The laboratory portion of this course focuses on foundational principles and essential techniques of chemistry. These conceptual and technical tools have great relevance to many issues of importance to society, including climate change, human health, economic security, and more. SLS-related experiments in CHEM 1212K will be related to five threads of sustainability in chemistry: Green Chemistry, Chemistry and Society, Everyday Chemical Analysis, Computational Chemistry, and Climate Change.
The search for life beyond the Earth is reaching new heights. So what are we looking for, and how will we know when we find it? This course will explore the history of the solar system and the Earth as the one example of a habitable planet—one that can support living organisms—that we know now. We will consider how the planets formed, the important planetary processes that brought about the Earth as it was when life arose and the planet we live on today.
SLS approaches sustainability as an integrated system, linking environment, economy, and society. As an initiative focused on “creating sustainable communities,” we especially emphasize the role that SOCIETY plays in sustainability – and particularly issues of social equity and community voice. You can learn about SLS’ approach to sustainable communities here. The purpose of this tool is to help students begin to understand the SOCIETY part of sustainability. It includes two exercises and resources for learning more.
The following rubric assesses SLO 3: Students will be able to evaluate how decisions impact the sustainability of communities. Students who rank highly on this rubric are able to evaluate how a variety of decisions that occur within and outside of communities affect community sustainability. Students can explain/demonstrate how different stakeholders, seeking to achieve different outcomes, can make decisions that create consequences for community sustainability. The consequences of that impact often disproportionately affect marginalized groups.
In recent years, a variety of disciplines in the sciences have made achieving sustainability one of their foundational values. Scholars within these disciplines have devoted their expertise to developing programs and campaigns for achieving a more sustainable world. But these campaigns need broad public support to succeed, and academic scholarship isn’t always written with a public audience in mind. How can scholars present their ideas so as to make them widely accessible and thus, more successful? This tool will introduce you to important concepts in science communication, and guide you through an analysis of real-world examples of sustainability-related science communication. It also includes wrap-up questions, additional resources, and suggestions for collaborative learning opportunities.
Proctor Creek runs through northwest Atlanta, extending from I-20 in southwest Atlanta to the Chattahoochee River. An important piece of Atlanta’s natural environment, it also has a long history of neglect and pollution, which has negatively affected its surrounding communities. In this case study, read about this history, as well as new and ongoing development projects in West Atlanta that demand close attention to the Proctor Creek Watershed. Additionally, concepts like Environmental Justice and Citizen Science will provide a lens for thinking about issues related to the creek and how to protect its surrounding communities.
Extreme heat leads to more deaths in the US than all other natural disasters combined, and as global temperatures rise, so will the dangers. Urban areas, such as Georgia Tech’s campus, are of primary concern because of the urban heat island effect – the phenomenon in which cities are warmer than nearby rural areas.
Georgia Tech needs your help! This tool will teach you more about the urban heat island effect. You’ll identify real-world urban heat islands on the Georgia Tech campus and propose strategies to reduce temperatures at these campus hot spots. We encourage you to send your recommendations to Georgia Tech’s Urban Climate Lab for consideration!
Environmental Justice (EJ) is concerned with making sure that (a) no community takes on an unfair share of environmental burdens and (b) environmental benefits are shared in an equitable way regardless of race, class, gender, or orientation. The Environmental Justice Movement challenges environmental injustices, with a special focus on racial and class disparities, in the U.S. and around the globe. The purpose of this tool is to help students begin to understand:
What EJ is – and what environmental injustices are;
How the EJ movement works to address EJ issues (especially in the U.S. South, where the movement was born) with close attention to injustices related to race and class;
The different types of roles that scientists and engineers in particular can play in this work.
This tool was contributed by Jennifer Hirsch. We also want to thank Fatemeh Shafiei from Spelman College for contributing to this tool.
This tool explores the principle that environmental health impacts are a function of the inherent risk multiplied by exposure. In chemical processes we have become better at managing inherent risk, but we also have a significant legacy of mismanagement. One such example occurred in Spartanburg, South Carolina, where local politician Harold Mitchell and community organization ReGenesis tackled the problem of their community's long-term exposure to hazardous waste.
The tool below uses a video of Rep. Mitchell to explain the events in Spartanburg. It explores how local chemical plants mismanaged and deliberately covered up risks, nearly leading to a chemical disaster that they were not equipped to contain. Through this activity, you will explore and discuss how chemical engineering professionals should respond to similar situations, and what responsibilities such professionals have to the communities around them.
This is a collection of assignments around the problem of rodent infestation in cities, which has become a pressing problem following the mild winters in 2015-16. The assignments are designed to 1) develop mapping and data analysis skills, 2) give meaningful ideas for application prototyping, and 3) foster thinking about community engagement. This is based on an up-to-date (2017) dataset of rat sightings in New York City and an on-going collaboration between Georgia Tech and the community of English Avenue.