Ecosystems in a Sate of Flux: Evidence from A Kenyan Coastal Riparian Ecosystem

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Elias K. Maranga
Elias K. Maranga
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Leila A. Ndalilo
Leila A. Ndalilo
α Egerton University

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Ecosystems in a Sate of Flux: Evidence from A Kenyan Coastal Riparian Ecosystem

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Abstract

Riparian ecosystems are considered hotspots of carbon and nitrogen transformations. These biochemical transformations are driven by anthropogenic activities in the immediate riverine water catchments. The anthropogenic activities may include and not limited to extraction of goods such as agricultural products, wood products, honey, plant based pharmaceutical products, livestock products, firewood, water and grass for thatching homesteads. Riparian ecosystems also provide important tangible and intangible ecosystem services comprising spiritual and aesthetic functions, pollination, ecosystem detoxification functions, carbon and nitrogen sequestration and CO2 sinks for amelioration of climate change impacts among others. These ecosystems are increasingly threatened by degradation attributed to land use changes. Human perturbations such as crop farming on riparian land, overgrazing and population pressure on land resources influence degradation of riparian ecosystems, with profound effects on biodiversity conservation and local livelihoods. Evidence from the literature indicates that although there is a general understanding regarding the response of terrestrial and wetland ecosystems to human perturbations, there is a dearth of information on the response of African riparian ecosystems to ecologic and socio-economic impacts.

