Biogas Technology for Rural Energy Security: An investigation of uptake and diffusion in Meskan District, Southern Ethiopia

Biogas is life for rural community!

Published in Earth & Environment

Like

Share this post

Choose a social network to share with, or copy the URL to share elsewhere

This is a representation of how your post may appear on social media. The actual post will vary between social networks

Explore the Research

SpringerLink
SpringerLink SpringerLink

Biogas technology for rural energy security: an investigation of uptake and diffusion in Meskan district, southern Ethiopia - Discover Environment

Despite the potential of biogas technology to significantly influence rural energy development, its production, utilization, and dissemination have not been adequately explored in the Meskan District, Southern Ethiopia. This study aimed to examine the adoption and diffusion of biogas technology in the Meskan District of Southern Ethiopia. Primary data was collected through semi-structured questionnaires, focus group discussions, key informant interviews (KIIs), and direct observations. A total of 268 households participated in the study, 134 with biogas systems and 134 without. The findings indicated that biogas adoption significantly enhanced rural livelihoods. The study demonstrated that the rural poor’s quality of life is significantly improved by the application of biogas technology. Users reduced daily time spent on cooking and firewood collection by 70%, and annual net income increased by approximately $292, 11,000ETB (72%) compared to non-users. The findings of the regression analysis, odds ratio indicated the importance of the following significant factors: sex of the household head (0.01%), education level of the household head (0.01%), number of cattle owned (0.05%), distance to water source (0.01%), income level of the households (0.01%), credit availability (0.05%), the extension service (0.01%) and training (0.01%). Among non-adopters who backed, 68% cited lack of maintenance, follow-up, and technical supervision as major barriers to adoption. Increased focus on and assistance for raising livestock, lending money to farmers, teaching them how to build biogas plants and how to use the technology responsibly to maximize profits, and maintaining and repairing partially and partially operational. To improve adoption and sustainability of biogas technology, (i) strengthen livestock development programs; (ii) provide accessible credit facilities to rural households; (iii) offer hands-on training on the construction and maintenance of biogas plants; (iv) ensure reliable extension and technical support services; and (v) enhance public awareness on the economic and environmental benefits of biogas energy and the effective use of bio-slurry.

https://link.springer.com/article/10.1007/s44274-025-00404-6

Behind the Research

Empowering rural communities through Biogas innovation in Southern Ethiopia

Access to clean and sustainable energy continues to be one of the most urgent issues in rural Africa. In several regions of Ethiopia, families continue to rely on traditional biomass fuels like firewood, crop leftovers, and animal waste for cooking and heating. Although these energy sources are essential for everyday life, they entail significant costs, especially for women and children who encounter health hazards from indoor air pollution, time scarcity from gathering fuelwood, and the deterioration of local ecosystems. My newly published article, “Biogas Technology for Rural Energy Security: An investigation of uptake and diffusion in Meskan District, Southern Ethiopia,” investigates how Biogas technology can act as a transformative solution for clean energy accessibility, gender empowerment, and sustainable rural livelihoods.

The story behind the study

This study emerged from a thorough observation of the daily challenges faced by rural families in the Meskan district, where dependence on conventional fuels limited development prospects and reinforced gender disparities. I aimed to comprehend why the uptake of Biogas technology stayed restricted despite its established advantages, and which social, economic, and institutional elements affected its spread. Utilizing household surveys, focus group discussions, and statistical analysis, the research pinpointed the key factors facilitating and hindering Biogas adoption, encompassing household income, livestock ownership, awareness levels, and availability of extension services. It also demonstrated how gender relations influence decision-making regarding energy options and resource utilization.

 Originality and scientific contribution

The research's innovation exist in its comprehensive method, connecting the spread of Biogas technology to rural energy stability, gender dynamics, and socio-economic change. It adds to the literature by offering empirical evidence from a micro-level context, demonstrating how behavioral and institutional factors influence technology adoption in developing areas. The research enhances comprehension of clean energy shifts in rural systems, providing a framework that other scholars can modify for various contexts. It also offers important perspectives for policymakers and development professionals aiming to enhance renewable energy initiatives in line with SDG 7 (Affordable and Clean Energy) and SDG 5 (Gender Equality).

 Impact and Community relevance

Outside of academia, this study directly relates to the experiences of rural communities. Advancing Biogas technology not only lowers indoor air pollution and curbs deforestation but also saves time for women and children, boosts agricultural productivity with organic fertilizers, and aids in mitigating climate change. The results endorse the creation of gender-sensitive policies and initiatives that emphasize inclusivity and sustainability in energy strategizing. Grasping the real-life elements influencing adoption can make development initiatives more impactful, fair, and revolutionary.

 Final Remark

This project represents not just an academic advancement, it embodies a vision for a more sustainable, equitable, and resilient rural Ethiopia and the globe. It serves as a reminder that the journey toward sustainable energy shifts starts at home, where scientific knowledge intersects with social transformation.

 

Please sign in or register for FREE

If you are a registered user on Research Communities by Springer Nature, please sign in

Follow the Topic

Environmental Economics
Physical Sciences > Earth and Environmental Sciences > Geography > Integrated Geography > Environmental Economics

Related Collections

With Collections, you can get published faster and increase your visibility.

