초등교사의 문제 해결력 수준에 따른 과학수업에서 불일치 상황의 사용 방향 탐색
Exploring the Use of Inconsistent Situations in Science Class by the Level of Problem-Solving Ability in Elementary School Teachers
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This study aimed to investigate problem- solving abilities of elementary school teachers and explore directions for anomalous situations in science class, particularly on ‘What Stems Do’ from Chapter ‘Structures and Functions of Plants’. Elementary school teachers with upper levels of problem-solving ability mostly had a viewpoint that anomalous situations be used for effects in the cognitive aspect, further more likely connecting to the affective aspect. On the contrary, elementary school teachers with lower levels of problem-solving ability saw that anomalous situations be used for effects in the affective aspect most of all, further leading to the cognitive aspect. When analyzing the teaching process on anomalous situations, this study discovered that elementary school teachers with upper levels of problem-solving ability used anomalous situations in order to induce students to get discontented with their preconceptions, which were one of the conditions for conceptual change, and even suggested additional activities and relevant concepts in order to help them have a new concept and an impression that they were right. On the other hand, elementary school teachers with lower levels of problem- solving ability suggested anomalous situations in order to induce students to get dissatisfied with their preconceptions, but applied strategies not good enough to help students understand the new concept and have an impression that they were right because they failed to suggest sufficient additional activities and relevant concepts. When analyzing strategies to cope with anomalous situations, this study found out that adopting strategies of suggesting similar experiments and conducting experiments with students as teammates, elementary school teachers with upper levels of problem-solving ability tried to make constructive approaches and help students take the initiative in the inquiry class. On the contrary, elementary school teachers with lower levels of problem-solving ability were found to adopt so-called ‘encouraging strategy’, through which they seemed to believe that it was not an important role as teachers to participate in experiments with students, but watch them conducting experiments.
Abstract
This study aimed to investigate problem- solving abilities of elementary school teachers and explore directions for anomalous situations in science class, particularly on ‘What Stems Do’ from Chapter ‘Structures and Functions of Plants’. Elementary school teachers with upper levels of problem-solving ability mostly had a viewpoint that anomalous situations be used for effects in the cognitive aspect, further more likely connecting to the affective aspect. On the contrary, elementary school teachers with lower levels of problem-solving ability saw that anomalous situations be used for effects in the affective aspect most of all, further leading to the cognitive aspect. When analyzing the teaching process on anomalous situations, this study discovered that elementary school teachers with upper levels of problem-solving ability used anomalous situations in order to induce students to get discontented with their preconceptions, which were one of the conditions for conceptual change, and even suggested additional activities and relevant concepts in order to help them have a new concept and an impression that they were right. On the other hand, elementary school teachers with lower levels of problem- solving ability suggested anomalous situations in order to induce students to get dissatisfied with their preconceptions, but applied strategies not good enough to help students understand the new concept and have an impression that they were right because they failed to suggest sufficient additional activities and relevant concepts. When analyzing strategies to cope with anomalous situations, this study found out that adopting strategies of suggesting similar experiments and conducting experiments with students as teammates, elementary school teachers with upper levels of problem-solving ability tried to make constructive approaches and help students take the initiative in the inquiry class. On the contrary, elementary school teachers with lower levels of problem-solving ability were found to adopt so-called ‘encouraging strategy’, through which they seemed to believe that it was not an important role as teachers to participate in experiments with students, but watch them conducting experiments.
참고문헌 (38)
- Bahtiyar, A., "An investigation of problemsolving skills of preservice science teachers", Educational Research and Reviews, 11(23), pp.2018~2115 (2016)
- Bawanehm A., "The effectiveness of conflict maps and the v-shape teaching method in science conceptual change among eighthgrade students in jordan", International Education Studies, 3(1), pp.96~108 (2010)
