Jonathan Mellor, PhD

A first course in fluid mechanics. An introduction to fluid mechanics through the study of the properties, stationary behavior, and flow characteristics of incompressible fluids. The fundamental conservation equations of mass, momentum and energy governing the pressure, velocity and free surface elevation of fluid are a course focus. Hydrostatic forces, pipe flow, basic pump and turbine theory are examples of water resource engineering application covered.

Introduction to the sanitary engineering field. The environmental problems of urbanization and the natural cycle of water are discussed. Elementary hydrology, physical, chemical and biological principles of the treatment of water and wastewater are covered. Municipal services - water mains, sanitary sewers and storm water drainage, layout and operation of purification and treatment works are studied in detail. In addition, state and federal regulatory standards are introduced and discussed.

Elementary surface water hydrology, pressure flow and open channel flow fundamentals. Topics include basic probability and statistics with a water resources emphasis, watershed based analysis and design, natural and constructed open channel systems, reservoir routing and design, storm water analysis and management issues. An integrated, systems analyses approach is emphasized.

The professional nature of engineering and the code of ethics which governs its practice. Safety issues pertaining to field practice by civil engineers are covered. Students learn to make competent on-the-job decisions and improve professional practice with an emphasis on safety for workers in the field. Requirements include completing an OSHA safety certification course, for which students pay a fee.

The professional nature of engineering and the code of ethics which governs its practice. Safety issues pertaining to field practice by civil engineers are covered. Students learn to make competent on-the-job decisions and improve professional practice with an emphasis on safety for workers in the field. Requirements include completing an OSHA safety certification course, for which students pay a fee.

A study of how anthropogenic emissions of greenhouse gasses are causing global climate change and how climate change will impact civil engineering systems. The concept of resilience and how civil engineers can both help reduce greenhouse gas emissions and adapt their designs to improve their resilience to climatic extremes. Will cover all areas of civil engineering including: water supply and treatment, stormwater management, electric utilities, transportation, the built environment and coastal infrastructures.

Final design experience requiring practitioner involvement, student reports, and oral presentations. An interdisciplinary, team approach is emphasized. Course offers two credits in the fall and two credits in the spring. All four credits must be earned within the same academic year.

Final design experience requiring practitioner involvement, student reports, and oral presentations. An interdisciplinary, team approach is emphasized. Course offers two credits in the fall and two credits in the spring. All four credits must be earned within the same academic year.

Final design experience requiring practitioner involvement, student reports, and oral presentations. An interdisciplinary, team approach is emphasized. Course offers two credits in the fall and two credits in the spring. All four credits must be earned within the same academic year.

Final design experience requiring practitioner involvement, student reports, and oral presentations. An interdisciplinary, team approach is emphasized. Course offers two credits in the fall and two credits in the spring. All four credits must be earned within the same academic year.