Eco-efficient control for electrical testing equipment in the electronics industry
DOI:
https://doi.org/10.20983/culcyt.2026.1.2e.2Keywords:
eco-efficient control, energy sustainability, electrical testing equipment, energy optimization, emission reductionAbstract
This research demonstrates the implementation of an eco-efficient control system for electrical test equipment used in manufacturing smoke, carbon monoxide (CO), and explosive gas detection alarms. The main goal is to reduce the environmental impact of industrial processes by optimizing energy use and decreasing gas consumption. The system merges hardware and software to independently manage electronic boards, power supplies, and computer stations, automatically coordinating different operating modes. This approach extends component lifespan and decreases energy use during idle times. Experimental results show a 25% reduction in energy consumption during normal operation through peripheral hibernation control, and a complete 100% reduction after periods of inactivity, along with an 8.7% to 10% decrease in test gas usage (CO and CH₄). Overall, the solution is low-cost, easy to replicate, and aims to enhance energy and environmental sustainability in industrial test systems, with the potential to boost production efficiency.
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Copyright (c) 2026 Geu M. Puentes-Conde, Ernesto Sifuentes de la Hoya, Javier Molina Salazar, Francisco Javier Enríquez-Aguilera, Guadalupe Navarro Enriquez
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