|±¾ÆÚĿ¼/Table of Contents|

[1]Àî ¿µ,ÌïÅÎÅÎ,²ÜÖÇÃú,µÈ.ÒÁÂåºÓÁ÷ÓòµØ±íË®-µØÏÂˮˮ»¯Ñ§ÑÝ»¯ÌØÕ÷¼°ÆäÐγɻúÖÆ[J].µØÇò¿ÆÑ§Óë»·¾³Ñ§±¨,2025,47(03):537-554.[doi:10.19814/j.jese.2024.11034]
¡¡LI Kang,TIAN Pan-pan,CAO Zhi-ming,et al.Hydrochemical Evolution of Surface Water and Groundwater in Yiluo River Basin, China and Its Formation Mechanisms[J].Journal of Earth Sciences and Environment,2025,47(03):537-554.[doi:10.19814/j.jese.2024.11034]
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µÚ47¾í
ÆÚÊý:
2025ÄêµÚ03ÆÚ
Ò³Âë:
537-554
À¸Ä¿:
»ÆºÓÁ÷ÓòÉú̬±£»¤ºÍ¸ßÖÊÁ¿·¢Õ¹×¨¿¯(ÉÏ)
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2025-05-15

ÎÄÕÂÐÅÏ¢/Info

Title:
Hydrochemical Evolution of Surface Water and Groundwater in Yiluo River Basin, China and Its Formation Mechanisms
ÎÄÕ±àºÅ:
1672-6561(2025)03-0537-18
×÷Õß:
Àî ¿µ123ÌïÅÎÅÎ123²ÜÖÇÃú123Ç® »á123*
(1.»ÆÍÁ¿ÆÑ§È«¹úÖØµãʵÑéÊÒ,ÉÂÎ÷ Î÷°² 710054; 2.³¤°²´óѧ ºµÇøµØÏÂË®ÎÄÓëÉú̬ЧӦ½ÌÓý²¿ÖصãʵÑéÊÒ,ÉÂÎ÷ Î÷°² 710054; 3.³¤°²´óѧ Ë®Àû²¿ºµÇøÉú̬ˮÎÄÓëË®°²È«ÖصãʵÑéÊÒ,ÉÂÎ÷ Î÷°² 710054)
Author(s):
LI Kang123 TIAN Pan-pan123 CAO Zhi-ming123 QIAN Hui123*
(1.State Key Laboratory of Loess Science,Xi'an 710054,Shaanxi,China; 2.Key Laboratory of Subsurface Hydrology and Ecological Effect in Arid Region of Ministry of Education,Chang'an University,Xi'an 710054,Shaanxi,China; 3.Key Laboratory of Eco-hydrology and Water Security in Arid and Semi-arid Regions of Ministry of Water Resources,Chang'an University,Xi'an 710054,Shaanxi,China)
¹Ø¼ü´Ê:
Ë®»¯Ñ§ ÇâÑõÍ¬Î»ËØ ìØÈ¨Ë®ÖÊÖ¸Êý Ö÷³É·Ö·ÖÎö Ë®ÑÒÏ໥×÷Óà Àë×Ó½»»» »ÆºÓ
Keywords:
hydrochemistry hydrogen and oxygen isotopes entropy-weighted water quality index principal component analysis water-rock interaction ion exchange Yellow River
·ÖÀàºÅ:
P64
DOI:
10.19814/j.jese.2024.11034
ÎÄÏ×±êÖ¾Âë:
A
ÕªÒª:
ÒÁÂåºÓÊǻƺÓÓÒ°¶µÄÖØÒªÖ§Á÷,ÊǻƺÓÁ÷ÓòÉú̬±£»¤ÌåϵÖеÄÖØÒª×é³É²¿·Ö¡£Í¨¹ý²É¼¯ÒÁÂåºÓÁ÷ÓòµÄµØ±íË®ºÍµØÏÂË®ÑùÆ·,½áºÏͳ¼Æ·ÖÎö¡¢PiperÈýÏßͼ¡¢ÇâÑõÍ¬Î»ËØ·ÖÎö¡¢Àë×Ó±ÈÖµ·¨ÓëìØÈ¨Ë®ÖÊÖ¸Êý(EWQI)µÈ·½·¨,¶ÔÁ÷ÓòË®Ìåת»¯¡¢Ë®»¯Ñ§ÑÝ»¯¼°ÆäÓ°ÏìÒòËØ½øÐÐÁËϵͳÑо¿¡£½á¹û±íÃ÷:ÒÁÂåºÓÁ÷ÓòË®ÌåÕûÌå³ÊÈõ¼îÐÔ,µØ±íË®¸÷Àë×ÓŨ¶È´ÓÉÏÓε½ÏÂÓγʵÝÔöÇ÷ÊÆ,¶øµØÏÂË®Öи÷Àë×ÓŨ¶ÈµÄ¿Õ¼ä±ä»¯²¨¶¯½Ï´ó; ÑØ×ž¶Á÷·½Ïò,µØ±íˮˮ»¯Ñ§ÀàÐÍÓÉHCO3-Ca¡¤MgÐÍÖð½¥ÑÝ»¯ÎªHCO3¡¤SO4-Ca¡¤MgÐÍ,µØÏÂˮˮ»¯Ñ§ÀàÐÍÓÉHCO3-Ca¡¤MgÐÍÖð½¥ÑÝ»¯ÎªHCO3-Ca¡¤Mg¡¤NaÐÍ; Á÷ÓòË®ÌåÖ÷ÒªÓÉ´óÆø½µË®½øÐв¹¸ø,²¢Êܵ½Õô·¢×÷ÓõÄÓ°Ïì,ÉÏÓÎÇøÓòµØÏÂË®¶ÔµØ±íË®µÄ²¹¸øÕ¼Ö÷µ¼,ÖÐÓÎÇøÓòÔò³öÏֵرíË®¶ÔµØÏÂË®µÄ²¹¸ø,ÏÂÓÎÇøÓòµØÏÂË®¶ÔµØ±íË®µÄ²¹¸øÖð½¥¼õÈõ; Á÷ÓòË®ÌåË®»¯Ñ§ÐγÉÑÝ»¯Ö÷ÒªÊܵ½Ì¼ËáÑÎÑҺ͹èËáÑÎÑҷ绯Èܽâ×÷ÓõĿØÖÆ,ͬʱÊܵ½ÑôÀë×Ó½»»»×÷ÓúÍÈËÀà»î¶¯µÄÓ°Ïì; ²¿·ÖÖ§Á÷(ÈçÂéÆººÓ¡¢½§ºÓºÍžeºÓ)µÄµØ±íË®Êܹ¤¿ó·ÏË®ÅÅ·ÅÓ°Ïì½Ï´ó; NO-3ΪÁ÷ÓòË®ÌåÖ÷ÒªÎÛȾÒò×Ó,µØ±íË®ÖеÄNO-3Ö÷ÒªÀ´Ô´ÓÚ»¯·ÊºÍÉú»îÎÛË®,µØÏÂË®ÖеÄNO-3Ö÷ÒªÊܵ½»¯·ÊÊ©ÓúÍÍÁÈÀÓлúµªÀÛ»ýµÄÓ°Ïì¡£ìØÈ¨Ë®ÖÊÖ¸ÊýÆÀ¼Û½á¹ûÏÔʾ,Á÷ÓòË®ÌåË®ÖÊÕûÌå½ÏºÃ,ÉÏÓÎÇøÓòË®ÖÊÓÅÓÚÏÂÓÎÇøÓò,´ó²¿·ÖµØ±íË®¡¢ÈªË®ºÍ¾®Ë®ÊÊÒËÒûÓÃ,µ«ÏÂÓÎÇøÓò²¿·Ö¾®Ë®ÖÊÁ¿½Ï²î,²»ÒËÖ±½ÓÒûÓá£
