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Learn from experts in the field who are leading the charge to solve world needs through chemistry.

Chemistry doesn’t just shape technologies; it shapes outcomes. It influences who has access to energy, how medicines are produced, what risks workers and communities are exposed to, and how long materials persist in the environment. In a moment of overlapping climate, health, and industrial challenges, how chemistry is practiced matters as much as what it makes.

Promoting Chemistry Applied to World Needs is a webinar series developed in collaboration with the IUPAC Committee on Chemical Research Applied to World Needs (CHEMRAWN). The series brings together researchers, educators, practitioners, and members of the public who are interested in how chemistry can be directed toward solving real-world problems—not in the abstract, but at the scale of systems, industries, and societies.

Across the series, speakers situate their work within global frameworks such as the United Nations Sustainable Development Goals and IUPAC’s Top 10 Emerging Technologies, highlighting the role chemists play in shaping safer, more sustainable futures. Each session examines concrete decision points where science, policy, and practice intersect, offering insight into how green chemistry principles move from research into action.

Explore the recordings below.

From Detoxifying Chemical Warfare Agents to Treating Nuclear Wastewater: Adventures in the Synthesis of Metal-Organic Frameworks

What if chemists could design materials specifically to meet the world’s most urgent challenges? In this opening webinar, Prof. Ashlee Howarth (Concordia University) introduces metal-organic frameworks (MOFs)—materials whose structure can be tuned to address issues like toxic pollution, chemical safety, and nuclear contamination—as a powerful platform for problem-solving. Grounded in real research and global need, this talk offers a compelling look at how advanced materials science connects directly to human and environmental well-being.

 

What Is Carbon Neutrality, and How to Achieve It?

Carbon neutrality is more than a climate goal—it’s an energy challenge with enormous economic and social implications. In this webinar, Prof. Junji Nakamura (Kyushu University) lays out a clear, systems-level view of where emissions actually come from and what it would take to eliminate them. He makes the case for solutions that can scale globally, especially in developing regions, and explores how chemistry, policy, and public will must work together if carbon neutrality is to move from aspiration to reality.

 

Atomic-Scale Insights into Energy Materials (Batteries Included!)

What do electric vehicles, next-gen solar cells, and even a world-record lemon battery have in common? In this lively talk, Prof. Saiful Islam (University of Oxford) connects the climate and energy challenge to the place where breakthroughs actually happen. With clarity, humor, and real-world relevance, he shows how looking at the atomic scale helps explain what makes batteries charge faster (or fail), why solar cells are advancing so quickly, and how modeling + experiments together can accelerate clean-tech progress. If you want an accessible window into the science powering the energy transition—and why the details inside materials matter so much—this recording is a fun, smart watch.

 

Affordable, Equitable Clean-Water Availability: A Materials-Based Approach

Access to safe drinking water is one of the most urgent and unevenly distributed challenges of our time. In this talk, Prof. Chandramouli Subramaniam (Indian Institute of Technology Bombay) explores how materials science can help close that gap, focusing on low-energy, solar-driven approaches to producing freshwater from contaminated and saline sources. Grounded in real-world constraints such as cost, durability, and scalability, the session offers a compelling look at how chemistry can support more equitable access to clean water, especially in regions facing acute water stress.

 

Sustainable Preparation of World Health Organization (WHO) Essential Medicines by Mechanochemistry

Modern pharmaceutical manufacturing depends heavily on organic solvents — a choice with major energy, cost, and environmental consequences. In this webinar, Prof. Evelina Colacino (University of Montpellier) explores how mechanochemistry can reduce that reliance, enabling the preparation of WHO essential medicines with fewer resources and less waste. The result is a practical, systems-level look at how greener chemistry can reshape how medicines are made.

For proprietary reasons, Prof. Evelina Colacino’s presentation is not available for public viewing. For further information on Mechanochemistry, please visit https://edu.mechanochemistry.eu or contact Evelina directly.

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Dive Deeper

1. 1. Join the Green Chemistry Teaching and Learning Community to discuss what you learned in these recordings, access resources, join conversations, and connect with your peers from across the globe!
   2. Learn more about the Chemical Research Applied to World Needs (CHEMRAWN) committee of IUPAC and join their LinkedIn group to keep up with their news, projects, and initiatives!

In 2023, the American Chemical Society (ACS) updated its Guidelines for Bachelor’s Degree Programs to formally integrate the tenets of green chemistry into its approval process for chemistry curricula. A key change was expanding the expectation that programs incorporate case studies that connect chemistry to real-world decision-making, including environmental impact, human health, regulation, and industry practice. It was a significant step forward for embedding sustainability into chemistry education—one that aligns closely with Beyond Benign’s mission to equip educators with the tools and support they need to teach green chemistry.

As Dr. David Laviska, Portfolio Manager for Green Chemistry & Sustainability in Education at the ACS Green Chemistry Institute (ACS GCI), explains, “The ACS Guidelines make it clear that students need relevant, digestible examples drawn from the global chemistry enterprise. Providing context for chemical principles that emphasizes relevance and value to society helps students stay engaged with the learning process.”

Recognizing that educators would need practical tools to meet these new expectations, Beyond Benign partnered with ACS GCI to co-develop a template for creating case studies suitable for classroom teaching. Created by a team of experienced faculty collaborators, the template provides a flexible, classroom-ready framework that enables educators to create and share meaningful case studies grounded in green chemistry and sustainability, advancing the ACS guidelines while accelerating both Beyond Benign’s and the ACS GCI’s efforts to transform chemistry education.

Why Case Studies Matter in Green Chemistry

For educators, case studies are one of the most effective ways to bring chemistry to life. Unlike traditional problem sets, they anchor scientific concepts in real-world decision-making—connecting chemistry to energy, medicine, agriculture, climate change, and environmental justice.

“Case studies offer context for the chemistry content students are learning, ideally allowing them to make connections between what they’re learning and real life,” said Dr. Jennifer Tripp, Assistant Professor of Chemistry at the University of San Francisco. “They can also illustrate ideas such as climate change and environmental justice that many students are already passionate about.”

For many students, case studies also change how they view chemistry itself. Instead of seeing the field only through the lens of pollution or industrial hazards, real-world examples reveal chemistry as a tool for problem-solving and sustainability.

“Hopefully, students will learn that chemists are also concerned about things they are concerned about,” Jennifer said, “and will be able to see how chemistry can be used to solve some of the world’s most pressing problems.”

Dr. Tom Umile, Associate Teaching Professor at Villanova University, has seen an overwhelmingly positive response in his classrooms. “Students absolutely love examples of how one might apply what they learn to the real world,” he said. “Historically, chemistry has had something of a bad reputation… Green chemistry case studies provide students with examples of chemistry doing something good in the world.”

By grounding learning in relevance and purpose, case studies help students see themselves as future contributors—not just observers—in science.

Origin Story: From Idea to Collaboration

The case study template began as a familiar idea with a new purpose. Both Dr. Jennifer Tripp and Dr. Tom Umile trace their green chemistry teaching roots back to working with Dr. Mike Cann, co-author of the influential Real-World Cases in Green Chemistry volumes published by the ACS GCI. For years, those books—based on innovative chemistries featured in the ACS Green Chemistry Challenge Awards—helped educators introduce sustainability concepts through real-world examples.

