Assessing the Environmental and Socioeconomic Impacts of Artisanal Gold Mining in Zimbabwe: Pathways Towards Sustainable Development and Community Resilience
Abstract
1. Introduction
Research Objectives
- To assess the environmental impacts of artisanal gold mining on terrestrial ecosystems, aquatic resources, and biodiversity in affected regions and to propose evidence-based mitigation strategies to minimize these effects.
- To examine the socioeconomic consequences of AGM on local communities, while utilizing a network perspective to understand the interrelationships among these factors.
- To provide stakeholders with actionable recommendations that are going to be derived from a comprehensive socioeconomic and environmental analysis.
2. Literature Review
2.1. Environmental Impacts of Artisanal Gold Mining
Degradation of Terrestrial and Aquatic Ecosystems
2.2. Socioeconomic Impacts of Artisanal Gold Mining
2.2.1. Economic Opportunities and Livelihoods
2.2.2. Health Risks
2.2.3. Strategies for Improving Community Resilience
2.3. Policy and Sustainability Frameworks for Sustainable Artisanal Mining
2.3.1. Regulatory Framework
2.3.2. Community Engagement
2.3.3. Methods for Environmentally Sustainable Mining
2.3.4. Capacity Building, Environmental Education, and Resource Stewardship
2.3.5. Integrated Environmental–Socioeconomic Planning for Long-Term Sustainability
3. Materials and Methods
3.1. Research Design and Philosophical Orientation
3.2. Study Area and Case Study Sites
3.3. Participants and Sampling Procedures
3.4. Data Collection Procedures
3.5. Data Analysis
3.6. Ensuring Trustworthiness
3.7. Ethical Considerations
4. Results and Discussion
4.1. Economic Opportunities and Challenges
“Through AGM, I am now able to finance my children’s education as well as to procure food and other essential goods for my family.”
“In some months, I earn sufficient income to support my family; in other months, I scarcely earn anything.”
“When gold prices increase and decline, it impacts all. When individuals cease mining operations, the community and local enterprises also endure adverse effects, since most of them have come to depend on AGM.”
4.2. Environmental Degradation
“Each fallen tree represents a loss; we seek not only gold but also the land that nourishes us.”
“We are greatly causing damage to our land that has sustained us through generations. We do not have any other options, but if we persist at this rate of mining, there will be no green environment left for future generations, and chances of this country turning to a desert remain high.”
“The rivers we once drank from are now contaminated, and we are now worried about where we are going to get water for drinking.”
“The environmental impact of AGM is profound… without modern technologies and resources, it is difficult to lessen these environmental impacts.”
4.3. Health Implications
“During mining operations and especially gold blasting, we inhale a lot of dust and chemicals, and thereby we end up experiencing respiratory difficulties.”
“We acknowledge that mercury is hazardous, yet it remains the sole method for efficient gold extraction.”
“Numerous children are unable to attend school as their families require their assistance in mining.”
“AGMs are poor and do not have resources, and hence government intervention is necessary to implement better practices; without such support, we remain susceptible.”
4.4. Social Dynamics and Conflicts
“It seems there are two worlds here within gold mining areas, one for those who have discovered gold and the other for those who have not. Those who have not benefited from AGM are the most vocal ones, and in most cases, they are the ones seen complaining about environmental issues. To some of us, it is a fight for survival, since we live from hand to mouth.”
“Most of our land is gone, and you can see pits all over the once green area. We used to cultivate this land, but there is nothing left for our grandchildren and us. We must migrate from our cultural land and move to other virgin areas soon.”
“We are losing our way of life. The younger generation is disconnected from our traditions and solely concentrated on mining.”
“We must engage in the discourse regarding the impact of AGM on us. Our voices hold significance. Our ancestors’ land is being taken, and we are left with nothing.”
“The social cohesion of mining communities is at risk of further disintegration, jeopardizing the potential advantages that artisanal mining may offer.”
4.5. Perceptions of Government Policies
“It seems as though we are abandoned to manage things on our own. Economic challenges and high unemployment leave us with no option but to fight for our survival.”
“Rather than merely prohibiting AGM, the government should work on formalising AGM since they could be contributors to economic development. Prohibiting is not the solution when there are no alternative forms of employment to AGM, hence collaborating with miners on sustainable development is what must be done.”
“The government’s efforts have been somewhat ineffective… without strong enforcement and better support systems, these policies have had limited success.”
4.6. Community Responses and Proposed Solutions
“Though efforts to plant trees have been initiated, they remain tiny because many AGMs do not take them very seriously. These efforts are not widespread enough to make a significant impact.”