References

99 Cites in Article
  1. Mohammad Adel,Hassan Pourbabaei,Ali Salehi,Seyed Alavi,Daniel Dey (2018). Structure, composition and regeneration of riparian forest along an altitudinal gradient in northern Iran.
  2. Kellen Aganyira,Robert Kabumbuli,Vincent Muwanika,John Tabuti,Douglas Sheil (2020). Determinants of participation in state and private PES projects in Uganda.
  3. Icek Ajzen (1991). The theory of planned behavior.
  4. Alden Wily,L (2018). Risks to the sanctity of community lands in Kenya. A critical assessment of new legislation with reference to forestlands.
  5. H Alexander,N Gerhard,R Okelo,J Wachira,W Nauta,W Pohl (1979). Case study: Taita Hills, SE Kenya.
  6. T Allendorf (2022). A global summary of local residents' perceptions of benefits and problems of protected areas.
  7. B Asmare,Y (2019). Assessment of Ficus thonningii tree production and utilization for livestock feed by smallholder farmers in Northwestern Ethiopia.
  8. M Baude,B Meyer,M Schindewolf (2019). Land use change in an agricultural landscape causing degradation of soil-based ecosystem services.
  9. L Bear (1953). Eleventh Biennial Report of the Florida Geological Survey, Covering Period January 1, 1953, Through December 31, 1954.
  10. Emilio Bruna (1999). Seed germination in rainforest fragments.
  11. G Budowski (1965). Distribution of tropical American forest species in a light of successional process.
  12. Samantha Capon,Lynda Chambers,Ralph Mac Nally,Robert Naiman,Peter Davies,Nadine Marshall,Jamie Pittock,Michael Reid,Timothy Capon,Michael Douglas,Jane Catford,Darren Baldwin,Michael Stewardson,Jane Roberts,Meg Parsons,Stephen Williams (2013). Riparian Ecosystems in the 21st Century: Hotspots for Climate Change Adaptation?.
  13. M Carter,K Wiebe,B Blare (1994). Tenure Security and Transfer Rights Enhancing Reforms.
  14. F Chapin,Pamela Matson,Peter Vitousek (2011). Principles of Terrestrial Ecosystem Ecology.
  15. Robin Chazdon (2014). Synthesis.
  16. Yukai Chen,Xiaobo Yang,Qi Yang,Donghai Li,Wenxing Long,Wenqi Luo (2014). Factors Affecting the Distribution Pattern of Wild Plants with Extremely Small Populations in Hainan Island, China.
  17. A Clewell,J Aronson (2013). Ecological restoration: Principles, values, and structure of an emerging profession.
  18. W Cochran (1963). Sampling Techniques.
  19. Joseph Connell (1978). Diversity in Tropical Rain Forests and Coral Reefs.
  20. Lynne Connelly (2008). Research Problems.
  21. F De Paula (2018). Riparian forest management and regeneration: Effects on forest structure and stream ecological processes in streams of Eastern Amazon.
  22. Wakjira Dibaba,Tamene Demissie,Konrad Miegel (2020). Drivers and Implications of Land Use/Land Cover Dynamics in Finchaa Catchment, Northwestern Ethiopia.
  23. Raphael Didham (1998). Altered leaf-litter decomposition rates in tropical forest fragments.
  24. Kathleen Dwire,Sabine Mellmann-Brown,Joseph Gurrieri (2018). Potential effects of climate change on riparian areas, wetlands, and groundwater-dependent ecosystems in the Blue Mountains, Oregon, USA.
  25. C Essien,J Ofori,D Sekyere,F Owusu,S Tekpetey (2012). Assessing the suitability of Ficus sur and Cola gigantea as raw material for pulp and paper production in Ghana.
  26. María Felipe-Lucia,Santiago Soliveres,Caterina Penone,Markus Fischer,Christian Ammer,Steffen Boch,Runa Boeddinghaus,Michael Bonkowski,François Buscot,Anna Fiore-Donno,Kevin Frank,Kezia Goldmann,Martin Gossner,Norbert Hölzel,Malte Jochum,Ellen Kandeler,Valentin Klaus,Till Kleinebecker,Sophia Leimer,Peter Manning,Yvonne Oelmann,Hugo Saiz,Peter Schall,Michael Schloter,Ingo Schöning,Marion Schrumpf,Emily Solly,Barbara Stempfhuber,Wolfgang Weisser,Wolfgang Wilcke,Tesfaye Wubet,Eric Allan (2020). Land-use intensity alters networks between biodiversity, ecosystem functions, and services.
  27. S Ferraz,C Vettorazzi,D Theobald,M Ballester (2005). Landscape dynamics of Amazonian deforestation between 1984 and 2002 in central Rondônia, Brazil: assessment and future scenarios.
  28. Jonathan Foley,Ruth Defries,Gregory Asner,Carol Barford,Gordon Bonan,Stephen Carpenter,F Chapin,Michael Coe,Gretchen Daily,Holly Gibbs,Joseph Helkowski,Tracey Holloway,Erica Howard,Christopher Kucharik,Chad Monfreda,Jonathan Patz,I Prentice,Navin Ramankutty,Peter Snyder (2005). Global Consequences of Land Use.
  29. Jerry Franklin,Thomas Spies,Robert Pelt,Andrew Carey,Dale Thornburgh,Dean Berg,David Lindenmayer,Mark Harmon,William Keeton,David Shaw,Ken Bible,Jiquan Chen (2002). Disturbances and structural development of natural forest ecosystems with silvicultural implications, using Douglas-fir forests as an example.
  30. Adane Girma,Eberhard Fischer,Bonny Dumbo (2014). Vascular Plant Diversity and Community Structure of Nandi Forests, Western Kenya.
  31. Manuel Guariguata,Rebecca Ostertag (2001). Neotropical secondary forest succession: changes in structural and functional characteristics.
  32. G Guggenberger,B Christensen,W Zech (1994). Land‐use effects on the composition of organic matter in particle‐size separates of soil: I. Lignin and carbohydrate signature.
