- Volume 36 Issue 6
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Item Response Analysis of Energy as a Cross-Cutting Concept for Grades 3 to 9
기초공통개념으로서 에너지에 대한 3~9학년 학생들의 문항 반응 분석
- Kim, Youngmin (Pusan National University) ;
- Kang, Nam-Hwa (Korea National University of Education) ;
- Kang, Hunsik (Seoul National University of Education) ;
- Maeng, Seungho (Seoul National University of Education) ;
- Lee, Jun-Ki (Chonbuk National University)
- Received : 2016.07.21
- Accepted : 2016.12.06
- Published : 2016.12.31
This study investigated children's (grade 3 to 9) responses to assessment items on energy as a cross-cutting concept in order to get basic information for a learning progression. The assessment consisted of 8 ordered multiple-choice items at the contexts of electric circuit, mechanical energy of falling objects, phase change of matter, dissolution, biological phenomena of a lizard, food chain, radiative equilibrium between Sun and Earth, and the system of water cycling. Children's responses to each item were analyzed with using cross-tabulations in terms of grades and item option levels and Wright map and Differential item functioning based on Rasch modeled item response analysis. The results offered empirical evidence of children's development of understanding energy from relation between energy and its phenomena, types of energy, transfer and conversion of energy, towards conservation and equilibrium of energy for all of eight contexts. Children of each grade did not fully understand energy conservation. As grade goes up, their understandings of energy transfer and conversion were differentiated across the contexts and topics of energy. According to Rasch analysis, children had easier understanding of energy on dissolution and poorer understanding of energy on water cycling than that on other contexts. It was discussed and suggested that the results of this study help us organize science topics with regard to energy when developing new national science curriculum.
energy;cross-cutting concept;learning progressions;cross-tabulations;Rasch analysis
Supported by : 한국과학창의재단
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