Integrating Green Chemistry and Socio-Sustainability in Higher Education: Successful Experiences Contributing to Transform Our World
More than ever, Green Chemistry can be considered a powerful tool to modify unsustainable practices in chemistry, engineering, and correlated areas all over the world. It is well known that the contextualized insertion of Green Chemistry principles into the curricula of higher education institutions (HEI) can contribute to a better professional education, engaging students to learn conceptual content associated with procedural and attitudinal subjects.
In order to promote Chemistry Education and Education for Socio-sustainable Development in Latin America and Africa, the project 2013-041-3-300 has been developed to study, adapt, and create new contents for HEI. Coordinated by Prof. Zuin (Brazil) and Prof. Mammino (South Africa), the project involves researchers, lecturers, professors, students, and related HEI representatives from 14 different countries. The resulting webpage, available in Portuguese, Spanish, and English, can be seen athttp://greenchemed.iupac.ufscar.br/

From left to right Prof. Liliana Mammino, Prof. Paul Anastas and Prof. Vânia Zuin
At the Federal University of São Carlos (UFSCar), São Paulo, Brazil, for instance, a number of teaching experiments and related didactic initiatives have been conducted at the undergraduate and post-graduate levels since 2013, considering locally important topics, mostly associated with sustainable agriculture, agro-resilience, green chemistry, and socio-environmental technologies, especially for the bio-rational control of plagues. As an example, multifactorial mechanisms to repel, control, or eliminate Aedes aegypti have been studied, since they are the main type of mosquito that spreads Zika, dengue, chikungunya, and other viruses. Such scientific approaches have been transformed and adapted to make them suitable to be used as learning objects at UFSCar [1, 2, 3].
As a consequence of multiple actions in the Chemistry Department, another collective initiative was the elaboration and implementation of a new curriculum for teaching education at UFSCar at the beginning of 2017, emphasising Green Chemistry principles in several theoretical and practical subjects, including one dedicated exclusively to green chemistry and sustainability projects.
At the University of Venda, South Africa, the Chemical/science education at the tertiary level is a type of educational research fully integrated within tertiary-level science teaching. Its aims are the continuous enhancement of the quality of teaching through the investigation of students’ difficulties, through general-character reflections on contents and approaches, and through active participation in international meetings and debates. Particular attention is given to crucial issues, like the language-related difficulties encountered by science students studying in a second language, or the exploration of approaches to suitably and effectively incorporate education for sustainable development into course activities, and to the educational aspects of advanced chemistry courses.
The courses provide a firm foundation in chemical ideas, processes, applications, and the context of chemistry in society. The full picture, from raw materials through beneficiation to research, including management aspects, is presented. Experimental and field work form an integral part of all courses and self-initiated research is encouraged at the postgraduate level.
Apart from the current courses, several main meetings and workshops have been organised by the coordinators, as is the case for:
Green Chemistry Education session on the 4th, 5th, and 6th International IUPAC Conference on Green Chemistry (2012-2016) [4–5]: www.ufscar.br/icgc4, www.saci.co.za/greenchem2014 and www.greeniupac2016.eu
Green Chemistry session in the Brazilian Chemical Society Annual meeting, Brazil (2013-2016): www.sbq.org.br/36ra/workshops.php#hiddenDiv6, www.sbq.org.br/37ra/coordenadas-qve.php, www.sbq.org.br/37ra/workshops.php, www.sbq.org.br/38ra/programacao-completa/conferencias-convidadas, www.sbq.org.br/38ra/programacao-completa/sessoes-coordenadas
2nd African Conference on Research in Chemical Education: https://sites.google.com/site/acrice2015/
Material about the project has been prepared and disseminated by magazine articles, web pages, scientific papers, and a didactic book published by the Royal Society of Chemistry in 2015 (Worldwide Trends in Green Chemistry Education, http://pubs.rsc.org/en/content/ebook/978-1-84973-949-8)
Another book focusing on the topic will be published by UFSCar, involving many members of the project. It is important to emphasise that we aim to mobilise efforts to achieve the United Nations 2030 Agenda for Sustainable Development and its 17 Sustainable Development Goals. These objectives are discussed together with industries and governmental/non-governmental organisations, as well as with schools.
Some members are actively participating: see box included below and continued on the following page.
