Asian Journal of Geological Research

  • About
    • About the Journal
    • Submissions & Author Guideline
    • Articles in Press
    • Editorial Policy
    • Editorial Board Members
    • Reviewers
    • Propose a Special Issue
    • Reprints
    • Subscription
    • Membership
    • Publication Ethics and Malpractice Statement
    • Digital Archiving Policy
    • Contact
  • Archives
  • Indexing
  • Publication Charge
  • Books
  • Testimonials
Advanced Search
  1. Home
  2. Archives
  3. 2020 - Volume 3 [Issue 4]
  4. Original Research Article

Submit Manuscript


Subscription



  • Home Page
  • Author Guidelines
  • Editorial Board Member
  • Editorial Policy
  • Propose a Special Issue
  • Membership

Gullying Processes in the Upper Idemili River Catchment Area of Anambra State, Nigeria

  • S. N. Chibuzor
  • E. I. Okoyeh
  • B. C. E. Egboka
  • A. G. Onwuemesi
  • E. Aniwetalu

Asian Journal of Geological Research, Page 64-78

Published: 28 December 2020

  • View Article
  • Download
  • Cite
  • References
  • Statistics
  • Share

Abstract


Upper Idemili River catchment in Anambra State, Nigeria was studied for the effect of gullying processes in the area. The methods employed were fieldwork, Arc Gis production of digitized map which show the gully profile and laboratory analysis of soil and water samples. Hydrogeochemistry revealed acidic to slightly acidic water which is responsible for the decomposition of the cementing materials. The presence of the chemical species accounts for the dissolution of mineralogical and chemical composition of the rocks, and the different geochemical processes in the area. The bulk of the dissolved solid is attributed to geochemical reactions of oxidation-reduction and ion exchange reactions enhanced by acidic water. The chemical character of the water was employed to determine the water type using piper trilinear diagram and sodium bicarbonate (Na-HCO3) water type was identified. A subdivision of the piper trilinear diagram indicates that the main water class is the one in which alkalis exceed alkaline earth elements and also dominated by sodium-bicarbonate type by 100% in each category. The high percentage of sodium water suggests possible ion exchange reaction that may lead to soil disaggregation. The hydraulic properties show that the soil material is porous, and permeable with high hydraulic conductivity which enhances gully development through an increase in water flow and its proneness to gully erosion. This study will create awareness on the importance of gully erosion and the need to take precautionary measures.


Keywords:
  • Gullying
  • hydrogeological settings
  • Upper Idemili River
  • catchment
  • Anambra State
  • Nigeria.
  • Full Article - PDF
  • Review History

How to Cite

Chibuzor, S. N., Okoyeh, E. I., Egboka, B. C. E., Onwuemesi, A. G., & Aniwetalu, E. (2020). Gullying Processes in the Upper Idemili River Catchment Area of Anambra State, Nigeria. Asian Journal of Geological Research, 3(4), 64-78. Retrieved from https://journalajoger.com/index.php/AJOGER/article/view/30119
  • ACM
  • ACS
  • APA
  • ABNT
  • Chicago
  • Harvard
  • IEEE
  • MLA
  • Turabian
  • Vancouver

References

Bryan RB. Soil erodibility and process of water erosion on hillslope. Canadian Geomorphology. 2000;32(3-4):385-415.

Palacani S, Marker M, Rodolfi G. Modeling the potential impact of groundwater dynamics of gully erosion and drainage evolution. In: Geomorphology and Plate Tectonics. Nova Science Publishers Inc.; 2009.

Okoyeh EI, Akpan AE, Egboka BCE, Okeke HI. An assessment of the influence of surface and subsurface water level dynamics in the development of Southeastern Nigeria. Earth Interactions. 2014;18(4):1-24.

Nfor BN, Olobaniyi SB, Ogala JE. Extent and distribution of groundwater resources in parts of Anambra State, Southeastern Nigeria. Appl. Sci. Environ. Manage. 2007;11(2):215–221.

Egbueri JC, lgwe O. The impact of hydrogeomorphological characteristics on gullying processes in erosion-prone geological units in parts of Southeast Nigeria. Geology, Ecology, and Landscapes; 2020. (Accessed 12 June 2020) Available:https//doi.org/10.1080/24749508.2020.1711637

Egboka BCE. Distress call and plead to the senate committee for rugent actions against floods, soil/gully erosion/landslides disaster in the Southeast. Paper Presented to the Senate Committee on Environment: Road/ Erosion. Senate Delegate to the Southeast. 2004;30.

Igbokwe JI, Akinyede JO, Dang B, Alaga T, Ono MN, Nnodu VO, Anike LO. Mapping and monitoring the impact of the gully erosion in Southern Nigeria with satellite remote sensing and geographic information system. The International Archive of the Photogrammetry, Remote Sensing and Spatial Information Sciences. XXXXVII: Part BB. Beijing; 2008.

Egboka BCE, Nwakwor GI. The hydrogeological and geotechnical parameters as agents for gully-type erosion in the rain-forest belt of Nigeria. Africa Earth Sciences.1985;3(4):417- 425.

Capra A, Scicolone B. SW-soil and water: Ephemeral gully erosion in a wheat-cultivated area in Sicily (Italy). Biosystem Engineering. 2002;83(1):119-126.

Ollbarren P, Capra A, Gelsomino A, La Spada C. Effects of ephemeral gully erosion on soil degradation in a cultivated area in Sicily (Italy). Catena. 2017;145:334-345.

Nwajide CS. Gulling in the Idemili river catchment, Anambra State, Nigeria. In: Natural Hazards in West and Central Africa. Samuel, J. Freeth. Ed. Braunschweig; Wiesbaden: Vieweg. Earth Evolution Sciences; 1992.

Nwajide CS. Geology of Nigeria’s sedimentary basins.1st Ed. CSS Bookshops Ltd: Lagos, Nigeria; 2013.

Vukovic M, Soro A. Determination of hyraulic conductivity of porous media from grain size composition. Water Resources Publications, Littleton, Colorado; 1992.

Krumbein WC, Monk GD. Permeability as a function of size parameters of unconsolidated sand. Trans. AIME. 1943;151(1):153-163.

World Health Organization (WHO). Guidelines for drinking water quality, 3rd Ed. Recommended, Geneva. 2012;303-322.

Piper AM. A graphic procedure in geochemical interpretation of water analysis. Washington. Geological Survey; 1953.

Back W, Hanshaw BB. Chemical geohydrology. In Advances in Hydro-science. 1965;2:49-109.

Freeze RA, Cherry RA. Groundwater. Prentice-Hall. Inc. Englewood Cliffs, New Jersey; 1949.

Dahms E, Fritz L. Reference values for consistency limits of cohesive soils: Mechanical properties of clays and clay minerals. ln Developments in Clay Science 2006. F Bergaya, BKG, Theng, G Lagaly, Ed. Cambridge University Press; 2018.

Ranjan G, Rao ASR. Basic and applied soil mechanics. New Age International, New Delhi; 2006.
  • Abstract View: 170 times
    PDF Download: 142 times

Download Statistics

Downloads

Download data is not yet available.
  • Linkedin
  • Twitter
  • Facebook
  • WhatsApp
  • Telegram
Make a Submission / Login
Information
  • For Readers
  • For Authors
  • For Librarians
Current Issue
  • Atom logo
  • RSS2 logo
  • RSS1 logo


© Copyright 2010-Till Date, Asian Journal of Geological Research. All rights reserved.