FOTOBIOMODULACIÓN EN TIEMPO REAL DE LA SANGRE ENFOQUE INTEGRADO A LA TERMOGRAFÍA Y OSCILOSCOPÍA

Autores/as

DOI:

https://doi.org/10.70187/recisatec.v5i4.398

Palabras clave:

Fotobiomodulación, Biofotónica, Bioelectrónica, Fotocéutica

Resumen

La fotobiomodulación (FBM) ha sido ampliamente estudiada por sus efectos sobre los tejidos biológicos, especialmente en lo que respecta a la modulación mitocondrial. Este estudio presenta un enfoque experimental para evaluar en tiempo real las respuestas bioeléctricas de muestras de sangre animal in vitro sometidas a radiación de 808 nm. Se utilizaron técnicas de osciloscopia digital y termografía infrarroja, lo que permitió el análisis integrado de parámetros eléctricos en grupos experimentales: solución salina, solución salina irradiada, sangre y sangre irradiada. Conclusión: La irradiación con LED infrarrojo de 808 nm moduló la actividad bioeléctrica de la sangre, manteniendo amplitudes y frecuencias estables, incluso con un ligero aumento térmico. La fotobiomodulación preservó el biopotencial celular sin sobrecarga, y la integración de la osciloscopia y la termografía constituye una estrategia sólida para el análisis en tiempo real y la investigación de los mecanismos bioeléctricos celulares.

 

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Biografía del autor/a

Geraldo Medeiros Junior

Profesional biomédico habilitado en Patología Clínica, Hematología y Medicina Biofotónica. Posee una formación interdisciplinaria orientada a la investigación científica y al desarrollo tecnológico en el ámbito de la salud. Su enfoque integra el análisis clínico con aplicaciones innovadoras de la biofotónica, contribuyendo al avance del diagnóstico y la terapéutica. Participa activamente en proyectos académicos y publicaciones científicas que promueven la integración entre ciencia, tecnología y bienestar humano.

Citas

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Publicado

2025-10-21

Cómo citar

Medeiros Junior, G. (2025). FOTOBIOMODULACIÓN EN TIEMPO REAL DE LA SANGRE ENFOQUE INTEGRADO A LA TERMOGRAFÍA Y OSCILOSCOPÍA. REVISTA CIENTÍFICA RECISATEC - ISSN 2763-8405, 5(4), e54398. https://doi.org/10.70187/recisatec.v5i4.398