For more information and comments, contact Task Group Chair Vânia Zuin <vaniaz@ufscar.br>
www.iupac.org/project/2013-041-3-300
Participation by Member Organizations Worldwide
The Pontificia Universidad Católica del Perú
Currently, in Peru, the state is implementing a policy to support the development of science and technology. Among other strategies, it is providing financial support to graduate schools, specifically to the master’s programs showing the best conditions for the formation of new researchers. Our master’s program is one of the winners of this subsidy program, so the conditions to promote research in Green Chemistry are favorable.
We focus particularly on the following objectives of the project:
Proposing general modules for up-to-date university Green Chemistry curricula for chemistry courses, and developing of Green Chemistry contents for the theoretical and experimental components of such courses.
Contributing to the establishment of Green Chemistry as a component in the training of professionals and promoting the public understanding of Green Chemistry principles.
In 2013, a new curriculum for the Master’s program in Chemistry was implemented, including a Green Chemistry course as one of the elective courses. In this course, the fundamental concepts of green chemistry are presented and the application of its principles is discussed by means of a review and critical analysis of the research reported in the relevant scientific literature.
The Universidad Nacional de La Plata, Argentina; Universidad Pedagógica y Tecnológica de Colombia, Universidad del Cauca, Colombia;
A number of short courses on green chemistry for the undergraduate level, as well as outreach activities (school, communities), are being developed.
The Brazilian Green Chemistry School, Brazi
The Brazilian Green Chemistry School is based at the School of Chemistry of the Federal University of Rio de Janeiro (UFRJ), which offers undergraduate courses in chemical engineering, industrial chemistry, food engineering, and bioprocess engineering, as well as a graduate program in Technology of Chemical and Biochemical Processes. The Green Chemistry School has access to a staff made up of professors from UFRJ and other universities, as well as researchers from technology centers and companies. It conducts surveys on the state of the art in bio-based chemicals from raw materials abundant in Brazil; organises courses, workshops and meetings on green chemistry and related topics; and develops materials, experiments, and demonstrations for students at a high school level that can also be used for outreach activities.
The Faculty of Sciences and Technology, Portugal
A four-year doctoral programme was established in the largest Centre of Excellence / Laboratório Associado para a Química Verde (LAQV) at REQUIMTE and has been hosted by three Portuguese Universities (NOVA Lisbon, Porto, and Aveiro) since 2014. During the first year of the course, the students attend mandatory and optional courses offered by the three Universities. During the 2nd, 3rd, and 4th years, the students develop projects covering different fields of Sustainable Chemistry, taken from a very wide view of the research agenda of the SusChem platform (the European Technology Platform for Sustainable Chemistry).
FCT-NOVA is highly committed to the dissemination of Green Chemistry to the general public, hosting different activities for high school students. The students have the opportunity to do research together with Master and PhD students in projects focused on the development of sustainable processes for the production of novel products for different applications. The training period starts with a lecture introducing the Principles of Green Chemistry and Sustainable Engineering. Special effort is made to give practical examples of the applicability of concepts to the real world. On-going research activities foster a new philosophy in the industry, instilled alongside chemical reactions and processes. The methodology includes the co-supervision of Masters and PhD students developing collaborative projects with national companies.
The Green Chemistry Centre of Excellence, University of York, UK
In addition to the successful Masters course in Green Chemistry & Sustainable Industrial Technology that has been running at the University of York for the past 15+ years, green chemistry will now be incorporated in the undergraduate chemistry curriculum at York, in both taught and practical material.
The Greener Reagents and Sustainable Processes (GRASP) project has been running for the past 2 years with the aim of addressing the use of hazardous/unsustainable chemicals in teaching labs and providing chemistry undergraduates with the requisite skills and knowledge to prepare them for future careers in the chemical industry.
The Green Chemistry Centre of Excellence (GCCE) recently launched the RenewChem initiative, which incorporates graduate training as one of its core activities. The training will be specifically aimed at equipping future employees of the chemical industry with the requisite skills and knowledge to make an immediate impact on the transition to green manufacturing and circular economy within the chemical industries.
A bespoke e-learning platform has been developed with the aim of promoting the uptake of green and sustainable methodologies, with a particular focus on the synthesis of pharmaceuticals. The CHEM21* online learning platform comprises a range of free, shareable, and interactive educational and training materials that have been created in collaboration with industry.
