DOI:
https://doi.org/10.14483/22484728.18420Publicado:
2019-03-13Número:
Vol. 2 Núm. 1 (2019): Edición especialSección:
Visión de CasoEnergy saving system with wireless sleep sensor
Sistema de ahorro energético con sensor inalámbrico de sueño
Palabras clave:
Z-Wav, Estado de sueño, Sensor, Domótica, Ahorro energético, Frecuencia respiratoria (es).Palabras clave:
Z-Wave, Sleep state, Sensor, Domotic, Energy saving, Respiratory rate (en).Descargas
Resumen (en)
In the following paper, perform the development and evaluation of a device capable of identifying the sleep state of a person from the measurement of the respiratory frequency, integrating it into a Z-Wave system to perform spatial domotic control. It was evidenced, by means of the analysis of electrical consumption tests, how the implementation of the system generates a significant saving of 38% with respect to the average monthly consumption in a house, and how its application contributes to an environment conducive to sleep by reducing noise that generate the multimedia equipment in the room -off immediately after a detection-. The correct functioning of the sensor is observed due to the characteristics of the measurements of quality of service (QoS) parameters: Delay, Throughput and Jitter, guaranteeing that the loss of information is null and that the system implemented is viable.
Resumen (es)
En el siguiente artículo se realiza el desarrollo y evaluación de un dispositivo capaz de identificar el estado de sueño de una persona a partir de la medición de la frecuencia respiratoria, integrándolo a un sistema tipo Z-Wave para realizar control domótico espacial. Se evidenció, por medio del análisis de pruebas de consumo eléctrico, cómo la implementación del sistema genera un ahorro significativo del 38% con respecto al consumo promedio mensual en una vivienda, y cómo su aplicación contribuye con un entorno propicio para dormir al disminuir el ruido que generan los equipos multimedia en la habitación -apagados inmediatamente después de una detección-. Se observa un correcto funcionamiento del sensor por las características de las mediciones de los parámetros de calidad de servicio (QoS): Delay, Throughput y Jitter, garantizándose que la pérdida de información es nula y que el sistema implementado es viable.
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