Autonomous navigation for Deep Space Missions

@inproceedings{Bhaskaran2012AutonomousNF,
  title={Autonomous navigation for Deep Space Missions},
  author={Shyam Bhaskaran},
  year={2012}
}
Navigation (determining where the spacecraft is at any given time, controlling its path to achieve desired targets), performed using ground-in- the-loop techniques: (1) Data includes 2-way radiometric (Doppler, range), interferometric (Delta- Differential One-way Range), and optical (images of natural bodies taken by onboard camera) (2) Data received on the ground, processed to determine orbit, commands sent to execute maneuvers to control orbit. A self-contained, onboard, autonomous navigation… 

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References

SHOWING 1-10 OF 18 REFERENCES

Orbit Determination Performance Evaluation of the Deep Space 1 Autonomous Navigation System

NASA’s New Millennium Program involves a series of missions whose primary purpose is to demonstrate the feasibility of new technologies for spaceflight. Deep Space 1, the first mission in the New

Deep Impact Autonomous Navigation : the trials of targeting the unknown

On July 4, 2005 at 05:44:34.2 UTC the Impactor Spacecraft (s/c) impacted comet Tempel 1 with a relative speed of 10.3 km/s capturing high-resolution images of the surface of a cometary nucleus just

Small Body Landings Using Autonomous Onboard Optical Navigation

An overview of self-contained autonomous navigation system and landmark tracking systems, as well as the results from Monte Carlo studies to quantify the achievable landing accuracies by using these methods, are presented.

Optical Navigation Plan and Strategy for the Lunar Lander Altair; OpNav for Lunar and other Crewed and Robotic Exploration Applications

Landmark modeling and tracking methodology is discussed, including the stereophotoclinometry method assumed to be used to obtain high-accuracy terrain maps at lunar landing sites and elsewhere, using the images expected to be obtained from the Lunar Reconnaissance Orbiter.

Methods of optical navigation

Optical navigation is the use of onboard imaging to aid in the determination of the spacecraft trajectory and of the targets' ephemerides. Opnav techniques provide a direct measurement of the

Multiple-satellite-aided capture trajectories at Jupiter using the Laplace resonance

Satellite-aided capture is a mission design concept used to reduce the delta-v required to capture into a planetary orbit. The technique employs close flybys of a massive moon to reduce the energy of

Navigation Challenges of a Kinetic Energy Asteroid Deflection Spacecraft

*† ‡ § ** †† , A simple asteroid deflection experiment can be conducted by a small and inexpensive impactor spacecraft in cooperation with an independent asteroid rendezvous mission. The rendezvous

Optical navigation for the Galileo Gaspra encounter

The optical navigation process as practiced during the Gaspra encounter is presented and the development of a new image processing algorithm to extract the optical measurements is presented.

Touchdown of the Hayabusa Spacecraft at the Muses Sea on Itokawa

Initial findings about geological features, surface condition, regolith grain size, compositional variation, and constraints on the physical properties of this site are reported by using both scientific and housekeeping data during the descent sequence of the first touchdown.

Characterizing and navigating small bodies with imaging data

High-resolution topography maps provide a significant improvement in discriminatory power for studies of small bodies, ranging from regolith processes to interior structure, and are now being used to map larger bodies such as the Moon and Mercury.