SIGnal Workbench

Flexible, programmable signal conditioning and fault insertion solutions

Let us know what you’re interested in and what brings you to Concurrent Real-Time. By submitting this form, you are confirming you agree to share your personal information with Concurrent Real-Time to use for this business request. You may unsubscribe at any time, and further details can be found in Concurrent Real-Time’s privacy notice located here: Privacy Policy

SIGnal Workbench is a powerful, fully integrated signal conditioning and data acquisition solution for aerospace, defense, and high-performance test environments. Designed for applications that require real-time signal processing, fault insertion, and hardware-in-the-loop (HiL) simulation, SIGnal Workbench provides unmatched flexibility, precision, and scalability.

With high-speed data acquisition, programmable signal conditioning, and real-time computing, SIGnal Workbench is the go-to solution for engineers and researchers working with engine testing, rotating machinery, control systems, and embedded hardware validation.

Modular architecture supports tailored configurations for any test environment.

Runs on Concurrent iHawk multiprocessing platforms with RedHawk Linux for deterministic, low-latency processing.

SIGnal Workbench simplifies test automation, fault simulation, and precision measurement in complex environments, making it ideal for automotive ECU testing, aerospace subsystems, and industrial data acquisition applications.

SIGnal Workbench is designed to meet the demands of high-speed, real-time signal conditioning with a modular, flexible architecture that supports a wide range of applications.

  • Expandable with up to 8 signal conditioning cards per chassis
  • GPSC (General-Purpose Signal Conditioning) cards with up to 16 signal lines per card
  • FISC (Fault Insertion Signal Conditioning) cards with 4 or 8 FIS signal lines
  • Supports automotive ECU testing, aerospace sensor validation, and HIL simulation
  • Front-mounted breakout points for real-time fault injection and testing
  • Deterministic real-time processing for precision data acquisition
  • 32-channel, 24-bit Sigma-Delta analog input boards (216K samples/sec per channel)
  • PCI & PCIe simultaneous sampling input cards for flexible configurations
  • Unlimited engineering plots for frequency & time-domain analysis
  • Remote monitoring allows users to observe test results from any location

SIGnal Workbench is engineered for high-performance signal processing in automotive, aerospace, energy, and industrial testing applications.

  • Avionics sensor testing with high-speed data acquisition
  • Rotating machinery diagnostics for turbines & propulsion systems
  • Real-time telemetry & fault detection for flight systems
  • HiL simulation for real-time control system validation
  • Fault insertion for stress testing automotive ECUs
  • Sensor & actuator signal conditioning for advanced driver-assist systems (ADAS)
  • Power generation & turbine monitoring
  • Dynamic data acquisition for rotating equipment
  • Vibration analysis & predictive maintenance
  • University & laboratory experiments in real-time signal processing
  • Custom-configurable test platforms for cutting-edge research
  • Advanced simulation & modeling for embedded systems development

Videos

Blogs & News

Related Articles

  • Diagram showing software staying the same while hardware changes: Guest OS + Application on RedHawk KVM-RT Host, with Hardware Gen 1 retired, Gen 2 in production, and Gen 3 planned refresh.

    Preserving Legacy Real-Time Applications Through Virtualization

    Preserving Legacy Real-Time Applications Through Virtualization Real-time applications often remain in service much longer than the hardware on which they were originally developed. Test…

    Read more

  • Diagram comparing native RedHawk Linux (left) and RedHawk KVM-RT virtualization (right) with application layer and real-time workload on both sides.

    Native Real-Time Linux vs. Real-Time Virtualization: Which Architecture Fits Your Application?

    Native Real-Time Linux vs. Real-Time Virtualization: Which Architecture Fits Your Application? Virtualization is now common in enterprise computing, but timing-sensitive systems introduce requirements that conventional…

    Read more

  • Diagram of NUMA placement: keep Cores, Memory, and PCIe device in one node (local placement). Cross-node placement is discouraged (Node 0 and Node 1).

    How CPU Shielding, NUMA, and Interrupt Affinity Affect Real-Time Virtual Machines

    How CPU Shielding, NUMA, and Interrupt Affinity Affect Real-Time Virtual Machines Running a real-time operating system inside a virtual machine does not automatically create…

    Read more

Get in touch

Get guaranteed real-time performance

Join industry leaders in choosing the leading open-source real-time operating system available. Talk to an expert and get a real-time solution that fits your needs.

Contact an Expert