Promoting Effective Science Education through Teacher Leadership

2009 ◽  
pp. 173-187
Author(s):  
Michael Vallance ◽  
Stewart Martin ◽  
Charles Wiz ◽  
Paul van Schaik

Science education is concerned with the meaningful pursuit of comprehension, knowledge and understanding of scientific concepts and processes. In Vygotskian social constructivist learning, personal interpretation, decision-making and community cooperation fosters long-term understanding and transference of learned concepts. The construction of knowledge requires learners to be actively involved in the process of learning. For effective science learning to take place an instructor’s pedagogical approach must be anchored in meaningful contexts so that students have actual opportunities to experience science. This paper presents the early stages of a research project that attempts to assess and define effective measurements for evaluating strategies for communicating science by using LEGO robots and Mindstorms™ RCX controllers that are collaboratively constructed and programmed by students using virtual technologies while physically situated in different locations.


2016 ◽  
Vol 78 (5) ◽  
pp. 370-375 ◽  
Author(s):  
Wendy R. Johnson

The National Research Council's Framework for K–12 Science Education and the resulting Next Generation Science Standards call for engaging students in the practices of science to develop scientific literacy. While these documents make the connections between scientific knowledge and practices explicit, very little attention is given to the shared values and commitments of the scientific community that underlie these practices and give them meaning. I argue that effective science education should engage students in the practices of science while also reflecting on the values, commitments, and habits of mind that have led to the practices of modern science and that give them meaning. The concept of methodological naturalism demonstrates the connection between the values and commitments of the culture of science and its practices and provides a useful lens for understanding the benefits and limitations of scientific knowledge.


2010 ◽  
Vol 46 (1) ◽  
pp. 1-44 ◽  
Author(s):  
Susan M. Stocklmayer ◽  
Léonie J. Rennie ◽  
John K. Gilbert

2015 ◽  
pp. 632-643
Author(s):  
Judy Alhamisi ◽  
Blanche Jackson Glimps ◽  
Chukwunyere E. Okezie

This chapter describes an organizational initiative to develop and implement the Understanding by Design (UbD) curriculum-planning framework to improve learning outcomes for teacher candidates and their students during clinical experiences and in their future classrooms. This case study explores a pedagogical approach that has met with success in working with teacher candidates. The focus is on a narrow range of knowledge, skills, and dispositions related to effective teaching in science education: the ability to design, plan, and implement curriculum. Curriculum design using the Understanding by Design (UbD) Framework is a high priority when moving from simply covering subject matter to ensuring deep understanding. Using “Backward Design” helped many teacher candidates develop skills to plan effective science curriculum, units, and lessons. The experiences of two teacher education programs in building teacher candidates' skills in planning and implementing science education curriculum using the UbD Framework are presented in this case study.


Author(s):  
Judy Alhamisi ◽  
Blanche Jackson Glimps ◽  
Chukwunyere E. Okezie

This chapter describes an organizational initiative to develop and implement the Understanding by Design (UbD) curriculum-planning framework to improve learning outcomes for teacher candidates and their students during clinical experiences and in their future classrooms. This case study explores a pedagogical approach that has met with success in working with teacher candidates. The focus is on a narrow range of knowledge, skills, and dispositions related to effective teaching in science education: the ability to design, plan, and implement curriculum. Curriculum design using the Understanding by Design (UbD) Framework is a high priority when moving from simply covering subject matter to ensuring deep understanding. Using “Backward Design” helped many teacher candidates develop skills to plan effective science curriculum, units, and lessons. The experiences of two teacher education programs in building teacher candidates' skills in planning and implementing science education curriculum using the UbD Framework are presented in this case study.


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