Environmental Radiochemistry involves the study of the sources and behaviour of radioactive materials in the environment, and the interactions of these materials with living organisms. It helps us to understand the impact of radioactive materials on human health and the environment. Environmental Radiochemistry applies the principles of analytical chemistry, organic and inorganic chemistry, physics, biology, and environmental sciences in order to obtain data on levels of radiation in the environment and to develop techniques to monitor the presence and movements of radioactive materials in the environment. It also studies the nature of radioactive materials, their sources, and how they interact with living organisms. Topics of research in environmental radiochemistry are numerous, including the detection of radionuclides, the study of radioactive decay processes, the fate, behaviour, and transfer of radionuclides in the environment, and the effects of exposure to radioactive materials on the environment and on living organisms. Other aspects of radiochemistry in the environment include the characteristics of radioactive materials, and the effects of natural and man-made radiations. An example of a applied research topic in environmental radiochemistry is the use of radioisotopes to trace the movement of pollutants in natural waters. Radioisotopes, such as carbon-14, are used to trace the dispersal of pollutants and contaminants in bodies of water such as oceans, lakes, or rivers. This technique is also used to identify hot spots of chemical contamination. In addition, environmental radiochemistry may be used to investigate long-term exposure to low doses of radiation in occupational or medical settings. Studies are conducted to assess the risk of radiation-induced health effects in individuals working in nuclear reactors, x-ray facilities, or radiotherapy clinics. Today, environmental radiochemistry is used to predict levels of risk posed by radioactive materials and to provide valuable insights into the complex ecosystem we live in. It is a powerful tool for protecting humans and the environment from the hazard posed by radioactivity.
Title : Advances in plasma-based waste treatment for sustainable communities
Hossam A Gabbar, Ontario Tech University, Canada
Title : Nanostructured biodevices based on carbon nanotubes and glyconanoparticles for bioelectrocatalytic applications
Serge Cosnier, Silesian University of Technology, Poland
Title : Carbon capture and storage: The impact of impurities in CO2 streams
Andy Brown, Progressive Energy Ltd, United Kingdom
Title : Supramolecular nano chemistries: Fighting viruses, inhibiting bacteria and growing tissues
Thomas J Webster, Hebei University of Technology, China
Title : Chemical engineering of vanadium and tantalum zeolites for application in environmental catalysis
Stanislaw Dzwigaj, Sorbonne Universite, France
Title : Disrupting TNF-α and TNFR1 interaction: Computational insights into the potential of D-Pinitol as an anti-inflammatory therapeutic
Ferran Acuna Pares, Universidad Internacional de la Rioja (UNIR), Spain