NI 787289‑02 sbRIO‑9683 Single‑Board RIO OEM Controller

The NI 787289‑02 is the OEM‑kit version of sbRIO‑9683 single‑board reconfigurable RIO controller from National Instruments. It integrates multi‑core processor and Xilinx FPGA on a compact single‑board hardware, supporting deterministic real‑time operation and customizable FPGA logic for embedded control, data acquisition and hardware‑in‑the‑loop simulation applications.

This board‑level OEM controller is designed for system integration without complete enclosure. It supports C‑series mezzanine I/O modules expansion, LabVIEW Real‑Time and LabVIEW FPGA programming environment. It provides rich industrial interfaces for custom embedded automation and test‑measurement systems. As aftermarket spare parts, it is widely used for maintenance, replacement and retrofit of industrial test benches, embedded control and HIL simulation equipment.

Main Specifications

1. Brand: NI (National Instruments); Model: 787289‑02; Type: sbRIO‑9683 OEM Single‑Board RIO Controller
2. Compatible System: LabVIEW Real‑Time, LabVIEW FPGA, C‑Series mezzanine I/O modules, sbRIO accessory kits
3. Core Functions: Real‑time embedded processing, reconfigurable FPGA logic execution, C‑series I/O expansion, multi‑protocol data communication, high‑speed signal acquisition, deterministic control loop execution, fault self‑diagnosis
4. Port Resource: Gigabit Ethernet ports, USB interfaces, serial ports, C‑series mezzanine expansion connectors, power input interface, general‑purpose digital I/O pins
5. Supported Feature: OEM board‑level form factor, industrial wide temperature range, real‑time OS support, FPGA custom logic, high‑speed parallel I/O, LabVIEW driver support
6. Hardware Feature: Compact OEM single‑board form factor, passive cooling, board‑level integration for system embedding, industrial‑grade measurement‑control hardware
7. Supply Status: Aftermarket spare part for legacy sbRIO embedded control and test‑measurement system maintenance and component replacement

Core Functions

1. Run real‑time operating system on multi‑core processor to execute deterministic embedded control, data logging and host communication tasks.
2. Carry out custom‑defined parallel logic on onboard FPGA to realize high‑speed hardware‑timed signal acquisition, pulse generation and trigger logic.
3. Support connection with C‑series mezzanine I/O modules to expand analog input/output, digital I/O and special‑function measurement channels.
4. Provide Gigabit Ethernet, USB and serial interfaces for host communication, firmware download, data transmission and system debugging.
5. Support LabVIEW FPGA and Real‑Time development environment for users to customize control algorithm and measurement logic rapidly.
6. OEM board‑level design allows being embedded into user‑designed equipment chassis for customized industrial test and control system integration.

Application Scenarios

1. Embedded control core for industrial test‑bench, hardware‑in‑the‑loop simulation, machinery automation and custom measurement equipment.
2. Fault controller‑board replacement and routine maintenance of existing sbRIO‑based embedded automation and test systems.
3. Controller hardware upgrading and technical transformation for aging legacy custom test‑measurement and embedded control systems.
4. Emergency swap for single‑board controller failure of continuously‑running industrial test and simulation facilities.
5. Spare‑parts stocking for R&D and automation‑maintenance teams supporting NI sbRIO series embedded control products.
6. Aftermarket spare supply for test‑system retrofit and technical‑service projects of industrial automation and research‑laboratory facilities.

FAQ

1. Q: Can NI 787289‑02 work independently without matched I/O accessories and LabVIEW runtime?
   A: It is OEM board‑level controller, needs matched power supply, mezzanine accessories and LabVIEW runtime environment, cannot operate as standalone hardware.
2. Q: What are typical module failure symptoms?
   A: Controller boot failure, FPGA logic loading error, Ethernet communication breakdown, I/O expansion channel abnormal, real‑time task runtime crash.
3. Q: How to complete commissioning and diagnosis?
   A: Inspect power input and connector contacts; use LabVIEW Real‑Time and FPGA tools to check device status, system log and fault information.