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EXPLORING THE POTENTIAL OF OPTICAL PRECISION IN TEXT COMMUNICATION
EXPLORANDO EL POTENCIAL DE LA PRECISIÓN ÓPTICA EN LA COMUNICACIÓN TEXTUAL
DOI:
https://doi.org/10.15446/mo.n73.119413Keywords:
Light Fidelity, Li-Fi, Visible Light Communication, VLC, light-emitting diode, LED, Light Dependent Resistor , LDR, text communication (en)fidelidad de la luz, Li-Fi, comunicación de luz visible, VLC, diodo emisor de luz, LED, resistencia dependiente de la luz, LDR, comunicación de texto (es)
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Light has become a core component of 5G communication, particularly in pneumatic and underwater environments. This paper explores a straightforward, durable, and cost-effective VLC system for transmitting text data utilizing Li-Fi technology, which has emerged as a fundamental element of wireless communication. Visible light communication (VLC) is employed to transmit text data. In the VLC system, a light-emitting diode (LED) serves as a transceiver for sending and receiving data, ensuring low power consumption, high moisture resistance, and compact size. The prototype successfully fulfilled the objectives of this research. The VLC text transceiver, utilizing an optical transceiver, was created to illustrate the operation of the VLC system. The Li-Fi prototype was developed to showcase the fundamental principle and substantiate the claimed benefits of Li-Fi compared to other technologies. An Arduino is utilized at the transmitter, connected to the LED, while another Arduino is employed at the receiver, linked to the LDR. The rapid speed of data transmission and reception is evident in the prototype and can be contrasted with other technologies.
La luz se ha convertido en un componente esencial de la comunicación 5G, especialmente en entornos neumáticos y submarinos. Este artículo explora un sistema VLC sencillo, duradero y rentable para la transmisión de datos de texto mediante tecnología Li-Fi, que se ha consolidado como un elemento fundamental de la comunicación inalámbrica. La comunicación con luz visible (VLC) se utiliza para transmitir datos de texto. En el sistema VLC, un diodo emisor de luz (LED) actúa como transceptor para el envío y la recepción de datos, garantizando un bajo consumo de energía, alta resistencia a la humedad y un tamaño compacto. El prototipo cumplió con éxito los objetivos de esta investigación. El transceptor de texto VLC, que utiliza un transceptor óptico, se creó para ilustrar el funcionamiento del sistema VLC. El prototipo Li-Fi se desarrolló para demostrar el principio fundamental y justificar las ventajas del Li-Fi en comparación con otras tecnologías. Se utiliza un Arduino en el transmisor, conectado al LED, mientras que otro Arduino se utiliza en el receptor, conectado al LDR. La rápida velocidad de transmisión y recepción de datos es evidente en el prototipo y puede compararse con otras tecnologías.
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