Service module propulsion system provides launch abort thrust and orbital maneuvering capability using shared propellant architecture.
A high power electric propulsion system integrates energy storage to deliver sustained thrust for spacecraft maneuvering.
A retrofitted add-on kit alters vehicle shape and injects hot gases to reduce aerodynamic drag.
A reusable booster adjusts its angle of attack to a negative value during hypersonic flight to release payloads at low dynamic pressures.
A three-dimensional preform impregnated with a plastic matrix forms a softening strip that remains flexible at cryogenic temperatures.
Kinetic Energy Storage and Transfer vehicle accelerates target spacecraft via tethered catching mechanism, reducing expendable hardware costs.
Repeatedly igniting and extinguishing solid propellant via rapid depressurization extends flight vehicle operating time while reducing overall system mass.
Segmenting fuel between two orbiters reduces launch mass and avoids environmental risks from passive re-entry capsules.
Segmented propulsion reduces satellite mass by moving main thrust to the launcher, eliminating complex apogee motor machining while accelerating orbit transfer.
Deploying stowed solar panels axially from adapter assemblies generates power for payloads while protecting components from harsh launch environments.
Segmented payload containers decouple integration from mission analysis, reducing coupled loads complexity while maintaining structural stability.
A collapsible airship fuselage transitions between inflated and streamlined shapes to adapt lift modes.