Use of the 433MHz band for underwater communications in controlled environments
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Abstract
This research aims to design and implement an underwater communication system using radio frequency modules and Arduino. Underwater wireless communication is challenging due to the attenuation of electromagnetic waves in water. However, radio frequency signals in the 433MHz range and the added antenna have successfully transferred data. For this purpose, measurements are made at different distances, and data is collected in the aquatic environment and free space. A comparative analysis of the values of arrival powers and losses in the studied environment is carried out to verify the efficiency of this study in terms of range, transmission speed, and reliability.
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References
S. L. Monella, “Estudio de modelos electromagnéticos para la obtención de mapas de humedad superficial de suelo”, Tesis de Grado, UNIV. NAC. CORDOBA, Buenos Aires, Argentina, 2014.
S. S. a Compte, “Comunicaciones inalámbricas subacuáticas a 2,4 GHz para la transmisión de datos con altas tasas de transferencia”, Tesis de Grado, Univ. Politencia Valencia, GANDIA, 2011.
Universidad Nacional Abierta y a Distancia UNAD. Accedido el 22 de noviembre de 2023. [En línea]. Disponible: https://repository.unad.edu.co/bitstream/handle/10596/6555/203058-;jsessionid=A03CC059E3117EFA58F5550302FB43A8.jvm1?sequence=3
Sanchez Matias, A. M. (2013). Sistema de comunicación acústica para redes de sensores inalámbricas subacuáticas en aguas someras [Trabajo de grado, Universidad Politecnica de Valencia].
Samaniego Buñay, A. S. (2023). Estado del Arte de las Comunicaciones Acústicas Submarinas, Journal Chone Ciencia y Tecnología, vol. 1, no. 01, pp. 1-12, Jun. 2023.
A. I. López Tacoronte, "Propagación de ondas acústicas en espacios subacuáticos", Trabajo de grado, Universidad de La Laguna, San Cristóbal de La Laguna, 2017.
M. Bruneau, T. Scelo y S. F. d'Acoustique, Fundamentals of Acoustics. Wiley & Sons, Incorporated, John, 2013.
A. A. Rodríguez, "Caracterización de sistemas de comunicación RF y ópticos en aplicaciones submarinas", Trabajo de grado, Escola Politècnica Superior d'Enginyeria de Vilanova i la Geltrú, Barcelona, 2022.
Perez Martínez, J. L., Sistema de comunicaciones ópticas para aplicaciones subacuáticas, Trabajo de grado, Universidad Politecnica de Valencia, 2018.
F. Kaeib, O. A. Alshawish, S. Ali Altayf and M. A., Gamoudi, "Designing and Analysis of Underwater Optical Wireless communication system," in Proc. 2nd International Maghreb Meeting of the Conference on Sciences and Techniques of Automatic Control and Computer Engineering (MI-STA), Sabratha, Libya, 2022, pp. 441-446.
Ruz, L., Castro, D., Ondas electromagnéticas, en Teoría electromagnética para estudiantes de ingeniería Notas de clase. Editorial Universidad del Norte, pp. 77–100.
Muhammad Ramdhan, M.S Muhammad Ali Ghazali, N.Effiyana Kamaludin M.Y, “Measuring the underwater received power behavior for 433 mhz radio frequency based on different distance and depth for the development of an underwater wireless sensor network”, Bulletin of Electrical Engineering and Informatics, vol. 8, no. 3, pp. 1066-1073, Spe. 2019.
Moiroux Arvis, Laure Christophe, Cariou Jean-Pierre, Chanet, “Evaluation of LoRa technology in 433-MHz and 868-MHz for underground to aboveground data transmission”, Computers and Electronics in Agriculture, vol. 194, pp. 106770, Mar. 2022.
A. A. Abdou, “A matched Bow-tie antenna at 433MHz for use in underwater wireless sensor networks”, Journal of Physics: Conference Series, vol 450, pp. 1-8, Sep. 2013.
Said Benaissa, Said Benaissa, Denys Nikolayev, Margot Deruyck, Gunter Vermeeren Luc Martens, Jan Govaere, Frank Tuyttens, Bart Sonck, David Plets, Wout Joseph, “Propagation-loss Characterization for Livestock Implantables at 433, 868, and 1400 MHz”, IEEE Transactions on Antennas and Propagation, vol 69, no. 8, pp. 5166-5170, Aug. 2021.
Holger Heuermann, Stefan Terbrack, “Development Process, Structure and Performance Parameters of a Shielded 433 MHz Plasma Jet with 600W”,Disponible: https://www.researchgate.net/publication/372109180_Development_Process_Structure_and_Performance_Parameters_of_a_Shielded_433_MHz_Plasma_Jet_with_600W
Samuel Ryecroft, Andrew Shaw, Paul Fergus, Patryk Kot, Khalid Hashim, Adam Moody, Laura Conway, “A First Implementation of Underwater Communications in Raw Water Using the 433 MHz Frequency Combined with a Bowtie Antenna”, Sensors, vol. 19, no. 8, pp. 1813, Apr. 2019.
James Demetriou, Rebecca MacKenzie. “Propagation Basics”, September 30, 1998, pp.39-42.
"VirtualWire: VirtualWire library for Arduino and other boards". AirSpayce. https://www.airspayce.com/mikem/arduino/VirtualWire/ (accedido el 3 de junio de 2023).
"Arduino UNO R3". Proyecto Arduino. https://proyectoarduino.com/arduino-uno-r3/#:~:text=Tiene-2014- 20pines-20digitales-20de,y-20un-20botón-20de-20reset. (accedido el 5 de junio de 2023).
S. Skiena, M. Revilla y M. R. Rodríguez, Desafíos de Programación: El Manual de Entrenamiento para Concursos de Programación. Independently Published, 2020.
González R., Pedro V. , Mago Rodríguez Eduardo, “Efectos del oleaje en la atenuación de radiofrecuencia,” Télématique, vol. 8, no. 2, pp. 44-55, 2009.
FS1000A 433MHZ RF transmitter & XY-MK-5V Receiver Module Explanation, Pinout - Components Info. (2020, 24 de febrero). Components Info. https://www.componentsinfo.com/fs1000a-433mhz- rf-transmitter-xy-mk-5v-receiver-module-explanation-pinout/
FS1000A 433Mhz RF Transmitter Receiver Modules. (2022, 1 de marzo). Circuits DIY. https://www.circuits-diy.com/fs1000a-433mhz-rf- transmitter-receiver-modules/
Comunicación Inalámbrica con módulos de RF de 433Mhz. (s.f.). Naylamp Mechatronics - Perú. https://naylampmechatronics.com/blog/32_comunicacion- inalambrica-con-modulos-de-rf-de- 433mhz.html#:~:text=Antena%20para%20módulos%20de%20433Mhz, y%203.4cm%20de%20longitud.
Jácome J., Melenchón A., Perez J., “Proyecto Wimax en Puerto Tomás Maestre,” Trabajo de grado, Universidad Politécnica de Cartagena
M. Möser y J. L. Barros, "Conceptos básicos sobre propagación de ondas", en Ingeniería Acústica. Berlin, Heidelberg: Springer Berlin Heidelberg, 2009, pp. 19–66.
“Fundamentos de radar - Pérdida de espacio libre". Grundlagen der Radartechnik. https://www.radartutorial.eu/01.basics/rb55.es.html (accedido el 4 de mayo de 2023).