Analysis of pollution in lake Tanganyika: ecological and economic challenges, prospects for joint research
Abstract and keywords
Abstract (English):
This article analyzes the causes and consequences of Lake Tanganyika's pollution, aiming to promote scientific and civil research for the strategic management and conservation of Lake Tanganyika's biodiversity. As a vital resource for millions of people living in its coastal areas, Lake Tanganyika's unique biodiversity faces significant anthropogenic threats, including pollution and water resource depletion, as well as the negative impacts of climate change. In particular, the studies convincingly demonstrate that the increase in the number of coliform bacteria is actively influenced by the growth of the population's labor (anthropogenic) activity and their proximity to the lake's shoreline. It is pointed out and justified that one of the key reasons for the pollution of the lake's water basin is the pollution of the coastal areas. It is emphasized that comprehensive monitoring of the lands directly adjacent to the coastline, as well as the lands occupied by industrial enterprises and urban areas, which are the main sources of lake pollution, is necessary. The publication notes that the research conducted by various foreign and local organizations, using civil research to assess the state of the lake and its changing trends, is characterized by fragmentation, lack of systematization, and insufficient completeness. This makes it difficult to develop a scientifically sound policy for the state to effectively manage and preserve this unique natural resource. The article emphasizes the importance of citizen science in monitoring the pollution of the lake, and discusses the possibilities of cooperation between scientists and local communities to collect scientific data that contribute to the development of effective policies and management strategies aimed at preserving the ecological and natural sustainability and integrity of Lake Tanganyika. The article presents the current results, which, according to the authors, can be used as a basis for further details and additions based on a new methodological approach.

Keywords:
Lake Tanganyika, pollution, protection of water and land resources, coastal areas, biodiversity conservation, water resource depletion, and ecosystem monitoring
Text
Text (PDF): Read Download
References

1. Peche artisanale Kigoma. [electronic resource] URL: http://burundieco.com/wpcontent/uploads/2019/10/Peche_artisanaleKigoma-600x450.jpg.

2. First genomic study on Lake Tanganyika sprat Stolothrissa tanganicae: a lack of population structure calls for integrated management of this important fisheries target species, BMC Evol. Biol., 19 (6) (2019), pp. 1-15. [electronic resource] DOI:https://doi.org/10.1186/s12862-018-1325-8

3. L.T.A. Secretariat Regional Charter of the member states of the Lake Tanganyika Authority providing for measures for sustainable management of fisheries in Lake Tanganyika and its basin LTA, Bujumbura, Burundi (2021).

4. Ceccaroni L., Bowser A., Brenton P. Civic education and citizen science: definitions, categories, knowledge representation. Analysis of the role of citizen science in contemporary research: IGI Global; 2017. P. 1-23.

5. Community monitoring of coliform pollution in Lake Tanganyika. [electronic resource] URL: Community monitoring of coliform pollution in Lake Tanganyika PLOS One.

6. Boxplot representing mean concentrations ± standard deviation of coliform and turbidity determined by citizen scientists in 5 study sites (n = 36 per site). [electronic resource] URL: Community monitoring of coliform pollution in Lake Tanganyika/PLOS One.

7. Average and standard deviation of coliform and turbidity for each study site (n = 36). [electronic resource] URL: Community monitoring of coliform pollution in Lake Tanganyika/PLOS One.

8. Results of the t-test for two pairs of samples of risk factors affecting the stability of coliform accidents and turbidity. [electronic resource] URL: http://journals.plos.org/plosone/article/figure?idhttps://doi.org/10.1371/journal.pone.0262881.t004.

9. Byamukama D, Kansiime F, Mach RL, Farnleitner AH. Determination of Escherichia coli contamination using chromocult coliform agar showed a high level of discrimination effectiveness for various levels of faecal contamination in tropical waters of Kampala, Uganda. Applied Environmental Microbiology. 2000;66(2):864. pmid:10653767.

10. Niyoyitungiye L, Giri A, Ndayisenga M. Assessment of Coliforms Bacteria Contamination in Lake Tanganyika as Bioindicators of Recreational and Drinking Water Quality. South Asian Journal of Research in Microbiology. 2020:9-16.

11. Bishop IJ, Warner S, van Noordwijk TC, Nyoni FC, Loiselle SJS. Citizen Science Monitoring for Sustainable Development Goal Indicator 6.3. 2 in England and Zambia. Sustainability. 2020;12(24):10271. [electronic resource] URL:http://www.preprints.org/manuscript/202011.0067/v1.

12. McKinley DK, Miller-Rushing AJ, Ballard HL, Bonney R, Brown H, Cook-Patton SC, et al. Citizen science can improve conservation science, natural resource management, and environmental protection. Nature Conservation Biology. 2017;208:15-28.

Login or Create
* Forgot password?