Process engineering On this track, students are introduced to the fundamental reaction mechanisms in the field of chemical and biochemical engineering. It is largely related to that of EES because these classes teach students to develop methods of synthesizing and purifying desired chemical products and they learn to analyze the chemical makeup of various ingredients, determining how they would interact with each other. This is the bare essence of what EES students do – analyze chemical levels to make sure water and air quality is intact. Image:IGCC diagram.svg|The image considers a more environmentally friendly process for coal gasification
Resource engineering For this track, students take classes introducing them to ways to conserve natural resources. This can include classes in water chemistry,
sanitation,
combustion,
air pollution and
radioactive waste management. Classes that resource engineers take are largely comparable to those of EES, especially it's Sustainability and Environmental Impact sector, where we try to avoid the depletion of natural resources and create new methods of making renewable energy sources. Image:Luotsimäki.jpg| They use their design knowledge to make better wastewater treatment facilities in order to protect natural resources Image:Transuranic waste casks.jpg| Resource engineers can largely contribute to the designing of various safe ways to store nuclear waste
Geo-engineering To sum it up, geo-engineering is the large scale act of stepping into and aiding the Earth's climate system by attempting to counteract human-caused climate change and other human-caused global impacts. Geo-engineering is related to EES in the sense that it works to mitigate climate change other the world. This examines
geo-engineering in further detail. File:Carbon sequestration-2009-10-07.svg| Image depicts how humans sequester carbon from the atmosphere
Ecology This is a branch of biology that covers the aspects of organisms in a set environment. It prepares the students for using their engineering and scientific knowledge to solve the interactions between plants, animals and the biosphere. In addition, I has common applications in a variety of fields, some of which include, conversation (biology), wetland management, as well as natural resource management, which are some of the biggest factors that are included within the EES learning environment and work force. Image:Ecosystem Componants.jpg| Image shows how one is able to alter certain biological interactions in order to optimize survival of the system. Image:Enhydra lutris.png| Image of an sea otter, with an underlying story of how the harvesting of kelp effects various populations of marine life.
Biology This includes further education about microbial, molecular and cell biology. Classes can include
cell biology,
virology,
microbial and
plant biology. This is related to EES on the most basic level, as you must have basic understand of biology works in order to by successful in this major and work force. Image:Ebola virus em.jpg| Image of a virus, signifying the importance of understanding the way in which they function in order to safely sanitize water supplies. Image:Gram Stain Anthrax.jpg| Depicts the necessity in understanding the metabolism of bacteria in order to see how their proliferation effects the climate, along with other effects that it might have. Image:Plagiomnium affine laminazellen.jpeg| Using the biological design of chloroplasts to design a more effective way of turning solar, and more sustainable, energy into future sources of power.
Policy This covers in more detail ways the environment can be protected through political means. This is done by introducing students to qualitative and quantitative tools in classes such as
economics,
sociology,
political science and
energy and resources. Image:Supply demand.jpg| Learning about economics to determine the financial burden it might take to implement an "environmentally friendly" technology ==Fields of work==