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Chee Kong Yap
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Dean Liu
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Yap, C.K.;  Saleem, M.;  Tan, W.S.;  Syazwan, W.M.;  Azrizal-Wahid, N.;  Nulit, R.;  Ibrahim, M.H.;  Mustafa, M.;  Rahman, M.A.A.;  Edward, F.B.; et al. Ecological–Health Risk Assessments of Copper in the Sediments. Encyclopedia. Available online: https://encyclopedia.pub/entry/25324 (accessed on 26 July 2024).
Yap CK,  Saleem M,  Tan WS,  Syazwan WM,  Azrizal-Wahid N,  Nulit R, et al. Ecological–Health Risk Assessments of Copper in the Sediments. Encyclopedia. Available at: https://encyclopedia.pub/entry/25324. Accessed July 26, 2024.
Yap, Chee Kong, Muhammad Saleem, Wen Siang Tan, Wan Mohd Syazwan, Noor Azrizal-Wahid, Rosimah Nulit, Mohd. Hafiz Ibrahim, Muskhazli Mustafa, Mohd Amiruddin Abd Rahman, Franklin Berandah Edward, et al. "Ecological–Health Risk Assessments of Copper in the Sediments" Encyclopedia, https://encyclopedia.pub/entry/25324 (accessed July 26, 2024).
Yap, C.K.,  Saleem, M.,  Tan, W.S.,  Syazwan, W.M.,  Azrizal-Wahid, N.,  Nulit, R.,  Ibrahim, M.H.,  Mustafa, M.,  Rahman, M.A.A.,  Edward, F.B.,  Arai, T.,  Cheng, W.H.,  Okamura, H.,  Ismail, M.S.,  Kumar, K.,  Avtar, R.,  Al-Mutair, K.A.,  Al-Shami, S.A.,  Subramaniam, G., ... Wong, L.S. (2022, July 20). Ecological–Health Risk Assessments of Copper in the Sediments. In Encyclopedia. https://encyclopedia.pub/entry/25324
Yap, Chee Kong, et al. "Ecological–Health Risk Assessments of Copper in the Sediments." Encyclopedia. Web. 20 July, 2022.
Ecological–Health Risk Assessments of Copper in the Sediments
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This entry is adapted from the peer-reviewed paper 10.3390/pollutants2030018

The ecological and children’s HRA were assessed in all CCDITS (Cited Cu Data in The Sediments). Generally, local point Cu sources (8%) and lithogenic sources were the main controlling factors of Cu concentrations. 

copper sediments geochemical indexes health risk assessment

1. Introduction

There are five main reasons why copper (Cu) in sediments is focused. Firstly, based on global resources data in [1][2], Chile remains the dominant country with 658.2 Mt Cu and world copper resources were at least 1860 Mt Cu (including China). This is mainly caused by human mining for Cu due to the high demand for Cu used in manufacturing industries [1]. Currently, Cu and its compounds have been widely applied in various industries, including textiles, antifouling paints, electrical conductors, plumbing fixtures and pipes, cooking utensils, wood preservatives, pesticides fungicides, fertilizers, etc. [3].
Secondly, due to social-economic activities such as smelting, electroplating, leather production, electronics, agriculture (fertilisers and pesticides), and aquaculture sectors, Cu in sediments can be a secondary source of pollution in aquatic ecosystems. All of the aforementioned activities add to the stress on water and the environment by creating enormous amounts of municipal [4][5] and industrial wastewater [6][7] including potentially harmful compounds such as Cu.
Thirdly, Cu enters the marine environment mostly through rivers and estuaries, it is typically linked to particulate debris which settles and is absorbed into the sediment [8]. As a result, surface sediments constitute the major store and sink for metals and pollutants in aquatic ecosystems [8][9].
Fourthly, human expansion has prompted an increasing release to the environment due to rapid urbanization and industrialization which have led to significant increases in the levels, causing substantial pollution to the aquatic ecosystem. Therefore, it is important to address the role of anthropogenic activities on Cu pollution [8] in relation to many environmental media including sediments which end up as human health risks through different exposure pathways [10][11][12][13].