  33. Jan Habel,Werner Ulrich (2021). Ecosystem functions in degraded riparian forests of southeastern Kenya.
  34. J Habel,Mike Teucher,Werner Ulrich,Thomas Schmitt (2018). Documenting the chronology of ecosystem health erosion along East African rivers.
  35. Jan Habel,Mike Teucher,Berthold Hornetz,Ralph Jaetzold,Josphert Kimatu,Sichangi Kasili,Zachariah Mairura,Ronald Mulwa,Hilde Eggermont,Wolfgang Weisser,Luc Lens (2015). Real-world complexity of food security and biodiversity conservation.
  36. Dave Hodgson,Jenni Mcdonald,David Hosken (2015). What do you mean, ‘resilient’?.
  37. C Holling (1973). Resilience and Stability of Ecological Systems.
  38. J Hudson,J Hanula,S Horn (2014). Impacts of removing Chinese privet fromriparian forests on plant communities and tree growth five years later.
  39. Philip Hulme (2005). Adapting to climate change: is there scope for ecological management in the face of a global threat?.
  40. T Htay (2020). Attitude of Local Communities Towards Human-Wildlife Interactions and Wildlife Conservation in the Peechi-Vazhani Wildlife Sanctuary, Thrissur, Kerala.
  41. N Htun,N Mizoue,S Yoshida (2012). Determinants of local people's perceptions and attitudes toward a protected area and its management: A case study from Popa Mountain Park, Central Myanmar.
  42. Mark Infield,Agrippinah Namara (2001). Community attitudes and behaviour towards conservation: an assessment of a community conservation programme around Lake Mburo National Park, Uganda.
  43. Robert John,James Dalling,Kyle Harms,Joseph Yavitt,Robert Stallard,Matthew Mirabello,Stephen Hubbell,Renato Valencia,Hugo Navarrete,Martha Vallejo,Robin Foster (2007). Soil nutrients influence spatial distributions of tropical tree species.
  44. Kanungwe Kalaba,Paxie Chirwa,Stephen Syampungani,Clifford Ajayi (2010). Contribution of agroforestry to biodiversity and livelihoods improvement in rural communities of Southern African regions.
  45. (2010). Tropical Rainforests and Agroforests under Global Change.
  46. Krithi Karanth,Sanjay Nepal (2012). Local Residents Perception of Benefits and Losses From Protected Areas in India and Nepal.
  47. Geremew Kassie (2017). The Nexus between livelihood diversification and farmland management strategies in rural Ethiopia.
  48. Deborah Kennard (2002). Secondary forest succession in a tropical dry forest: patterns of development across a 50-year chronosequence in lowland Bolivia.
  49. Alexandra-Maria Klein,Bernard Vaissière,James Cane,Ingolf Steffan-Dewenter,Saul Cunningham,Claire Kremen,Teja Tscharntke (1608). Importance of pollinators in changing landscapes for world crops.
  50. (2010). Developing an Organizational Geospatial Data Framework: A Case Study of Kenya National Bureau of Statistics.
  51. C Krebs (1999). Land-Use and Land-Cover Change.
  52. C Krebs (1999). Ecological methodology.
  53. D Lawrence,K Vandecar (2015). Effects of tropical deforestation on climate and agriculture.
  54. M Liebig,J Ryschawy,S Kronberg,D Archer,E Scholljegerdes,J Hendrickson,D Tanaka (2017). Integrated crop-livestock system effects on soil N, P, and pH in a semiarid region.
  55. Jean-Remy Makana,Sean Thomas (2006). Impacts of Selective Logging and Agricultural Clearing on Forest Structure, Floristic Composition and Diversity, and Timber Tree Regeneration in the Ituri Forest, Democratic Republic of Congo.
  56. Z Malik,A Bhatt (2016). Regeneration status of tree species and 890 survivals of their seedlings in Kedarnath Wildlife Sanctuary and its adjoining areas in Western Himalaya, India.
  57. J Maua,H Mugatsia Tsingalia,J Cheboiwo,D Odee (2020). Population structure and regeneration status of woody species in a remnant tropical forest: A case study of South Nandi Forest, Kenya.
  58. Sean Maxwell,Richard Fuller,Thomas Brooks,James Watson (2016). Biodiversity: The ravages of guns, nets and bulldozers.
  59. Moisés Méndez-Toribio,Isela Zermeño-Hernández,Guillermo Ibarra-Manríquez (2014). Effect of land use on the structure and diversity of riparian vegetation in the Duero river watershed in Michoacán, Mexico.
  60. Goemeone Mogomotsi,Patricia Mogomotsi,Reniko Gondo,Tshenolo Madigele (2018). Community participation in cultural heritage and environmental policy formulation in Botswana.
  61. H Alexander (2005). Nature's services: Societal dependence on natural ecosystems Edited by Gretchen C. Daily Island Press, 1997, $24.95, 392 pages.
  62. O Mugenda,Abel Mugenda (1999). Relationships among freshman background characteristic variables, misconceptions about major and satisfaction with major area of study.
  63. J Muli (2014). The Impact of Irrigated Agriculture in Dry Lands on the Natural Environment: A Case Study of Chala Ward in Taita Taveta County, Kenya.
  64. C Mullah,K Klanderud,O Totland,B Kigomo (2013). Relationships between the density of two potential restoration tree species and plant species abundance and richness in a degraded Afromontane Forest of Kenya.
  65. R Muraoka,S Jin,T Jayne (2018). Land access, land rental and food security: evidence from Kenya.
