Assessment of water resources in Yarmouk River Basin using geospatial technique during the period 1980-2020

doi:10.1007/s40333-022-0005-0

Journal of Arid Land

2022, Vol. 14

Issue (2): 154-166 DOI: 10.1007/s40333-022-0005-0

Research article

Assessment of water resources in Yarmouk River Basin using geospatial technique during the period 1980-2020

Noor M AL-KHARABSHEH^*(

)

Department of Water Resources and Environmental Management, Al-Balqa Applied University, Al-Salt 19117, Jordan

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Abstract

It is common knowledge that Yarmouk River Basin (YRB) is shared between Jordan and Syria. Management of YRB trans-boundary water resources is attracting increasing interest because it is a strategic water resource for the riparian countries. Actually, lack of sharing information regarding hydrological flows and basin's water management between partners' countries makes it difficult to distinguish between natural and man-made factors affecting the water body. Therefore, this study seeks to address and assess the main on-site changes that exert on YRB. Geospatial technique and arithmetic equations were combined to carry out an assessment of the changes on water resources in YRB. Data, information and field measurements of the basin were aggregated, compiled and presented to determine the extent of changes during the period 1980-2020. Remarkable findings showed that precipitation amount in the basin significantly declined during the period 1980-2020 in particularly after the year 1992. Pumping rate of groundwater was 550×10³ m³/a, exceeding the basin's safe yield. Draw down of static groundwater level over time approached the value of -3.2 m/a due to the over abstraction in the aquifer body. Additionally, the evaporation rate reached more than 99% in some regions in the basin. Moreover, the number of private wells has increased from 98 wells in 1980 to 126 wells in 2020, showing the excessive extraction of groundwater. These findings indicate that the study area is subjected to a considerable groundwater depletion in the near future due to extensive abstraction, continuous drilling of illegal wells and decreased annual precipitation under the shadow of the rapid population growth and continuous influx of refugees. Therefore, decision makers-informed scenarios are suggested in the development of water resource portfolios, which involves the combination of management and infrastructural actions that enhance the water productivity of the basin. Further studies are recommended to evaluate the on-site changes on water resources in YRB in collaboration with riparian countries and to establish monitoring system for continuous and accurate measurements of the basin.

Key words： assessment geospatial technique on-site changes water resources Yarmouk River Basin

Received: 30 September 2021 Published: 28 February 2022

Corresponding Authors: Noor M AL-KHARABSHEH E-mail: noormkh@bau.edu.jo

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Cite this article:

Noor M AL-KHARABSHEH. Assessment of water resources in Yarmouk River Basin using geospatial technique during the period 1980-2020. Journal of Arid Land, 2022, 14(2): 154-166.

URL:

http://jal.xjegi.com/10.1007/s40333-022-0005-0 OR http://jal.xjegi.com/Y2022/V14/I2/154

Fig. 1 Yarmouk River Basin (YRB) and its location with respect to Jordan

Fig. 2 Schematic diagram of the developed water assessment approach applied in the study

Fig. 3 YRB watershed and its sub-basins

Fig. 4 Distribution of mean annual precipitation using the Thiessen Polygons method

Table 1 Mean annual precipitation of Jordanian side of Yarmouk River Basin (YRB) and area covered

Table 2 Calculated long-term evaporation rates for the climatic stations in YRB

Fig. 5 Isohyetal map of spatial distribution of mean annual precipitation in YRB

Fig. 6 Average evaporation rate of YRB

Fig. 7 Annual streamflow of Maqaren gauging station in YRB

Fig. 8 Annual streamflow of Adasiya gauging station in YRB

Fig. 9 Abstraction rate from pumping wells of YRB

Fig. 10 Drawdown rate of groundwater level from monitoring wells in YRB

On-site change	Extent of change
Change in surface water availability (streamflow amount including baseflow and flood flow) using data of relevant gauging stations	During the period 1980-2020, the highest mean annual precipitation occurred at the southwestern boundary of the basin (520 mm) and the lowest at the east of the basin (142 mm) due to the weather system interventions at various basin's relief. However, using the weighing average method, the weighted mean precipitation for the entire basin is 277 mm that dovetails the semi-arid Mediterranean climate to arid climate in YRB. The values of annual streamflow in YRB clearly show an obvious declining trend especially after 1992 (440×10⁶m³) in comparison with 2020 (50×10⁶ m³) in Maqaren gauging station as an example, which assures the influence of warming on precipitation and can dramatically impact runoff and groundwater recharge.
Change in evaporation rate from bare ground and open watershed	The calculated long-term evaporation rates for the climate stations ranged from 92% to 100% at the southwestern highlands and eastern regions of the basin, respectively. It is obvious that this influence dramatically increases when shifting from west to east, reflecting the effect of climatic patterns from semi-arid to arid regions in YRB.
Change in groundwater availability (abstraction, monitoring wells and depth to water table)	Ranges of pumping rates with a maximum of 550×10³-300×10³ m³/a are relatively high values that cause the excess of the basin's safe yield. Drawdown rate of groundwater level over time due to over abstraction in the aquifer body varies from -3.2 to -0.9 m/a due to low amount of precipitation, natural and sudden increase in the number of population in addition to requirements of agribusiness interventions.
Expansion in water extraction from growing numbers of private or unlawful wells	Number of state-owned and private wells are 33 and 12, 4 and 25, 6 and 33, 8 and 29, and 10 and 26, respectively, for the pumping rates with the ranges from 550×10³-300×10³, 300×10³-200×10³, 200×10³-150×10³, 150×10³-75×10³to 75×10³-2×10³ m³/a, respectively.

