Abstract
This article describes the design of a low power sensor node for a Wireless Sensor Network, WSN. The base node is implemented in an embedded system based on the ARM Cortex A-53 processor with a Linux operating system. This sensor network is applied to domotics for home monitoring. The sensor nodes use a low power PIC24F16KA101 microcontroller and a WiFi communication module which has a 32 bits embedded processor where the TCP/IP protocol stack is located. The WIFI module is configured using AT commands which are sent from the microcontroller using the UART interface. The variables to be measured consist of a hall-effect digital sensor to monitor the opening or closing of windows and doors, an analog sensor for temperature monitoring and a LS-Y201 camera from the LinkSprite company for image capture. The base node receives the information from the sensor nodes, through a client-server architecture using TCP sockets. The information is saved for consultation. The server is based in a custom Linux distribution and it allows to remote users to consult the information through TCP/IP protocol. The complex system work autonomously with the IoT concept.
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Acknowledgments
The authors would like to thank the Postgraduate and Research Division of the National Polytechnic Institute who contributed to the development of this work through the SIP20180341 multi-disciplinary project. Also, thanks to the students Alvaro Omar Abaroa Corchado, Estefany Guadalupe Castillo Sandoval and Luis Enrique Flores Lucio for their collaboration in this project.
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GarcĂa, V.H., Vega, N. (2018). Low Power Sensor Node Applied to Domotic Using IoT. In: Mata-Rivera, M., Zagal-Flores, R. (eds) Telematics and Computing . WITCOM 2018. Communications in Computer and Information Science, vol 944. Springer, Cham. https://doi.org/10.1007/978-3-030-03763-5_6
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