  66. Nepal Spiteri,A (2011). Linking livelihoods and conservation: An examination of local residents' perceived linkages between conservation and livelihood benefits around Nepal's Chitwan National Park.
  67. K Ngugi,H Ogindo,M Ertsen (2015). Impact of land use change on Hydrology of Mt. Kilimanjaro: The case of Lake Jipe catchment.
  68. A Niringiye,S Wambugu,J Karugia,E Wanga (2010). An investigation of the povertyenvironmental degradation nexus: A case study of Katonga Basin in Uganda.
  69. C Njiriri (2016). The challenges facing the implementation of IWRM in Lake Jipe Watershed, Kenya. Community Action for Nature Conservation.
  70. D Nostrand,C Hatfield,M Bakacs (2003). Regeneration of woody plant species within riparian zones of headwater streams whose watersheds vary by dominant land cover.
  71. A Nyanjom,J Onyango (2008). Peak Revision KCSE Agriculture.
  72. Zenroku Oginosako,Roeland Kindt,Simon Mathenge (2005). An ecological analysis and characterization of Acacia species in Kenya.
  73. J Oldekop,G Holmes,W Harris,K Evans (2016). A global assessment of the social and conservation outcomes of protected areas.
  74. J Okalebo,K Gathua,P Woomer (2002). Laboratory Methods of Soil and Plant Analysis: A Working Manual.
  75. Erick Omollo,Oliver Wasonga,Mohammed Elhadi,William Mnene (2018). Determinants of pastoral and agro-pastoral households’ participation in fodder production in Makueni and Kajiado Counties, Kenya.
  76. Margaret Palmer,J Allan,Judy Meyer,Emily Bernhardt (2007). River Restoration in the Twenty‐First Century: Data and Experiential Knowledge to Inform Future Efforts.
  77. Alison Power (2010). Ecosystem services and agriculture: tradeoffs and synergies.
  78. H Osmaston (1977). Book reviews : Pratt, D. J. and Gwynne, M. D., editors, 1977: Rangeland management and ecology in East Africa. London: Hodder and Stoughton. x + 310 pp. £7.50 cloth.
  79. J Ramirez,P Jansen,L Poortera (2018). Effects of wild ungulates on the regeneration, structure and functioning of temperate forests: A semi-quantitative review.
  80. R Ratovonamana,C Rajeriarison,E Roger,I Kiefer,J Ganzhorn (2013). Impact of livestock grazing on forest structure, plant species composition and biomass in southwestern Madagascar.
  81. Rose Mwawasi (2018). Effects of County Integrated Development Plan Budget Allocations on Health Care Management in Taita Taveta County.
  82. Mark Reed,Martha Clokie (2001). Effects of grazing and cultivation on forest plant communities in Mount Elgon National Park, Uganda.
  83. Rose Mwawasi (2014). Effects of County Integrated Development Plan Budget Allocations on Health Care Management in Taita Taveta County.
  84. O Sala,F Chapin,J Armesto,E Berlow,J Bloomfield,R Dirzo,E Huber-Sanwald,L Huenneke,R Jackson,A Kinzig (2000). Global biodiversity scenarios for the year 2100.
  85. F Sánchez-Bayo,G King (1994). Imbibition and germination of seeds of three <i>Acacia</i> species from Ethiopia.
  86. Daniel Sarr,David Hibbs,Jeffrey Shatford,Rick Momsen (2011). Influences of life history, environmental gradients, and disturbance on riparian tree regeneration in Western Oregon.
  87. Marieke Sassen,Douglas Sheil (2013). Human impacts on forest structure and species richness on the edges of a protected mountain forest in Uganda.
  88. A Schurmann,J Kleemanna,C Furst,M Teucher (2020). Assessing the relationship between land tenure issues and land cover changes around the Arabuko Sokoke Forest in Kenya.
  89. C Shackleton,S Shackleton,E Buiten,N Bird (2007). The importance of dry woodlands and forests in rural livelihoods and poverty alleviation in South Africa.
  90. C Shannon,W Weaver (1963). The Mathematical theory of communication.
  91. C Smit,M Gusberti,H Muller-Schaer (2006). Safe for saplings, safe for seedlings.
  92. J Smith (1992). Fodder trees and shrubs in range and farming systems in tropical humid Africa.
  93. W Steffen,A Burbidge,L Hughes,R Kitchin,D Lindenmayer,W Musgrave,L Stafford Smith,P Werner (2009). Australia's biodiversity and climate change.
  94. D Stoms,J Estes (1993). A remote sensing research agenda for mapping and monitoring biodiversity.
  95. David Tarkalson,Gary Hergert,Kenneth Cassman (2006). Long‐Term Effects of Tillage on Soil Chemical Properties and Grain Yields of a Dryland Winter Wheat–Sorghum/Corn–Fallow Rotation in the Great Plains.
  96. Siriluck Thammanu,Dokrak Marod,Hee Han,Narayan Bhusal,Lamthai Asanok,Pipat Ketdee,Noppakoon Gaewsingha,Seunghyun Lee,Joosang Chung (2021). The influence of environmental factors on species composition and distribution in a community forest in Northern Thailand.
  97. P Tilney,M Nel,A Van Wyk (2018). Foliar secretory structures in Ekebergia capensis (Meliaceae).
  98. M Tessema,R Lilieholm,Z Ashenafi,N Leader-Williams (2010). Community attitudes toward wildlife and protected areas in Ethiopia.
  99. Matthias Tschumi,Johan Ekroos,Cecilia Hjort,Henrik Smith,Klaus Birkhofer (2018). Predation‐mediated ecosystem services and disservices in agricultural landscapes.

