Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Active pharmaceutical contaminants in drinking water: myth or fact?

View through CrossRef
AbstractGlobal water availability has been affected by a variety of factors, including climate change, water pollution, urbanization, and population growth. These issues have been particularly acute in many parts of the world, where access to clean water remains a significant challenge. In this context, preserving existing water bodies is a critical priority. Numerous studies have demonstrated the inadequacy of conventional water treatment processes in removing active pharmaceutical ingredients (APIs) from the water. These pharmaceutical active compounds have been detected in treated wastewater, groundwater, and even drinking water sources. The presence of APIs in water resources poses a significant threat not only to aquatic organisms but also to human health. These emerging contaminants have the potential to disrupt endocrine systems, promote the development of antibiotic-resistant bacteria, and bioaccumulate in the food chain, ultimately leading to unacceptable risks to public health. The inability of current conventional treatment methods to effectively remove APIs from water has raised serious concerns about the safety and reliability of water supplies. This issue requires immediate attention and the development of more effective treatment technologies to safeguard the quality of water resources and protect both aquatic ecosystems and human health. Other treatment methods, such as nanotechnology, microalgal treatment, and reverse osmosis, are promising in addressing the issue of API contamination in water resources. These innovative approaches have demonstrated higher removal efficiencies for a wide range of APIs compared to conventional methods, such as activated sludge and chlorination, which have been found to be inadequate in the removal of these emerging contaminants. The potential of these alternative treatment technologies to serve as effective tertiary treatment. To address this critical challenge, governments and policymakers should prioritize investment in research and development to establish effective and scalable solutions for eliminating APIs from various water sources. This should include comprehensive studies to assess the performance, cost-effectiveness, and environmental sustainability of emerging treatment technologies. The emerging contaminants should be included in robust water quality monitoring programs (Aus der Beek et al. in Environ Toxicol Chem 2016;35(4):823-835), with strict regulatory limits enforced to protect public health and the environment. By doing so, the scientific community and regulatory authorities can work together to develop a multi-barrier approach to safeguarding the water resources and ensuring access to safe, clean water for all. This review explores the potential of alternative treatment technologies to serve as viable solutions in the fight against API contamination. Innovative approaches, including nanotechnology, microalgal treatment, and reverse osmosis, have demonstrated remarkable success in addressing this challenge, exhibiting higher removal efficiencies compared to traditional methods. Graphical Abstract
Title: Active pharmaceutical contaminants in drinking water: myth or fact?
Description:
AbstractGlobal water availability has been affected by a variety of factors, including climate change, water pollution, urbanization, and population growth.
These issues have been particularly acute in many parts of the world, where access to clean water remains a significant challenge.
In this context, preserving existing water bodies is a critical priority.
Numerous studies have demonstrated the inadequacy of conventional water treatment processes in removing active pharmaceutical ingredients (APIs) from the water.
These pharmaceutical active compounds have been detected in treated wastewater, groundwater, and even drinking water sources.
The presence of APIs in water resources poses a significant threat not only to aquatic organisms but also to human health.
These emerging contaminants have the potential to disrupt endocrine systems, promote the development of antibiotic-resistant bacteria, and bioaccumulate in the food chain, ultimately leading to unacceptable risks to public health.
The inability of current conventional treatment methods to effectively remove APIs from water has raised serious concerns about the safety and reliability of water supplies.
This issue requires immediate attention and the development of more effective treatment technologies to safeguard the quality of water resources and protect both aquatic ecosystems and human health.
Other treatment methods, such as nanotechnology, microalgal treatment, and reverse osmosis, are promising in addressing the issue of API contamination in water resources.
These innovative approaches have demonstrated higher removal efficiencies for a wide range of APIs compared to conventional methods, such as activated sludge and chlorination, which have been found to be inadequate in the removal of these emerging contaminants.
The potential of these alternative treatment technologies to serve as effective tertiary treatment.
To address this critical challenge, governments and policymakers should prioritize investment in research and development to establish effective and scalable solutions for eliminating APIs from various water sources.
This should include comprehensive studies to assess the performance, cost-effectiveness, and environmental sustainability of emerging treatment technologies.
The emerging contaminants should be included in robust water quality monitoring programs (Aus der Beek et al.
in Environ Toxicol Chem 2016;35(4):823-835), with strict regulatory limits enforced to protect public health and the environment.
By doing so, the scientific community and regulatory authorities can work together to develop a multi-barrier approach to safeguarding the water resources and ensuring access to safe, clean water for all.
This review explores the potential of alternative treatment technologies to serve as viable solutions in the fight against API contamination.
Innovative approaches, including nanotechnology, microalgal treatment, and reverse osmosis, have demonstrated remarkable success in addressing this challenge, exhibiting higher removal efficiencies compared to traditional methods.
Graphical Abstract.

Related Results

Kritik Mitos Tentang “Hang Tuah” Karya Amir Hamzah
Kritik Mitos Tentang “Hang Tuah” Karya Amir Hamzah
This study reveals the myth criticism on rhyme "Hang Tuah", an Amir Hamzah’s work expressing Malay myth. The Malay myth found in the rhyme "Hang Tuah" is placed as a meeting place ...
Machine Learning to Access and Ensure Safe Drinking Water Supply: A Systematic Review
Machine Learning to Access and Ensure Safe Drinking Water Supply: A Systematic Review
Drinking water is essential to public health and socioeconomic growth. Therefore, assessing and ensuring drinking water supply is a critical task in modern society. Conventional ap...
Machine Learning to Access and Ensure Safe Drinking Water Supply: A Systematic Review
Machine Learning to Access and Ensure Safe Drinking Water Supply: A Systematic Review
Drinking water is essential to public health and socioeconomic growth. Therefore, assessing and ensuring drinking water supply is a critical task in modern society. Conventional ap...
Manganese (Mn) in Drinking Water From Gravity Feed System: A Literature Review
Manganese (Mn) in Drinking Water From Gravity Feed System: A Literature Review
Manganese (Mn) is an element of metals that exists in a huge number of metals in the Earth’s crust. Mn is not naturally found in its pure form; instead, it is usually forming a com...

Back to Top