Swarm electrification for Raqaypampa: Impact of different battery control setpoints on energy sharing in interconnected solar homes systems

In rural electrification, decentralized systems have proven to bring fast, affordable, and sustainable electricity supply for the last mile of energy access. Especially, solar home systems (SHS) have lately increased in number and impact. Recently, a new concept promises even better utilization of SHS and the potential for higher access to electricity. This concept is found under the name of swarm electrification, also known as interconnected SHS, nanogrids, or decentralized DC systems in rural areas. This paper studies the benefits of such interconnected SHS for a case study in the indigenous rural Highlands of Bolivia, an area called Raqaypampa. Our study emphasizes analyzing the energy sharing setpoints for the decentralized battery control and how the choice of these values influences energy distribution in the community. We draw concepts of energy justice into our discussion to evaluate different combinations of battery state of charge setpoints. Our study finds four types of households in Raqaypampa based on their demand for electricity. The modeled and simulated results of a potential energy sharing through interconnected SHS reveal three outcomes for the households based on the battery state of charge setpoints: Outcome I - Improving households, Outcome II - Depending households, and Outcome III - Deteriorating households. We conclude that a common approach of e.g. minimization of total unmet demand alone will not necessarily lead to just energy distribution, and it is crucial to integrate discussions about justice and community goals into the design process from the beginning. • A real case study of electricity access from Bolivian Highlands • Electricity demand study, modelling and clustering in four household types • A multi-model simulation of energy sharing between interconnected SHS • Energy sharing outcomes vary with battery control setpoints • Energy justice discussion of outcomes for individuals and community.

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Publication Details

Journal
Sustainable Energy Grids and Networks
Published
2024-10-09
DOI
https://doi.org/10.1016/j.segan.2024.101535
Citations
2
Primary Topic
Energy and Environment Impacts
Type
article
Field-Weighted Citation Impact
0.27

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article

Swarm electrification for Raqaypampa: Impact of different battery control setpoints on energy sharing in interconnected solar homes systems

Ida Fuchs, Govert Valkenburg, Sergio Balderrama, Claudia Sanchez-Solis
2 citations
Sustainable Energy Grids and Networks
Energy and Environment Impacts
0.27
article

Swarm electrification for Raqaypampa: Impact of different battery control setpoints on energy sharing in interconnected solar homes systems

Ida Fuchs, Govert Valkenburg, Sergio Balderrama, Claudia Sanchez-Solis
article en
2 citations

Abstract

In rural electrification, decentralized systems have proven to bring fast, affordable, and sustainable electricity supply for the last mile of energy access. Especially, solar home systems (SHS) have lately increased in number and impact. Recently, a new concept promises even better utilization of SHS and the potential for higher access to electricity. This concept is found under the name of swarm electrification, also known as interconnected SHS, nanogrids, or decentralized DC systems in rural areas. This paper studies the benefits of such interconnected SHS for a case study in the indigenous rural Highlands of Bolivia, an area called Raqaypampa. Our study emphasizes analyzing the energy sharing setpoints for the decentralized battery control and how the choice of these values influences energy distribution in the community. We draw concepts of energy justice into our discussion to evaluate different combinations of battery state of charge setpoints. Our study finds four types of households in Raqaypampa based on their demand for electricity. The modeled and simulated results of a potential energy sharing through interconnected SHS reveal three outcomes for the households based on the battery state of charge setpoints: Outcome I - Improving households, Outcome II - Depending households, and Outcome III - Deteriorating households. We conclude that a common approach of e.g. minimization of total unmet demand alone will not necessarily lead to just energy distribution, and it is crucial to integrate discussions about justice and community goals into the design process from the beginning. • A real case study of electricity access from Bolivian Highlands • Electricity demand study, modelling and clustering in four household types • A multi-model simulation of energy sharing between interconnected SHS • Energy sharing outcomes vary with battery control setpoints • Energy justice discussion of outcomes for individuals and community.

Sustainable Energy Grids and NetworksVol. 40
University of Liège (BE), Norwegian University of Science and Technology (NO), Universidad Mayor de San Simón (BO)
Norges Teknisk-Naturvitenskapelige Universitet, Académie de recherche et d'enseignement supérieur
Affordable and clean energy
Openalex Percentile: Top 53%
Energy and Environment Impacts
0.27
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