Funding

No external funding was declared for this work.

Conflict of Interest

The authors declare no conflict of interest.

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Data Availability

Not applicable for this article.

How to Cite This Article

Elias K. Maranga. 2026. \u201cEcosystems in a Sate of Flux: Evidence from A Kenyan Coastal Riparian Ecosystem\u201d. Global Journal of Science Frontier Research - H: Environment & Environmental geology GJSFR-H Volume 22 (GJSFR Volume 22 Issue H7): .

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Ecosystems from Kenya Coast at a glance, highlighting biodiversity and environmental impact in local habitats.
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GJSFR Volume 22 Issue H7
Pg. 31- 51
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Crossref Journal DOI 10.17406/GJSFR

Print ISSN 0975-5896

e-ISSN 2249-4626

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GJSFR-H Classification: DDC Code: 543.66 LCC Code: QD96.N8
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v1.2

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November 30, 2022

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Riparian ecosystems are considered hotspots of carbon and nitrogen transformations. These biochemical transformations are driven by anthropogenic activities in the immediate riverine water catchments. The anthropogenic activities may include and not limited to extraction of goods such as agricultural products, wood products, honey, plant based pharmaceutical products, livestock products, firewood, water and grass for thatching homesteads. Riparian ecosystems also provide important tangible and intangible ecosystem services comprising spiritual and aesthetic functions, pollination, ecosystem detoxification functions, carbon and nitrogen sequestration and CO2 sinks for amelioration of climate change impacts among others. These ecosystems are increasingly threatened by degradation attributed to land use changes. Human perturbations such as crop farming on riparian land, overgrazing and population pressure on land resources influence degradation of riparian ecosystems, with profound effects on biodiversity conservation and local livelihoods. Evidence from the literature indicates that although there is a general understanding regarding the response of terrestrial and wetland ecosystems to human perturbations, there is a dearth of information on the response of African riparian ecosystems to ecologic and socio-economic impacts.

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Ecosystems in a Sate of Flux: Evidence from A Kenyan Coastal Riparian Ecosystem

Elias K. Maranga
Elias K. Maranga Egerton University
Leila A. Ndalilo
Leila A. Ndalilo

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