Abstract:
The Yiluo River is an important tributary on the right bank of Yellow River, and its basin is a key component of the ecological protection system within Yellow River Basin. The transformation and hydrochemical evolution of surface water and groundwater, as well as the factors influencing these processes, were systematically investigated by collecting and analyzing water samples from Yiluo River Basin; a combination of methods, including statistical analysis, Piper trilinear diagram, hydrogen and oxygen isotopes analysis, ion ratio method, and the entropy-weighted water quality index(EWQI), were employed. The results show that the water in Yiluo River Basin is generally weakly alkaline, with surface water ion concentrations increasing from upstream to downstream, while the groundwater ion concentrations exhibit significant spatial fluctuations; along the flow direction, the hydrochemical type of surface water evolves from HCO3-Ca¡¤Mg to HCO3¡¤SO4-Ca¡¤Mg, while that of groundwater evolves from HCO3-Ca¡¤Mg to HCO3-Ca¡¤Mg¡¤Na; the basin's water is mainly replenished by atmospheric precipitation and is also affected by evaporation; in the upstream region, groundwater predominantly recharges surface water, whereas in the middle reaches, surface water recharges groundwater; in the downstream region, groundwater's recharge to surface water gradually weakens; the formation and evolution of the basin's hydrochemistry are mainly controlled by the weathering and dissolution of carbonate and silicate rocks, as well as cation exchange processes and human activities; some tributaries, such as Maping River, Jian River, and Chan River, are heavily impacted by the discharge of industrial and mining wastewater; nitrate(NO-3)is identified as the primary pollutant in the basin, with surface water NO-3 mainly originating from fertilizers and domestic sewage, while groundwater NO-3 is influenced by fertilizer use and the accumulation of organic nitrogen in the soil. The EWQI assessment shows that the overall water quality in the basin is relatively good, with water quality in the upstream region being better than in the downstream region; most surface water, spring water, and well water are suitable for drinking, but some wells in the downstream region have poor water quality and are unsuitable for direct consumption.

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