“I have taught out of Mike’s case study books for years, and while they tell some great success stories, they’re getting a bit dated,” Jennifer said. “A few years ago, I got in touch with Tom, and together we proposed a third volume of case studies.”

But after discussing the idea with Dr. David Laviska at ACS GCI, the vision expanded. Rather than publish more narrative-style, static case studies, they saw an opportunity to build a tool that would help many more educators create their own. “We realized that what educators might find more immediately useful is an easy-to-use tool for quickly and easily creating their own teachable case studies,” Tom said. 

Based on the obvious alignment of goals between the ACS GCI and Beyond Benign, David and Dr. Amy Cannon,  Co-Founder and Executive Director of Beyond Benign, decided to collaborate and co-sponsor the development of this new Case Study tool. 

According to Amy, “Access to high-quality resources is traditionally a key barrier for STEM reform initiatives.” The case study template project provides an essential tool to bring green chemistry to life for students and engage them in practical learning experiences.”

For Beyond Benign, the partnership aligned with a shared goal: to scale the adoption of green chemistry by empowering educators. “Partnerships like this are necessary to elevate and expand green chemistry,” Amy added. “By working with ACS GCI and educators, we can support change across institutions and communities.”

A Practical Tool Built for Real Classrooms

The new Green Chemistry Case Study Template was built with a clear purpose: to make it easier for educators to meet the ACS approval guidelines while strengthening real-world chemistry education. Rather than starting from scratch, instructors now have a framework that guides them through selecting a topic, building narrative context, integrating core chemistry concepts, and assessing student learning.

“Teaching with case studies is not optional anymore,” said Tom Umile. “The ACS is telling us in no uncertain terms that the next generation of chemists must be exposed to case studies of effective applications of green chemistry… At some point, we’re all going to need to start making our own.”

That’s where the template offers value. It’s structured enough to simplify the process, but flexible enough to adapt to different courses and teaching styles. As David Laviska explains, “The template provides a flexible scaffold that sets a pathway with guidelines while allowing for creativity and personalization for instructors.”

Importantly, the template also encourages sharing. Educators can contribute their case studies to the Green Chemistry Teaching and Learning Community (GCTLC), helping expand access to practical, real-world teaching materials.

What Comes Next

The Green Chemistry Case Study Template is available from the Green Chemistry Teaching and Learning Community (GCTLC) and the ACS GCI, where educators can download it, adapt it to their courses, and share their own case studies with peers. Additionally, the project team has developed example case studies that demonstrate effective use of the template. These examples can serve as valuable classroom resources, helping faculty gain confidence in teaching real-world applications of green chemistry.

At its core, the template is more than a resource; it’s an invitation to collaborate. By sharing examples from different institutions, industries, and regions, educators can highlight new stories of sustainable science and expand what chemistry education looks like today.

 

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How to Get Involved:

• If you are an educator in a higher ed setting, join a virtual workshop on February 25th, 2026, to learn how to develop your own case studies using the new Case Study Template. Facilitators Dr. Jennifer Tripp and Dr. Tom Umile will guide participants through the resources, offer practical strategies for adaptation and implementation, and create opportunities for educators to share insights. Register free here!
•  Share your case studies that bring real-world examples of green chemistry, sustainability, and systems thinking into the classroom. Contribute to our special collection, “Integrating Sustainability and Green Chemistry in the Classroom,” on the Green Chemistry Teaching and Learning Community (GCTLC) platform. Learn more and submit.

With a Ph.D. in green chemistry and experience leading global sustainability initiatives, Dr. Juliana Vidal has dedicated her career to showing the world that chemistry can be a force for good. At Beyond Benign, she collaborates closely with higher education institutions through the Green Chemistry Commitment (GCC) program to integrate green chemistry into curricula, foster global collaboration, and empower the next generation of chemists to create safer, more sustainable solutions.

In this conversation, Juliana shares how she found her path from lab-based research into education and advocacy, the global opportunities she sees for green chemistry, and the moments that remind her why this work matters.

 

Why She Believes Chemistry Deserves a Better Reputation

The Biggest Misconceptions About Green Chemistry—and How to Change Them

How Small Steps Can Transform a Chemistry Classroom

A Brazilian University’s Bold Move After Signing the GCC

Her Vision for the Next Era of Green Chemistry Education

Lightning Round: Mentos, Pokémon, Buffy, and a Whole Lot of Cheese

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How you can get involved:

• Keep up with Juliana and her work by connecting with her in the GCTLC!
• Not yet part of the Green Chemistry Commitment (GCC)? Learn how your institution can become a signer and provide students with essential skills and training for today’s workforce.
• Already an active community member? Apply to become a Community Ambassador!

New year, new students, new lab goggles… and some of the best green chemistry education tools out there.

To kick off the 2025–2026 academic year, we’re sharing a curated collection of green chemistry resources from the Green Chemistry Teaching and Learning Community (GCTLC) written by educators, for educators! Some are widely used and educator-approved; others are newly developed tools we’re especially excited to spotlight this fall. What they all have in common: they’re freely available, classroom-tested, and modular, making it easy for instructors to adapt them or use them as-is, lowering the barrier to bringing green chemistry into any course.

These resources are specifically designed for higher education faculty teaching general chemistry, green chemistry, toxicology, and related courses. Whether you’re building a new course, refreshing a lecture or a lab, or looking for new ways to make chemistry feel more relevant, these resources offer tangible, flexible ways to bring green chemistry into focus this year.

 

1. Help Students Build Real-World Hazard Assessment Skills

Resource: Use of ChemFORWARD for Chemical Hazard Evaluation and Assessment in Academic Settings

Best for: Introductory–advanced undergraduate courses in green chemistry, general chemistry, or cosmetic science

Green chemistry isn’t just about understanding sustainability in theory; it’s about equipping students with the tools they’ll need in the lab, in research, and across industry. That’s the thinking behind this hands-on module developed by Beyond Benign and ChemFORWARD. It trains students to use the ChemFORWARD platform—a chemical hazard database—to identify chemical hazards, avoid regrettable substitutions, and choose safer alternatives.

The module includes lecture slides, implementation guidance, and plug-and-play assignments that can be used as standalone activities or built into an existing course. Faculty who teach at Green Chemistry Commitment (GCC) institutions can request temporary access to the ChemFORWARD database for use in their classroom, making this a truly practical, professional-grade teaching tool.

• View the resource on the GCTLC.
• Read the article about the module’s development.

🧪 Bonus: This resource was also featured in a Greener Curriculum Showcase Series session, where educators walked through the module and shared tips for classroom use. Watch the session here.