Monitoring environmental pollution and impact on health

The intensification of human activities and the expansion and densification of urban areas cause various damages to the environment, necessitating continuous monitoring to assess the impact and extent of potential risks to both the environment and human health, in order to ensure urban sustainability.

This collection, “Monitoring Environmental Pollution and Impact on Health,” invites contributions that utilize tools related to health impact assessment, human health risk, ecological risk, data modeling, geospatial data, and Geographic Information Systems (GIS) to analyze impacts within urban environments. We also encourage the publication of research on the dynamics of pollution and health in rural and peri-urban areas, interdisciplinary studies between environmental sciences and public health, epidemiology, and urban planning for a holistic assessment of the multifaceted impacts of pollution on human well-being. In addition, studies that contribute actionable policy recommendations for local governments, environmental agencies, or public health institutions dealing with urban pollution are welcome. Research (time series or longitudinal studies) that demonstrate public health trends related to chronic exposure to pollutants, aiming for a better understanding of long-term urban sustainability issues, are also encouraged. Studies addressing health risks for vulnerable populations (such as children, the elderly, or low-income communities) exposed to environmental pollution in densely populated areas are of particular interest. We welcome studies on participatory monitoring and the development of citizen science, empowering communities to act in collaboration with local environmental health surveillance managers. Research involving satellite pollution monitoring and remote sensing is also encouraged. Comparative studies on pollution and health across different regions, identifying critical hotspots and globally replicable mitigation strategies, are of interest. We also welcome research that investigates environmental justice and urban socio-demographic inequalities/disparities in health due to environmental pollution. Review studies and meta-analyses exploring trends, methodologies, and gaps in urban environmental health research are also welcome.

Keywords: Health impact assessment, Environmental quality monitoring (air, water, and soil), Pollution sources and emissions, Spatial analysis, Geospatial technology, Climate change, Urban sustainability, Machine learning, Ecological risk assessment, Human health risk assessment

This Collection supports and amplifies research aligned with the following Sustainable Development Goals (SDGs): SDG 11.

Publishing Model: Open Access

Deadline: Feb 28, 2027

Environmental and Health Risk Assessment from Exposure to Xenobiotics

This collection brings together original research articles, case studies, and critical reviews that provide a comprehensive analysis of environmental and human health risks arising from exposure to xenobiotics, defined as chemical substances foreign to biological systems that may cause adverse effects on organisms and ecosystems. This collection aims to consolidate scientific contributions addressing the identification, characterization, quantification, and management of risk associated with chemical contaminants of industrial, agricultural, pharmaceutical, and domestic origin, including pesticides, heavy metals, hydrocarbons, endocrine disruptors, emerging pharmaceuticals, and other persistent compounds. Interest is given to studies employing multidisciplinary approaches, including environmental toxicology, analytical chemistry, epidemiology, ecotoxicology, exposure modeling, environmental impact assessment, and public health policy analysis. The collection seeks to advance scientific knowledge and evidence-based decision-making by promoting prevention, mitigation, and control strategies that protect human health and sustain ecosystems amid the increasing presence of xenobiotics in the environment.

This Collection is strategically positioned to advance the next generation of integrated environmental–human health risk assessment frameworks addressing xenobiotics under real-world conditions. Rather than treating environmental contamination, toxicological endpoints, and epidemiological outcomes as isolated domains, the Collection explicitly promotes a systems-based approach that connects analytical detection, exposure pathways, dose–response relationships, and risk management within a unified, policy-relevant continuum.

We particularly encourage submissions that bridge high-resolution chemical analysis, exposure modeling, and measurable health outcomes, thereby strengthening causal interpretation and reducing fragmentation between chemistry-focused and public health contributions. Methodological advances in cumulative risk assessment, mixture toxicology, and low-dose chronic exposure evaluation are strongly welcomed, reflecting the complex multi-chemical realities faced by populations and ecosystems worldwide.

The Collection explicitly invites research on emerging contaminants, including pharmaceuticals, microplastics-associated chemicals, transformation products, endocrine disruptors, and persistent pollutants, ensuring alignment with evolving regulatory priorities and environmental challenges. Comparative and longitudinal studies across regions, ecosystems, and vulnerable populations are encouraged to generate generalizable insights into transboundary pollution, food-chain transfer, and socio-environmental exposure dynamics.

To enhance coherence and scientific impact, contributions will be structured along the risk assessment continuum: hazard identification, exposure assessment, dose–response analysis, and risk management translation. Special emphasis will be placed on studies that move beyond risk characterization toward actionable outputs, including regulatory threshold development, mitigation strategies, and public health interventions applicable in both developed and developing contexts.

By fostering interdisciplinary collaboration among analytical chemists, toxicologists, exposure scientists, epidemiologists, environmental modelers, and social scientists working on risk perception and communication, this Collection aims to position Discover Environment as a leading platform for integrative, policy-relevant, and globally impactful environmental health research.

Keywords: Xenobiotics, Environmental Risk Assessment, Health Risk Assessment, Chemical pollution, Toxicological exposure, Ecotoxicology, Integrated Risk Assessment, Cumulative and Mixture Toxicity, Exposure Pathways, Emerging Contaminants, Risk Management, Policy Translation, Transboundary Pollution

Publishing Model: Open Access

Deadline: Dec 31, 2026