Projecte llegit
Títol: Adaptation of an Experiment for Propellant Management from Suborbital to Orbital Platforms
Estudiants que han llegit aquest projecte:
HERNÁNDEZ RIBÉ, JUDIT (data lectura: 05-10-2026)- Cerca aquest projecte a Bibliotècnica
HERNÁNDEZ RIBÉ, JUDIT (data lectura: 05-10-2026)Director/a: GONZÁLEZ CINCA, RICARD
Departament: FIS
Títol: Adaptation of an Experiment for Propellant Management from Suborbital to Orbital Platforms
Data inici oferta: 15-02-2023 Data finalització oferta: 15-10-2023
Estudis d'assignació del projecte:
GR ENG SIST AEROESP
| Tipus: Individual | |
| Lloc de realització: EETAC | |
| Segon director/a (UPC): ABECIA HERNANZ, SARA CECILIA | |
| Paraules clau: | |
| Microgravity; Propellant management; Spectral Mass Gauging; Acoustic Boil-Off Control; International Space Station; Space Rider; Payload adaptation; Liquid filling subsystem; Data management subsystem; Multi-criteria decision analysis | |
| Descripció del contingut i pla d'activitats: | |
| Design of an experiment for the ISS. | |
| Overview (resum en anglès): | |
| This thesis investigates the adaptation of the Integrated Acoustic Technology
(IAT) experiment, originally developed for the Blue Origin New Shepard suborbital platform, towards long-duration low-gravity platforms. The work focuses on the engineering challenges associated with transferring the experiment to the International Space Station (ISS) and assessing its portability to Space Rider. Particular attention is given to the operational differences between short-duration suborbital flights and orbital platforms, where longer mission durations enable experimental procedures to be reconfigured based on intermediate results. The adaptation is developed following a systems engineering approach. The existing IAT architecture is first analysed to identify the functions that the heritage experiment did not have to perform and that a long-duration mission requires. Functional requirements and engineering constraints are then established for the selected subsystems, considering mechanical, electrical, thermal, data, safety and operational interfaces. Two subsystems are subsequently redesigned in greater detail: the fluid filling and containment subsystem and the data management and experiment-control subsystem. For the fluid-management subsystem, alternative pumping architectures are evaluated according to liquid transfer performance, fill-volume accuracy, operational autonomy and repeatability, and integration and platform adaptability. A multi-criteria decision analysis is used to select the preferred architecture for the proposed payload. A similar approach is applied to the data management and experiment-control subsystem, considering the requirements associated with autonomous operation, data handling, reliability and modularity. The resulting architectures provide the basis for a modular payload capable of supporting controlled fluid filling, data acquisition and experiment reconfiguration during extended low-gravity campaigns. The work remains at a conceptual and architectural level; detailed component selection, complete resource budgets and experimental validation are identified as subsequent engineering activities. Nevertheless, the proposed adaptation establishes a structured path for evolving the original suborbital experiment towards long-duration orbital operation and for increasing the technological maturity of Spectral Mass Gauging and Acoustic Boil-Off Control techniques. |
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