Bently Nevada 3500/20 | Framework Interface Module

Bently Nevada 3500/20 Framework Interface Module

· Physical characteristics: Height is 9.5 inches, width is 0.96 inches, depth is 9.52 inches, weight is approximately 0.91 kilograms, can be installed through a base plate or guide 

rail, base plate installation size is 51mm x 51mm, fixed with four M4 x 12 GB 29-76 bolts.

· Power consumption: The typical power consumption is 4.75 watts.

· Current: The maximum current from the dry contact to the common terminal is<1mA dc.

· Communication interface: The front panel and rear I/O modules have RS-232/RS-422 serial interfaces, with a maximum baud rate of 38.4k for the RS-232 interface and a 

maximum cable length of 30m; The RS-422 interface has a maximum baud rate of 38.4k, a cable length of up to 1200m, and supports chain communication between multiple 

3500 frameworks and 3500 host software.

· Compatibility: It supports compatible Bently Nevada external communication processors such as TDXnet and TDIX, and supports two rack interface types: standard 

RIM (for standard monitoring) and TMR RIM (only applicable to applications requiring three module redundancy configuration).

· System configuration and information management: As the basic interface of the Bently 3500 framework, it supports proprietary protocols used by Bently Nevada for 

framework configuration and retrieving information from the unit. It can perform operations such as configuring, retrieving, reading, and writing rack and machine 

information, ensuring the accuracy and security of rack and machine information.

· Connect Communication Processor: Provide the necessary connections to support the current Bently Nevada communication processors, such as TDXnet, TDIX, and DDIX, 

for data communication and information exchange, enabling the 3500 system to interact and integrate with other devices or systems.

· Data acquisition and transmission: When used in conjunction with M-series monitors (such as 3500/40M, 3500/42M, etc.), it can continuously collect steady-state and 

transient waveform data, and transmit the data to the main computer software through Ethernet, providing data support for equipment status monitoring and fault 

diagnosis.