Article 2025

Engineering a Sustainable Future: Integrating Carbon Neutrality and Research-Based Learning into First-Year Engineering Courses

Journal of Chemical Education
Journal · Vol. 102 · Issue 12 · pp. 5095-5105
Abstract

This study presents the design, implementation, and evaluation of a sustainability-centered Course-Based Undergraduate Research Experience (CURE) embedded within a first-year engineering course at North Carolina State University. The goal of the intervention was to introduce authentic, project-based inquiry early in the engineering curriculum while aligning student work with the institutional carbon neutrality goals. Over 100 students participated in semester-long projects addressing campus sustainability challenges in energy efficiency, waste management, and biodiversity. A structured instructional framework guided students through each phase of the engineering design cycle, integrating a literature review, data analysis, iterative prototyping, and knowledge transfer. Instructional tools such as worksheets, templates, and design frameworks scaffolded student progress, while ensuring alignment with defined course competencies. To assess the impact of this approach, pre- and post course surveys were administered to measure changes in students’ self-reported confidence, interdisciplinary collaboration, and perceptions of sustainability in engineering. Statistically significant gains were observed in competencies related to research, design, and project planning. Students also reported increased recognition of sustainability’s relevance to engineering practice and a greater preference for hands-on, collaborative learning environments. By embedding sustainability as a central axis of inquiry and positioning students as contributors to real campus challenges, this course model offers a scalable framework for integrating systems thinking and research-based learning into early engineering education. The findings provide insight into how first-year CUREs can support the simultaneous development of technical competencies and environmentally conscious mindsets in future engineers. The approach may serve as a replicable model for embedding systems thinking and carbon neutrality into introductory STEM curricula. © 2025 American Chemical Society and Division of Chemical Education, Inc.

Keywords

Author Keywords

Project-Based Learning Interdisciplinary collaboration Carbon Neutrality Engineering Curriculum First-Year Engineering Sustainability Education Course-Based Undergraduate Research Experience (CURE) Systems Thinking

Index Keywords

Author Affiliations
NC State College of Engineering, Raleigh, NC, United States, NC State College of Engineering, Raleigh, NC, United States
NC State University, Raleigh, NC, United States
Funding & Acknowledgements
Universidad Nacional de Córdoba
J.E.T. would like to acknowledge the 2025 UNC Undergraduate Research Program Grant and the 2024-2025 NC State DELTA Hybrid Learning Grants for support. V.P., A.D., and J.E.T. would like to thank Dr. Yan Shen for her contributions to the course design and its implementation and Ms. Carla Davis for her help with logistics and university support offices.
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