Fifthly, this topic has generated a lot of articles in the literature. According to the Scopus database, there were 674 publications published in scholarly journals between 1930 and May 2022 that featured the words ‘copper’ and ‘sediments,’ according to the Scopus database. If the names of the papers included words such as ‘metals’ and ‘elements,’ the number would be substantially higher. If non-Scopus indexed journals were taken into consideration, the number would likely be substantially greater. These figures demonstrate the need to keep an eye on Cu levels in aquatic sediments. It is realistic to expect that monitoring studies will become more common in the future.
Sediment refers to a layer of solid particles on the bed of a water body, which consists of any insoluble particulate matter [14]. These particulate matters could be transported from one area to others by various means, for instance, wind, and flowing rivers. Throughout the fate of a sediment particle, there might be a temporary settlement in between its origin and its final resting place. These sediments may also become settled in a delta at the river mouth or become beach deposits by the action of tides, currents, and waves. Coastal sediments are a major sink for metals of both anthropogenic and natural origin [15]. Under certain conditions, these accumulated metals in sediment may be remobilized, changing the surrounding aquatic ecosystem [16].
Both direct and indirect pathways are likely to play a role in the entry of sediment-bound metals into the human body [17]. Therefore, heavy metal pollution in coastal ecosystem is a serious concern. Despite these concerns, there are few studies that have focused on or have investigated the impact of sediment-bound metals on human health directly. The Cu bound to beach sand particles could enter the human body via inhalation of the sand or sedimentary particles, and direct ingestion via hand-to-mouth action especially by children [18]. Therefore, this implies that humans, especially children playing on beaches, may be exposed to these metal contaminants settled in the sand.
The Hazard Index (HI), Hazard Quotient (HQ), or Target Hazard Quotient (THQ) are used to measure the health risk posed by toxic metals. The HI value reported in urban park soils [18] and kindergartens soils [19] was noted to be comparatively higher in children than adults. Therefore, the risks posed by the ingestion route of sedimentary particles by both children and adults were the highest, followed by dermal contact/inhalation. Therefore, the health risk assessments (HRA) for children should be given a higher priority.

2. Comments on the Hazard Quotients of Children

From the present estimation of the children’s HRA based on Cu levels in the sediments, it is rather far from reality. The ingestion pathway was included with two assumptions that (1) children spend more time on the beach (or muddy sediment areas in the coastal areas), and (2) the sediment-bound metal pollutants could be introduced into children’s bodies via the direct ingestion of small particles by hand-to-mouth action. The first assumption is arguable as the definition for children should be well defined. Most of the papers reviewed did not clearly specify the age groups for their children’s HRA. Children aged 1–2 years old are different from those who are 10–12 years old. The resistance and sensitivity of the children’s bodies are very different between these two groups of ages. Therefore, if those aged 2 to 12 years old are all considered as children, erroneous assumptions could be reached, and as a result, the conclusions would be invalid. Perhaps specifying the body weight of children could reduce the error. However, a similar body resistance and maturity of children between 5 and 12 year old, with a similar body weight of 40 kg, can be assumed. Since obesity among children has become an issue nowadays, the estimation of HQ through the ingestion pathway in a child is somewhat questionable.
The present ecological risk of Cu indicated the median concentration of Cu is generally low and not considered a polluted or a low ecological risk. The localized Cu contamination of the 11 papers exceeding 500 mg/kg dry weight is focused on in this commentary section, as shown in Table 1.
Table 1. Comments on the 11 papers with Cu concentrations over 500 mg/kg dry weight from 125 papers in the literature.
