Scalable solutions for clean and affordable energy

The rising cost of energy, coupled with growing environmental concerns, has prompted the exploration of alternative and sustainable energy solutions. Among these, piezoelectric power generation presents a compelling innovation, harvesting mechanical energy from pressure, vibration, and motion to produce electrical energy. This research investigates the potential of piezoelectric systems as a viable solution for powering low-energy devices and reducing the overall energy costs of start-up businesses. It explores how small-scale businesses, particularly those with limited access to renewable infrastructure, can harness piezoelectric technologies to supplement their power needs. The study critically analyzes various piezoelectric materials, including PZT, PVDF, and ZnO nanowires, examining their electrical output, conversion efficiency, and real-world applicability in embedded systems, IoT devices, and smart office environments. A comprehensive review of the literature is presented to frame the historical development, scientific principles, and current technological trends of the piezoelectric generation. The methodology includes a comparative experimental design involving different piezoelectric configurations under varying load and vibration conditions. Practical scenarios simulate foot traffic, door vibrations, and mechanical stressors typical in business environments to analyze energy output and performance consistency. Data is recorded over a 30-day trial period, with electrical output, cost-benefit ratio, and durability being primary evaluation metrics. The results reveal that start-ups can offset up to 20% of energy consumption for select devices using hybrid piezoelectric solutions when strategically deployed. Additionally, the cost of implementing such systems becomes economically viable within two years, depending on the scale of application. Graphical analyses further illustrate energy trends, load adaptation, and material efficiencies. This research not only provides a novel framework for adopting piezoelectric systems in business contexts but also offers scalable models for eco-entrepreneurs. It supports sustainable development goals by fostering clean energy use, innovation, and economic growth, making piezoelectric energy harvesting a strategic investment for start-up enterprises worldwide.

Authors

Publication Details

Journal
International Journal of Advances in Electrical Engineering
Published
2025-01-01
DOI
https://doi.org/10.22271/27084574.2025.v6.i1a.86
Primary Topic
Integrated Energy Systems Optimization
Type
article
Field-Weighted Citation Impact
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article

Scalable solutions for clean and affordable energy

Lord Anertei Tetteh, Alice Constance Mensah, Emmanuel Asare, George Nana Appiah Yirenkyi et al.
International Journal of Advances in Electrical Engineering
Integrated Energy Systems Optimization
article

Scalable solutions for clean and affordable energy

Lord Anertei Tetteh, Alice Constance Mensah, Emmanuel Asare, George Nana Appiah Yirenkyi, Dickson Ntoni Amakye
article en

Abstract

The rising cost of energy, coupled with growing environmental concerns, has prompted the exploration of alternative and sustainable energy solutions. Among these, piezoelectric power generation presents a compelling innovation, harvesting mechanical energy from pressure, vibration, and motion to produce electrical energy. This research investigates the potential of piezoelectric systems as a viable solution for powering low-energy devices and reducing the overall energy costs of start-up businesses. It explores how small-scale businesses, particularly those with limited access to renewable infrastructure, can harness piezoelectric technologies to supplement their power needs. The study critically analyzes various piezoelectric materials, including PZT, PVDF, and ZnO nanowires, examining their electrical output, conversion efficiency, and real-world applicability in embedded systems, IoT devices, and smart office environments. A comprehensive review of the literature is presented to frame the historical development, scientific principles, and current technological trends of the piezoelectric generation. The methodology includes a comparative experimental design involving different piezoelectric configurations under varying load and vibration conditions. Practical scenarios simulate foot traffic, door vibrations, and mechanical stressors typical in business environments to analyze energy output and performance consistency. Data is recorded over a 30-day trial period, with electrical output, cost-benefit ratio, and durability being primary evaluation metrics. The results reveal that start-ups can offset up to 20% of energy consumption for select devices using hybrid piezoelectric solutions when strategically deployed. Additionally, the cost of implementing such systems becomes economically viable within two years, depending on the scale of application. Graphical analyses further illustrate energy trends, load adaptation, and material efficiencies. This research not only provides a novel framework for adopting piezoelectric systems in business contexts but also offers scalable models for eco-entrepreneurs. It supports sustainable development goals by fostering clean energy use, innovation, and economic growth, making piezoelectric energy harvesting a strategic investment for start-up enterprises worldwide.

International Journal of Advances in Electrical EngineeringVol. 6(1)
Affordable and clean energy
Openalex Percentile: Top 89%
Integrated Energy Systems Optimization
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