Exploring American Indian Students’ Problem-Solving Propensity in the Context of Culturally Relevant STEM Topics
0
조회
0
다운로드
0
인용
0
참고문헌
키워드
초록
This study presents an out-of-school problem-solving lesson we designed for American Indian students using a culturally relevant STEM topic. The lesson was titled “Shelter Design for Severe Weather Conditions.” This shelter design lesson was developed based on an engineering design allowing us to integrate STEM topics within a traditional indigenous house-building context. This problem context was used to encourage students to apply their prior knowledge, experience, and community/cultural practice to solve problems. We implemented the lesson at a summer program on an American Indian reservation. Using the lesson, this study explores how American Indian students use cultural knowledge and experience to solve a STEM problem. We collected student data through pre- and post-STEM content knowledge tests, drawings and explanations of shelter models on the students’ group worksheets, and classroom observations. We used interpretive and inductive methods to analyze the data. This study demonstrates that our culturally relevant, STEM problem-solving lesson helped the American Indian students solve a complex, real-world problem. This study examines how students’ prior experiences and cultural knowledge affect their problem-solving strategies. Our findings have implications for further research on designing problem-solving lessons with culturally relevant STEM topics for students from historically marginalized populations.
Abstract
This study presents an out-of-school problem-solving lesson we designed for American Indian students using a culturally relevant STEM topic. The lesson was titled “Shelter Design for Severe Weather Conditions.” This shelter design lesson was developed based on an engineering design allowing us to integrate STEM topics within a traditional indigenous house-building context. This problem context was used to encourage students to apply their prior knowledge, experience, and community/cultural practice to solve problems. We implemented the lesson at a summer program on an American Indian reservation. Using the lesson, this study explores how American Indian students use cultural knowledge and experience to solve a STEM problem. We collected student data through pre- and post-STEM content knowledge tests, drawings and explanations of shelter models on the students’ group worksheets, and classroom observations. We used interpretive and inductive methods to analyze the data. This study demonstrates that our culturally relevant, STEM problem-solving lesson helped the American Indian students solve a complex, real-world problem. This study examines how students’ prior experiences and cultural knowledge affect their problem-solving strategies. Our findings have implications for further research on designing problem-solving lessons with culturally relevant STEM topics for students from historically marginalized populations.
참고문헌 (53)
- Amsel, E, "A dual-process account of the development of scientific reasoning : The nature and development of metacognitive intercession skills", Cognitive Development, 23(4), pp.452~471 (2008)
- Babco, E, "Trends in African American and Native American participation in STEM higher education" (2003), Commission on Professionals in Science and Technology
- Barba, R.H, "Science in the multicultural classroom : A guide to teaching and learning. Boston" (1995), Allyn & Bacon
- Basu, S. J, "Developing a sustained interest in science among urban minority youth", Journal of Research in Science Teaching, 44(3), pp.466~489 (2007)
- Bryan, L. A, "Teacher beliefs and cultural models : A challenge for science teacher preparation programs", Science Education, 86(6), pp.821~839 (2002)
- Carpenter, T. P, "Powerful practices in mathematics and science" (2004), National Center for Improving Student Learning and Achievement in Mathematics and Science
- Cleary, L.M, "Collected wisdom: American Indian education" (1998), Allyn & Bacon
- Corbiere, A. O. May, "Reconciling epistemological orientations: Toward a holistic Nishnaabe (Ojibwe", Odawa, Paper presented at the Annual Meeting of the Canadian Indigenous and Native Studies, pp.2000[DOI]
- Crisp, G, "Student characteristics, pre-college, college, and environmental factors as predictors of majoring in and earning a STEM degree : An analysis of students attending a Hispanic serving institution", American Educational Research Journal, 46(4), pp.924~942 (2009)
- Davies, C. M, "Teacher expectations and student self perceptions : Exploring relationships", Psychology in the Schools, 43(5), pp.537~552 (2006)
- Dean Jr, D, "Direct instruction vs. discovery : The long view", Science Education, 91(3), pp.384~397 (2007)
- Deyhle, D, "Research in American Indian and Alaska Native education : From assimilation to self-determination", Review of Research in Education, 22, pp.113~194 (1997)
- Dierking, L. D, "Linking after-school programs and STEM learning: A view from another window" (2007), Oregon Sea Grant
- English, L. D, "Introducing complex systems into the mathematics curriculum", Teaching Children Mathematics, 15(1), pp.38~47 (2008)
- Fadigan, K. A, "A longitudinal study of the educational and career trajectories of female participants of an urban informal science education program", Journal of Research in Science Teaching, 41(8), pp.835~860 (2004)
