Engineering Adaptation to Climate Change (EACC)
Goals:What will our environment look like in twenty years? Fifty years and beyond? How will that affect our cities, towns, shorelines, industries and lifestyles? Sustainability in a changing world does not only mean developing technologies that reduce our climate impact, such as alternative energy sources. It also means adapting our built infrastructure to a changing climate and all the environmental changes which result. The EACC team will explore new materials, processes and designs, from more durable and robust synthetic "green" materials to advanced manufacturing processes for a circular economy, including advancements in applications of additive manufacturing/3D printing, all with the focus of improving lives and supporting healthy and safe communities.
Issues: Our
climate is not only changing, resulting in numerous changes in our environment,
but is doing so in a discontinuous and in many ways impossible-to-predict
sense, due to the overwhelming complexity of our global natural and engineered
systems. In light of this, sustainability means not only meeting the
challenges of our societal needs for energy, shelter, food, services and
manufacturing via environmentally-benign technologies which seek to limit human
contribution to greenhouse gases, non-degradable waste, and ecosystem damage,
but also finding new ways to adapt our society and civilization, on a global
scale, to the inevitability of radical climate change. Both pathways must be
pursued if we have any hope to support a healthy and fulfilling future for
humanity and our natural environment. This vital approach must be pursued, not
only from a policy perspective but through integration into our engineering materials, technologies and designs. The research project focus of the team will be to
fully integrate critical thinking, engineering design, materials science (and
materials choice) and environmental impact. Impact can be measured via life
cycle assessment of the materials used and the energy and resource expenditures
of the technologies developed for climate change adaptation. Some research opportunities include:
Methods & Technologies:3D printing; chemical synthesis and spectroscopy; composite materials; microscopy; powder sintering; computer modeling; life cycle analysis; electrochemistry; surface science; structural design tools
Disciplines:All engineering majors, chemistry, physics, sustainability studies, environmental and health sciences, art and design, economics, business, computer science; Coastal Environmental Studies; Atmospheric and Oceanic Sciences; Biochemistry; Business Management; Engineering Chemistry; Environmental Design, Policy, and Planning; Environmental Humanities; Information Systems; Journalism; Marine Sciences; Mathematics; Sustainability Studies; Technological Systems Management; Social Work; Sociology; Philosophy; Political Science; Geology; Economics; Ecology & Evolution; Population Health & Clinical Outcomes Research; Public Health; Science Education; Teaching: Biology; Teaching: Chemistry; Teaching: Earth Science; Teaching: Physics; Technology and Society; Computer Science; Creative Writing and Literature
Interests / Preparation by Major:All interests welcome -- any background in engineering, chemistry, art and design, sustainability, environmental science, computer modeling, urban plannings, human health, economics, business would be helpful.
Faculty:
Gary Halada (Materials Science & Chem Eng)
Team Section:05
Team Established:Spring 2019
Spring Team Meeting:Online at Online Asynchronous
Contact:Gary Halada <Gary.Halada@stonybrook.edu>
Applications:Closed