 

2. Show Students What Greener Innovation Looks Like in Industry

Resource: Exploring Sustainable Practices in Metal Plating: The Drive for Greener Innovations

Best for: General chemistry, organic chemistry, or environmental science courses at the undergraduate level

PFAS is a hot topic in environmental health, and this case study gives students a concrete example of how green chemistry can be used to solve real-world industrial problems. Developed in collaboration with the New York State Pollution Prevention Institute (NYSP2I), this six-lesson module walks through how one New York metal plating company worked with regulators and scientists to eliminate a PFAS-based fume suppressant, replacing it with a safer, greener alternative.

Instructors can use this case study to help students understand the science behind PFAS, the 12 Principles of Green Chemistry, and the business, health, and regulatory drivers behind chemical innovation. It also aligns with the American Chemical Society (ACS) Guidelines for Bachelor’s Programs requirement that case studies demonstrate “the interplay of chemical, environmental health, regulatory, and business considerations that dictate chemical processes and product design.” With ACS set to begin assessing for its green chemistry and sustainability requirements in 2026, this resource can be a timely way for ACS-accredited institutions to meet those expectations.

It’s also a valuable tool for showing how cross-sector collaboration plays a role in shifting industry practices.

• View the resource on the GCTLC.
• Read the article about the module’s development.

3. Connect Chemistry to Environmental Justice and Community Impact

Resource: The Olin Chemical Superfund Site Case Study

Best for: Introductory college-level courses in general chemistry, toxicology, or sustainability

This case study centers on a Superfund site in Wilmington, Massachusetts — the Olin Chemical Superfund Site — where decades of toxic waste left a lasting legacy. Developed by Beyond Benign in partnership with the MIT Superfund Research Program, the four-lesson module introduces students to the U.S. Environmental Protection Agency’s Superfund Program, the chemistry behind hazardous substances, and the growing role of green chemistry in preventing future harm.

Students examine toxicology, pollution, and remediation, but the resource goes further, encouraging educators and students to create case studies based on Superfund sites in their own communities. It’s a compelling way to make chemistry personal, urgent, and connected to real lives and places.

• View the resource on the GCTLC.
• Read the article about the module’s development.

🧪 Bonus: This resource was featured in a Greener Curriculum Showcase Series session, where educators shared implementation strategies and ideas for classroom adaptation. Watch the session here.

 

4. Bring Toxicology into Chemistry Without Reinventing Your Syllabus

Resource: Toxicology for Chemists Curriculum

Best for: Undergraduate courses in general chemistry, organic chemistry, environmental science, and green chemistry

Toxicology is a foundational part of designing safer chemicals; however, for many chemistry educators, it’s challenging to know where to start. That’s why Beyond Benign teamed up with educators, toxicologists, and industry experts to create this open-access curriculum. Designed to be modular and flexible, the Toxicology for Chemists series makes it easy to weave toxicology into your existing courses, whether through a single lecture or an entire unit.

The curriculum includes lecture slides, case studies, assignments, and in-class activities. Topics range from foundational concepts, such as hazard versus risk, to more advanced areas, including toxicokinetics, predictive toxicology, and environmental fate. 

Explore the full curriculum on the GCTLC.

 

5. Build a Full-Semester Foundation in Green Chemistry

Resource: Green Chemistry University Course

Best for: Educators looking to introduce or revamp a full-semester undergraduate green chemistry course

Looking to go beyond modular lesson plans? This comprehensive 14-week course, developed by Beyond Benign and the Yale Center for Green Chemistry & Green Engineering, guides students through the fundamentals of green chemistry and its applications to global health and environmental challenges. Created through the Global Green Chemistry Initiative, the course includes a syllabus, lecture materials, and lab exercises.

It’s ideal for instructors seeking a well-structured entry point or upgrade for an existing general chemistry course.

View the course on the GCTLC.

 

6. Make Safer Solvent Choices Simple and Accessible

Resource: Beyond Benign Greener Solvent Guide

Best for: Undergraduate chemistry lab courses or any classroom working toward safer lab practices

This quick-reference guide from Beyond Benign synthesizes data from existing solvent selection guides into a single, visual format that’s easy to post in labs or add to course materials.

While not a full curriculum module, the Greener Solvent Guide is one of the most widely used tools in Beyond Benign’s teaching ecosystem. It helps students and instructors make more informed choices about solvents, reinforcing green chemistry principles in everyday lab work. Whether you’re starting conversations about safer solvents or embedding solvent selection into lab design, this tool offers a clear and accessible entry point.

🧪 Bonus: Educators often print and post the guide in labs — or even distribute it as a magnet — so students have constant access to safer alternatives.

View the guide on the GCTLC.

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How to get involved:

• If you haven’t yet joined the GCTLC, create your free profile today to access all of these resources and many more.
• Subscribe to Beyond Benign’s newsletter to get green chemistry news, resources, and inspiration delivered to your inbox monthly.

Each year, Beyond Benign’s Green Chemistry Commitment (GCC) Summit brings together a global community of educators and changemakers who are reimagining how chemistry is taught—and why it matters. The 2025 gatherings, held both virtually and in person, showcased the powerful momentum of this growing movement.

Celebrating the GCC Community

The 2025 GCC Summit embraced a hybrid format that reflected the expanding reach and adaptability of the community. More than 70 participants joined the virtual gathering on June 18, while over 60 attended the in-person event on June 22 at the Green Chemistry & Engineering Conference (GC&E) in Pittsburgh, Pennsylvania. Whether connecting via Zoom or sharing space in a conference room, participants came ready to exchange ideas, celebrate progress, and deepen the collaborative spirit that defines the GCC network.

The community-building didn’t stop there. On the evening of June 22, GCC members gathered for a Student-Faculty Social Event co-hosted with MilliporeSigma, the U.S. and Canada Life Science business of Merck KGaA, Darmstadt, Germany, and the American Chemical Society (ACS) Green Chemistry Institute. With trivia games, laughter, and new introductions, the event offered a relaxed space to connect across roles and campuses. A few days later, the Catalyzing Change in Chemistry Education Luncheon welcomed 119 attendees—including many faculty, several of whom were new to the GCC—for a candid and energizing conversation about embedding green chemistry more deeply in higher education.

Together, these events reflected the heart of the GCC: a vibrant international community united by a shared purpose. Whether joining from a screen or across a lunch table, participants walked away with new ideas, renewed energy, and the unmistakable sense that they’re part of something bigger.

GCC Summit Highlights: Key Conversations & Catalysts

Across two dynamic gatherings, the 2025 GCC Summit brought the community together to explore how green chemistry is taking root and scaling across higher education. Through keynotes, panels, and working sessions, a few themes rose to the top:

1. Aligning with Big Levers for Change

From updates to the ACS Guidelines to region-wide strategies emerging in Brazil, the Summit highlighted how professional societies and policy frameworks are shaping the future of green chemistry in academia. Speakers from the ACS and the Royal Society of Chemistry offered perspectives on how top-down influence can accelerate curriculum transformation and institutional adoption.

2. Making the Case for Green Chemistry in Industry

In panels featuring leaders from MilliporeSigma, Dow, Pfizer, and others, industry voices reinforced a powerful message: Green chemistry isn’t just good for the planet—it’s an essential skill set for today’s workforce. Participants heard how sustainability goals are influencing hiring decisions, innovation priorities, and cross-sector collaboration.

