Space rendezvous and docking has always been attempted with primarily one philosophic methodology. The slow matching of one vehicle's orbit by a second vehicle and then a final closing sequence that ends in matching the orbits with perfect precision and with near zero relative velocities. The task is time consuming, propellant intensive, risk inherent (plume impingement, collisions, fuel depletion, etc.) and requires substantial hardware mass. The historical background and rationale as to why this approach is used is discussed in terms of the path-not-taken and in light of an alternate methodology. Rendezvous and docking by boom extension is suggested to have inherent advantages that today s technology can readily exploit. Extension from the primary spacecraft, beyond its inherent large inertia, allows low inertia connections to be made rapidly and safely. Plume contamination issues are eliminated as well as the extra propellant mass and risk required for the final thruster (docking) operations. Space vehicle connection hardware can be significantly lightened. Also, docking sensors and controls require less fidelity; allowing them to be more robust and less sensitive. It is the potential safety advantage and mission risk reduction that makes this approach attractive, besides the prospect of nominal time and mass savings.
Boom Rendezvous Alternative Docking Approach
2006
13 pages
Report
Keine Angabe
Englisch
Unmanned Spacecraft , Manned Spacecraft , Meetings , Space rendezvous , Spacecraft docking , Spacecraft orbits , Spacecraft configurations , Booms(Equipment) , Air to air refueling , Propellants , Apollo spacecraft , Spacecraft maneuvers , Active control , Atlantis(Orbiter) , Mir space station , Trusses , Tethering
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