Autonomous Deep-Space Optical Navigation Project

<p>Every one of the future exploration architectures being considered by NASA have, at their core, the need to rendezvous and dock with other vehicles or bodies.&nbsp; Future manned vehicles need to be able to do so with both cooperative and uncooperative vehicles and objects.&nbsp; To this end, the sensors being considered are all optical-based.&nbsp; In fact, passive sensors, such as IR cameras and visual cameras, are at the heart of any exploration architecture.&nbsp; There is a need for the onboard systems to be able to use the images provided by these sensors to rendezvous and dock/capture these objects.&nbsp; Therefore, this project will develop this capability to operate around a variety of objects, without a priori knowledge of their geometry.&nbsp; In particular, a technology called &lsquo;optical flow&rsquo; or &lsquo;visual odometry&rsquo; (VO), will be harnessed to develop a robust on-board capability using passive sensors; of course, if active sensors are available, they will be used as well. In fact, we will also apply this technique to navigating around a cratered object (such as an asteroid). This project will enhance the Agency&rsquo;s ability to operate at distant locations, without the need for ground intervention.</p><p>To date, all of the on-board navigation development performed has focused on either Low Earth Orbit (LEO) or Low Lunar Orbit (LLO).&nbsp; We seek to advance deep-space navigation technology by focusing this Internal Research and Development (IRAD) upon rendezvous and navigation in a weak gravity environment, either at Lagrangian point 2 (L2) or around an asteroid.&nbsp; Of course, this will apply to any destinations that have a strong gravity field as well.&nbsp; As well, the technology developed in this Internal Research and Development will apply to rendezvousing with vehicles such as ISS.&nbsp; We choose to focus our IRAD effort on the navigation algorithms and software for the ARCM DRO Mission, thus broadening our scope, maintaining our cutting-edge capability, and advancing US manned space exploration.&nbsp; The goal is to be flexible enough to meet the needs of the NASA vision, as it applies to any destination the Agency chooses to embark upon.</p><p>&nbsp;</p>

Data and Resources

Field Value
accessLevel public
bureauCode {026:00}
catalog_@context https://project-open-data.cio.gov/v1.1/schema/catalog.jsonld
catalog_@id https://data.nasa.gov/data.json
catalog_conformsTo https://project-open-data.cio.gov/v1.1/schema
catalog_describedBy https://project-open-data.cio.gov/v1.1/schema/catalog.json
identifier TECHPORT_13760
issued 2013-12-01
landingPage http://techport.nasa.gov/view/13760
modified 2020-01-29
programCode {026:000}
publisher Space Technology Mission Directorate
references {http://techport.nasa.gov/home,http://techport.nasa.gov/doc/home/TechPort_Advanced_Search.pdf,http://techport.nasa.gov/fetchFile?objectId=6561,http://techport.nasa.gov/fetchFile?objectId=3456,http://techport.nasa.gov/fetchFile?objectId=3447,http://techport.nasa.gov/fetchFile?objectId=6584,http://techport.nasa.gov/fetchFile?objectId=6560,http://techport.nasa.gov/fetchFile?objectId=3448}
resource-type Dataset
source_datajson_identifier true
source_hash c3e25c5128cc0920a3363389d62dfc2307103df3
source_schema_version 1.1
temporal 2013-12-01T00:00:00Z/2014-12-01T00:00:00Z
Groups
  • AmeriGEOSS
  • National Provider
  • North America
Tags
  • active
  • amerigeo
  • amerigeoss
  • ckan
  • geo
  • geoss
  • johnson-space-center
  • national
  • north-america
  • project
  • united-states
isopen False
license_id notspecified
license_title License not specified
maintainer Ronald G Clayton
maintainer_email ronald.y.leung@nasa.gov
metadata_created 2025-11-21T14:18:11.027373
metadata_modified 2025-11-21T14:18:11.027376
notes &lt;p&gt;Every one of the future exploration architectures being considered by NASA have, at their core, the need to rendezvous and dock with other vehicles or bodies.&amp;nbsp; Future manned vehicles need to be able to do so with both cooperative and uncooperative vehicles and objects.&amp;nbsp; To this end, the sensors being considered are all optical-based.&amp;nbsp; In fact, passive sensors, such as IR cameras and visual cameras, are at the heart of any exploration architecture.&amp;nbsp; There is a need for the onboard systems to be able to use the images provided by these sensors to rendezvous and dock/capture these objects.&amp;nbsp; Therefore, this project will develop this capability to operate around a variety of objects, without a priori knowledge of their geometry.&amp;nbsp; In particular, a technology called &amp;lsquo;optical flow&amp;rsquo; or &amp;lsquo;visual odometry&amp;rsquo; (VO), will be harnessed to develop a robust on-board capability using passive sensors; of course, if active sensors are available, they will be used as well. In fact, we will also apply this technique to navigating around a cratered object (such as an asteroid). This project will enhance the Agency&amp;rsquo;s ability to operate at distant locations, without the need for ground intervention.&lt;/p&gt;&lt;p&gt;To date, all of the on-board navigation development performed has focused on either Low Earth Orbit (LEO) or Low Lunar Orbit (LLO).&amp;nbsp; We seek to advance deep-space navigation technology by focusing this Internal Research and Development (IRAD) upon rendezvous and navigation in a weak gravity environment, either at Lagrangian point 2 (L2) or around an asteroid.&amp;nbsp; Of course, this will apply to any destinations that have a strong gravity field as well.&amp;nbsp; As well, the technology developed in this Internal Research and Development will apply to rendezvousing with vehicles such as ISS.&amp;nbsp; We choose to focus our IRAD effort on the navigation algorithms and software for the ARCM DRO Mission, thus broadening our scope, maintaining our cutting-edge capability, and advancing US manned space exploration.&amp;nbsp; The goal is to be flexible enough to meet the needs of the NASA vision, as it applies to any destination the Agency chooses to embark upon.&lt;/p&gt;&lt;p&gt;&amp;nbsp;&lt;/p&gt;
num_resources 1
num_tags 11
title Autonomous Deep-Space Optical Navigation Project