The video opens with an aerial view of land and water, likely showing a coastal or shoreline landscape. The scene suggests large-scale environmental or civil engineering work connected to land, water, and infrastructure. Several people wearing hard hats and gloves work together around a brick wall test setup. One person appears to hold or position a cylindrical object while the group adjusts materials by hand. A close-up shows a structural model or test frame with vertical rods and small red connectors. A blurred person moves in the background while the model remains in the foreground. A person wearing gloves and a face mask works at a laboratory bench with glassware, tubing, and other lab equipment. The scene shows hands-on experimental work in a lab setting. A close-up shows a round dial gauge or pressure-style instrument mounted near laboratory equipment. The scene focuses on measurement and monitoring during testing. Rows of clear sample containers or bottles appear in the foreground while a graph or data display is visible behind them on a screen. This scene emphasizes data collection and organized sample-based lab work. The video shifts to a large indoor structural testing space with blue steel frames and heavy equipment. The setting looks like a civil engineering testing lab used for large-scale experiments. A wider view of the same structural lab shows people working near computers and instrumentation beside the blue frame structure. The scene highlights a mix of physical testing and digital monitoring. An animated graphic shows several white cars on a roadway and one highlighted red car with circular signal lines around it. The scene appears to represent transportation systems, traffic, or connected-vehicle technology. A high, wide shot shows a large indoor lab or workshop filled with equipment, platforms, and testing materials. The space appears to support large experimental setups and multiple research activities. Several people wearing face masks stand around a large machine or testing device in the same lab space. They appear to be observing or discussing the equipment together. Three people outdoors hold a pale, irregularly shaped engineered or test piece and look toward the camera. The scene suggests teamwork around a physical model or fabricated sample. Two people sit at a table in front of bookshelves while looking at a laptop and talking. The scene shows a small-group discussion or review of work on a computer. A close-up of the laptop screen shows a colorful plotted graphic or data visualization. The focus is on digital analysis and interpreting results on screen. A close-up shows laboratory containers and part of an instrument or device at a bench. The scene is centered on lab materials rather than people. A person outdoors holds a handheld device and gestures toward the camera. The scene suggests field measurement or data collection outside the lab. Three people stand in a hallway and talk face to face. The scene highlights conversation or advising in an academic setting. A top-down view shows a tabletop or lab bench with arranged objects, tools, or small sample items. The scene is brief and appears to focus on materials laid out for work or demonstration. A close-up shows hands working with a green surface or material on a table. The activity appears manual and precise, but the exact task is not fully clear from the recording. The video ends by returning to an aerial landscape view of land and water similar to the opening shot. This closing scene again emphasizes environmental scale and the connection between engineering and natural systems.

Investigate. Innovate. Transform.

Civil and environmental engineering is a people-serving field. As civilization becomes more complex, civil and environmental engineering becomes more interdisciplinary and practitioners need to know about more than just fundamental design and construction principles.

Strategic Areas of Research

  • cross section of the waves propagating through a 50 mm thick steel plate in response to the impact of a 1.58 mm steel ball at five different times.

    Civil Infrastructure

    Innovate new technologies for natural disaster detection and preparedness, and discover new methods for building technologies that are more sustainable and have greater longevity.

  • DeFrees Hydraulics Lab

    Environmental Engineering

    Environmental engineering aims, in part, to obtain an improved understanding of physical, chemical and biological processes occurring in the natural and built environment.

  • A student using virtual reality equipment in the Information and Decision Systems lab run by Andreas Malikopoulos.

    Engineering Systems and Management

    Engineering Systems and Management applies mathematical and scientific principles to the definition, design, development, and operational evaluation of total solutions to a wide variety of engineering problems, including water resources management and transportation systems.

Our Programs

  • Civil Engineering

    Involves designing, constructing, and maintaining infrastructure like buildings, roads, and bridges. Perfect for those interested in shaping cities and improving the built environment for society.

  • Environmental Engineering

    Focuses on solving environmental challenges like pollution and water quality. Perfect for those passionate about sustainability and protecting natural resources.

  • Smart Cities

    Focuses on using technology to enhance urban life through efficient, sustainable solutions. Ideal for those interested in urban planning, technology, and improving quality of life.

  • Engineering Management

    Combines engineering knowledge with business and leadership skills to manage projects and teams. Ideal for those looking to lead technical teams, optimize processes, and drive innovation in engineering.

  • Civil and Environmental Engineering

    Designs and builds infrastructure while solving environmental issues. Ideal for those passionate about sustainability, urban planning, and creating resilient communities.

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