Recent advances in clay minerals for groundwater pollution control and remediation.
Simin HuYu LiuLezhang WeiDinggui LuoQihang WuXuexia HuangTangfu XiaoPublished in: Environmental science and pollution research international (2024)
Clay minerals are abundant on Earth and have been crucial to the advancement of human civilization. The ability of clay minerals to absorb chemicals is frequently utilized to remove hazardous compounds from aquatic environments. Moreover, clay-based adsorbent products are both environmentally acceptable and affordable. This study provides an overview of advances in clay minerals in the field of groundwater remediation and related predictions. The existing literature was examined using data and information aggregation approaches. Keyword clustering analysis of the relevant literature revealed that clay minerals are associated with groundwater utilization and soil pollution remediation. Principal component analysis was used to assess the relationships among clay mineral modification methods, pollutant properties, and the Langmuir adsorption capacity (Q max ). The results demonstrated that pollutant properties affect the Q max of pollutants adsorbed by clay minerals. Systematic cluster analysis was utilized to classify the collected data and investigate the relationships. The pollution adsorption mechanism of the unique structure of clay minerals was investigated based on the characterization results. Modified clay minerals exhibited changes in surface functional groups, internal structure, and pH pzc . This review provides a summary of recent clay-based materials and their applications in groundwater remediation, as well as discussions of their challenges and future prospects.
Keyphrases
- heavy metals
- human health
- health risk assessment
- risk assessment
- drinking water
- systematic review
- endothelial cells
- healthcare
- particulate matter
- mass spectrometry
- rna seq
- big data
- machine learning
- health information
- air pollution
- atomic force microscopy
- artificial intelligence
- induced pluripotent stem cells
- aqueous solution