Software Platforms for GNSS Simulation, Training, and Navigation Workflow Support
Configure scenarios, generate observation datasets, model GNSS systems, rehearse fault states, and support UAV navigation/guidance verification with BGT1000 and NSS1000 software platforms.
Software platforms for modeling, training, and virtual navigation workflows.
Software Platforms provide scenario configuration, system simulation, training software, and virtual navigation workflow support. These platforms complement hardware test systems by providing software-based modeling, data generation, analysis, training, and virtual avionics simulation capabilities for GNSS system learning, data quality analysis, mission planning, fault diagnosis, and navigation/guidance verification workflows.
The family is intended for engineering teams, laboratories, universities, and system integrators that need repeatable software environments before moving into hardware connection, field test, or integrated system validation.
BGT1000 and NSS1000 cover different software workflows.
BGT1000 focuses on GNSS system simulation, observation data, and training workflows. NSS1000 focuses on UAV mission planning, virtual navigation equipment states, and navigation/guidance verification.
| Platform | Software Type | Primary Use | Simulation Focus | Best Fit |
|---|---|---|---|---|
| BGT1000 | GNSS System Simulation Training Software | GNSS system modeling, data quality analysis training, observation dataset generation, fault behavior demonstration | Constellations, orbits, ground stations, RNSS/RDSS observation data, controllable error injection, propagation effects, system fault simulation | GNSS training, system principle learning, data quality analysis, fault diagnosis workflows |
| NSS1000 | UAV Navigation System Simulation Software | UAV mission planning, navigation/guidance verification, fault-state rehearsal | Onboard navigation equipment states, output data, external information interaction, INS/GNSS integrated navigation, differential GNSS landing guidance, microwave landing guidance, radio navigation | UAV navigation workflow validation, mission planning, guidance verification, regression testing |
BGT1000
BGT1000 is system-level GNSS simulation and training software for modeling constellations, space environment, ground stations, observation data, and abnormal-factor scenarios. It supports troubleshooting verification, data quality analysis training, observation dataset generation, controllable error injection, and workflow demonstration for teams needing system principles and fault behavior.
Key Capabilities
- Models global constellations, orbits, and ground stations for BDS, GPS, Galileo, and GLONASS.
- Supports RNSS and RDSS observation data simulation for training and analysis workflows.
- Provides controllable error injection, propagation-effect modeling, and system fault simulation.
- Includes graphical principle demonstration workflows for data generation and processing.
- Visualizes monitoring station, receiver, and RDSS subsystem concepts for training use.
Functional Summary
| Constellations | BDS / GPS / Galileo / GLONASS |
| Observation | RNSS / RDSS dataset simulation |
| Error Injection | Controllable model and magnitude |
| Platform | PC software / training workflow |
NSS1000
NSS1000 is virtual navigation simulation software for UAV mission planning, navigation/guidance verification, and fault-state rehearsal. It digitally simulates UAV onboard navigation equipment states, output data, and external information interactions, and supports INS/GNSS integrated navigation, differential GNSS landing guidance, microwave landing guidance, radio navigation, and regression validation.
Key Capabilities
- Supports flight, inertial navigation, GNSS navigation, and integrated INS/GNSS navigation simulation.
- Models differential GNSS landing guidance, microwave landing guidance, and radio navigation workflows.
- Provides precision ranging, antenna characteristic effects, and external information interaction.
- Supports fault-state simulation for verification, troubleshooting, and training rehearsal.
- Enables scenario-based validation for UAV mission planning and navigation/guidance algorithms.
Functional Summary
| Navigation Types | INS / GNSS / Integrated / Radio |
| Guidance | Differential GNSS / Microwave landing |
| Fault Simulation | Fault-state rehearsal and verification |
| Platform | PC software / HIL-SIL preparation |
Reusable software functions for simulation, training, and verification workflows.
System Modeling
Build constellation, orbit, ground station, receiver, and navigation equipment models for system-level learning and analysis.
Observation Data Generation
Generate RNSS/RDSS observation datasets and related outputs for training, data quality analysis, and troubleshooting exercises.
Error & Fault Simulation
Inject controllable errors, propagation effects, abnormal factors, and fault states for repeatable diagnosis and verification.
Training & Visualization
Use graphical workflows to demonstrate GNSS principles, subsystem interactions, data generation, and processing logic.
UAV Navigation Simulation
Simulate onboard navigation equipment states, output data, external information interaction, and UAV navigation workflows.
Verification Support
Support mission planning, algorithm rehearsal, navigation/guidance verification, regression testing, and HIL/SIL preparation.
Software environments for GNSS education, analysis, and virtual navigation engineering.
GNSS Data Quality Analysis Training
Teach observation dataset generation, analysis methods, and data quality behavior using controlled software scenarios.
Fault Diagnosis & Troubleshooting
Create repeatable abnormal-factor and fault-state cases for troubleshooting exercises and system behavior review.
UAV Mission Planning & Development
Prepare mission planning, navigation states, and virtual equipment interaction before hardware or field integration.
Virtual Avionics Simulation
Represent onboard navigation equipment output and external interaction processes for workflow verification.
Constellation & Ground Segment Modeling
Model constellations, orbits, ground stations, and receiver concepts to support GNSS system principle learning.
Navigation/Guidance Verification
Use software scenarios for integrated navigation, landing guidance, radio navigation, and regression validation.
A controlled workflow for scenario configuration and software-based validation.
The platforms support repeatable software workflows from initial objective definition through scenario setup, data generation, fault rehearsal, and verification output review.
Define Objective
Clarify training, analysis, mission planning, or verification goals.
Select Platform
Choose BGT1000 for GNSS system simulation or NSS1000 for UAV navigation workflows.
Configure Scenario
Set constellations, navigation states, ground elements, errors, and fault conditions.
Generate Outputs
Create observation datasets, output states, visualization flows, or verification cases.
Analyze Behavior
Review data quality, fault response, navigation behavior, or guidance logic.
Prepare Next Test
Export learning cases or prepare HIL/SIL and hardware integration workflows.
Information needed before platform selection.
Software platform selection depends on the target training or verification workflow, the navigation system scope, and the required outputs.
Training Objective
Define whether the program is focused on GNSS principles, data quality analysis, mission planning, or fault diagnosis.
Target Systems
List the target constellation, navigation system, receiver concept, UAV platform, or integrated navigation workflow.
Data Requirements
Identify required observation data, output states, reports, visualization needs, and dataset export expectations.
Fault States
Specify error models, abnormal-factor scenarios, propagation effects, or navigation fault states to rehearse.
Workflow Context
Confirm classroom, laboratory, HIL/SIL preparation, engineering workstation, or hardware integration context.
Verification Scope
Clarify mission planning, navigation/guidance algorithm checks, regression testing, or troubleshooting outputs.
Integration Needs
Identify whether software outputs must support downstream hardware systems, reports, or repeatable test cases.
User Environment
Confirm number of training users, workstation setup, classroom delivery needs, and software deployment environment.
Need help selecting a simulation or training software platform?
Send your training objective, target constellation or navigation system, observation data requirements, error or fault-state scenarios, UAV mission or navigation workflow, HIL/SIL or classroom deployment context, and required reports or dataset outputs. Our team can help map the requirement to BGT1000, NSS1000, or a combined software and hardware workflow.