Voyager capsule, preliminary design, phase B. Volume V - Interface descriptions Final report
Hardware, software, and service interfaces between capsule bus, entry science package, surface laboratory, and Voyager spacecraft
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Hardware, software, and service interfaces between capsule bus, entry science package, surface laboratory, and Voyager spacecraft
Voyager capsule surface laboratory system - design concepts and objectives
Voyager capsule surface laboratory system - mission analysis, system functional requirements, and design selection and alternatives
Voyager capsule surface laboratory system - subsystem design analysis
Voyager capsule surface laboratory system - subsystem design analysis
Voyager capsule surface laboratory system - subsystem functional descriptions
Voyager capsule surface laboratory system - subsystem functional descriptions
Voyager capsule surface laboratory system - operational support equipment
Voyager capsule surface laboratory system - reliability
Flame mechanism experiments for solid material surface, measuring flame velocity, stressing space capsule fire hazard minimization
The Cubesat Application for Planetary Entry Missions (CAPE) concept describes a high-performing Cubesat system which includes a propulsion module and miniaturized technologies capable of surviving atmospheric entry heating, while reliably transmitting scientific and engineering data. The Micro Return Capsule (MIRCA) is CAPEs first planetary entry probe flight prototype. Within this context, this paper briefly describes CAPEs configuration and typical operational scenario, and summarizes ongoing work on the design and basic aerodynamic characteristics of the prototype MIRCA vehicle. CAPE not only opens the door to new planetary mission capabilities, it also offers relatively low-cost opportunities especially suitable to university participation.
The cost of sending large spacecraft to orbit makes them undesirable for carrying out smaller scientific missions. Small spacecraft are more economical and can be tailored for missions where specific tasks need to be carried out, the Maraia capsule is such a spacecraft. Maraia will allow for samples of experiments conducted on the International Space Station to be returned to earth. The use of balloons to conduct experiments at the edge of space is a practical approach to reducing the large expense of using rockets. E-MIST is a payload designed to fly on a high altitude balloon. It can maintain science experiments in a controlled manner at the edge of space. The work covered here entails the integration of hardware onto each of the mentioned systems and the code associated with such work. In particular, the resistance temperature detector, pressure transducers, cameras, and thrusters for Maraia are discussed. The integration of the resistance temperature detectors and motor controllers to E-MIST is described. Several issues associated with sensor accuracy, code lock-up, and in-flight reset issues are mentioned. The solutions and proposed solutions to these issues are explained.
Optimization of aft configuration of passive-entry capsule
Discussion of the development of a curved turnstile antenna for the instrumented capsule to be landed on the moon by ranger spacecraft
Retardation system for capsule entering martian atmosphere
Air regeneration system for sealed capsule occupied by animals during space flights
Mission analysis of Mars soft landing with line- of-sight communication between flyby bus and entry capsule - atmospheric entry
Lunar facsimile capsule design reviews, drawings, and subassembly breadboard models