- Friedman, L. N, "Science by stealth : How after-school programs can nurture young scientists and boost the country’s scientific literacy", Education Week, 25(24), pp.45~49 (2006)
- Gay, G, "Preparing for culturally responsive teaching", Journal of Teacher Education, 53(2), pp.106~116 (2002)
- González, N, "Funds of knowledge:Theorizing practices in households, communities, and classrooms", pp.29~46 (2005), Lawrence Erlbaum Associates
- Greenbaum, P. E, "Nonverbal differences in communication style between American Indian and Anglo elementary classrooms", American Educational Research Journal, 22(1), pp.101~115 (1985)
- Gutstein, E, "Culturally relevant mathematics teaching in a Mexican American context", Journal for Research in Mathematics Education, 28(6), pp.709~737 (1997)
- Hillemeier, M. M, "Quality disparities in child care for at-risk children : Comparing Head Start and non Head Start settings", Maternal and Child Health, 17, pp.180~188 (2013)
- Johnson, C. C, "The road to culturally relevant science : Exploring how teachers navigate change in pedagogy", Journal of Research in Science Teaching, 48(2), pp.170~198 (2011)
- Jonassen, D. H, "Toward a design theory of problem solving", Educational Technology Research and Development, 48(4), pp.63~85 (2000)
- "Museums and libraries engaging America’s youth: Final report of a study of IMLS youth programs, 1998-2003" (2007)[URL]
- Larson, R. W, "Toward a psychology of positive youth development", American psychologist, 55(1), pp.170~183 (2000)
- Lave, J, "Situated learning : Legitimate peripheral participation" (1991), Cambridge University Press
- Lee, O, "Teacher change in beliefs and practices in science and literacy instruction with English Language Learners", Journal of Research in Science Teaching, 41(1), pp.65~93 (2004)
- Lesh, R, "Beyond constructivism: Models and modeling perspectives on mathematics problem solving, learning, and teaching", pp.3~33 (2003), Lawrence Erlbaum Associates
- Lesh, R, "Beyond constructivism: Models and modeling perspectives on mathematics problem solving, learning, and teaching", pp.383~403 (2003), Lawrence Erlbaum Associates
- 이상균, "스마트 기기 활용 설계 기반 STEAM 프로그램이 과학 흥미도와 융합인재소양에 미치는 효과", 대한지구과학교육학회지, 8(3), pp.240~250 (2015), 대한지구과학교육학회[DOI]
- 임강숙, "융합인재교육(STEAM)이 고등학생의 과학탐구능력에 미치는 효과", 대한지구과학교육학회지, 7(2), pp.180~191 (2014), 대한지구과학교육학회
- Matthews, L. E, "Babies overboard! The complexities of incorporating culturally relevant teaching into mathematics instruction", Educational Studies in Mathematics, 53(1), pp.61~82 (2003)
- Menchaca, V. D, "Providing a culturally relevant curriculum for Hispanic children", Multicultural Education, 8(3), pp.18~20 (2001)
- Miller, J. D, "Between understanding and trust. The public, science, and technology", pp.131~156 (2000), Harwood Academic
- Moore, T. J, "Modeling in engineering : The role of representational fluency in students’ conceptual understanding", Journal of Engineering Education, 102(1), pp.141~178 (2013)
- More, A, "Native American learning styles : A review for researchers and teachers", Journal of American Indian Education, 27(1), pp.17~29 (1987)
- Morgan, P. L, "Science achievement gaps begin very early, persist, and are largely explained by modifiable factors", Educational Researcher, 45(1), pp.18~35 (2016)
- National Academy of Sciences, National Academy of Engineering and Institute of Medicine, "Rising above the gathering storm: Energizing and employing America for a brighter economic future" (2006), National Academies Press
- National Council of Teachers of Mathematics (NCTM), "Principles and standards for school mathematics" (2000), NCTM
- National Research Council, "National science education standards" (1996), National Academy Press
- NGSS Lead States, "Next generation science standards" (2013), National Academy Press
- Patton, M. Q, "Qualitative research &evaluation method" (2002), Sage
- 박미선, "The Impact of Integrating Engineering into Science Learning on Student's Conceptual Understandings of the Concept of Heat Transfer", 대한지구과학교육학회지, 4(2), pp.89~101 (2011), 대한지구과학교육학회
- Pewewardy, C, "Learning styles of American Indian", Alaska native students : A review of the literature and implications for practice, 2002, pp.41(3), 22~56
- Pewewardy, C, "Culturally responsive teaching for American Indian Students" (2003), ERIC Digest
- "Mathematics and science curricula in elementary and secondary education for American Indian and Alaska Native students" (1991)[URL]
- Ramani, G. B, "Promoting broad and stable improvements in low-income children’s numerical knowledge through playing number board games", Child Development, 79, pp.375~394 (2008)
- Rand Corporation, "Making out-of-school-time matter" (2005), Rand Corporation
- Problem based learning: An instructional model and its constructivist framework, "Savery, J", Indiana University, ~, pp.CRLT Technical Report No. 16-01 (2001)
- Snively, G, "Discovering indigenous science : Implications for science education", Science Education, 85, pp.6~34 (2001)
- Sodian, B, "Scientific reasoning Where are we now", Cognitive Development, 23(4), pp.431~434 (2008)
- Strand-Cary, M, "Developing elementary science skills : Instructional effectiveness and path independence", Cognitive Development, 23(4), pp.488~511 (2008)
