Abstract:Various international perspectives from selected regions where substantial work is being done on green and sustainable chemistry education emphasize a systems thinking framework. Common to most of the perspectives is the inclusion of more global paradigms involving economic, environmental, political, and social aspects as fundamental issues in the formerly merely technical and scientific discussions, as well as the development of laboratory experiences, training sessions, written materials, discussion meetings… Show more
“…Other examples include the mobile application game Green Tycoon (Lees et al, 2020) and the card game, Green Machine (Miller et al, 2019). These, and other techniques, have been utilised internationally in a successful endeavour to incorporate systems thinking into green and sustainable chemistry programmes, courses, and resources (Hurst et al, 2019).…”
Section: Systems Thinking In Chemistry Educationmentioning
Research suggests that systems thinking is beneficial to education and it has been proposed that training students using systems thinking techniques may enhance their abilities to understand and solve some...
“…Other examples include the mobile application game Green Tycoon (Lees et al, 2020) and the card game, Green Machine (Miller et al, 2019). These, and other techniques, have been utilised internationally in a successful endeavour to incorporate systems thinking into green and sustainable chemistry programmes, courses, and resources (Hurst et al, 2019).…”
Section: Systems Thinking In Chemistry Educationmentioning
Research suggests that systems thinking is beneficial to education and it has been proposed that training students using systems thinking techniques may enhance their abilities to understand and solve some...
“…The Special Issue brought forward many examples of how systems thinking has already been implemented around the world, particularly in the sustainability and environmental chemistry subdisciplines. [32][33][34][35][36][37][38][39][40][41] One Australian example we wish to highlight is a study completed by Schultz and coworkers, in which secondary chemistry students created system maps to represent industrial chemical processes and evaluate the broader impact of the processes in relation to the United Nations Global Goals for Development. [41] Through teacher reflections in an action research framework, the study evaluated whether system mapping 'allowed the teacher to situate the learning of sustainability within the learning of chemistry content.'…”
Section: Systems Thinking Employs a Variety Of Tools And Cognitive Framework To Enhance Our Understanding Of Complex Behaviours And Phenomentioning
The alignment of intended learning outcomes for chemistry graduates and the actualised outcomes has been called into question recently. Opportunities to address this lie in the integration of undergraduate learning experiences in which students develop real-world skills and engage with problems that they may encounter as graduates in contemporary workplaces or modern society more broadly. This Highlight article provides an overview of three such approaches, including offering students authentic research experiences within (or outside of) normal degree programs, engaging students in citizen science projects, and considering curriculum reforms to better align with a systems thinking framework. Where possible, we provide explicit examples grounded in the Australian context, accompanied by some thoughts on the challenges that may be encountered when implementing these approaches in practice.
“…The systems approach aims to offer a more holistic perspective to chemistry learning than a traditional concept approach. The medium for fostering a more comprehensive perspective can be anything from smaller lab experiments to open-ended projects [18]. Even though this research is conducted in the context of sustainable chemistry education, we do not directly address systems thinking which is linked to sustainability education in many research articles [17][18][19][20][21][22][23].…”
Section: Introductionmentioning
confidence: 99%
“…The medium for fostering a more comprehensive perspective can be anything from smaller lab experiments to open-ended projects [18]. Even though this research is conducted in the context of sustainable chemistry education, we do not directly address systems thinking which is linked to sustainability education in many research articles [17][18][19][20][21][22][23]. To promote the comprehensive approach, we will design the activity around chemistry laboratory work [18].…”
By introducing the sustainable nature of chemistry to students—makers of the future—teachers, and teacher students we can promote their scientific literacy and increase understanding of the relevance of chemistry research and studies in sustainability. Ionic liquids are a topical example of innovation of green chemistry research offering many possibilities for sustainable chemistry education. This article describes how to develop research-based learning materials on ionic liquids using educational design research as a design strategy. The design process included two cycles and the initial design solution was iterated via a qualitative case study conducted with future chemistry teachers. The main result of this research is the designed context-based activity that engages learners with individual, vocational, and societal levels of relevance. In addition, the study produced new insights into future chemistry teachers’ perceptions of ionic liquids’ possibilities in a chemistry learning context. According to future chemistry teachers, ionic liquids are an interesting new context for laboratory learning and can increase interest in chemistry studies.
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