“One important measure is providing comprehensive training programs for miners on the use of less harmful chemicals.”
“……. improving working conditions for miners helps in increasing the efficiency of gold extraction and thereby reducing the overall ecological footprint”.
“We require improved alternatives; dependence exclusively on gold is unsustainable. During the rainfall seasons, we do not get much income because most of us do not have the resources to buy equipment that can be used during the rainfall season.”
4.7. Linking Findings to Sustainable Development Goals and Environmental Justice
4.8. Long-Term Sustainability Implications
5. Conclusions
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Conflicts of Interest
References
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| Degradation Category | Specific Manifestations | Evidence from Interviews (Examples) | Observed/Reported Impacts |
|---|---|---|---|
| Deforestation & Vegetation Loss |
| “Each fallen tree represents a loss…” “There will be no green environment left…” |
|
| Soil Degradation & Land Scarring |
| “The land that sustained us is now full of pits.” |
|
| Water Contamination |
| “The rivers we once drank from are now contaminated.” |
|
| Aquatic Ecosystem Disruption |
| “Water is now turbid and laced with chemicals…” |
|
| Air Pollution |
| “We inhale a lot of dust and chemicals…” |
|
| Biodiversity Loss |
| “Some areas once rich in flora and fauna are now barren.” |
|
| Vector-Borne Disease Proliferation |
| “Abandoned pits become breeding grounds for mosquitoes.” |
|
| Landscape Transformation |
| “Our land is gone… we used to cultivate this land.” |
|
| Region/Location | Mercury in Water | Mercury in Soil/Sediment | Source |
|---|---|---|---|
| Mazowe, Mashonaland Central | Upper Mazowe River: was found to be between 36–40 g/L of Hg in river water, which was uniform along the river’s length in recent surveys. This sustained level of 30–40 indicates chronic contamination from nearby ASGM and airborne deposition. | At Mazowe Dam, sediments elevated trace metal burdens were reported (e.g., Hg detected as insoluble complexes) | [91]. |
| Kadoma, Mashonaland West Province | Muzvezve River: Researchers have found mercury in water near Kadoma’s ASGM sites, though mostly in particulate form (fluvial transport of amalgam fines)—e.g., <0.5 µg/L in river water but higher in wetlands | Hg was found to be very high in gold-processing zones. Most soils at the Kadoma mill sites averaged 43.5 mg/kg, with hot-spot readings up to 105 mg/kg Hg (in tailings after cyanidation). Even village soil shows measurable Hg accumulation from nearby amalgamation activities. | [92]. |
| Kwekwe, Midlands Province | Tiger Reef Mine: 2.13 mg/L (2130 µg/L) in runoff effluent near a stamp mill; even 0.13 mg/L (130 µg/L) in a downstream stream—both vastly above the 0.02 mg/L limit | This data was not reported as it only aimed at effluent water monitoring at this site (data not reported) | [93]. |
| Shurugwi, Midlands Province | Runde River basin: Mercury-laden runoff from alluvial gold workings was found to have raised downstream Hg levels, as there was evidence of increasing Hg concentrations vs. upstream, though the exact figures were not given | Tailing sediments were found at 6–1541 µg/kg (mean ~142 µg/kg) near ASGM sites. (Shurugwi hosts many stamp mills and tailings, implying comparable sediment contamination.) | [94]. |
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Nyakuwanika, M.; Panicker, M. Assessing the Environmental and Socioeconomic Impacts of Artisanal Gold Mining in Zimbabwe: Pathways Towards Sustainable Development and Community Resilience. Resources 2025, 14, 190. https://doi.org/10.3390/resources14120190
Nyakuwanika M, Panicker M. Assessing the Environmental and Socioeconomic Impacts of Artisanal Gold Mining in Zimbabwe: Pathways Towards Sustainable Development and Community Resilience. Resources. 2025; 14(12):190. https://doi.org/10.3390/resources14120190
Chicago/Turabian StyleNyakuwanika, Moses, and Manoj Panicker. 2025. "Assessing the Environmental and Socioeconomic Impacts of Artisanal Gold Mining in Zimbabwe: Pathways Towards Sustainable Development and Community Resilience" Resources 14, no. 12: 190. https://doi.org/10.3390/resources14120190
APA StyleNyakuwanika, M., & Panicker, M. (2025). Assessing the Environmental and Socioeconomic Impacts of Artisanal Gold Mining in Zimbabwe: Pathways Towards Sustainable Development and Community Resilience. Resources, 14(12), 190. https://doi.org/10.3390/resources14120190

