SSR-IDC5

Description

The SSR-IDC5 is an Input Module for SSR designed by National Instruments, recognized for its reliability in interfacing with DAQ devices provided by the same manufacturer. As a part of the SSR Series, this module is engineered to work seamlessly with PCs and DAQ devices, particularly connecting via the SC-205x Series instrument. Its primary function is to sense digital voltage values from field-based sensors, effectively translating these values into TTL logic signals for further processing.

Focusing on its technical capabilities, the SSR-IDC5 features solid-state relays (SSR) and is built to handle DC input voltages (IDC), with a maximum input voltage capacity of 32 VDC. Utilizing optical isolation, the module ensures that interfacing between PCs and field devices maintains integrity and safety. It also employs a 50-pin connector to establish a secure connection to the SSR backplane.

Despite its obsolete status announced by National Instruments, the SSR-IDC5 Input Module remains accessible for those seeking to purchase or require repairs, thanks to the services provided by Apex Waves.

Question 1: What technical specifications and safety features does the SSR-IDC5 Input Module from National Instruments include to ensure reliable interfacing with field-based sensors and DAQ devices?
Answer 1: The SSR-IDC5 Input Module from National Instruments includes technical specifications such as solid-state relays for handling DC input voltages up to 32 VDC, and it incorporates safety features like optical isolation to maintain integrity and safety when interfacing between PCs and field devices, plus a 50-pin connector for secure connections to the SSR backplane.

Question 2: What is the function of the SSR-IDC5 Input Module and how does it ensure the safety and integrity of connections between PCs and field devices?
Answer 2: The SSR-IDC5 Input Module by National Instruments is designed to interface with DAQ devices, particularly through the SC-205x Series instrument, and it senses digital voltage values, converting them into TTL logic signals, with features like a maximum input voltage of 32 VDC, optical isolation, and a 50-pin connector for a secure connection. Despite its obsolescence, Apex Waves offers purchasing and repair services for this module, ensuring continued support for users who rely on it.

Question 3: What technical specifications and features define the SSR-IDC5 Input Module designed by National Instruments, and how does its obsolete status impact its accessibility for purchase or repair?
Answer 3: The SSR-IDC5 Input Module for SSR, designed by National Instruments, features solid-state relays, is capable of handling DC input voltages up to 32 VDC, offers optical isolation for safe interfacing between PCs and field devices, and connects via a 50-pin connector to the SSR backplane. Despite its obsolescence, Apex Waves supports users by offering purchase options and repair services for this module.

Question 4: What are the key functions and specifications of the SSR-IDC5 Input Module designed by National Instruments, and how does Apex Waves support users despite the module’s obsolete status?
Answer 4: The SSR-IDC5 Input Module designed by National Instruments is characterized by its ability to interface with DAQ devices, handle a maximum of 32 VDC input voltages, translate digital voltage values to TTL logic signals, and ensure safety through optical isolation, all while connecting via a 50-pin connector to the SSR backplane. Despite its obsolete status, the module remains available for purchase or repair through third-party suppliers like Apex Waves, ensuring continued accessibility for users in need of this specific input module.

Question 5: What are the key features and specifications of the SSR-IDC5 Input Module for SSR, and how does Apex Waves support users despite the product’s obsolete status?
Answer 5: The function of the SSR-IDC5 Input Module is to sense digital voltage values from field-based sensors and convert them into TTL logic signals for further processing, and it ensures the safety and integrity of connections between PCs and field devices through the use of optical isolation, which prevents electrical interference and signal corruption.