No. Locations Cu > 1000 Sources Comment Reference
1 Lake Pamvotis, Greece 24,985 Industrial activities; urban stormwater runoff; agriculture, livestock, and domestic sewage. The report offered baseline data for future research on the anthropogenic influences on the protection and management of Lake Pamvotis, which have been a concern of city officials for decades. Cu must be continuously monitored for ecological and health risks. [20]
2 Victoria Harbor, Hong Kong 3790 Traffic due to its vicinity to the airport runway and the industrialized area. Evidently, the increasing levels of toxic Cu in Hong Kong were attributable to the escalating population density, rapid industrialization, and land reclamation. This study can therefore offer a significant source of information about Cu mitigation and pollution management in Victoria Harbor. [21]
3 Scheldt Estuarine, Netherlands 2600 Industrial discharges. According to the study, the Cu load in the Scheldt estuary has decreased dramatically for three decades (1960–1990). The extent to which these alterations represent a shift in manufacturing strategies, or a purification of industrial waste is unknown. Cu must be regularly evaluated for environmental and health hazards. [22]
4 Old Nakagawa River, Japan 1565 Industrialization, urbanization, deposition of industrial wastes and others. The paper stated that, in order to monitor the trend of Cu contamination, industrial establishments, the municipal council, and/or the government of Japan should reevaluate the current waste treatment and disposal methods for urban sediments or introduce more effective ones. [23]
5 Mvudi River, South Africa 1027 Release of partially treated wastewater effluents from the Thohoyandou wastewater treatment plant, runoffs from agricultural soil, landfill sites very close to the river and other non-point sources, such as atmospheric deposition The paper emphasized that higher Cu concentrations in river sediments could potentially have deleterious impacts on aquatic life. Cu must be continuously monitored for ecological and health risks. [24]
6 Polluted drainage sediments from Peninsular Malaysia 1019 Untreated urban wastes; industrial effluents. The paper highlighted the importance of treating effluents in this drainage basin. In order to limit unlawful discharges and dumping into drainages, it is necessary to increase public awareness. Cu must be continuously monitored for ecological and health risks. [25]
7 Kaoshiung Harbor, Taiwan 946 Industrial and municipal wastewaters were discharged from the neighboring industrial parks and river basins. The Cu area was severely affected by untreated or partially treated industrial effluents and municipal sewages. The paper shed light on the properties and mechanisms of metal distributions in Kaohsiung Harbor sediments. The data would aid in the creation of more effective watershed and harbor management methods to minimize metal discharges into the harbor, as well as a strategy for the cleanup of polluted sediments. [26]
8 Serbia 870 Not specifically mentioned. The study indicated that the river sediments examined were highly polluted with Cu. Cu must be continuously monitored for ecological and health risks. [27]
9 Korbevačka River, Serbia 859.9 Mining and processing of metal ore/ smelting. The paper stressed the need for a human exposure risk assessment of Cu for screening purposes in order to identify significant exposure pathways and establish the urgency of sediment cleanup measures. [28]
10 Kaohsiung Harbor, Taiwan. 760 Derived from the polluted Canon River and the Love River, Salt River, and Jen-Gen River. The paper provided harbor management departments with a great deal of important information, particularly on the Cu derived from the four major contamination sources, allowing for the future control of Cu according to the severity of contamination in sediments. [29]
11 Shima River, China. 630 Industrial effluents; receiving discharges from Huizhou City. The paper showed that the Cu bound to sedimentary particles may be resuspended and migrate from the upper and medium reaches to the lower reaches, endangering the safety of the local water supply. Therefore, improving sediment quality necessitates the control of pesticide application, the reduction in industrial wastewater discharge, and the implementation of a river channel dredging project. [30]
It can be synthesized that, based on Table 1, there is always a need for mitigation, and the management of an exposure risk assessment of Cu that may be utilized effectively for screening purposes in order to identify significant human health exposure routes. Consequently, all Cu-polluted sediments necessitate immediate sediment cleanup measures. Lastly, there is a need for the ongoing monitoring of Cu’s ecological and health risks in the future.

References

  1. Mudd, G.M.; Weng, Z.; Memary, R.; Northey, S.A.; Giurco, D.; Mohr, S.; Mason, L. Future Greenhouse Gas Emissions from Copper Mining: Assessing Clean Energy Scenarios. Prepared for CSIRO Minerals down under Flagship by Monash University and Institute for Sustainable Futures, UTS. 2012. Available online: https://opus.lib.uts.edu.au/bitstream/10453/32524/1/muddetal2012copperemissionscleanenergy.pdf (accessed on 1 June 2022).
  2. Memary, R.; Giurco, D.; Mudd, G.M.; Mason, L. Life Cycle Assessment: A Time-Series Analysis of Copper. J. Clean. Prod. 2012, 33, 97–108.
  3. CCME (Canadian Council of Ministers of the Environment). Copper. In Canadian Soil Quality Guidelines for the Protection of Environmental and Human Health; Canadian Council of Ministers of the Environment: Winnipeg, MA, Canada, 1999.
  4. Costa-Böddeker, S.; Hoelzmann, P.; Thuyên, L.X.; Huy, H.D.; Nguyen, H.A.; Richter, O.; Schwalb, A. Ecological Risk Assessment of a Coastal Zone in Southern Vietnam: Spatial Distribution and Content of Heavy Metals in Water and Surface Sediments of the Thi Vai Estuary and Can Gio Mangrove Forest. Mar. Pollut. Bull. 2017, 114, 1141–1151.
