Students enter science classrooms already familiar with the world around them: they’ve felt the wind, seen lightning, and wondered why the sun sets. These everyday encounters, though intuitively understood (perhaps sometimes misunderstood?), are also entry points into powerful scientific explanations. Such ordinary experiences become extraordinary when reframed through concepts like combustion, refraction, or energy transfer. Scientific concepts do not merely describe phenomena; they seek to exp…
Read moreStudents enter science classrooms already familiar with the world around them: they’ve felt the wind, seen lightning, and wondered why the sun sets. These everyday encounters, though intuitively understood (perhaps sometimes misunderstood?), are also entry points into powerful scientific explanations. Such ordinary experiences become extraordinary when reframed through concepts like combustion, refraction, or energy transfer. Scientific concepts do not merely describe phenomena; they seek to explain them by revealing hidden mechanisms and causal patterns. These abstract concepts like energy, or gene are not static facts to be memorized but the outcome of centuries of creative thinking, model-building, and conceptual transformation. Thus, creativity emerges not merely from personal inspiration but from an interaction between individuals, symbolic domains of knowledge, and social fields of recognition (Csikszentmihalyi, 1996).
This systems approach of creativity has been emphasized by several scholars (Amabile, 1983, 1996; Csikszentmihalyi, 1988, 1996, 1999; Simonton, 1988; Woodman and Schoenfield, 1989). Scientific concepts are embedded within these symbolic systems as domains of shared networks of representations and methods that structure thought and inquiry (Csikszentmihalyi, 1988; 1996; 1999). While culturally transmitted, such concepts aim to map onto real causal patterns in the world, reflecting universal cognitive categories and ontological structures. Scientific creativity, then, is a culturally situated yet cognitively grounded process that drives meaningful conceptual change and helps learners move beyond misconceptions (Mason, 2020). To foster this creativity in education, we must treat science not as a static body of knowledge but as a dynamic system of ideas that are continually generated, evaluated, and reimagined. This requires going beyond the transmission of ‘course content’ to cultivating the cognitive, emotional, and cultural conditions that support transformative insight, immersing learners in symbolic domains and helping them develop the habits of thought, modeling practices, and conceptual tools needed to reshape those systems.
In this chapter, I aim to illuminate some of these conditions and propose a framework for enriching scientific creativity in the classroom and beyond—one that emphasizes developing and appropriately constraining student’s scientific imagination; not just teaching about science or how to do it.