3. Stories of Progress from the GCC Network

Throughout both Summits, faculty and partner organizations shared candid stories of how they’re embedding green chemistry into coursework, labs, and departmental culture. Award-winning initiatives ranged from lab redesigns and final project integration to cross-campus partnerships that center student leadership. These case studies provided replicable models and inspiration for attendees to take back to their own institutions.

4. From Ideas to Action: Collaborative Planning

Both events featured hands-on working groups where participants tackled key challenges, like student engagement, faculty buy-in, lab sustainability, and professional development. Using a shared reflection and action planning framework, attendees left with goals, strategies, and new connections to help move the work forward on their campuses.

5. A Celebration of Community and Commitment

In both virtual and in-person formats, the GCC Summit served as a reminder that this work is never done alone. The tribute to Dr. Ed Brush, a longtime champion of green chemistry education, underscored the strength of the network and the deep personal commitment driving this movement.

Catalyzing Change: Insights from the Luncheon

While not formally part of the GCC Summit, the Catalyzing Change in Chemistry Education luncheon offered a powerful companion to the week’s events, especially for those new to the GCC. With more than 110 attendees, many of whom were just beginning to learn about the GCC, the luncheon created a space to explore what green chemistry integration can look like in practice and why it matters. Co-hosted with MilliporeSigma, the panel featured educators sharing candid reflections on institutional change, curriculum reform, and the power of community.

Moderated by Amy Cannon (Executive Director, Beyond Benign) and Jeffrey Whitford (Vice President, Sustainability & Social Business Innovation, MilliporeSigma), the panel featured candid reflections on implementing green chemistry at the institutional level. Panelists included Prof. Glenn Hurst (University of York, UK), Prof. Loyd Bastin (Widener University, USA), and Prof. Flavia Zacconi (Pontificia Universidad Católica de Chile)—each sharing insights on building departmental buy-in, embedding green chemistry into curricula, and overcoming institutional barriers.

“The Green Chemistry Commitment was the catalyst that propelled green chemistry out of organic chemistry and into our curriculum. It also gave us goals for what we wanted to do in the future. So it gave us that framework about how we could scaffold green chemistry through the curriculum rather than it being part of the organic chemistry curriculum.” – Dr. Glenn Hurst, University of York

For many, the Commitment has helped unlock new partnerships and visibility. And perhaps most powerfully, it has provided a sense of shared purpose in what can sometimes feel like lonely institutional change work:

“This is the most important thing about the green chemistry commitment. For me personally, it has provided me with amazing networks that have led to many collaborations.” – Flavia Zacconi, Pontificia Universidad Catolica De Chile

Taken together, the insights shared at the luncheon underscored what many GCC members already know: Change happens faster and with greater impact when it’s grounded in both structure and community.

#GreenChemistryinAction: A Hashtag, A Movement

In conjunction with the 2025 Summit, Beyond Benign launched the #GreenChemInAction campaign to spotlight how members of the green chemistry community are advancing change in their own classrooms, labs, companies, and institutions. Participants from around the world shared reflections, visuals, and declarations of action, showcasing the depth and diversity of this growing movement.

The result was a vibrant, global snapshot of green chemistry in practice, filled with purpose, creativity, and momentum. You can still explore the campaign and see the community in action by browsing #GreenChemInAction on social media or visiting the GCTLC forum to view more posts.

Looking Ahead

As the GCC community continues to grow, so does the momentum for lasting change in chemistry education. Beyond Benign remains deeply committed to empowering educators, students, and institutions on this journey, whether they’re just beginning to explore green chemistry or already embedding it across their curriculum.

While plans for the next GCC Summit are already taking shape, the Green Chemistry Teaching and Learning Community (GCTLC) remains the best platform for staying connected between events. Through the GCTLC, members of the higher education community can find year-round opportunities for mentorship, collaboration, and resource sharing. With new functionality like topic-specific groups, it’s easier than ever to join conversations and build connections with others working toward similar goals.

For those interested in taking the next step by becoming a GCC signer, you can learn more about what’s involved—and how to get started—by visiting the GCC program page.

Together, this community is not just imagining a better future for chemistry education—it’s actively creating it.

As the community of educators and institutions integrating green chemistry grows, more students are learning a sustainable approach to science. These students represent the next generation of innovators, environmental stewards, and scientists who will use their green chemistry skills and lived experiences to address local and global sustainability challenges.

Beyond Benign provides educators with the tools, training, and support needed to integrate green chemistry in their classrooms and labs. As part of this mission, Beyond Benign and partners developed the Green Chemistry Education Awards for K-12 and higher education. The awards for higher education provide funding and guidance for educators at Green Chemistry Commitment (GCC) signer institutions as they embark on projects such as curriculum redesign, outreach activities, collaborations, and awareness initiatives. 

Three of the 2023-2024 recipients are GCC Signer Minority Serving Institutions, which are bringing green chemistry to diverse student populations. By expanding green chemistry use on these three campuses, the awards give more students an opportunity to develop critical thinking skills and deepen their awareness of sustainable practices—tools they can carry into their professional work. 

Three educators leading these initiatives recently shared updates on how they are expanding the use of green chemistry principles to help prepare the next generation of world-class chemists with skills to create innovative environmental solutions. Get an overview of the initiatives and links to a deeper dive on each below: 

At California State University, San Marcos, Associate Professor Dr. Robert G. Iafe is coordinating the university’s efforts to develop a green chemistry minor by adding courses, assessment strategies, and public awareness seminars. He says the green chemistry initiative has helped students develop a new sense of purpose and enthusiasm. “Many of our students come from communities that are disproportionately impacted by environmental issues, so when they see chemistry as a means of creating safer materials, cleaner technologies, and more equitable systems, it becomes more than just a course—it becomes personally meaningful and empowering,” he says.

At Pontifical Catholic University of Puerto Rico, Dr. Adalgisa Batista Parra, Professor of Chemistry and Organic Chemistry Researcher, is leading efforts to redesign the undergraduate organic chemistry laboratory curriculum. This includes incorporating green chemistry principles with the goal of aligning instruction with emerging trends in sustainable chemistry education while actively reducing environmental impact. She says green chemistry sparked meaningful discussions among students about their role in shaping a more sustainable future. “This project is about more than just redesigning lab experiments—it’s about planting the seeds of a cultural shift toward sustainability in science education and beyond.”

At Stella and Charles Guttman Community College, Associate Professor of Chemistry Dr. Jihyun (Ji) Kim is redesigning a classic organic chemistry experiment—the synthesis of cyclohexene—to emphasize green chemistry principles and provide a safer, more sustainable laboratory experience for students at the two-year college. She says the green chemistry concepts help students see how chemistry can be a tool for environmental responsibility. “One of the most encouraging outcomes of this project was the level of student engagement with green chemistry concepts, particularly as they connected sustainability to real-world issues,” Ji says.

Learn more about the Green Chemistry Education Awards and see a full list of 2023-2024 award recipients.

