Debra McGregor

The involvement of students in dramatised inquiries, through participatory activity, offers opportunities to act in-role as scientists. The inquiries can ‘set-the-scene’, provide context and challenges for students to consider possibilities within and beyond everyday life. This approach can engage students in thinking about sustainability and developing citizenship competencies, such as thinking scientifically and critiquing ideas, interrogating evidence and assessing the validity of information, as well as decision making and problem solving. In this paper, adopting stories from the history of science is shown to provide rich, authentic contexts that engage students imaginatively and collaboratively in addressing past, present and future socio-scientific issues. To demonstrate how the approach can be adapted we drew on the work of three scientists: an agriculturalist; a botanist and a palaeontologist. Their scientific work informed the learning activities of several primary science lessons (with students aged 9–10). The agricultural activities were informed by the work of George Washington Carver and were related to improving soil quality through crop rotation as well as thinking about the diversity of food and other products that can be produced from plants. The botanically informed activities promoted understanding about processes linked to maintaining species diversity. These drew on the work of Marianne North, a Victorian botanical artist, noted for her detailed plant observations. The final socio-scientific context was related to the work of Mary Anning, a pioneering 19th century palaeontologist, who made significant fossil discoveries that contributed to the understanding of geology and evolution. Interactive and participatory activities, informed by the lives and work of these scientists, were designed to engage students in socio-scientific inquiry-based learning through a drama-based pedagogy. These dramatised inquiries promoted the development of scientific citizenship competencies. Scrutiny of data collected through multiple methods suggested that, by extending opportunities for learners to participate in these dramatised lessons, understanding sustainability became more salient for the students. Outcomes suggest several distinctive affordances offered by dramatisation when supporting understanding about sustainability and the development of scientific citizenship.

Successful scientists need to think carefully about the particular aspect of the world around them they are investigating. They build on what is known in their area of science to identify how they might examine the issue or problem they are concerned with to offer further insights. Through investigating natural phenomena, they can solve problems and communicate new ways of looking at the world. Their work serves to address global and societal challenges and often offers improved ways of living. The ways that scientists’ work can have implications for educational processes designed to prepare would-be scientists or scientifically aware citizens of the future. Eliciting reflections from experienced scientists recounting how they came to develop their scientific intellect, expertise and problem-solving know-how is useful to inform science education. This article reports on an aspect of a larger project involving 24 scientists specialising in biological or physical science research from Higher Education Institutions, located in either Manchester, Oxford or London. The study adopts a retrospective phenomenographical methodology and applies two fresh theoretical perspectives to eight in-depth interviews with professional scientists working in university departments involved in ground-breaking research. Conversations with the scientists were framed to explore the nature and extent of formal and informal learning influences affecting the development of their inventiveness and expertise in becoming scientists. The reified perspectives collated here show how a range of experiences have afforded expert scientists the opportunity to apply their intellectual capabilities. These kinds of demonstrable abilities have enabled them to scientifically contribute to being able to solve real-world problems. Additionally, a cross-case analysis of scientists’ reported learning experiences could inform science education policy and practice.