Potenciar los ODS a través del avance tecnológico en la exploración espacial
DOI:
https://doi.org/10.31637/epsir-2025-323Keywords:
sistema climático de la Tierra, ODS 9, algoritmo automatizado de detección en cuatro pasos, desarrollo tecnológico sostenible, innovación, Espectrómetro de Electrones, atmósfera de Titán, Espectrómetro de Electrones (CAPS-ELS) de la misión CassiniAbstract
Introducción: La exploración del espacio y la recopilación de datos sobre sus condiciones atmosféricas pueden impulsar el desarrollo de tecnologías espaciales avanzadas, como sensores atmosféricos y sistemas de monitoreo remoto. La investigación científica en áreas aparentemente distantes, como la astrofísica y la exploración espacial, puede contribuir al logro de los ODS al promover la innovación y el desarrollo tecnológico sostenible. Metodología: Presentamos un algoritmo automatizado de detección en cuatro pasos para la identificación de picos de fotoelectrones utilizando una técnica utilizada en sismología que se basa en la relación entre dos promedios móviles de la señal. Para caracterizar los picos y descartar perturbaciones de ruido se aplica un análisis adicional después de la detección declarada. Resultados: El diseño modular del algoritmo permite la sustitución de estrategias alternativas en cualquiera de los cuatro pasos y la implementación rápida en nuevos conjuntos de datos. Discusiones: La utilidad del algoritmo se ilustra a través de un ejemplo general basado en datos de todos los sobrevuelos disponibles de Titán. Conclusiones: Comprender los entornos de plasma planetario, incluida su interacción con el viento solar y otros fenómenos meteorológicos espaciales, puede contribuir indirectamente a nuestra comprensión del sistema climático de la Tierra.
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