  5. Dung, T.T.T.; Linh, T.M.; Chau, T.B.; Hoang, T.M.; Swennen, R.; Cappuyns, V. Contamination Status and Potential Release of Trace Metals in a Mangrove Forest Sediment in Ho Chi Minh City, Vietnam. Environ. Sci. Pollut. Res. 2019, 26, 9536–9551.
  6. Huong, N.T.L.; Masami, O.; Li, L.; Higashi, T.; Kanayama, M. Heavy Metal Contamination of River Sediments in Vietnam. Proc. Inst. Civ. Eng. Water Manag. 2010, 163, 111–121.
  7. Phuong, N.M.; Kang, Y.; Sakurai, K.; Iwasaki, K.; Kien, C.N.; Van Noi, N.; Son, L.T. Levels and Chemical Forms of Heavy Metals in Soils from Red River Delta, Vietnam. Water. Air. Soil Pollut. 2010, 207, 319–332.
  8. Yap, C.K. Sediment Watch: Monitoring, Ecological Risk Assessment and Environmental Management; Nova Science Publishers: New York, NY, USA, 2018.
  9. Sany, S.B.T.; Salleh, A.; Sulaiman, A.H.; Sasekumar, A.; Rezayi, M.; Monazami Tehrani, G. Heavy Metal Contamination in Water and Sediment of the Port Klang Coastal Area, Selangor, Malaysia. Environ. Earth Sci. 2012, 69, 2013–2025.
  10. Yap, C.K.; Chew, W.; Al-Mutairi, K.A.; Nulit, R.; Ibrahim, M.H.; Wong, K.W.; Bakhtiari, A.R.; Sharifinia, M.; Ismail, M.S.; Leong, W.J.; et al. Assessments of the Ecological and Health Risks of Potentially Toxic Metals in the Topsoils of Different Land Uses: A Case Study in Peninsular Malaysia. Biology 2022, 11, 2.
  11. Yap, C.K.; Al-Mutairi, K.A. Ecological-Health Risk Assessments of Heavy Metals (Cu, Pb, and Zn) in Aquatic Sediments from the ASEAN-5 Emerging Developing Countries: A Review and Synthesis. Biology 2022, 11, 7.
  12. Luo, X.-S.; Ding, J.; Xu, B.; Wang, Y.-J.; Li, H.-B.; Yu, S. Incorporating Bioaccessibility into Human Health Risk Assessments of Heavy Metals in Urban Park Soils. Sci. Total Environ. 2012, 424, 88–96.
  13. Xu, D.-M.; Fu, R.-B.; Liu, H.-Q.; Guo, X.-P. Current Knowledge from Heavy Metal Pollution in Chinese Smelter Contaminated Soils, Health Risk Implications and Associated Remediation Progress in Recent Decades: A Critical Review. J. Clean. Prod. 2020, 286, 124989.
  14. Allen, J.R.L. Sedimentary Structures: Their Character and Physical Basis, Volume 1. Developments in Sedimentology; Elsevier: Amsterdam, The Netherlands, 1982; p. 593.
  15. Zhang, A.; Wang, L.; Zhao, S.; Yang, X.; Zhao, Q.; Zhang, X.; Yuan, X. Heavy metals in seawater and sediments from the northern Liaodong Bay of China: Levels, distribution and potential risks. Reg. Stud. Mar. Sci. 2017, 11, 32–42.
  16. Zhu, Z.; Xue, J.; Deng, Y.; Chen, L.; Liu, J. Trace metal contamination in surface sediments of intertidal zone from Qinhuangdao, China, revealed by geochemical and magnetic approaches: Distribution, sources, and health risk assessment. Mar. Pollut. Bull. 2016, 105, 422–429.
  17. Perrodin, Y.; Donguy, G.; Emmanuel, E.; Winiarski, T. Health risk assessment linked to filling coastal quarries with treated dredged seaport sediments. Sci. Total Environ. 2014, 485-486, 387–395.
  18. Du, Y.; Gao, B.; Zhou, H.; Ju, X.; Hao, H.; Yin, S. Health risk assessment of heavy metals in road dusts in urban parks of Beijing, China. Procedia Environ. Sci. 2013, 18, 299–309.