Table 3 Extent of imposed on-site changes on water resources in YRB


[1]	Abdulla F, Al-Shurafat A. 2020. Rainfall-runoff modelling for semi-arid and trans-boundary Yarmouk river basin. Procedia Manufacturing, 44:180-188. doi: 10.1016/j.promfg.2020.02.220

[2]	Adamovic M, Braud I, Branger F, et al. 2015. Assessing the simple dynamical systems approach in a Mediterranean context: application to the Ardèche catchment (France). Hydrology and Earth System Sciences, 19(5):2427-2449. doi: 10.5194/hess-19-2427-2015

[3]	Avisse N, Tilmant A, Rosenberg D, et al. 2020. Quantitative assessment of contested water uses and management in the conflict-torn Yarmouk River Basin. Journal of Water Resources Planning and Management, 146(7):1-41.

[4]	Awawdeh M, Jaradat R, Al Qudah K, et al. 2019. GIS-based analysis of potential water infiltration in the upper Yarmouk River basin, north Jordan. The Jordan Journal of Earth and Environmental Sciences, 10(3):136-144.

[5]	Awawdeh M, Al-Kharbsheh N, Obeidat M, et al. 2020. Groundwater vulnerability assessment using modified SINTACS model in WadiShueib, Jordan. Annals of GIS, 26(4):377-394. doi: 10.1080/19475683.2020.1773535

[6]	Bunning S, McDonagh J, Rioux J. 2016. Manual for local level assessment of land degradation and sustainable land management: Water resources assessment-LADA project, 139-153. [2021-07-30]. http://www.fao.org/3/a-i6362e.pdf .

[7]	Courcier R, Venot J, Molle F. 2005. Historical transformations of the Lower Jordan River Basin (in Jordan): Changes in water use and projections (1950-2025), Comprehensive assessment of water management in agriculture research report 9, 32-60. [2021-08-03]. https://horizon.documentation.ird.fr/exl-doc/pleins_textes/divers15-08/010039160.pdf .

[8]	Duan W, Zou S, Chen Y, et al. 2020. Sustainable water management for cross-border resources: The Balkhash Lake Basin of Central Asia, 1931-2015. Journal of Cleaner Production, 263(2020):121614, doi: 10.1016/j.jclepro.2020.121614. doi: 10.1016/j.jclepro.2020.121614

[9]	Duan W, Maskey S, Chaffe P, et al. 2021. Recent advancement in remote sensing technology for hydrology analysis and water resources management. Remote Sensing, 13(6):1097, doi: 10.3390/rs13061097. doi: 10.3390/rs13061097

[10]	ESRI (Environmental Systems Research Institute). 2021. How to: Create contour lines based on values other than elevation points. [2021-07-31]. https://support.esri.com/en/technical-article/00001427 .

[11]	Hoff H, Bonzi C, Joyce B, et al. 2011. A water resources planning tool for the Jordan River Basin. Water, 3:718-736. doi: 10.3390/w3030718

[12]	Kunstmann H, Suppan P, Heckl A, et al. 2007. 2007. Regional climate change in the Middle East and impact in hydrology in the upper Jordan catchment. In: Quantification and Reduction of Predictive Uncertainty for Sustainable Water Resources Management, Symposium HS2004 at IUGG2007. Perugia: IAHS Publication, 313:141-148.

[13]	Meran G, Siehlow M, von Hirschhausen C. 2021 Integrated water resource management: Principles and applications. In: Andrey G K. Springer Water. Switzerland: Springer International Publishing, 23-121.

[14]	MWI (Ministry of Water and Irrigation). 2016a. Water Reallocation Policy. Amman: MWI, 1-17.

[15]	MWI (Ministry of Water and Irrigation). 2016b. National Water Strategy 2016-2025. Amman: MWI, 7-61.

[16]	MWI (Ministry of Water and Irrigation). 2016c. Surface Water Policy 2015-2025. Amman: MWI, 1-6.

[17]	MWI (Ministry of Water and Irrigation). 2019. Water Budget. Amman: MWI, 1-12.

[18]	Obeidat M, Awawdeh M, Lababneh A. 2019. Assessment of land use/land cover change and its environmental impacts using remote sensing and GIS techniques, Yarmouk River Basin, north Jordan. Arabian Journal of Geosciences, 12:685. doi: 10.1007/s12517-019-4905-z

[19]	Obeidat M, Awawdeh M, Al-Kharabsheh N, et al. 2020. Source identification of nitrate in the upper aquifer system of the Wadi Shueib catchment area in Jordan based on stable isotope composition. Journal of Arid Land, 13(4):350-374. doi: 10.1007/s40333-021-0055-8

[20]	Salameh E. 2004. Using environmental isotopes in the study of the recharge-discharge mechanisms of the Yarmouk catchment area in Jordan. Hydrogeology Journal, 12(4):451-463.

[21]	Turc L. 1951. New formulas for the water balance according to the average annual values of precipitation and temperature. The Academy of Science (Paris), 233:633-635.

[22]	UNICEF (The United Nations International Children's Emergency Fund). 2021. Water, sanitation and hygiene. UNICEF, Amman, Jordan. [2021-05-20]. https://www.unicef.org/jordan/water-sanitation-and-hygiene .

[23]	US Geological Survey. 2021. Earth explorer, data sets. [2021-04-15]. http://earthexplorer.usgs.gov .

[24]	WAJ (Water Authority of Jordan). 2019. Open Files of WA[J]. Amman: WAJ, 1-6.

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