Gary Gladding presenting at a 2014 conference for physics teachers

PER group

Our group includes members from both the Physics Department and the School of Education.

Papers and Talks

Implications of Learning Research for Teaching Science to Non-Science Majors

1/1/2004

SENCER Backgrounder (published online)see: http://www.sencer.net/pdfs/Backgrounders/ImplicationsofLearningResearchforTeachingScience.pdf


In this paper we discuss ways in which learning research has affected conceptualization of how people learn science, and then discuss the implications of these research findings for teaching science to non-science majors. Prior to the cognitive revolution, learning a complex process was conceived as demonstrating mastery through observable behaviors of all the sub-components of the complex process. Within the cognitive perspective learning a complex process is perceived as constructing knowledge, meaning, and sense-making by the learner. Hence, the shift has been from a view that learning is the acquisition of desired behaviors, to a view that learning is the construction of knowledge by the individual?construction that is mediated by the context of the learning, the social environment, and the prior knowledge of the learner. We begin with an overview from a cognitive perspective of several areas relevant to science teaching and learning, including the role of prior knowledge in learning, the nature of expertise, transfer of learning, metacognition, and assessment. We then consider instructional implications suggested by the science of learning and formulate nine instructional principles for successful science instruction. We conclude with suggestions for ways of structuring science courses for college non-science majors that reflect the instructional principles that we present.