  19. Tepanosyan, G.; Maghakyan, N.; Sahakyan, L.; Saghatelyan, A. Heavy metals pollution levels and children health risk assessment of Yerevan kindergartens soils. Ecotoxicol. Environ. Saf. 2017, 142, 257–265.
  20. Ioannides, K.; Stamoulis, K.; Papachristodoulou, C.; Tziamou, E.; Markantonaki, C.; Tsodoulos, I. Distribution of heavy metals in sediment cores of Lake Pamvotis (Greece): A pollution and potential risk assessment. Environ. Monit. Assess. 2015, 187, 4209.
  21. Wong, Y.S.; Tam, N.F.Y.; Lau, P.S.; Xue, X.Z. The toxicity of marine sediment in Victoria Harbour, Hong Kong. Mar. Pollut. Bull. 1995, 31, 464–470.
  22. Zwolsman, J.J.G.; Vaneck, G.T.M.; Burger, G. Spatial and temporal distribution of trace metals in sediments from the Scheldt estuarine, south–west Netherlands. Estuar. Coast. Shelf Sci. 1996, 43, 55–79.
  23. Zakir, H.M.; Shikazono, N.; Otomo, K. Geochemical distribution of trace metals and assessment of anthropogenic pollution in sediments of Old Nakagawa River, Tokyo, Japan. Am. J. Environ. Sci. 2008, 4, 654–665.
  24. Edokpayi, J.N.; Odiyo, J.O.; Popoola, O.E.; Msagati, T.A.M. Assessment of trace metals contamination of surface water and sediment: A case study of Mvudi River, South Africa. Sustanability 2016, 8, 135.
  25. Yap, C.K.; Pang, B.H.; Fairuz, M.S.; Hoo, Y.I.; Tan, S.G. Heavy metal (Cd, Cu, Ni, Pb and Zn) pollution in surface sediments collected from drainages receiving different anthropogenic sources from Peninsular Malaysia. Wetl. Sci. 2007, 5, 97–104.
  26. Chen, C.W.; Kao, C.M.; Chen, C.F.; Dong, C.D. Distribution and accumulation of heavy metals in sediments of Kaoshiung Harbor, Taiwan. Chemosphere 2007, 66, 1431–1440.
  27. Sakan, S.M.; Sakan, N.M.; Dordevic, D.S. Pollution characteristics and potential ecological risk assessment of heavy metals in river sediments based on calculation of pollution indices. Adv. Environ. Res. 2015, 41, 63–84.
  28. Živković, N.; Takić, L.; Djordjević, L.; Djordjević, A.; Mladenović-Ranisavljević, I.; Golubović, T.; Božilov, A. Concentrations of heavy metal cations and a health risk assessment of sediments and river surface water: A case study from a Serbian mine. Pol. J. Environ. Stud. 2019, 28, 2009–2020.
  29. Chen, C.F.; Ju, Y.R.; Chen, C.W.; Dong, C.D. Vertical profile, contamination assessment, and source apportionment of heavy metals in sediment cores of Kaohsiung Harbor, Taiwan. Chemosphere 2016, 165, 67–79.
  30. Gao, L.; Wang, Z.; Shan, J.; Chen, J.; Tang, C.; Yi, M.; Zhao, X. Distribution characteristics and sources of trace metals in sediment cores from a trans–boundary watercourse: An example from the Shima River, Pearl River Delta. Ecotoxicol. Environ. Saf. 2016, 134, 186–195.
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Subjects: Environmental Sciences
Contributors MDPI registered users' name will be linked to their SciProfiles pages. To register with us, please refer to https://encyclopedia.pub/register :
Chee Kong Yap
,
Muhammad Saleem
,
Wen Siang Tan
,
Wan Mohd Syazwan
,
Noor Azrizal-Wahid
,
Rosimah Nulit
,
Mohd. Hafiz Ibrahim
,
Muskhazli Mustafa
,
Mohd Amiruddin Abd Rahman
,
Franklin Berandah Edward
,
Takaomi Arai
,
Wan Hee Cheng
,
Hideo Okamura
,
Mohamad Saupi Ismail
,
Krishnan Kumar
,
Ram Avtar
,
Khalid Awadh Al-Mutair
,
Salman Abdo Al-Shami
,
Geetha Subramaniam
,
Ling Shing Wong
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Update Date: 26 Jul 2022
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