Preprint / Version 1

Adaptive NeuroPathway Model (NVA): A Neurobiologically-Based Proposal for Learning Design

Authors

DOI:

https://doi.org/10.62059/LatArXiv.preprints.588

Keywords:

Neuroeducation, Synaptic plasticity, Deep learning, Flexible cognition

Abstract

Higher education is currently immersed in a technologically accelerated ecosystem characterized by artificial intelligence, intensive information flows and high cognitive demands, requiring flexible cognition and continuous adaptive learning. However, traditional teaching practices highly predictable and focused on content reproduction limit synaptic reorganization and the development of higher-order cognitive skills. This theoretical documentary study synthesizes recent neurobiological, cognitive and neuroeducational evidence (2019–2024) to propose the NeuroVía Adaptativa Model (NVA), a conceptual framework designed to promote deep learning in university students. Using an inductive content analysis approach and a systematic search in Web of Science, twelve articles were selected that address synaptic plasticity, predictive processing, cortical reorganization, cognitive load, and neuroeducation-informed teaching. The analysis reveals that deep learning emerges when students face moderated prediction errors, balanced cognitive load, contextual variability, and neuroinformed instructional regulation. The NVA articulates five key principles optimal microchallenge, cognitive load regulation, contextual diversification, neuroinformed scaffolding, and transfer-oriented evaluation offering a coherent theoretical basis for guiding pedagogical practices aligned with contemporary cognitive demands. The study concludes that activating continuous synaptic reorganization requires instructional designs that intentionally modulate effort, variability, and prediction error, positioning the teacher as a key regulator of cognitive and emotional engagement in higher education

Author Biography

  • Veronica Pantoja, Universidad Mayor

    Profesional del área de las neurociencias aplicadas a la educación, con experiencia en docencia universitaria, investigación y gestión académica. Se desempeña como Directora del Magíster en Neurociencias de la Educación de la Universidad Mayor, donde coordina procesos formativos, trabajos finales de grado y actividades de vinculación con el medio. Su trabajo se centra en neuroeducación, diversidad cognitiva, aprendizaje y bienestar en contextos educativos. Ha participado en proyectos, seminarios y acciones formativas orientadas a integrar la evidencia científica en la práctica docente.

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Posted

2025-12-16

Data Availability Statement

Los datos asociados a esta investigación no se encuentran disponibles públicamente, dado que corresponden a un estudio teórico-documental sin producción de datos empíricos. No obstante, todas las fuentes utilizadas se describen y citan en el manuscrito, permitiendo su trazabilidad y verificación por parte de los lectores/as.