Nanoantenas en textiles: un paso hacia la independencia de los cables

Autores/as

  • Ramón Díaz de León-Zapata ITSLP
  • Francisco Javier González-Contreras Tecnológico Nacional de México/Instituto Tecnológico de San Luis Potosí
  • Ariel Benjamín de la Rosa-Zapata Tecnológico Nacional de México/Instituto Tecnológico de San Luis Potosí https://orcid.org/0000-0002-0670-2842
  • Efrén Flores-García Tecnológico Nacional de México/Instituto Tecnológico de San Luis Potosí https://orcid.org/0000-0002-9631-2134

DOI:

https://doi.org/10.56913/teceo.7.13.64-71

Palabras clave:

Aplicaciones de las nanoantenas, diseño electrónico, conversión de energía, optoelectrónica, sustrato flexible

Resumen

Se presentan una breve revisión del tema general de nanoantenas y los resultados más recientes de un caso de aplicación donde se aprovecha un sustrato flexible para construir sobre él las nanoestructuras optoelectrónicas capaces de convertir la energía térmica del cuerpo, en energía eléctrica con el objetivo de alimentar circuitos electrónicos que pueden ir desde sistemas integrados de análisis bioquímico conocidos como laboratorios en un circuito integrado (lab-on-a-chip) hasta sistemas de carga de dispositivos asociados a la electrónica de consumo, como los teléfonos celulares. Con el fin de verificar la operación del diseño propuesto, se aplica el método de análisis numérico por el método del elemento finito, así como la caracterización eléctrica y térmica de los componentes que se pudieron fabricar. Todos estos estudios arrojan como conclusión la viabilidad de operación, fabricación y aplicación del caso de estudio aquí presentado.

Biografía del autor/a

Ramón Díaz de León-Zapata, ITSLP

A brief review of the general topic of nanoantennas is presented, as well as the most recent results of an application case where a flexible substrate is used to build on it optoelectronic nanostructures capable of converting the body's thermal energy into electrical energy with the aim of feeding electronic circuits that can range from integrated biochemical analysis systems known as laboratories on an integrated circuit (lab-on-a-chip) to charging systems for devices associated with consumer electronics, such as cell phones. In order to verify the operation of the proposed design, the numerical analysis method using the finite element method is applied, as well as the electrical and thermal characterization of the components that could be manufactured. All these studies lead to the conclusion that the operation, manufacturing and application of the case study presented here are feasible.

Francisco Javier González-Contreras, Tecnológico Nacional de México/Instituto Tecnológico de San Luis Potosí

A brief review of the general topic of nanoantennas is presented, as well as the most recent results of an application case where a flexible substrate is used to build on it optoelectronic nanostructures capable of converting the body's thermal energy into electrical energy with the aim of feeding electronic circuits that can range from integrated biochemical analysis systems known as laboratories on an integrated circuit (lab-on-a-chip) to charging systems for devices associated with consumer electronics, such as cell phones. In order to verify the operation of the proposed design, the numerical analysis method using the finite element method is applied, as well as the electrical and thermal characterization of the components that could be manufactured. All these studies lead to the conclusion that the operation, manufacturing and application of the case study presented here are feasible.

Ariel Benjamín de la Rosa-Zapata, Tecnológico Nacional de México/Instituto Tecnológico de San Luis Potosí

A brief review of the general topic of nanoantennas is presented, as well as the most recent results of an application case where a flexible substrate is used to build on it optoelectronic nanostructures capable of converting the body's thermal energy into electrical energy with the aim of feeding electronic circuits that can range from integrated biochemical analysis systems known as laboratories on an integrated circuit (lab-on-a-chip) to charging systems for devices associated with consumer electronics, such as cell phones. In order to verify the operation of the proposed design, the numerical analysis method using the finite element method is applied, as well as the electrical and thermal characterization of the components that could be manufactured. All these studies lead to the conclusion that the operation, manufacturing and application of the case study presented here are feasible.

Efrén Flores-García, Tecnológico Nacional de México/Instituto Tecnológico de San Luis Potosí

A brief review of the general topic of nanoantennas is presented, as well as the most recent results of an application case where a flexible substrate is used to build on it optoelectronic nanostructures capable of converting the body's thermal energy into electrical energy with the aim of feeding electronic circuits that can range from integrated biochemical analysis systems known as laboratories on an integrated circuit (lab-on-a-chip) to charging systems for devices associated with consumer electronics, such as cell phones. In order to verify the operation of the proposed design, the numerical analysis method using the finite element method is applied, as well as the electrical and thermal characterization of the components that could be manufactured. All these studies lead to the conclusion that the operation, manufacturing and application of the case study presented here are feasible.

Citas

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Archivos adicionales

Publicado

2025-12-31

Cómo citar

Díaz de León-Zapata, R., González-Contreras, . F. J. ., de la Rosa-Zapata, . A. B. ., & Flores-García, . E. (2025). Nanoantenas en textiles: un paso hacia la independencia de los cables. Tecnología, Ciencia Y Estudios Organizacionales, 7(13), 64–71. https://doi.org/10.56913/teceo.7.13.64-71

Número

Vol. 7 Núm. 13 (2025): TeCEO 13

Sección

Artículos

Licencia

Derechos de autor 2025 Tecnología, Ciencia y Estudios Organizacionales

Creative Commons License

Esta obra está bajo una licencia internacional Creative Commons Atribución-NoComercial-CompartirIgual 4.0.

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