Abstract
This is the second of two articles that address recent scholarship about teaching and learning about evolution. This second review seeks to summarize this state of affairs and address the implications of this work for the classroom by addressing four basic questions: (1) What is evolution?/What components of the theory are important at the introductory level? (2) Why do students and members of the public at large need to understand evolution? (3) What makes evolution difficult to teach and learn? and (4) What promising instructional approaches have been developed and tested? The paper will also focus on concerns about both the research designs and the measures used in this work. Based on this review, I will then propose a set of pedagogical implications and recommendations for the classroom instructor and call for studies to address specific gaps identified.
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Notes
Scientists who address the issue of the appearance of life do, of course, apply evolutionary principles and constraints in their work. The argument here is twofold: (1) that, in the strictest sense, Darwin’s theory did not claim to answer this question and (2) that student response to bundling this issue with common descent makes understanding more difficult for many students.
Note: This study asked children about the origins of both living things (birds and monkeys) but also human artifacts, natural evens, and natural objects.
Science itself, of course, is not atheistic or anti-theistic, but is non-theistic; it takes no position on the existence of the supernatural (Smith et al. 1995). Strictly speaking, science (as opposed to scientists) requires methodological naturalism but not philosophical naturalism (Plantinga 1997). Some authors (Dawkins 2006; Mahner and Bunge 1996, etc.) have argued that science and the supernatural are hopelessly enmeshed and cannot be separated so neatly. Others have argued more recently that science can test supernatural claims and worldviews (Fishman 2009). Although I recognize that these claims have some merit and have addressed them in some detail in the accompanying paper, I find them to have little or no place in high school biology or pre-service science teacher education. I personally reject any claim that modern science should take any position on the existence of the supernatural or make any claims about supernatural causes or designs.
Epistemological and religious issues are largely addressed in the accompanying paper.
Although long necks have been assumed to be an adaptive advantage for populations of the species (not individuals) because longer necks increased access to food, recent research has shown that giraffes do not typically feed on leaves from the highest branches and has suggested that the strong necks of giraffes provide, instead, a greater advantage in fighting for mates (Simmons and Scheepers 1996).
Although Evans distinguishes between Lamarckian explanations (as defined in the text here) and needs-based or purposeful change, many authors inappropriately use the terms synonymously. Kampourakis and Zogza 2007) appropriately note that Lamarck’s viewed use and disuse (not need) as the driver of change. Therefore, this manuscript does not employ the Lamarckian label.
These studies were conducted in largely Christian cultures in Scotland and Kenya. In other settings, this measure should be revised to measure attitudes toward the prevailing religions in that community.
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Smith, M.U. Current Status of Research in Teaching and Learning Evolution: II. Pedagogical Issues. Sci & Educ 19, 539–571 (2010). https://doi.org/10.1007/s11191-009-9216-4
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DOI: https://doi.org/10.1007/s11191-009-9216-4