• F3231 | digital volume control board  | Provides powerful processing power
  • F3231 | digital volume control board  | Provides powerful processing power

F3231 | digital volume control board | Provides powerful processing power

No.F3231
The HIMA F3231 is a digital volume control board with a range of features and functions. the power input connectors for the HIMA F3231 are two-pin, screw connectors L+ and L-. Its power requirements are specified as L+ and L-24 V nominal inputs, varying between 19.2 V DC and 30 V DC.
  • F3231 | digital volume control board  | Provides powerful processing power
Desciption
The HIMA F3231 is a digital volume control board with a range of features and functions. The following is a detailed description of HIMA F3231:

First, the power input connectors for the HIMA F3231 are two-pin, screw connectors L+ and L-. Its power requirements are specified as L+ and L-24 V nominal inputs, varying between 19.2 V DC and 30 V DC. This provides a stable power supply to ensure the normal operation of the board.

In terms of power consumption, the HIMA F3231 has a current consumption of 50 mA, a maximum of 70 mA, and a power consumption of 1.2 W. This allows it to effectively manage energy use and reduce energy consumption when running in industrial automation systems.

The HIMA F3231 is rated IP20 and complies with EN60529 and IEC 529 standards, which ensures its reliability and safety in a variety of industrial environments. In addition, it weighs 700 g (1.5 lb) and is a modest size, making it easy to install and integrate into a variety of systems.


In terms of functionality, the HIMA F3231 is equipped with the MPC862P microprocessor, which operates at up to 96 MHz, providing powerful processing power. At the same time, it also has overvoltage protection and internal voltage monitoring functions, so as to effectively protect the board from voltage anomalies.

In addition, the HIMA F3231 has hot swappable and redundancy capabilities, which further improves system reliability and flexibility. Hot swap allows for the replacement of a board without interrupting system operation, while redundancy ensures that in the event of a failure of one board, the other can seamlessly take over, guaranteeing continuous system operation.