Abstract
Western Himalaya is a strategically important region, where the water resources are shared by China, India and Pakistan. The economy of the region is largely dependent on the water resources delivered by snow and glacier melt. The presented study used stable isotopes of water to further understand the basin-scale hydro-meteorological, hydrological and recharge processes in three high-altitude mountainous basins of the western Himalayas. The study provided new insights in understanding the dominant factors affecting the isotopic composition of the precipitation, snowpack, glacier melt, streams and springs. It was observed that elevation-dependent post-depositional processes and snowpack evolution resulted in the higher isotopic altitude gradient in snowpacks. The similar temporal trends of isotopic signals in rivers and karst springs reflect the rapid flow transfer due to karstification of the carbonate aquifers. The attenuation of the extreme isotopic input signal in karst springs appears to be due to the mixing of source waters with the underground karst reservoirs. Basin-wise, the input–output response demonstrates the vital role of winter precipitation in maintaining the perennial flow in streams and karst springs in the region. Isotopic data were also used to estimate the mean recharge altitude of the springs.
Résumé
L’Himalaya occidental est une région stratégiquement importante, où les ressources en eau sont partagées entre la Chine, l’Inde et le Pakistan. L’économie de la région dépend en grande partie des ressources en eau apportées par la fonte des neiges et des glaciers. La présente étude a utilisé les isotopes stables de l’eau pour mieux comprendre les processus hydro-météorologiques, hydrologiques et de recharge à l’échelle du bassin de trois bassins montagneux de haute altitude dans l’Himalaya occidental. L’étude a fourni de nouvelles perspectives pour la compréhension des facteurs dominants affectant la composition isotopique des précipitations, des manteaux neigeux, de la fonte des glaciers, des cours d’eau et des sources. On a observé que les processus postérieurs au dépôt dépendant de l’altitude et l’évolution du manteau neigeux engendrent un gradient d’altitude isotopique plus élevé dans les manteaux neigeux. Les tendances temporelles similaires des signaux isotopiques dans les rivières et les sources karstiques reflètent le transfert de flux rapide en raison de la karstification des aquifères carbonatés. L’atténuation du signal isotopique d’entrée des sources karstiques semble être due au mélange d’eau des sources avec les réservoirs souterrains karstiques. En ce qui concerne le bassin, la réponse entrée-sortie démontre le rôle important des précipitations hivernales dans le maintien de l’écoulement pérenne dans les cours d’eau et les sources karstiques dans la région. Les données isotopiques ont également été utilisées pour estimer l’altitude moyenne de recharge des sources.
Resumen
El Himalaya occidental es una región estratégicamente importante, donde los recursos hídricos son compartidos por China, India y Pakistán. La economía de la región depende en gran medida de los recursos hídricos aportados por la nieve y la fusión de los glaciares. El presente estudio utilizó isótopos estables del agua para comprender mejor los procesos hidrometeorológicos, hidrológicos y de recarga a escaña de cuenca hidrográfica en tres cuencas montañosas de altura en el Himalaya occidental. El estudio proporcionó nuevas perspectivas para comprender los factores dominantes que afectan a la composición isotópica de la precipitación, la capa de nieve, la fusión de los glaciares, las corrientes y los manantiales. Se observó que los procesos post-deposicionales dependientes de la altura y la evolución de la capa de nieve resultaron en un mayor gradiente isotópico en altura de las capas de nieve. Las tendencias temporales similares de las señales isotópicas en ríos y manantiales kársticos reflejan la rápida transferencia de flujo debida a la karstificación de los acuíferos carbonatados. La atenuación de la señal de entrada isotópica extrema en los manantiales kársticos parece ser debido a la mezcla de las aguas de la fuente con los depósitos kársticos subterráneos. En la cuenca, la respuesta de ingresos y egresos demuestra el papel vital de la precipitación invernal en el mantenimiento del flujo perenne en arroyos y manantiales kársticos en la región. También se utilizaron datos isotópicos para estimar la altura media de recarga de los manantiales.
摘要
喜马拉雅山脉西部是一个战略重地, 那里的水资源由中国、印度和巴基斯坦共同分享。该地区的经济主要依赖于积雪和冰川融化的水资源。本研究使用水的稳定同位素进一步了解喜马拉雅山脉西部三个高海拔盆地中盆地尺度的水文气象、水文和补给过程。该研究在了解影响降水、积雪层、冰川融化、河流和泉中同位素组分主要因素方面提供了新的认识。发现依赖于海拔的后沉积过程及积雪层演化导致积雪层中较高的同位素海拔坡度。河流和岩溶泉中同位素信号的类似时间上的趋势反映了由于碳酸盐含水层的岩溶化致使快速的水流转移。岩溶泉中极端同位素输入信号出现衰减是由于源水和地下岩溶水库的水混合造成的。盆地方面输入和输出响应展示了冬季降水在保持本地区河流和岩溶泉常年流水中的重要作用。同位素资料还用于估算泉的平均补给高度。
Resumo
O Himalaia ocidental é uma região estrategicamente importante, onde os recursos hídricos são compartilhados pela China, Índia e Paquistão. A economia da região é altamente dependente dos recursos hídricos fornecidos pelo derretimento da neve e da geleira. O estudo apresentado usou isótopos estáveis da água para compreender melhor os processos hidrometeorológicos, hidrológicos e de recarga na escala da bacia em três bacias montanhosas de alta altitude do Himalaia ocidental. O estudo forneceu novos conhecimentos sobre a compreensão dos fatores dominantes que afetam a composição isotópica da precipitação, neve, derretimento da geleira, córregos e nascentes. Foi observado que os processos pós-deposicionais dependentes da elevação e a evolução das camadas de neve resultaram no gradiente isotópico mais alto em camadas de neve. As tendências temporais semelhantes de sinais isotópicos em rios e nas nascentes do carste refletem a rápida transferência de fluxo devido a carstificação dos aquíferos carbonático. A atenuação do sinal de entrada isotópico extremo em nascentes cársticas parece ser devido à mistura das águas de fonte com reservatórios cársticos subterrâneos. Com base na bacia, a resposta entrada-saída demonstra o papel vital da precipitação de inverno na manutenção do fluxo perene em córregos e nascentes cársticas na região. Dados isotópicos também foram utilizados para estimar a altitude média de recarga das nascentes.
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Acknowledgements
The research work was funded by Department of Science and Technology (DST), Government of India, under the research project DST No: SERB/F/1554/2012. The authors wish to thank the scientists and other staff at Physical Research Laboratory Ahmedabad for analysing the samples for δ18O and δ2H.
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Jeelani, G., Shah, R.A., Fryar, A.E. et al. Hydrological processes in glacierized high-altitude basins of the western Himalayas. Hydrogeol J 26, 615–628 (2018). https://doi.org/10.1007/s10040-017-1666-1
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DOI: https://doi.org/10.1007/s10040-017-1666-1