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How to get involved: 

• Higher education leaders: Join the Green Chemistry Commitment to provide students with essential skills and training for today’s workforce.
• Connect with your peers in the Green Chemistry Teaching and Learning Community, an online space for everyone in the green chemistry community to learn, share, connect, and grow.
• Subscribe to Beyond Benign’s newsletter to get green chemistry news, opportunities, and resources delivered to your inbox monthly.

When educators are equipped to teach green chemistry, they don’t just change lessons—they shape the next generation of scientists, innovators, and environmental stewards. Through the Green Chemistry Education Awards, Beyond Benign provides funding to faculty and institutions around the world to embed sustainability into chemistry education. These awards help educators redesign labs, reimagine curricula, and create powerful, real-world connections for students. Among the 2023–2024 recipients were several Minority-Serving Institutions (MSIs), whose funded projects are expanding access to green chemistry in diverse learning environments.

Award recipient Dr. Robert G. Iafe, Associate Professor at California State University San Marcos, says the green chemistry initiative has helped students develop a new sense of purpose and enthusiasm. “While we expected the green chemistry courses to be academically engaging, we didn’t fully anticipate how deeply students would connect with the broader themes of sustainability and social responsibility,” he says. “Many of our students come from communities that are disproportionately impacted by environmental issues, so when they see chemistry as a means of creating safer materials, cleaner technologies, and more equitable systems, it becomes more than just a course—it becomes personally meaningful and empowering.

In the Q&A below, Robert discusses progress on the university’s efforts to develop a green chemistry minor, highlights from a recent green chemistry event on campus, and other reflections.

Can you provide a brief overview of your project, including the key objectives you aimed to achieve with the funding and any significant outcomes or milestones you have reached so far?

Our project is focused on establishing a Green Chemistry minor within the Department of Chemistry and Biochemistry at California State University San Marcos (CSUSM). The initiative is built around three core objectives. First, we’re developing Green Chemistry and Toxicology courses that are thoughtfully designed to meet the needs of our diverse student body, particularly as an MSI with a large population of first-generation Hispanic students. Second, we’re implementing both qualitative and quantitative assessment strategies to better understand how these courses influence student success, persistence, and self-efficacy. And third, we’re working to increase campus and community engagement by hosting public seminars that feature leaders in the field of green chemistry. These events aim to raise awareness about sustainable chemistry and introduce students to related career pathways.

We’ve already made substantial progress. We’ve piloted the initial versions of both the Green Chemistry and Toxicology courses and submitted them for formal inclusion in the undergraduate curriculum. In parallel, we’ve submitted a proposal for the Green Chemistry minor itself, which is currently making its way through the university’s curriculum approval process.

One of the highlights so far has been the Green Chemistry Symposium we hosted on March 21, 2025. It was an exciting milestone for us. We welcomed guest speakers from Thermo Fisher Scientific and Beyond Benign, who shared insights on green chemistry technologies and professional pathways with an audience of over 130 undergraduate and graduate students. The event also included a pedagogy workshop that brought together faculty from CSUSM as well as neighboring institutions like SDSU and USD. Events like this really help build momentum—not just around curriculum development, but around a broader culture of sustainability and innovation on campus.

Can you describe the process of developing the Green Chemistry minor and how student feedback has shaped its content? Approximately how many students do you anticipate the Green Chemistry minor and its related courses will reach each year?

The development of the Green Chemistry minor at CSUSM has truly been a collaborative and evolving effort. From the beginning, we prioritized both pedagogical integrity and student input. We started by piloting Green Chemistry and Toxicology courses using open-access resources from Beyond Benign, offering them initially as special topics courses. This allowed us to gather real-time feedback through course evaluations and student surveys. Faculty have been actively incorporating this feedback to improve course content, structure, and learning outcomes, especially to ensure the material resonates with our students, many of whom are first-generation college students and come from historically underrepresented backgrounds. Our goal has been to build a program that’s not only academically rigorous but also personally meaningful and accessible.

Looking ahead, we anticipate that the Green Chemistry minor and its associated courses will engage approximately 40 students per year within five years of launch. Each course is expected to enroll around 20 students per semester, and we also foresee interest from students in related STEM disciplines like biology, biotechnology, kinesiology, and environmental science. Importantly, because green chemistry learning outcomes are being integrated across our broader curriculum, all Chemistry majors—not just those enrolled in the minor—will benefit from exposure to sustainable chemistry principles. We’re really excited about the broader impact this initiative will have across our department and the university.

Our goal is to help students see themselves not just as future scientists, but as changemakers—individuals who can apply their knowledge to drive meaningful, sustainable solutions within their communities and beyond.

How do you see this project preparing students to be leaders in the sustainable workforce of the future? Have you seen any signs of students beginning to envision their role in sustainability-focused careers?

This project was intentionally designed to equip our students with the skills and mindset needed to become leaders in the sustainable workforce. By embedding green chemistry principles throughout the undergraduate curriculum and offering hands-on, experiential learning opportunities, we’re helping students make real-world connections to sustainability. Through specialized courses in Green Chemistry and Toxicology, students are gaining a solid foundation in designing safer chemicals, minimizing environmental impact, and applying sustainability concepts to chemical processes—skills that are increasingly valued in sectors ranging from industry and government to academia.

Equally important, we’ve integrated culturally responsive pedagogy to ensure the curriculum feels relevant and empowering for our diverse student population. Our goal is to help students see themselves not just as future scientists, but as changemakers—individuals who can apply their knowledge to drive meaningful, sustainable solutions within their communities and beyond.

We’re already seeing promising signs of impact. Beyond the strong turnout and enthusiasm at the Green Chemistry Symposium, we’ve noticed growing student interest in green chemistry-related research and activities. Students have begun inquiring about research opportunities in this area, and there has even been discussion about forming a student-led green advisory board, potentially in partnership with our American Chemical Society Student Chapter. We fully expect that as this momentum builds, we’ll see an increase in student participation in sustainability-focused internships and programs, including NSF-REUs and industry collaborations. It’s exciting to watch students start envisioning their roles in a more sustainable future.

How do you plan to measure the success of the new courses and the overall effectiveness of the Green Chemistry minor in retaining students in chemistry research?

We will assess the overall effectiveness of the Green Chemistry minor through a multi-faceted evaluation strategy that includes both qualitative and quantitative metrics. First, we will utilize student pre- and post-course surveys to gather feedback on student learning experiences, engagement, and perceived relevance of course content. This will help ensure that the curriculum is meeting the needs of our diverse student population and supporting their academic development. 

Second, in collaboration with the Office of Institutional Planning and Analysis (IPA), we will conduct longitudinal data tracking to monitor key indicators of student success, including course performance, retention within the chemistry major, persistence in STEM pathways, and graduation rates. We will specifically analyze outcomes for students enrolled in the Green Chemistry courses and minor, with disaggregated data by demographic groups to assess equity in impact. 

Third, we will collect data on student involvement in research, internships, and co-curricular opportunities related to sustainability and green chemistry. We anticipate that the integration of green chemistry content will increase student interest in pursuing independent research, summer programs, and career pathways aligned with sustainability.

