Abstract:An
elective course, Toward the Greening of Our Minds: Green and Sustainable
Chemistry, has been offered at Washington College since 2005. This
new course without laboratory is designed for chemistry and biology
majors and minors who have previously taken two semesters of general
chemistry and organic chemistry. Due to the popularity of the course,
the enrollment nearly doubled since 2005. Specific changes needed
to be implemented to respond to students’ feedback and needs
but also to account for the expansion … Show more
“…This is possible because the nature of the course on green chemistry itself permits students to communicate their ideas while making decision about the green processes in parallel to the increasing depth of knowledge and awareness of sustainable initiatives in other countries (Marteel-Parrish, 2014). Argumentation shifts the emphasis of science teaching from imparting content towards educating the students on the importance applying the content in and to real life contexts .…”
Section: Discussionmentioning
confidence: 99%
“…Additionally, green chemistry has been presented using problem-based case study approaches, whereby the students are exposed to the challenges to developing alternatives (e.g. In another case study, chemistry and biology undergraduate majors and minors became more competent in using green chemistry metrics, assessing the traditional and greener products and have better grasp on the role of toxicology as a result of learning a non-laboratory green chemistry course (Marteel-Parrish, 2014). On the other hand, product life cycle analysis constitutes an approach that unites green chemistry principles, sustainable chemistry, and engineering.…”
In a world where environmental degradation is taking on alarming levels, understanding, and acting to minimize, the individual environmental impact is an important goal for many science educators. In this study, a green chemistry curriculum—combining chemistry experiments with everyday, environmentally friendly substances with a student-centered approach that includes student–student discussion—was tested for its potential to increase the understanding of acid–base concepts and argumentative skills. A quasi-experimental design was chosen intended to take into account teacher/school nested effects. The study involved three classes of 150 16 year old Form Four students (1 experimental,N= 50; 2 control,N= 100) from two Schools A and B serving students from the same sociocultural and economic backgrounds taught by two teachers (Teacher A in School A taught 1 experimental and 1 control; Teacher B in School B taught 1 control). An ANCOVA with a pre-test as a covariate showed a statistically significant treatment effect as measured by an acid–base concept understanding test. Additionally, qualitative analysis of an Argumentation Skill Test (AST) shows that the experimental students used higher levels of argumentation skills following treatment than their peers in the two control classes. Implications are discussed for integrating green chemistry into the secondary school chemistry curriculum to teach the content on acid–base and green chemistry as a tool to assist the construction of arguments.
“…This is possible because the nature of the course on green chemistry itself permits students to communicate their ideas while making decision about the green processes in parallel to the increasing depth of knowledge and awareness of sustainable initiatives in other countries (Marteel-Parrish, 2014). Argumentation shifts the emphasis of science teaching from imparting content towards educating the students on the importance applying the content in and to real life contexts .…”
Section: Discussionmentioning
confidence: 99%
“…Additionally, green chemistry has been presented using problem-based case study approaches, whereby the students are exposed to the challenges to developing alternatives (e.g. In another case study, chemistry and biology undergraduate majors and minors became more competent in using green chemistry metrics, assessing the traditional and greener products and have better grasp on the role of toxicology as a result of learning a non-laboratory green chemistry course (Marteel-Parrish, 2014). On the other hand, product life cycle analysis constitutes an approach that unites green chemistry principles, sustainable chemistry, and engineering.…”
In a world where environmental degradation is taking on alarming levels, understanding, and acting to minimize, the individual environmental impact is an important goal for many science educators. In this study, a green chemistry curriculum—combining chemistry experiments with everyday, environmentally friendly substances with a student-centered approach that includes student–student discussion—was tested for its potential to increase the understanding of acid–base concepts and argumentative skills. A quasi-experimental design was chosen intended to take into account teacher/school nested effects. The study involved three classes of 150 16 year old Form Four students (1 experimental,N= 50; 2 control,N= 100) from two Schools A and B serving students from the same sociocultural and economic backgrounds taught by two teachers (Teacher A in School A taught 1 experimental and 1 control; Teacher B in School B taught 1 control). An ANCOVA with a pre-test as a covariate showed a statistically significant treatment effect as measured by an acid–base concept understanding test. Additionally, qualitative analysis of an Argumentation Skill Test (AST) shows that the experimental students used higher levels of argumentation skills following treatment than their peers in the two control classes. Implications are discussed for integrating green chemistry into the secondary school chemistry curriculum to teach the content on acid–base and green chemistry as a tool to assist the construction of arguments.
“…Notably, this green chemistry supplement highlights the importance of systems thinking; that is, the need to view components as part of a greater whole, acknowledging the interactions among them . Additionally, recent journal articles and the references within them offer excellent resources for teaching and learning green chemistry …”
Section: Sustainability: Well‐established Connections To Chemistrymentioning
Sustainable development and sustainability are two widely used umbrella concepts, both "brilliantly ambiguous." Many fields of study, including engineering, business, the humanities, and the sciences offer opportunities for instructors to connect content with sustainability. As the central science, chemistry is surely one of them. This paper issues a call for action to chemistry instructors to build stronger connections in the college chemistry curriculum to the local, regional and global challenges that we face on our planet.These challenges, multi-faceted and multi-disciplinary, include providing clean energy, protecting the environment and stewarding its resources, employing wise agricultural practices to supply food, and insuring clean water and clean air to those in all communities. As a chemical concept, the carbon cycle connects to challenges such as these. It is presented as a possibility for building stronger connections to sustainability in the curriculum.
“…Students are perceived to be a part of classroom community and finally they will feel respected and appreciated. Active learning improves the students' performance on course assessments, students' perceptions of inclusiveness in the classroom, enhance their retention of information, and escalate standardized exam scores (Freeman et al, 2014;Marteel-Parrish, 2014). This approach also provides the connection between students and instructors, thus instructors are able to evaluate students' understanding in real time.…”
Section: Benefits Of Active Learning In Teaching and Learning Processmentioning
Active learning refers any approach to instruction in which all students are required to involve in the learning process. The purpose of the manuscript is to evaluate the application of active learning in teaching Green Engineering Principles and Applications as a compulsory course in environmental engineering department curriculum, Curtin University Malaysia. Green engineering can be defined as an approach of the design, process, product and commercialization that follow environmentally conscious attitude, principles and values combined with multidisciplinary engineering science that to minimize pollutant and promote local and global sustainability. Green engineering encompasses the conceptualization and implementation of reducing environmental impacts, maximize energy efficiency and develop the greener processes and product that bring environmental and economic benefit. A simple approach that combining the classical lecture-presentation and active engagement of the students with the course materials through case studies, problem solving and discussion has been developed. In conclusion, introducing the active learning to the students on solving any problems improve the students' ability in achieving the course outcome and thus the programme outcome of the
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