonics on the grid side.

1.5. Multi-Mode Output:

The system supports constant voltage, current, and power modes, providing customizable output options.

The following will explain each mode one by one.

2. Analyzing Multi-Channel Independent Closed-Loop Control

In the context of multi-module power systems, multiple independent output power closed-loop control is a crucial strategy. This mode allows each module to autonomously monitor and adjust its power output. Make sure the system maintains a power balance. This is critical for applications where reliability and availability are critical, such as large data centers and industrial production lines. This control strategy further reduces energy waste. It improves energy efficiency.

3. Multi-Channel Independent Output Voltage Closed-Loop Control

Another common control mode for power systems is multi-channel independent output voltage closed-loop control. In this mode, each module can monitor and adjust its output voltage to ensure it stays within specified ranges. This is essential for applications requiring precise voltage regulation, like medical devices and precision instruments. It allows the system to adapt quickly to changing load voltage requirements. And it ensures consistent equipment operation.

4. Multi-channel independent output current closed-loop control

It is designed for applications requiring precise control of output current. Often used in electroplating and electrochemical reactions. This control strategy ensures that the system meets the current demands of the load while preventing the current from exceeding safe limits. It significantly enhances system reliability and security.
5. Module coordination

Module coordination is crucial to ensure load balance, voltage regulation accuracy, and minimize grid-side high-order harmonics. This approach enables dynamic load distribution. It extends system life. And it reduces maintenance costs and increases system availability.

6. Multi-mode output

It can operate in different output modes, including constant voltage, constant current, and constant power. It makes the system highly adaptable to various load requirements. Whether maintaining stable voltage, constant current, or constant power output, these control strategies collectively improve system performance, availability, and energy efficiency.

Incorporating these control methods into our 800kW adjustable power supplies provides flexibility and reliability for a variety of applications. This comprehensive control method enables load balancing. It also enables precise control of power and minimizes grid disturbance. So it is suitable for a variety of applications such as large data centers and precision instruments. Finally, it enhances system performance and usability. Energy waste is also reduced. The overall energy efficiency is improved.