
Explore the foundations of water resources and environmental engineering, including water pollution, surface and groundwater quality, water treatment, and the design of water supply and distribution systems.
Identify sources of water pollution, including point sources from industry and municipalities and nonpoint sources. Examine effects on streams, lakes, and oceans, including oxygen depletion and toxic contaminants.
Explore how water demand is calculated from average consumption, leakage, and production, accounting for domestic and non domestic uses and seasonal and peak factors in urban systems.
Explore how to estimate water demand through instantaneous demand and peak factors, using simultaneity diagrams, leakage, and per capita consumption to design reliable water supply and fire demand planning.
Explore how to select and operate pumps and pumping machinery for water systems, covering classifications, drives, head concepts, and curves for efficient design.
Explain the water treatment goals and the conventional process sequence—screening, pretreatment, coagulation, flocculation, sedimentation, filtration, and disinfection—with aeration and activated carbon for advanced and special purposes.
explains the arsenic crisis, Bangladesh’s severe impact, and health risks, then presents five removal methods: oxidation, coagulation and precipitation, ion exchange, activated alumina, and membranes.
Survey groundwater extraction technologies from shallow suction tubewells to deeper hand pumps, detailing components, depth limits, and Bangladesh-focused designs for rural and urban water supply.
Examine the water distribution process, from surface water and reservoir sizing to pressure-based mains, backflow protection, and fire flow design.
Apply water demand management to improve efficiency and reduce losses through conservation, pricing, water-efficient technologies, metering, and public education, while controlling leaks.
Explore the physical integrity of water distribution systems, the ability to withstand external and internal stresses, prevent drinking water contamination, and guide asset management through inspections and replacements.
Explore sustainable development, environmental concepts, and the energy and environment nexus, examining fossil fuels, renewable energy, green economy, green building, waste management, and cleaner production for a sustainable future.
This course aims to provide students with the knowledge, strategies and modern techniques for water treatment, environmental pollution control, management, and protection of resources, including air, water and land. Major topics include Water Resources, Treatment Processes, Fluid Mechanics & Coastal Engineering, Water & Air Quality Management, Environmental Engineering Science, which are designed to equip students with advanced skills to tackle both local and global environmental challenges. The students can specialize in the areas of air quality management/pollution control, risk assessment, waste management (including environmental restoration, groundwater management, and solid/hazardous/mixed waste management), water quality/control (including waste treatment, industrial and municipal wastewater treatment and disposal, and aquatic chemistry), and water resources engineering and management
Course objectives are:
1. Integrate knowledge from environmental engineering sub-disciplines to design and implement sustainable engineering works.
2. Accomplish planning, design, and construction of water systems and related infrastructural facilities.
3. Produce feasible, practical, and environmentally sustainable solutions for water treatment, wastewater management and pollution control.
4. Develop your engineering skills and learn to design, develop and apply concepts for water and waste, considering environmental sensitivity.
5. Develop core quantitative skills of leadership, water technologies, and water resources management.
6. Identify and address current and future societal problems related to water, waste, and the environment within a broader framework of sustainable development.
7. Use advanced techniques, skills, and modern scientific and engineering tools for problems related to professional practice in the field of water management.
8. Understand the impact of solutions to water and environmental engineering problems in a global, economic, environmental, and societal systems context.