Solar Microgrid Adoption for Remote Village Electrification

  • Authors

    • Jennifer Clark Senior Data Scientist, Innovate Analytics, USA. Author
    • Robert Miller Software Engineering Manager, TechNova Inc, USA. Author

    DOI:

    https://doi.org/10.67228/30715636/IJETMR-2022PII2X7K

    Published 10-04-2022

  • Solar Microgrid, Rural Electrification, Renewable Energy, Decentralized Power Systems, Energy Access, Photovoltaic Systems

    Issue

    Section

    Articles

    How to Cite

    [1]
    J. Clark and R. Miller, “Solar Microgrid Adoption for Remote Village Electrification”, IJETMR, vol. 5, no. 2, pp. 01–16, Oct. 2022, doi: 10.67228/30715636/IJETMR-2022PII2X7K.
  • Abstract

    Reliable and affordable electricity is also a major concern apart in the remote and rural areas of developing countries. The usual domain of grid extension may not be economically feasible because of challenging topography, low density, and infrastructure expenses. Here, solar-based microgrids have become a bright option that can provide decentralized energy, which can offer sustainable, resilient and scalable electrification. In the current paper, there is an advanced examination of solar microgrids implementation in remote village electrification in terms of technical design, social and economic outcomes, financial viability, and operational sustainability. The analysis examines the design of solar micro grid systems which are photovoltaic generation, battery energy storage, power electronics and networks of distribution. A report literature search has indicated current developments of a microgrid control strategy, energy management system, and policy framework. In addition to it, system sizing, site assessment, load estimation, and techno-economic evaluation are suggested in a systematic approach. Quantitative analysis of performance indicators of system reliability, cost-effectiveness, carbon emission reduction, and user satisfaction is done. Findings of a case study prove that solar microgrids have high effectiveness in increasing the level of energy access, making life better, and boosting rural economic growth. The results denote decreases in diesel addiction, cost of operation and greenhouse gas emissions. Nonetheless, financial, maintenance, community, and policy support issues are very important obstacles. The conclusion of this paper is that solar microgrids can be used as a long-term solution to rural electrification, provided that proper institutional structures, community participation, and technological change support this method. Policymakers, researchers, and system developers are advised on the recommendations that may encourage sustainable microgrids implementation.

  • References

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