Also via the CHEM21* project, the GCCE, in collaboration with other CHEM21* academic and industry partners, have organised a series of face-to-face training workshops aimed at graduates, PhDs, and post-docs covering topics such as metrics, route selection, safety, and biocatalysis, to name but a few.
We continue to engage Masters-level students and provide them with hands-on experience organising and delivering public engagement activities to a wide range of audiences, from primary school children to members of the general public. Many of the experiments and exhibitions have focused on obtaining chemicals from food waste in order toof introduce green chemistry principles in a way that is directly relevant to a non-technical audience. The GCCE also continues to engage with our international partners to share knowledge and examples of best practice, in particular through the Global Green Chemistry Centres or G2C2 network (http://g2c2.greenchemistrynetwork.org).
References
1. Bertolin, R. V., M. Avancini, A.P. Matos, and V.G. Zuin. Chemistry International, 35(3):10-12, 2013Search in Google Scholar
2. Towards a Sustainable Model of Agriculture in Brazil, The Nexus Blog on 18 Mar 2015; Search in Google Scholar
3. https://communities.acs.org/community/science/sustainability/green-chemistry-nexus-blog/blog/2015/03/18/towards-a-sustainable-mmodel-of-agriculture-in-brazilSearch in Google Scholar
4. Zuin, V.G. and L. Mammino, L., eds. Worldwide Trends in Green Chemistry Education. Cambridge: Royal Society of Chemistry, 201510.1039/9781782621942Search in Google Scholar
5. Zuin, V.G. Pure Appl. Chem., 85(8):IV, 201310.1351/pac20138508ivSearch in Google Scholar
6. Mammino, L. Pure Appl. Chem., 88(1-2):1-2, 201610.1515/pac-2015-5009Search in Google Scholar
©2017 by Walter de Gruyter Berlin/Boston
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Articles in the same Issue
- Masthead - Full issue pdf
- From the Editorial Board
- Contents
- The First IUPAC World Chemistry Congress with a Latin Flavor
- Features
- IYCN: A Journey That Has Just Begun
- IUPAC Facilitating Chemistry Data Exchange in the Digital Era
- Nanomaterials—On the Brink of Revolution? Or the Endless Pursuit of Something Unattainable?
- Hero Worship in Words: Imitating the Grand Style of R. B. Woodward
- IUPAC Wire
- Awardees of the IUPAC 2017 Distinguished Women in Chemistry or Chemical Engineering
- Neil Garg is the Recipient of the 2016 Thieme–IUPAC Prize
- The Franzosini Award of 2016
- A Global Approach to the Gender Gap in Mathematical and Natural Sciences: How to Measure It, How to Reduce It?
- New InChI Software Release
- Project Place
- Database on Molecular Compositions of Natural Organic Matter and Humic Substances as Measured by High Resolution Mass Spectrometry
- Integrating Green Chemistry and Socio-Sustainability in Higher Education: Successful Experiences Contributing to Transform Our World
- NUTRIAGEING: Combining Chemistry, Cooking, and Agriculture
- Safety Training Program
- The Silver Book and the NPU Format for Clinical Laboratory Science Reports Regarding Properties, Units, and Symbols
- Bookworm
- Engineered Nanoparticles and the Environment: Biophysicochemical Processes and Toxicity
- Compendium of Terminology and Nomenclature of Properties in Clinical Laboratory Sciences
- Making an ImPACt
- Isotope-Abundance Variations and Atomic Weights of Selected Elements: 2016 (IUPAC Technical Report)
- Names and Symbols of the Elements with Atomic Numbers 113, 115, 117 and 118 (IUPAC Recommendations 2016)
- On the Naming of Recently Discovered Chemical Elements—the 2016 Experience
- IUPAC Provisional Recommendations
- Terminology of Bioanalytical Methods
- Nomenclature and Terminology for Dendrimers with Regular Dendrons and for Hyperbranched Polymers
- Definition of the Mole
- Terminology of Separation Methods
- NOTeS
- IUPAC Standards and Recommendations
- Conference Call
- Chemical Industry of Sustainable Development
- Bioinspired and Biobased Chemistry & Materials
- International Carbohydrate Symposium
- Validation of Test Methods, Human Errors and Measurement Uncertainty of Results
- Where 2B & Y
- Chemistry in a Multidisciplinary, Interdisciplinary World
- Trace Elements Analysis of Environmental Samples with X-rays
- Ionic Polymerization
- Global Challenges and Data-Driven Science
- Mark Your Calendar