# NASA Tests Autonomous Landing Technology for Future Lunar Missions

New navigation system enables spacecraft to detect hazards and land safely on planetary surfaces.

- **Source:** [NASA – Recently Published](https://www.nasa.gov)
- **Published:** 2026-11-04
- **Topic:** [science](https://brifing.si/c/science)
- **Original article:** <https://www.nasa.gov/centers-and-facilities/armstrong/nasa-navigation-experiment-shows-promise-for-planetary-landings/>
- **On Brifing:** https://brifing.si/s/7b4b1224-8b80-4a15-8a03-24606ec22f3c

## Autonomous Landing Technology Demonstration

NASA successfully tested the Safe and Precise Landing – Integrated Capabilities Evolution (SPLICE) system on August 27. The experiment utilized an Alta-X drone to simulate lunar descent and landing maneuvers at Rogers Dry Lake in California. This technology aims to provide spacecraft with the ability to autonomously navigate toward safe landing sites.

## Hazard Detection and Mapping

The SPLICE payload functions by generating high-resolution digital elevation maps using light-detection and sensor data. If the system identifies a potential hazard or determines a targeted landing area is unsafe, it automatically diverts the vehicle to a more secure location. This capability is essential for ensuring successful touchdowns on rugged planetary surfaces.

## Development and Integration Process

Researchers at the Johnson Space Center in Houston developed the SPLICE payload over nearly a decade. Specialists at NASA Armstrong integrated the system onto the Alta-X drone, conducting rigorous flight tests throughout June and July. These preliminary sessions verified critical data handling, telemetry, and command-control performance before the full-scale flight demonstration occurred.

## Advancing Technology Readiness Levels

Project manager Davis Adams noted that this flight test marks the culmination of ten years of research. The successful validation of these guidance systems raises the technology readiness level, preparing the hardware for integration into future robotic and crewed lunar missions. The system is designed for both terrestrial, lunar, and Martian descent applications.

## Commercial Industry Collaboration

NASA is actively coordinating with commercial lunar lander providers to implement iterations of SPLICE into their platforms. Several companies slated for upcoming Moon Base missions are leveraging data collected through the SPLICE development process. These partnerships aim to facilitate soft touchdowns on the lunar surface by utilizing NASA’s advanced navigation and sensor expertise.

## Software Catalog and Future Availability

The agency plans to make the SPLICE system available in the official NASA software catalog this fall. Industry partners are currently evaluating the navigation capabilities for precision landing applications and potential extensions for autonomous surface mobility. This release will allow commercial entities to incorporate proven guidance technology into their own spacecraft designs.

## Foundational Flight Opportunities

The Flight Opportunities project at NASA Armstrong provided the initial support that allowed SPLICE to advance through its early development stages. Previous testing milestones included a 2019 flight simulating lunar descent trajectories and the 2020 demonstration of two precision landing sensor systems. These early efforts established the foundation for the current successful flight.

## Strategic Importance for Exploration

Precision landing remains a critical requirement for the success of future missions to the Moon and Mars. By automating the hazard detection and landing process, NASA reduces the risk associated with complex planetary arrivals. This technology represents a significant step toward establishing sustainable, long-term human and robotic presence on other celestial bodies.

## Sources covering this story

- https://www.nasa.gov/centers-and-facilities/armstrong/nasa-navigation-experiment-shows-promise-for-planetary-landings/ — 

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_Summary written by Brifing from the original reporting. Copyright in the original article belongs to its publisher; read the full piece at the link above._
