High school students’ preconceptions about the concept of climate change considered from the perspective of visual representation

Authors

  • Sindi Yani SD Plus AR-Rahmat, Bandung, Indonesia
  • Lasmita Sari Department of physics education, Institut Pendidikan Indonesia
  • Irma Fitria Amalia Department of physics education, Institut Pendidikan Indonesia
  • Arip Nurahman Department of physics education, Institut Pendidikan Indonesia

DOI:

https://doi.org/10.31980/ripe.v3i1.123

Keywords:

Preconception, Climate change, Visual representation

Abstract

Preconceptions are an essential foundation for students, serving as a basis for more effective learning. In the context of climate change concepts, many students harbor misconceptions. One method to uncover students’ preconceptions is through the use of visual representations. Visual representations can elucidate students’ understanding of abstract and complex concepts. This study aims to examine and analyze the extent of high school students’ comprehension of climate change. The research employs a descriptive qualitative approach, with a population and sample comprising 63 tenth-grade science students from a high school in Indonesia. Data collection techniques included observation and interviews, with semi-structured interviews being utilized in this study. The results reveal that students have varied understandings of the concept of climate change, with many exhibiting misconceptions. The study identifies three categories of climate change concepts: (1) correct concepts of climate change, representing 37%; (2) climate change concepts based on objects, as depicted in the visualizations provided by the respondents; and (3) incorrect concepts of climate change, representing 63%. Based on empirical evidence, the students’ preconceptions of climate change are predominantly at the macroscopic level.

References

Alfiyah, Nur Inna, and S IP. 2017. Perubahan iklim sebagai penyebab terjadinya kekerasan dan migrasi: studi kasus konflik darfur. DIALEKTIKA Jurnal Ekonomi Dan Ilmu Sosial 1 (1).

Amaliah, Nur Utami, and Endang Purwaningsih. 2021. Analisis pemahaman konsep, multirepresentasi, dan kosistensi jawaban siswa sma pada konsep hukum iii newton. Jurnal Pendidikan Sains Indonesia (Indonesian Journal of Science Education) 9 (4): 671–682.

Arum, Ismi Dwi Mustika, Abdurrahman Abdurrahman, et al. 2014. Pengaruh kemampuan representasi visual terhadap hasil belajar fisika. Jurnal Pembelajaran Fisika Universitas Lampung 2 (5): 119018.

Asenova1, Asya, and Michael Reiss. 2011. The role of visualization of biological knowledge in the formation of sets of educational skills.

Bustle, Lynn Sanders. 2004. The role of visual representation in the assessment of learning. Journal of Adolescent & Adult Literacy 47 (5): 416–423.

Canlas, Ian Phil. 2021. Using visual representations in identifying students’ preconceptions in friction. Research in Science & Technological Education 39 (2): 156–184.

Duncan, James S, and David Ley. 2013. Place/culture/representation. Routledge.

Elkins, James. 2009. Introduction: the concept of visual literacy, and its limitations. In Visual literacy, 918. Routledge.

______________. 2013. Visual studies: a skeptical introduction. Routledge.

Kelly, Martyn. 2012. The semiotics of slime: visual representation of phytobenthos as an aid to understanding ecological status. Freshwater Reviews 5 (2): 105–119.

Lopez, Victor, and Roser Pinto. 2017. Identifying secondary-school students’ difficulties when reading visual representations displayed in physics simulations. International Journal of Science Education 39 (10): 1353–1380.

Masud, Muhammad Mehedi, Rulia Akhtar, Rafia Afroz, Abul Quasem Al-Amin, and Fatimah Binti Kari. 2015. Pro-environmental behavior and public understanding of climate change. Mitigation and Adaptation Strategies for Global Change 20:591–600.

Mayer, Richard E, and Celeste Pilegard. 2005. Principles for managing essential processing in multimedia learning: segmenting, pretraining, and modality principles. The Cambridge handbook of multimedia learning, 169–182.

Nurutami, A, R Riyadi, and S Subanti. 2019. Student’s mathematical literacy ability on pisa’s space and shape task. In Journal of physics: conference series, 1188:012060. 1. IOP Publishing.

Pratama, Riza, and Luthfi Parinduri. 2019. Penaggulangan pemanasan global. Buletin Utama Teknik 15 (1): 91–95.

Scribner, Michael Cole Sylvia. 1974. Culture and thought: a psychological introduction. Wiley.

Vienot, Francoise, Marie-Lucie Durand, and Elodie Mahler. 2009. Kruithof’s rule revisited using led illumination. Journal of Modern Optics 56 (13): 1433–1446.

Weber, Elke U, and Paul C Stern. 2011. Public understanding of climate change in the united states. American psychologist 66 (4): 315.

Weurlander, Maria, Magnus Söderberg, Max Scheja, Håkan Hult, and Annika Wernerson. 2012. Exploring formative assessment as a tool for learning: students’ experiences of different methods of formative assessment. Assessment & Evaluation in Higher Education 37 (6): 747–760.

Whitmarsh, Lorraine. 2009. What’s in a name? commonalities and differences in public understanding of “climate change” and “global warming”. Public understanding of science 18 (4): 401–420.

Zia, Asim, and Anne Marie Todd. 2010. Evaluating the effects of ideology on public understanding of climate change science: how to improve communication across ideological divides? Public understanding of science 19 (6): 743–761.

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Published

2024-05-26

How to Cite

Yani, S., Sari, L., Fitria Amalia, I., & Nurahman, A. (2024). High school students’ preconceptions about the concept of climate change considered from the perspective of visual representation. Research in Physics Education, 3(1), 26–36. https://doi.org/10.31980/ripe.v3i1.123

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