Which projects fit?
For lunar mission concepts, ground software verification, resource scheduling comparisons and collaborative rehearsals. Start with one transport or inspection mission.
Lunar Base Ops Twin
Lunar surface operations digital twins: workflows demonstrated against acceptance criteria
Support lunar-surface mission proof of concept and operational workflow simulation.
What we provide
Lunar twins align missions, resources, terrain and robot behavior in consistent time and coordinate systems. New Horizon scopes operations rehearsal, vehicle and facility states, mission replay and specialist interfaces, distinguishing concept demonstrations, numerical verification and empirical calibration.
Last updated: 2026-10-13 · New Horizon Digital Outsourcing Team
View delivery and acceptance detailsCapability Highlights
- Demonstrable Lunar Surface Scenes
- Configurable Operational Workflows
- Integration with Autonomous Robot Driving Agents
Typical deliverables
- Lunar Surface/Base Scene
- Operational Workflow Orchestration
- Collaborative Demonstration
- Handover Documentation
Delivery workflow
- 01 Confirm the Mission Concept
- 02 Scenes and Workflows
- 03 Integrated Demonstration
- 04 Acceptance
Other Capabilities in This Domain
Implementation References for This Domain
Explore implementation guides and case studies to understand input requirements, technical approaches, delivered assets, and methods for evaluating outcomes.
Knowledge Guides
- How do you calibrate a robot digital twin, and why does its motion fail to match?
- How much detail does a robot-arm workstation digital twin need?
- How do you synchronize a UAV swarm digital twin and distinguish simulation from physical aircraft?
- How can a lunar exploration digital twin balance visual quality and physical credibility?
Case Studies
Engineering delivery brief
How is credibility scoped for lunar base and rover twins?
What inputs are needed?
Provide mission profiles, equipment constraints, terrain and illumination sources, energy budgets, communication assumptions and environmental parameters. Soil-wheel, thermal and dust models need provenance and calibration conditions.
Applicability and Limits
Concept scenes and ground tests do not establish lunar mission reliability. Retain uncertainty for unsupported soil or environment parameters; visual realism cannot replace mechanics and mission validation.
What drives time and cost?
Terrain extent, coupling depth, equipment fidelity, mission count and compute budgets determine effort. Validate components or individual missions before multi-asset operations.
Deliverables and acceptance
Scene and assumption register
Acceptance Evidence
State environmental sources, coordinates, time, applicable scales and omitted factors.
Mission and resource models
Acceptance Evidence
Replay events and inspect energy, communication, waiting and conflict records.
Specialist model verification package
Acceptance Evidence
Fix materials, steps, loads and initial states; separately report numerical checks, calibration and unverified conclusions.
Related case study
Lunar Rover Virtual–Physical Comparison and Surface Environment Validation
Support robot software, perception, and mission validation by comparing ground-based lunar-surface simulation tests with virtual scenarios.
Read the full case studyFurther Reading and Technical References
Related standards and technical documentation for solution selection and implementation.
Discuss Lunar Base Operations Digital Twin Services
Describe your stage objectives and constraints (without classified details), and we will provide scope recommendations and a deliverables list.