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  4. Autonomous Solar-Powered Smart Sensing Node: Integrating TinyML and Hybrid LoRaWAN/Wi-Fi Connectivity for Sustainable Precision Agriculture
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Autonomous Solar-Powered Smart Sensing Node: Integrating TinyML and Hybrid LoRaWAN/Wi-Fi Connectivity for Sustainable Precision Agriculture

Journal
Applied System Innovation
ISSN
25715577
Publisher
MDPI AG
Date Issued
2026-08-03
Author(s)
Ospina-Rojas, Elizabeth
Botero-Valencia, Juan Sebastián
Muñoz-Cataño, Juan Guillermo
Morales-Guerra, Juan Carlos
Hernández-García, Ruber
Vargas-Bonilla, Jesús Francisco
Del-Valle-Soto, Carolina  
Type
Article
DOI
10.3390/asi9080163
URL
https://scripta.up.edu.mx/handle/20.500.12552/13351
Abstract
Precision agriculture and sustainable farming practices require autonomous environmental monitoring systems capable of operating in remote areas with limited energy and connectivity. However, the high cost of existing professional technology remains a significant barrier to widespread adoption. This study presents the development of a solar-powered smart sensing node designed for autonomous operation that integrates TinyML and dual-mode wireless connectivity via LoRaWAN and Wi-Fi for intelligent monitoring. The system features a custom-designed cup anemometer and multispectral sensing capabilities integrated into a compact single-tower architecture. All structural components, including radiation shields and a modular PVC frame, were designed for low-cost manufacturing and mass production. A single hermetic housing protects the core control electronics and is designed to improve durability in harsh outdoor environments. A Multi-Layer Perceptron model was implemented on the edge to enable intelligent data fusion and compensation, while a dynamic sampling strategy optimized power consumption. Experimental results demonstrate the feasibility of the proposed architecture through adaptive spectral acquisition over a daily illumination cycle, embedded MLP-based sensor fusion, and telemetry-oriented data compression that substantially reduces the number of transmitted samples. The main contribution of this work is a system-level architecture that integrates sensing, embedded intelligence, solar-energy harvesting, hybrid wireless communication, and telemetry optimization into a compact, low-cost, and field-deployable prototype IoT platform for sustainable precision agriculture. © 2026 by the authors.
Subjects

Engineering controlle...

Computer architecture...

Costs

Data compression

Environmental enginee...

Environmental monitor...

Internet of things

Precision agriculture...

Smart agriculture

Smart sensors

Telemetering

Telemetering equipmen...

IoT

LoRaWAN

Precision Agriculture...

Sensing nodes

Smart sensing

Solar-powered

Sustainable Farming

Tinyml

WI - FI Engineering ...

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