GNSS Simulation Applications for Receiver, System and Research Validation
Explore controlled GNSS test workflows for aerospace and defense programs, autonomous and intelligent systems, engineering integration, and university research. Each application path connects the device under test, required signal conditions, system architecture, measurement workflow and recommended platform configuration.
Choose the Application Path That Matches Your Test Environment
Start with the platform, organization or system being validated. Each application page defines the typical device under test, controlled GNSS conditions, test architecture, measurement workflow and recommended platform configuration.
GNSS Validation for Mission-Critical Navigation Systems
Test aircraft, spacecraft, defense navigation systems, high-dynamics receivers and integrated PNT platforms under controlled, repeatable and measurable GNSS conditions.
GNSS Testing for Vehicles, UAVs and Intelligent Platforms
Validate navigation receivers, ECUs, autopilots and sensor-fusion systems for autonomous vehicles, UAVs, mobile robots and other unmanned platforms.
Integrate GNSS Simulation Into Automated Test Environments
Connect controlled GNSS simulation with receiver benches, HIL systems, external instruments, automation platforms and customer-specific acceptance environments.
Controlled GNSS Laboratories for Teaching and Research
Build repeatable teaching laboratories and controlled research testbeds for receiver experiments, positioning algorithms, navigation research and graduate education.
Not sure which path applies? Select the page that best matches the system or organization being validated. Specific tasks such as HIL testing, timing validation, recording and playback are handled through the associated GNSS solution path.
Find the Right Application by System Under Test
Start with the receiver, navigation controller, laboratory platform or complete system being validated. The recommended application path connects that system to the relevant test architecture, controlled scenarios and GNSS platform options.
GNSS Test Capabilities Used Across Applications
Different industries may validate different devices, but many rely on the same controlled GNSS test capabilities. Select the required workflow to move from the application context into the corresponding engineering solution or product family.
GNSS Signal Simulation
Generate repeatable GNSS RF signals, trajectories and navigation conditions for receiver, algorithm and system-level validation.
GNSS HIL Testing
Convert real-time motion and timing data from a dynamics, vehicle or plant model into trajectory-matched GNSS RF.
Signal Recording & Playback
Capture field GNSS RF environments and replay identical conditions for fault reproduction, comparison and regression testing.
Timing & Frequency Validation
Create controlled GNSS lock, outage, holdover and recovery states for timing receivers, disciplined clocks and frequency-reference systems.
Reception & Monitoring
Observe GNSS signal quality, navigation data, timing behavior and RF conditions for engineering analysis, monitoring and performance assessment.
Authorized Resilience Testing
Evaluate receiver detection, robustness, tracking loss and recovery behavior under controlled interference and spoofing-awareness conditions.
Select the Platform by Test Objective
Start with the required engineering outcome rather than the product model. Each path below maps a common GNSS test objective to the most relevant simulation, recording, monitoring, education or resilience platform.
Platform selection is objective-led, not model-led. Final configuration still depends on required constellations, signal frequencies, RF outputs, HIL interfaces, update rate, storage, synchronization and acceptance criteria.
From Application to Test Configuration
Move from the operational or research context to a defined GNSS test configuration. Each step narrows the test boundary before signals, licences, RF paths, interfaces and measurements are assigned to the final platform.
Define the Application
Identify the operational, research, laboratory or integration environment in which the GNSS test will be performed.
Identify the DUT
Define the receiver, navigation unit, controller, algorithm, timing device or complete integrated system under test.
Define Signals & Scenarios
Confirm constellations, frequency bands, trajectories, impairments, outages and other controlled navigation states.
Select the Test Architecture
Choose open-loop simulation, closed-loop HIL, recording and replay, reception monitoring or a combined test architecture.
Configure the Platform
Map the required signals, licences, RF paths, interfaces, update rates and measurements to the appropriate platform.
Plan the Application Before Selecting the Equipment
Use the available planning guides to define the validation objective, receiver metrics, test workflow and minimum platform requirements before finalizing the equipment configuration.
GNSS Receiver Validation Test Plan
Build a repeatable receiver validation workflow around defined metrics, scenario sets, controlled execution, logging and regression testing.
What Is a GNSS Simulator?
Understand GNSS signal simulation, receiver testing, repeatable RF scenarios and the role of simulators in engineering validation.
Explore Technical Resources
Review GNSS testing guides, application-oriented workflows, selection guidance, technical explanations and practical laboratory resources.
These document types will be added as verified product and technical materials become available.
Define the GNSS Test Path for Your Application
Share the application, device under test, required GNSS signals, test architecture and measurement objectives. Our engineering team will map the appropriate simulation, recording, monitoring, education or resilience platform to the required validation workflow.