Environmental occurrence, hazards, and remediation strategies for the removal of cadmium from the polluted environment

• The hyper toxicity of Cd affecting the environment. • Cadmium contamination can be mitigated by soil management practices. • The Cd contamination can be removed by bioremediation and nano-based remediation. • In-depth research is needed to probe Cd in the biogeochemical cycle. Understanding the sources of cadmium (Cd) is crucial for implementing effective control measures and minimizing its environmental impact. The present study was aimed to investigate the environmental impacts of cadmium sources and to evaluate potential remedial measures for cadmium contamination. The results showed that the average amount (mg/kg) of Cd in rocks was 92 (Idaho), 38 (North Carolina), Coal 3.8 (China), 0.28 (India), groundwater 0.98 (China), 0.8 (Bangladesh), 0.3 (India), 0.16 (Egypt), Soil 6.3 (Nigeria), 2.5 (Ecuador), 0.8 (Selangor), and 5.0 (Kelantan), Fertilizer 5 (China), 192 (USA), 11 (Morocco), 8.7 (Iran), and 14 (Algeria), wastewater 20 (Pakistan), 37 (India), and I.7 (China), Plants 0.81 (Nigeria), 1.2 (Pakistan), 0.05 (Romania). The mode of occurrence of Cd is geogenic, namely oxidation of mineralized rocks, stream sediments, volcanic materials, and soil, while anthropogenic sources include commercial and industrial wastes, hospital wastes, fertilizer, construction wastes, paints, and pigments, batteries, steel works, contaminated food, and cigarettes. Exposure to cadmium can lead to a range of health issues, including gastrointestinal distress, lung and kidney cancer, mutagenic and teratogenic effects, liver dysfunction, and fragile bone deformation. The Cd contamination can be removed through various processes such as bioremediation, phytoremediation, nano-particle remediation, soil washing, electrokinetic remediation, ion exchange, and phytostabilization may remediate the Cd level up to the maximum level. The study concluded that the toxic elements, such as Cd can be effectively remediated from contaminated media using the aforementioned methods, thereby limiting the health consequences associated with cadmium. These approaches help to remediate the health risks associated with Cd exposure. In-depth research is needed to explore the Cd in the biogeochemical cycle for better geo-management.

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Publication Details

Journal
Results in Engineering
Published
2025-02-26
DOI
https://doi.org/10.1016/j.rineng.2025.104322
Citations
14
Primary Topic
Heavy Metal Exposure and Toxicity
Type
article
Field-Weighted Citation Impact
16.80

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article

Environmental occurrence, hazards, and remediation strategies for the removal of cadmium from the polluted environment

Zahid Rauf, Rahib Hussain, Shehla Sattar, Sarfa Aslam et al.
14 citations
Results in Engineering
Heavy Metal Exposure and Toxicity
16.80
article

Environmental occurrence, hazards, and remediation strategies for the removal of cadmium from the polluted environment

Zahid Rauf, Rahib Hussain, Shehla Sattar, Sarfa Aslam, Rafi Ullah, Muhammad Yahya, Shachi Shah, Asim Shahzad, Ahmad Zamir
article en
14 citations

Abstract

• The hyper toxicity of Cd affecting the environment. • Cadmium contamination can be mitigated by soil management practices. • The Cd contamination can be removed by bioremediation and nano-based remediation. • In-depth research is needed to probe Cd in the biogeochemical cycle. Understanding the sources of cadmium (Cd) is crucial for implementing effective control measures and minimizing its environmental impact. The present study was aimed to investigate the environmental impacts of cadmium sources and to evaluate potential remedial measures for cadmium contamination. The results showed that the average amount (mg/kg) of Cd in rocks was 92 (Idaho), 38 (North Carolina), Coal 3.8 (China), 0.28 (India), groundwater 0.98 (China), 0.8 (Bangladesh), 0.3 (India), 0.16 (Egypt), Soil 6.3 (Nigeria), 2.5 (Ecuador), 0.8 (Selangor), and 5.0 (Kelantan), Fertilizer 5 (China), 192 (USA), 11 (Morocco), 8.7 (Iran), and 14 (Algeria), wastewater 20 (Pakistan), 37 (India), and I.7 (China), Plants 0.81 (Nigeria), 1.2 (Pakistan), 0.05 (Romania). The mode of occurrence of Cd is geogenic, namely oxidation of mineralized rocks, stream sediments, volcanic materials, and soil, while anthropogenic sources include commercial and industrial wastes, hospital wastes, fertilizer, construction wastes, paints, and pigments, batteries, steel works, contaminated food, and cigarettes. Exposure to cadmium can lead to a range of health issues, including gastrointestinal distress, lung and kidney cancer, mutagenic and teratogenic effects, liver dysfunction, and fragile bone deformation. The Cd contamination can be removed through various processes such as bioremediation, phytoremediation, nano-particle remediation, soil washing, electrokinetic remediation, ion exchange, and phytostabilization may remediate the Cd level up to the maximum level. The study concluded that the toxic elements, such as Cd can be effectively remediated from contaminated media using the aforementioned methods, thereby limiting the health consequences associated with cadmium. These approaches help to remediate the health risks associated with Cd exposure. In-depth research is needed to explore the Cd in the biogeochemical cycle for better geo-management.

Results in EngineeringVol. 25
University of the Punjab (PK), Henan University (CN), Government of Khyber Pakhtunkhwa (PK), Institute of Management Sciences Peshawar (PK), Mohi-ud-Din Islamic University (PK), University of Swabi (PK), Institute of Geographic Sciences and Natural Resources Research (CN), Government College University, Lahore (PK)
Higher Education Commission, Pakistan, Henan University
Openalex Percentile: Top 1%
Heavy Metal Exposure and Toxicity
16.80
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