And finally, the number of students declaring the Green Chemistry minor and continued enrollment trends will serve as key indicators of institutional impact. These metrics, along with follow-up surveys post-graduation, will help us evaluate the program’s success in preparing students for sustainability-focused careers and retaining them in chemistry research.

What are your hopes for the future of the Green Chemistry program at CSUSM and its potential impact on students and the wider community?

Our long-term vision for the Green Chemistry program is to establish it as a leading model for inclusive, sustainability-focused STEM education in the region. We see CSUSM becoming a regional hub for green chemistry education, particularly among MSIs, by offering a curriculum that goes beyond technical training to also foster environmental responsibility and social consciousness in the next generation of scientists.

Looking ahead, we hope to expand the program’s impact by integrating green chemistry principles throughout the broader chemistry curriculum, encouraging interdisciplinary collaboration, and building strong partnerships with local industries, environmental organizations, and K-12 schools. The Green Chemistry minor is designed not just as a set of courses, but as a launchpad—supporting students as they pursue research, graduate education, and careers in areas like renewable energy, sustainable manufacturing, public health, and environmental policy. 

For our students, we believe that early, meaningful exposure to real-world applications of green chemistry—combined with opportunities to connect with professionals in the field—will build both their confidence and their sense of purpose. It’s about helping them see themselves in sustainability-focused careers and supporting their long-term academic and professional success.

Beyond the campus, we’re also focused on community impact. Events like our Green Chemistry Symposium are just one example of how we hope to elevate environmental awareness and sustainability literacy across the region. Ultimately, our goal is to create a ripple effect, preparing graduates who are not only well-trained scientists but also empowered to lead positive change in their communities and within the global chemical industry.

Your university-wide green chemistry seminar featured speakers from ThermoFisher and Beyond Benign and drew strong attendance. What was the intended goal of the event, and what kind of impact did it have on students and the broader campus community?

The primary goal of the university-wide Green Chemistry Seminar was to elevate awareness of green chemistry principles and their real-world applications, while also inspiring students to consider sustainability-focused career paths. By featuring speakers from Thermo Fisher Scientific and Beyond Benign—leaders in both industry and education—we aimed to bridge the gap between classroom learning and professional practice. These speakers not only introduced cutting-edge technologies and sustainability initiatives but also shared their personal career journeys, offering students valuable insight into pathways they may not have previously considered.

The impact was immediate and energizing. With over 130 students, faculty, and community members in attendance, the event sparked meaningful conversations around the role of chemistry in building a more sustainable future. Students left the seminar asking thoughtful questions about internships, research opportunities, and how they might apply green chemistry in their own academic work. Additionally, the event included a pedagogy workshop attended by faculty from CSUSM and neighboring institutions, which helped foster collaboration and expand the reach of green chemistry education beyond our campus. Overall, the seminar not only reinforced the importance of sustainability within the sciences but also helped establish CSUSM’s identity as a major contributor in green chemistry education across the region.

Why was this funding critical to the success of your project? Were there barriers you were facing that this support helped you overcome—either for you, your students, or your institution?

This funding played a pivotal role in the success of our project. As a primarily undergraduate, teaching-focused institution, CSUSM can face structural and financial challenges when it comes to launching new academic initiatives—especially those that demand significant faculty time for curriculum development, student assessment, and community outreach. The support from this award helped us overcome several of those key challenges. It allowed us to thoughtfully develop and adapt Green Chemistry and Toxicology courses using Beyond Benign’s open-access resources, while tailoring the content to resonate with our diverse student body. It also gave us the capacity to implement robust assessment strategies, both qualitative and quantitative, that simply would not have been feasible without this dedicated funding.

Perhaps just as importantly, the award made it possible for us to host our first Green Chemistry Symposium by providing funding for guest speakers—something that many Primarily Undergraduate Institutions typically cannot support due to limited resources for honoraria and travel. Bringing in nationally recognized leaders from Thermo Fisher Scientific and Beyond Benign created a unique and impactful experience for our students and faculty, fostering excitement and deeper engagement with sustainability-focused careers and research. Ultimately, this funding removed critical financial and logistical barriers and enabled us to bring our vision for green chemistry at CSUSM to life in a way that is both inclusive and forward-looking.

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How to get involved: 

• Explore how award recipients are bringing green chemistry to life at Stella and Charles Guttman Community College and Pontifical Catholic University.
• Subscribe to Beyond Benign’s newsletter for the latest updates from the green chemistry community and to be the first to know when Green Chemistry Education Awards are open.
• Not yet part of the Green Chemistry Commitment (GCC)? Learn how your institution can become a signer and provide students with essential skills and training for today’s workforce.

When educators are equipped to teach green chemistry, they don’t just change lessons—they shape the next generation of scientists, innovators, and environmental stewards. Through the Green Chemistry Education Awards, Beyond Benign provides funding to faculty and institutions around the world to embed sustainability into chemistry education. These awards help educators redesign labs, reimagine curricula, and create powerful, real-world connections for students. Among the 2023–2024 recipients were several Minority-Serving Institutions (MSIs), whose funded projects are expanding access to green chemistry in diverse learning environments.

Award recipient Dr. Adalgisa Batista Parra, Professor of Chemistry and Organic Chemistry Researcher at Pontifical Catholic University of Puerto Rico, says green chemistry sparked meaningful discussions among students about their role in shaping a more sustainable future. “What began as a curriculum redesign became an opportunity to reflect on our values, our impact, and the kind of legacy we want to leave for our students,” she says. “This project is about more than just redesigning lab experiments—it’s about planting the seeds of a cultural shift toward sustainability in science education and beyond.”

In the Q&A below, Adalgisa shares more about her green chemistry efforts and how they have influenced her instruction, her students, and her university colleagues. 

What began as a curriculum redesign became an opportunity to reflect on our values, our impact, and the kind of legacy we want to leave for our students. This project is about more than just redesigning lab experiments—it’s about planting the seeds of a cultural shift toward sustainability in science education and beyond.

Can you provide a brief overview of your project, including the key objectives you aimed to achieve with the funding and any significant outcomes or milestones you have reached so far?

Our project centers on redesigning the undergraduate organic chemistry laboratory curriculum to incorporate green chemistry principles with the goal of aligning instruction with emerging trends in sustainable chemistry education while actively reducing environmental impact.

With the support of funding, our primary objectives are to:

• implement greener synthesis routes to promote sustainability,
• adopt safer solvents to minimize health and environmental risks, and
• reduce chemical waste through optimized experimental procedures.
  

These changes were piloted with a select group of students to evaluate effectiveness and feasibility. Currently, the changes are being implemented in the organic chemistry laboratory curriculum.

Significant milestones achieved to date include:

• The completion of a pilot redesign for several laboratory experiments using safer solvents and greener synthetic techniques.
• The collection of baseline data on waste output and solvent usage, which will inform future impact assessments.
• The development of new student learning outcomes emphasizing sustainability, green chemistry practices, and responsible chemical handling.

What motivated the redesign of the organic chemistry laboratory curriculum to incorporate green chemistry principles, and how does it differ from the previous curriculum?