- Cakir, M., "Constructivist approaches to learning in science and their implications for science pedagogy : A literature review", International Journal of Environmental & Science Education, 3(4), pp.193~206 (2008)
- Chin, C., "The use of discrepant events in teaching and learning science", Teaching and Learning, 13(1), pp.51~57 (1992)
- Chin, C., "Using self-questioning to promote students’ process skills thinking", School Science Review, 87(321), pp.113~122 (2006)
- 최숙영, "불일치 사례의 맥락이 인지 갈등 전략을 이용한 개념 변화 과정에 미치는 영향", 대한화학회지, 53(4), pp.445~452 (2009), 대한화학회
- 최원호, "예비 과학 교사 대상의 실험 수업에서문제 발견 및 해결 경험의 효과", 교사교육연구, 56(1), pp.63~73 (2017), 과학교육연구소[DOI]
- Dewey, J., "How We Think a Restatement of the Relation of Reflective Thinking to the Educative Process" (1933), Heath & Co Publishers
- Duit, R., "Conceptual change : A powerful framework for improving science teaching and learning", International Journal of Science Education, 25(6), pp.671~688 (2003)
- Ferah, D., "Investigation of perception of problem solving skills and problem solving approaches of the Turkish army academy cadets in terms of gender, grade, academic success and being leader", Master's, pp.2000
- García-Ruiz, C., "Effects of an inquiry-based science education training program on pre-service teachers. A mixedmethods case study", EURASIA Journal of Mathematics, Science and Technology Education, 18(12), pp.1~16 (2022)
- Gençc, M., "Investigating of the relation between the teachers’ multiple intelligences and problem solving skills", Bartin-Turkey, 1(1), pp.77~88 (2012)
- González-Espada, W. J., "Discrepant events : A challenge to students’ intuition", The Physics Teacher, 48(3), pp.507~511 (2010)
- Gul, K, S., "Science teachers’ perceptions toward discrepant events applied in science education", Asia-Pacific Forum on Science Learning and Teaching, 18(2), pp.1~11 (2017)
- Guler, G., "Determining the problem solving skills of primary school mathematics teachers", 2nd International Symposium on Sustainable Development (2010)
- Heppner, P. P., "The development and implications of a personal", Journal of Abnormal Psychology, 78(2), pp.197~226 (1982)
- Ho. K., "Using discrepant events with questioning and argumentation to target students’ science misconceptions", International Science Education Conference (2009)
- Hoxha, G., "Examination of the problem solving skills of university students in albania turkey in terms of various variables", Participatory Educational Research, 2(2), pp.1~27 (2015)
- 장원형, "교과서 속 탐구 활동 분석을 통한 불일치 상황의 해석 - 끓는점 측정 실험에 대한 논의를 중심으로 -", 현장과학교육, 15(5), pp.437~451 (2021), 한국현장과학교육학회[DOI]
- Jo, S., "Analyses of elementary sciencegifted students’ epistemological beliefs about science through use of anomalous situations", Journal of the Korean Association for Science Education, 11(1), pp.67~76 (2013)
- 김동렬, "Driver의 개념변화 학습 모형을 적용한 수업이 고등학생들의 식물의 광합성과 호흡의 오개념 교정에 미치는 효과", 한국과학교육학회지, 29(6), pp.712~729 (2009), 한국과학교육학회
- Kusmaryono, I., "The effect of constructivist learning using scientific approach on mathematical power and conceptual understanding of students grade IV", Journal of Physics : Conference Series, 693, pp.1~10 (2016)
- 권치순, "2007년 개정 교육과정에 따라 편찬된 초등학교 과학 교사용지도서에 대한 초등교사의 인식과 활용 실태", 한국초등교육, 21(2), pp.247~260 (2010), 초등교육연구원[DOI]
- 이동영, "융합적 문제해결력 검사 도구", 한국지구과학회지, 41(6), pp.670~683 (2020), 한국지구과학회[DOI]
- 이경윤, "사회과 디지털교과서 활용 수업에서 사회적 구성주의 접근의 효과", 시민교육연구, 47(4), pp.171~216 (2015), 한국사회과교육학회[DOI]
- 이수기, "STEAM(융합인재교육)활동이 유아의 과학과정기술과 문제해결력에 미치는 영향", 한국콘텐츠학회 논문지, 16(5), pp.746~759 (2016), 한국콘텐츠학회[DOI]
- Mason, D., "Discrepant event : The great bowling ball float-off", Journal of Chemical Education, 81(9), pp.1309~1312 (2004)
- Misiti, F. L., Jr., "The pressure’s on", pp.34~38 (2000), Science Scope
- Newton, P., "The place of argumentation in the pedagogy of school science", International Journal of Science Education, 21(5), pp.553~576 (1999)
- Brain-powered science: Teaching and learning with discrepant events, "O’Brien, T.", National Science Teachers Association, 1~41 (2010)
- Park, J., "Modeling analysis of students’ processes of generating scientific explanatory hypotheses", International Journal of Science Education, 28(5), pp.469~489 (2006)
- Peacock, A., "Science Skills, A Problem-Solving Activities Book" (2005), The Taylor & Francis e-Library
- Posner, G. J., "Accommodation of a scientific conception : Toward a theory of conceptual change", Science Education, 66(2), pp.211~227 (1982)
- Sahin, N., "Psychometric properties of the problem solving inventory in a group of Turkish university students", Cognitive Therapy Research, 17(4), pp.379~396 (1993)
- 심예지, "2009 개정 교육과정 초등 과학 지도서에 제시된 학습 목표 및 평가 문항 목표 분석과 과학 관련 태도 영역 문항 개발", 현장과학교육, 11(1), pp.67~76 (2017), 한국현장과학교육학회[DOI]
- Tsai, C, C., "Enhancing science instruction : The use of ‘conflict maps'", International Journal of Science Education, 22(3), pp.285~302 (2000)
- "What is a “discrepant event” in teaching?" (2008)[URL]
- Wright, E. L., "Stirring the biology teaching pot with discrepant events", The American Biology Teacher, 54(4), pp.205~210 (1992)
