Understanding the Greenhouse Effect by Embodiment: Analysing and Using Students' and Scientists' Conceptual Resources

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Understanding the Greenhouse Effect by Embodiment: Analysing and Using Students' and Scientists' Conceptual Resources. / Niebert, K.; Gropengießer, Harald.
in: International Journal of Science Education, Jahrgang 36, Nr. 2, 22.01.2014, S. 277-303.

Publikation: Beiträge in ZeitschriftenZeitschriftenaufsätzeForschungbegutachtet

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@article{f1760991d695488f9fe0a563e0486194,
title = "Understanding the Greenhouse Effect by Embodiment: Analysing and Using Students' and Scientists' Conceptual Resources",
abstract = "Over the last 20 years, science education studies have reported that there are very different understandings among students of science regarding the key aspects of climate change. We used the cognitive linguistic framework of experientialism to shed new light on this valuable pool of studies to identify the conceptual resources of understanding climate change. In our study, we interviewed 35 secondary school students on their understanding of the greenhouse effect and analysed the conceptions of climate scientists as drawn from textbooks and research reports. We analysed all data by metaphor analysis and qualitative content analysis to gain insight into students' and scientists' resources for understanding. In our analysis, we found that students and scientists refer to the same schemata to understand the greenhouse effect. We categorised their conceptions into three different principles the conceptions are based on: warming by more input, warming by less output, and warming by a new equilibrium. By interrelating students' and scientists' conceptions, we identified the students' learning demand: First, our students were afforded with experiences regarding the interactions of electromagnetic radiation and CO 2. Second, our students reflected about the experience-based schemata they use as source domains for metaphorical understanding of the greenhouse effect. By uncovering the-mostly unconscious-deployed schemata, we gave students access to their source domains. We implemented these teaching guidelines in interventions and evaluated them in teaching experiments to develop evidence-based and theory-guided learning activities on the greenhouse effect.",
keywords = "Didactics of sciences education, Climate change, Conceptual change, Everyday conception, Experience, Metaphor",
author = "K. Niebert and Harald Gropengie{\ss}er",
year = "2014",
month = jan,
day = "22",
doi = "10.1080/09500693.2013.763298",
language = "English",
volume = "36",
pages = "277--303",
journal = "International Journal of Science Education",
issn = "0950-0693",
publisher = "Routledge Taylor & Francis Group",
number = "2",

}

RIS

TY - JOUR

T1 - Understanding the Greenhouse Effect by Embodiment

T2 - Analysing and Using Students' and Scientists' Conceptual Resources

AU - Niebert, K.

AU - Gropengießer, Harald

PY - 2014/1/22

Y1 - 2014/1/22

N2 - Over the last 20 years, science education studies have reported that there are very different understandings among students of science regarding the key aspects of climate change. We used the cognitive linguistic framework of experientialism to shed new light on this valuable pool of studies to identify the conceptual resources of understanding climate change. In our study, we interviewed 35 secondary school students on their understanding of the greenhouse effect and analysed the conceptions of climate scientists as drawn from textbooks and research reports. We analysed all data by metaphor analysis and qualitative content analysis to gain insight into students' and scientists' resources for understanding. In our analysis, we found that students and scientists refer to the same schemata to understand the greenhouse effect. We categorised their conceptions into three different principles the conceptions are based on: warming by more input, warming by less output, and warming by a new equilibrium. By interrelating students' and scientists' conceptions, we identified the students' learning demand: First, our students were afforded with experiences regarding the interactions of electromagnetic radiation and CO 2. Second, our students reflected about the experience-based schemata they use as source domains for metaphorical understanding of the greenhouse effect. By uncovering the-mostly unconscious-deployed schemata, we gave students access to their source domains. We implemented these teaching guidelines in interventions and evaluated them in teaching experiments to develop evidence-based and theory-guided learning activities on the greenhouse effect.

AB - Over the last 20 years, science education studies have reported that there are very different understandings among students of science regarding the key aspects of climate change. We used the cognitive linguistic framework of experientialism to shed new light on this valuable pool of studies to identify the conceptual resources of understanding climate change. In our study, we interviewed 35 secondary school students on their understanding of the greenhouse effect and analysed the conceptions of climate scientists as drawn from textbooks and research reports. We analysed all data by metaphor analysis and qualitative content analysis to gain insight into students' and scientists' resources for understanding. In our analysis, we found that students and scientists refer to the same schemata to understand the greenhouse effect. We categorised their conceptions into three different principles the conceptions are based on: warming by more input, warming by less output, and warming by a new equilibrium. By interrelating students' and scientists' conceptions, we identified the students' learning demand: First, our students were afforded with experiences regarding the interactions of electromagnetic radiation and CO 2. Second, our students reflected about the experience-based schemata they use as source domains for metaphorical understanding of the greenhouse effect. By uncovering the-mostly unconscious-deployed schemata, we gave students access to their source domains. We implemented these teaching guidelines in interventions and evaluated them in teaching experiments to develop evidence-based and theory-guided learning activities on the greenhouse effect.

KW - Didactics of sciences education

KW - Climate change

KW - Conceptual change

KW - Everyday conception

KW - Experience

KW - Metaphor

UR - http://www.scopus.com/inward/record.url?scp=84889681014&partnerID=8YFLogxK

U2 - 10.1080/09500693.2013.763298

DO - 10.1080/09500693.2013.763298

M3 - Journal articles

VL - 36

SP - 277

EP - 303

JO - International Journal of Science Education

JF - International Journal of Science Education

SN - 0950-0693

IS - 2

ER -

DOI