Publication Date
| In 2026 | 0 |
| Since 2025 | 0 |
| Since 2022 (last 5 years) | 0 |
| Since 2017 (last 10 years) | 2 |
| Since 2007 (last 20 years) | 9 |
Descriptor
Source
| Science Education | 22 |
Author
Publication Type
| Journal Articles | 21 |
| Reports - Research | 20 |
| Reports - Descriptive | 1 |
| Speeches/Meeting Papers | 1 |
| Tests/Questionnaires | 1 |
Education Level
| High Schools | 3 |
| Elementary Education | 2 |
| Higher Education | 2 |
| Secondary Education | 2 |
| Early Childhood Education | 1 |
| Grade 10 | 1 |
| Grade 2 | 1 |
| Grade 3 | 1 |
| Grade 4 | 1 |
| Grade 7 | 1 |
| Grade 9 | 1 |
| More ▼ | |
Audience
| Practitioners | 3 |
| Researchers | 2 |
| Teachers | 2 |
Laws, Policies, & Programs
Assessments and Surveys
What Works Clearinghouse Rating
Borgerding, Lisa A.; Raven, Sara – Science Education, 2018
Many standards documents and learning progressions recommend evolution learning in elementary grades. Given young children's interest in dinosaurs and other fossils, fossil investigations can provide a rich entry into evolutionary biology for young learners. Educational psychology literature has addressed children's reasoning about foundational…
Descriptors: Science Instruction, Scientific Concepts, Summer Programs, Case Studies
Luce, Megan R.; Goldman, Shelley; Vea, Tanner – Science Education, 2017
Families play an important role in informal science learning, but they may need supports for engaging in science that is exploratory, inquiry based, and builds on family practices. We designed resources that frame scientific sensemaking as an active and playful process of exploration in which family members are coparticipants. This approach…
Descriptors: Family Role, Informal Education, Science Education, Outdoor Education
Tenenbaum, Harriet R.; To, Cheryl; Wormald, Daniel; Pegram, Emma – Science Education, 2015
Darwinian evolution is difficult to understand because of conceptual barriers stemming from intuitive ideas. This study examined understanding of evolution in 52 students (M = 14.48 years, SD = 0.89) before and after a guided field trip to a natural history museum and in a comparison group of 18 students (M = 14.17 years, SD = 0.79) who did not…
Descriptors: Science Education, Scientific Concepts, Evolution, Genetics
Clark, Douglas B.; Menekse, Muhsin; Ozdemir, Gokhan; D'Angelo, Cynthis M.; Price Schleigh, Sharon – Science Education, 2014
Substantial variation has been observed across an international series of studies examining the consistency of students' explanations of force and the most common meanings of force apparent in those explanations. On the surface, the variations among studies might be attributed to differences at the national level, but the studies also demonstrate…
Descriptors: Foreign Countries, Physics, Scientific Concepts, Comparative Analysis
Ummels, Micha H. J.; Kamp, Marcel J. A.; De Kroon, Hans; Boersma, Kerst Th. – Science Education, 2015
In secondary science education, the learning and teaching of coherent conceptual understanding are often problematic. Context-based education has been proposed as a partial solution to this problem. This study aims to gain insight into the development of conceptual coherence and how context-embedded learning-teaching activities (LT) can promote…
Descriptors: Secondary School Science, Science Education, Scientific Concepts, Biology
Larsson, Asa; Hallden, Ola – Science Education, 2010
Conceptual change is often described as a causal process in which changes in an embraced system of beliefs result in a new system of beliefs. Here, it is argued that conceptual change is better understood as an intentional activity with regard to the learner, that is, what the learner is doing when trying to understand something. Children were…
Descriptors: Beliefs, Attitude Change, Context Effect, Children
Zangori, Laura; Forbes, Cory T. – Science Education, 2013
Effectively designed science learning environments revolve around students' sensemaking through the use of evidence to ground explanations about natural phenomena. However, little research has been conducted to investigate elementary teachers' learning to promote students' sensemaking in elementary (K-5) classrooms. The purpose of this…
Descriptors: Preservice Teachers, Elementary School Teachers, Case Studies, Evidence
Lee, Min-Hsien; Lin, Tzung-Jin; Tsai, Chin-Chung – Science Education, 2013
Classroom assessment is a critical aspect of teaching and learning. In this paper, Taiwanese high school students' conceptions of science assessment and the relationship between their conceptions of science assessment and of science learning were investigated. The study used both qualitative and quantitative methods. First, 60 students were…
Descriptors: Foreign Countries, Science Instruction, Student Evaluation, Concept Formation
Smothers, Sinikka M.; Goldston, M. Jenice – Science Education, 2010
This qualitative multiple case study explored the conceptual frameworks of two congenitally blind male adolescents on the nature of matter. We examined participants' responses on four tactile investigations focused on concepts and processes associated with matter changes. The matter changes investigated were dissolution, chemical change,…
Descriptors: Journal Writing, Investigations, Focus Groups, Adolescents
Peer reviewedDemastes, Sherry S.; And Others – Science Education, 1995
Using conceptual change as theoretical lens, describes the structure of (n=4) learners' conceptual ecology within biological evolution and illustrates how this ecology influences the process of conceptual change. Prior conceptions relate to evolutionary theory, scientific and religious orientations, view of biological world, and acceptance of…
Descriptors: Biology, Cognitive Structures, Concept Formation, Evolution
Krnel, Dusan; Glazar, Sasa S.; Watson, Rod – Science Education, 2003
The development of the concept of matter was explored in children aged 3-13. Eighty four children were asked to classify four sets of objects and matter and to explain their classifications during interviews. Younger children tended to classify using a mixture of extensive properties (properties of objects) and intensive properties (properties of…
Descriptors: Scientific Concepts, Cognitive Development, Concept Formation, Science Instruction
Peer reviewedPosner, George J.; Gertzog, William A. – Science Education, 1982
Discusses the use of the clinical interview in assessing cognitive structure and in investigating conceptual change. They caution much more work is needed to increase the applicability and validity of the clinical interview method and point out that there is a lack of systematization in the analysis of interview transcripts. (Author/PB)
Descriptors: Cognitive Development, Cognitive Processes, Concept Formation, Evaluation Methods
Peer reviewedEbenezer, Jazlin V.; Erickson, Gaalen L. – Science Education, 1996
Conceptions of (n=13) grade-11 chemistry students via interviews were grouped into 6 categories related to students' preferred explanations for solubility phenomena. Argues that an understanding of the typical conceptions used by students should form an integral component of chemistry teaching, both as points of origin for lesson planning and for…
Descriptors: Chemistry, Concept Formation, Grade 11, High Schools
Peer reviewedPines, A. Leon; Novak, Joseph D. – Science Education, 1985
Propositions expressed by students during interviews prior to and after audiovisual instruction served as the basis for Concept Propositional Analysis (CPA) to assess cognitive structure. CPAs for two students are reported and aspects of Ausubelian principles are discussed. The method showed that new learning can be linked to previous…
Descriptors: Cognitive Structures, Concept Formation, Elementary Education, Elementary School Science
Peer reviewedErickson, Gaalen L. – Science Education, 1979
Describes the use of interviews with children ranging in age from 6 to 13 to identify patterns of children's beliefs in the area of heat and temperature. Also discusses how this knowledge might be used in an instructional setting. (HM)
Descriptors: Beliefs, Cognitive Development, Concept Formation, Educational Psychology
Previous Page | Next Page ยป
Pages: 1 | 2
Direct link
