Design and Development of Crossflow Turbine for Off-Grid Electrification

Investing in large-scale hydropower is on the rise in Ethiopia in accordance with the country’s climate-resilient green economy strategy. Rural electrification is a top priority on the development agenda of the country, with very limited off-grid interventions. Although small-scale hydropower can bring various social and economic benefits compared to other off-grid solutions, it is hardly localized in the country. The motivation for this research is to break this technological bottleneck by synergizing and strengthening the local capacity. Accordingly, this paper presents the full-scale crossflow turbine design and development process of a power plant constructed to give electricity access to about 450 households in a rural village called Amentila. Based on a site survey and the resource potential, the power plant was designed for a 125 kW peak at 0.3 m3/s of discharge with a 53 m head. The crossflow was selected based on the head, discharge, and simplicity of development with the available local capacities. The detailed design of the turbine and its auxiliary components was developed and simulated using SolidWorks and CFD ANSYS CFX. The power plant has a run-of-river design, targeting provision of power during peak hours. This study demonstrates an off-grid engineering solution with applied research on the water–energy–food–environment nexus.

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Publication Details

Journal
Energies
Published
2025-09-25
DOI
https://doi.org/10.3390/en18195108
Citations
2
Primary Topic
Cavitation Phenomena in Pumps
Type
article
Field-Weighted Citation Impact
1.73

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article

Design and Development of Crossflow Turbine for Off-Grid Electrification

Kalekirstos G. Gebrelibanos, Asfafaw Haileselassie Tesfay, Sirak A. Weldemariam
2 citations
Energies
Cavitation Phenomena in Pumps
1.73
article

Design and Development of Crossflow Turbine for Off-Grid Electrification

Kalekirstos G. Gebrelibanos, Asfafaw Haileselassie Tesfay, Sirak A. Weldemariam
article en
2 citations

Abstract

Investing in large-scale hydropower is on the rise in Ethiopia in accordance with the country’s climate-resilient green economy strategy. Rural electrification is a top priority on the development agenda of the country, with very limited off-grid interventions. Although small-scale hydropower can bring various social and economic benefits compared to other off-grid solutions, it is hardly localized in the country. The motivation for this research is to break this technological bottleneck by synergizing and strengthening the local capacity. Accordingly, this paper presents the full-scale crossflow turbine design and development process of a power plant constructed to give electricity access to about 450 households in a rural village called Amentila. Based on a site survey and the resource potential, the power plant was designed for a 125 kW peak at 0.3 m3/s of discharge with a 53 m head. The crossflow was selected based on the head, discharge, and simplicity of development with the available local capacities. The detailed design of the turbine and its auxiliary components was developed and simulated using SolidWorks and CFD ANSYS CFX. The power plant has a run-of-river design, targeting provision of power during peak hours. This study demonstrates an off-grid engineering solution with applied research on the water–energy–food–environment nexus.

EnergiesVol. 18(19)
Norwegian University of Science and Technology (NO), Mekelle University (ET)
Mekelle University
Openalex Percentile: Top 15%
Cavitation Phenomena in Pumps
1.73
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