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Promoting political and civic engagement in a nonmajor sustainable chemistry course

Promoting political and civic engagement in a nonmajor sustainable chemistry course
Contributors
Professor | Widener University
Learning Objets
Summary
A non-majors chemistry course with a sustainability focus was developed as part of an effort to embed sustainability throughout the curriculum at Widener University. Using the ACS textbook Chemistry in Context, we sought to reinforce the concept of chemistry as the “central science” in solving big issues relating to energy and the environment. What distinguishes this course from traditional general education chemistry classes is the inclusion of a substantial civic engagement component. Students were introduced to sustainability issues at the local, state, and national levels through field trips and advocacy activities. In preparation for a lobby day at the state capitol, students researched pending legislation, identified bills to support or refute, and, with the help of faculty and students in the Political Science and Communication Studies Departments, prepared talking points or position papers to share with legislators. At the local level, students learned about environmental injustice in Chester from the perspective of a grass-roots environmental advocacy group. A trip to Washington, DC, allowed students to consider how sustainability relates to national politics and to commerce, with a trip to government buildings and the ACS Green Chemistry Institute. Student reflections indicated a positive experience with chemistry, a greater understanding of environmental issues that affect them, and a better awareness of how they can effect change.
Learning Goals/Student Objectives
Students will:
1) understand the basic chemistry of the environment;
2) recognize the role of chemistry in a sustainable world;
3) understand how science explains the workings of the natural and physical world using theories and models that can be tested using experiments and observations (specifically by using chemical nomenclature and structures and representing physical phenomena mathematically);
4) be able to use mathematical methods to solve problems;
5) be able to interpret, make inferences, and draw conclusions from data presented in tabular or graphical form;
6) be able to determine if numerical results are reasonable;
7) examine, evaluate, and refine their habits of thinking, and accept ambiguity while questioning assumptions and ideas;
8) be able to make claims and draw conclusions supported by the marshalling and evaluation of evidence;
9) synthesize divergent contents, methodologies, and models as reflective learners and thinkers across and within disciplines.
Object Type
Activities/Technology (e.g., in-class activities, online games, hands-on activities/manipulatives, outreach, virtual tools, etc.)
Books
Audience
Introductory Undergraduate
Other Faculty Educators/Teachers
Common pedagogies covered
Blended learning
Context-based learning
Green Chemistry Principles
Waste Prevention
Atom Economy
Less Hazardous Chemical Syntheses
Designing Safer Chemicals
Safer Solvents and Auxiliaries
Design for Energy Efficiency
Use of Renewable Feedstocks
Reduce Derivatives
Catalysis
Design for Degradation
Real-Time Pollution Prevention
Safer Chemistry for Accident Prevention
U.N. Sustainable Development Goals (SDGs)
No Poverty
Zero Hunger
Good Health and Well-Being
Quality Education
Gender Equality
Clean Water and Sanitation
Affordable and Clean Energy
Decent Work and Economic Growth
Industry, Innovation and Infrastructure
Reduced Inequalities
Sustainable Cities and Communities
Responsible Consumption and Production
Climate Action
Life Below Water
Life on Land
Peace, Justice and Strong Institutions
Partnerships for the Goals
Safety Precautions, Hazards, and Risk Assessment
n/a

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