The primary motivation for redesigning the organic chemistry laboratory curriculum was the growing need to align educational practices with the principles of green and sustainable chemistry. Traditional laboratory experiments often rely on hazardous solvents, generate significant chemical waste, and lack emphasis on environmental responsibility. As chemistry evolves to address global environmental challenges, it is essential that our teaching laboratories reflect these priorities and prepare students for a future where sustainability is integral to scientific practice. Additional motivators included:

• Limited student exposure to environmentally responsible techniques and real-world applications of green chemistry.
• A desire to reduce the environmental footprint of the teaching laboratory and model more sustainable behavior within the academic setting.

The redesigned organic chemistry laboratory curriculum differs significantly from the previous version by shifting the focus toward sustainability, safety, and real-world relevance. Whereas the traditional curriculum relied heavily on hazardous solvents and reagents, the updated version introduces greener, safer alternatives that reduce health and environmental risks. The new approach emphasizes sustainability metrics, such as atom economy and waste reduction, alongside reaction success. Students now engage in experiments that are optimized not only for chemical outcomes but also for minimizing waste and maximizing efficiency.

What feedback have you received from students participating in the pilot testing of greener synthetic routes, and how has this influenced the curriculum?

Feedback from students participating in the pilot testing of greener synthetic routes has been overwhelmingly positive and insightful. Many students expressed appreciation for working with safer, less toxic materials, noting that it made the lab environment feel more secure and modern. Several also shared that learning about the environmental impact of chemical processes made the course more meaningful and relevant to current global challenges.

As a result of this feedback, the curriculum will be refined to include more structured opportunities for students to analyze the environmental impact of each experiment. We will also develop supporting materials to better explain green chemistry principles and ensure students can connect theory with practice.

How do you see this project preparing students to be leaders in the sustainable workforce of the future? Have you seen any signs of students beginning to envision their role in sustainability-focused careers?

This project is equipping students with the mindset and skills needed to become leaders in a sustainability-focused workforce. By integrating green chemistry principles into their lab experiences, students are learning to prioritize environmental responsibility alongside scientific rigor. They are not just memorizing reactions—they’re critically evaluating the impact of their work, exploring alternatives, and thinking innovatively about how chemistry can contribute to a more sustainable world.

We’ve already seen encouraging signs that students are beginning to envision themselves in sustainability-driven roles. Some have expressed interest in pursuing careers in environmental science or regulatory policy. Others have mentioned how this experience reshaped their understanding of chemistry’s role in solving real-world problems, inspiring them to look for research or industry opportunities aligned with sustainability.

Overall, the project is doing more than teaching chemistry—it’s helping to shape responsible, forward-thinking scientists who understand that sustainable practices are not just an option, but a necessity for the future of science and society.

Can you share any early data or insights related to waste reduction, solvent use, or other environmental benefits of the greener procedures? How do these results reinforce the value of integrating green chemistry into undergraduate labs?

Preliminary data from the pilot implementation of greener synthetic procedures shows promising environmental benefits. For example, in one redesigned experiment, we replaced toluene with water, a significantly safer solvent. In another case, the total mass of chemical waste generated per student was cut by more than 95% compared to the traditional version of the same experiment. These early results reinforce the value of integrating green chemistry into undergraduate labs by demonstrating that sustainability and scientific integrity can go hand-in-hand. Students still meet learning objectives and achieve strong outcomes, but in a way that aligns with modern environmental standards. Moreover, the measurable reductions in hazardous waste and solvent use highlight how small curricular changes can have a meaningful cumulative impact when scaled across multiple lab sections and semesters.

How do you plan to share the comprehensive report with university stakeholders, and what impact do you hope it will have on broader university practices?

We plan to share the comprehensive report through a combination of formal and informal channels. This includes presenting key findings at departmental meetings, curriculum committee sessions, and university-wide faculty development workshops. A digital version of the report will be made available through the university’s internal repository and shared directly with administrators and faculty. A snapshot of this work will be presented during the in-person 2025 Green Chemistry Commitment Summit on June 22nd in Pittsburgh, Pennsylvania.

The goal is not only to showcase the pilot’s success but also to initiate broader conversations about integrating sustainability across science education. We hope the report will inspire other departments to adopt similar practices, encourage investment in sustainable lab infrastructure, and strengthen the university’s overall commitment to environmental responsibility. Ultimately, we envision this project serving as a model for curriculum innovation, reinforcing the university’s leadership in both academic excellence and sustainable practices.

By integrating green chemistry into our program’s curriculum, we aim to model how environmental responsibility can be embedded into academic practices without compromising educational quality.

How do you hope this project shifts the culture around sustainability—not just in your department, but across the university? Have you seen early signs of that shift already?

By integrating green chemistry into our program’s curriculum, we aim to model how environmental responsibility can be embedded into academic practices without compromising educational quality.

We hope this initiative encourages other programs to evaluate their own practices through a sustainability lens—whether in teaching, research, procurement, or waste management. Our vision is to help foster a university-wide mindset where sustainability is not seen as an add-on, but as a core value guiding decisions and innovation across disciplines.

We’ve already seen early signs of this shift. Faculty from other science programs have expressed interest in our green chemistry strategies. Additionally, students are exploring how to apply green principles in other academic settings and how they can apply green principles in other courses and research projects, showing that the impact is already expanding beyond the lab.

In the long term, we hope this project contributes to a broader institutional culture that prioritizes environmental stewardship, interdisciplinary collaboration, and the preparation of students to be leaders in a sustainable future.

Why was this funding critical to the success of your project? Were there barriers you were facing that this support helped you overcome—either for you, your students, or your institution?

This funding was essential to the success of our project, enabling us to overcome key barriers that had previously limited our ability to modernize the organic chemistry lab curriculum. Prior to this support, we faced significant resource constraints—from the cost of safer, greener reagents and solvents, to the need for updated lab equipment and training materials.

The grant allowed us to pilot greener experiments without compromising instructional quality, and to collect baseline data on environmental impact—something we hadn’t had the capacity to do before. It also supported faculty development, helping instructors gain the knowledge and confidence needed to implement and teach green chemistry principles effectively.

For our students, the funding made it possible to gain hands-on experience with modern, sustainable lab techniques—an opportunity they wouldn’t have had under the traditional curriculum. More broadly, it gave our institution a model for what a sustainable lab redesign can look like, helping us take the first step toward long-term, campus-wide transformation.

Is there anything else you’d like to share about your experience with this grant—something unexpected, personally meaningful, or something you learned along the way?

It was incredibly rewarding to see students not only adapt to the new experiments but also ask more thoughtful questions, show greater environmental awareness, and express genuine excitement about being part of a positive change. It reminded us that when given the tools and the context, students rise to the occasion—they want to do work that matters.

Along the way, we also learned that change is possible, even in well-established systems, when you have the right support, clear goals, and a shared sense of purpose. This grant didn’t just fund a project—it empowered a shift in mindset that we hope will continue to grow across our department and beyond.

