Indoor air quality plays a vital role in protecting human health and the environment. This session highlights major pollution sources, monitoring approaches, health impacts, and practical strategies to assess and improve air quality in both indoor and outdoor environments. 

Air pollution poses serious risks to human health, ecosystems, and sustainable development. Prolonged exposure to polluted air increases respiratory and cardiovascular diseases, reduces life expectancy, and places a heavy burden on public health systems. Beyond health effects, air pollution damages crops, degrades soil and water quality, accelerates climate change, and threatens biodiversity. 

Advances in air pollution monitoring technologies are transforming how air quality is measured, analyzed, and managed. This session explores modern monitoring tools, including real-time sensors, remote sensing, satellite data, and data analytics platforms. Discussions will highlight their role in accurate pollution assessment, early warning systems, regulatory compliance, and informed decision-making to support effective air quality management. 

Integrated management of air pollutants focuses on coordinated strategies that combine science, technology, and policy to reduce emissions effectively. By integrating monitoring systems, data-driven decision-making, and sustainable control measures, it enhances overall air quality performance. This comprehensive approach supports public health protection, environmental sustainability, and long-term climate resilience. 

Examines the physical and chemical properties of atmospheric aerosols, their sources, formation mechanisms, and roles in air quality, climate processes, and human health impacts. 

Atmospheric chemistry explores the chemical composition and reactions occurring in the Earth’s atmosphere. It helps us understand the formation and transformation of pollutants, greenhouse gases, and aerosols. Insights from this field are essential for air quality management, climate studies, and environmental protection strategies.

Urban, industrial, and rural air quality differ significantly due to variations in emission sources and land use patterns. Urban areas are mainly affected by traffic emissions and dense human activities, while industrial zones face higher concentrations of process-related pollutants. Rural air quality is often influenced by agricultural practices, biomass burning, and the long-range transport of pollutants. 

Emerging air pollutants are an increasing concern for environmental sustainability and public health. In addition to traditional contaminants, substances such as ultrafine particles, microplastics, and novel industrial emissions are now being detected in the atmosphere. Addressing these pollutants requires advanced monitoring technologies, interdisciplinary research, and forward-looking environmental policies. 

Focuses on methods to quantify human exposure to air pollutants and assess associated health risks, supporting evidence-based standards and regulatory frameworks. 

Examines the interactions between air pollutants and climate systems, including greenhouse gases and short-lived climate forcers, and their combined impacts on environmental and human systems.  

Highlights newly recognized air pollutants, their sources, transport pathways, exposure routes, and potential health and environmental impacts, with emphasis on indoor environments. 

Covers the use of AI and machine learning techniques for air quality monitoring, prediction, source apportionment, and decision support to enhance pollution management and policy development. 

Air pollution policies and governance play a critical role in protecting public health and the environment. Effective regulatory frameworks, monitoring systems, and enforcement strategies help reduce emissions and exposure to harmful pollutants. Integrating science-based decision-making with public awareness initiatives ensures healthier communities and sustainable air quality management.