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How to get involved: 

• Explore how award recipients are bringing green chemistry to life at Stella and Charles Guttman Community College and California State University, San Marcos.
• Subscribe to Beyond Benign’s newsletter for the latest updates from the green chemistry community and to be the first to know when Green Chemistry Education Awards are open.
• Not yet part of the Green Chemistry Commitment (GCC)? Learn how your institution can become a signer and provide students with essential skills and training for today’s workforce.

When educators are equipped to teach green chemistry, they don’t just change lessons—they shape the next generation of scientists, innovators, and environmental stewards. Through the Green Chemistry Education  Awards, Beyond Benign provides funding to faculty and institutions around the world to embed sustainability into chemistry education. These awards help educators redesign labs, reimagine curricula, and create powerful, real-world connections for students. Among the 2023–2024 recipients were several Minority-Serving Institutions (MSIs), whose funded projects are expanding access to green chemistry in diverse learning environments.

Award recipient Dr. Jihyun (Ji) Kim, Associate Professor of Chemistry at Stella and Charles Guttman Community College, says the green chemistry concepts helped students see how chemistry can be a tool for environmental responsibility. “One of the most encouraging outcomes of this project was the level of student engagement with green chemistry concepts, particularly as they connected sustainability to real-world issues,” Ji says. “One student reflected on how using dried orange peels as a catalyst opened their eyes to the value of reusing food waste and sparked curiosity about other potential applications of natural materials in chemistry.”

In the Q&A below, Ji discusses how green chemistry education has helped students deepen their critical thinking skills and consider sustainability-focused career opportunities. 

Can you provide a brief overview of your project, including the key objectives you aimed to achieve with the funding and any significant outcomes or milestones you have reached so far?

This project focused on redesigning a classic organic chemistry experiment—the synthesis of cyclohexene—to emphasize green chemistry principles and provide a safer, more sustainable laboratory experience for students at a resource-limited two-year college. 

With support from the funding, the key objectives were to: 

• reduce chemical waste and hazards using microscale techniques,
• introduce students to environmentally friendly alternatives to traditional reagents, and
• align experimental design with the 12 Principles of Green Chemistry. 

Students explored alternative catalysts such as Amberlyst-15 and dried orange peels in place of conventional acids like phosphoric acid. The activity incorporated pre-laboratory research, group collaboration, and critical evaluation of chemical choices. Outcomes included increased student awareness of sustainability in chemistry, hands-on experience with safer materials, and thoughtful reflection on the environmental and health impacts of chemical practices. The use of microscale kits reduced waste and exposure risks, while also addressing institutional limitations like limited fume hood access. 

Overall, the project served as a successful model for incorporating green chemistry into the undergraduate laboratory curriculum and highlighted opportunities for further research in sustainable lab practices.

What impact have the microscale glassware kits had on student learning or engagement in the lab? How have students responded to this shift in hands-on experience?

The introduction of microscale glassware kits had a notable positive impact on student learning and engagement in the laboratory. Survey results indicated that most students felt confident using the microscale setup, with approximately 88% expressing comfort with performing microscale experiments. The kits allowed students to carry out organic synthesis using significantly reduced quantities of chemicals, aligning with green chemistry principles while minimizing safety risks and waste production. 

Qualitative feedback from student reflections also highlighted the appeal of the hands-on experience. Students appreciated the accessibility and manageability of the equipment, especially in a setting with limited fume hood access. While a small percentage (12%) reported some discomfort or challenges—suggesting the need for additional scaffolding or practice—the overall response was positive. 

The microscale kits enabled students to focus more on experimental design, sustainability, and chemical safety, making the lab experience more meaningful and aligned with real-world applications of green chemistry. 

What methods are you using to assess student understanding of the 12 Principles of Green Chemistry, and what have you found effective?

Student understanding of the 12 Principles of Green Chemistry was assessed through a combination of pre-laboratory activities, collaborative discussions, lab reports, and post-activity reflections. During a dedicated pre-lab session, students reviewed the principles and discussed how they related to the planned experiment. Each group was tasked with aligning their chosen modifications—such as the use of Amberlyst-15 or dried orange peels—with specific principles, fostering intentional connections between theory and practice. 

As part of their lab reports, students were required to identify and justify which green chemistry principles their experimental design addressed. The class collectively concluded that their approaches satisfied at least six of the 12 principles, demonstrating a strong grasp of the framework and its practical applications. 

What challenges have you encountered during the implementation of new experimental procedures, and how have you addressed them?

Several challenges emerged during the implementation of the redesigned experimental procedures. One primary challenge was the use of microscale glassware kits, which, while aligned with green chemistry goals, required students to adapt to working with smaller quantities and more precise techniques. Some students initially struggled with unfamiliar equipment and the level of care needed for accurate handling. To address this, additional guidance was provided during the pre-lab sessions, and the instructor demonstrated proper technique to build student confidence. 

Another challenge involved managing expectations around reaction yields. Because the focus of the activity was on sustainability rather than maximizing product yield, students needed support in understanding the trade-offs between greener methods and traditional efficiency. This was addressed through guided discussions and reflection prompts that emphasized process over outcome. 

This project empowers students to think critically about sustainability in chemical practice, fostering awareness of eco-conscious decision-making.

How do you see this project preparing students to be leaders in the sustainable workforce of the future? Have you seen any signs of students beginning to envision their role in sustainability-focused careers?

This project empowers students to think critically about sustainability in chemical practice, fostering awareness of eco-conscious decision-making.

Through hands-on experience with green chemistry, many began envisioning their role in solving environmental challenges. Some even expressed interest in sustainability-focused careers, signaling early leadership potential in the green workforce.

Why was this funding critical to the success of your project? Were there barriers you were facing that this support helped you overcome—either for you, your students, or your institution?

This funding was critical in enabling the implementation of a redesigned, sustainability-focused lab activity at a resource-limited two-year college. With limited access to fume hoods and traditional lab infrastructure, the support allowed us to purchase microscale kits and eco-friendly reagents that aligned with green chemistry principles. It also supported curriculum development time to create engaging, accessible materials tailored to our diverse student population. Without this funding, hands-on experience with safer, more sustainable methods would not have been feasible. It helped overcome institutional barriers, expanded learning opportunities for students, and laid the groundwork for integrating sustainability into our STEM curriculum.

Is there anything else you’d like to share about your experience with this grant—something unexpected, personally meaningful, or something you learned along the way?

This grant reaffirmed the power of innovation in resource-limited settings. An unexpected outcome was how deeply students connected with sustainability when given ownership of their learning. Watching them think critically, collaborate, and make environmentally conscious choices was incredibly meaningful—and reminded me why inclusive, hands-on science education truly matters.

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How to get involved: 

• Read Ji’s article Integrating Artificial Intelligence (AI) Chatbots and Green Chemistry Principles in the Synthesis of Cyclohexene. 
• Explore how award recipients are bringing green chemistry to life at Pontifical Catholic University and California State University, San Marcos.
• Subscribe to Beyond Benign’s newsletter for the latest updates from the green chemistry community and to be the first to know when Green Chemistry Education Awards are open.
• Not yet part of the Green Chemistry Commitment (GCC)? Learn how your institution can become a signer and provide students with essential skills and training for today’s workforce.