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Kok-Sing Tang; Grant Cooper – Science & Education, 2025
The introduction of generative artificial intelligence (GenAI) tools like ChatGPT has raised many challenging questions about the nature of teaching, learning, and assessment in every subject area, including science. Unlike other disciplines, natural science is unique because the ontological and epistemological understanding of nature is…
Descriptors: Science Education, Artificial Intelligence, Physical Environment, Realism
Chase, Catherine C.; Malkiewich, Laura; Kumar, Aakash S. – Science Education, 2019
A persistent problem in engineering-focused science instruction is the "design--science gap," whereby learners focus on building successful engineering products, instead of focusing on the relevant scientific principles. This research explores (a) whether integrating contrasting cases into engineering activities can impact how deeply…
Descriptors: Science Instruction, Scientific Concepts, Scientific Principles, Instructional Design
Hardman, Mark – School Science Review, 2017
Doing science involves the development and evaluation of models. These models are not objective truths but can be understood as explanations, which scientists use to explore and reason about an aspect of the world. Learning science involves students expressing and engaging with models in the classroom. However, this learning should not be seen as…
Descriptors: Models, Science Education, Learning Strategies, Learning Processes
Lambert-Torres, Germano; de Moraes, Carlos Henrique Valerio; Coutinho, Maurilio Pereira; Martins, Helga Gonzaga; Borges da Silva, Luiz Eduardo – European Journal of Engineering Education, 2017
This paper describes a non-classical logic course primarily indicated for graduate students in electrical engineering and energy engineering. The content of this course is based on the vision that it is not enough for a student to indefinitely accumulate knowledge; it is necessary to explore all the occasions to update, deepen, and enrich that…
Descriptors: Engineering Education, Energy, Energy Education, Power Technology
Loverude, Michael – Physical Review Special Topics - Physics Education Research, 2015
As part of an ongoing project to examine student learning in upper-division courses in thermal and statistical physics, we have examined student reasoning about entropy and the second law of thermodynamics. We have examined reasoning in terms of heat transfer, entropy maximization, and statistical treatments of multiplicity and probability. In…
Descriptors: Science Instruction, Scientific Concepts, Physics, Thermodynamics
Liu, Huaping; Xiao, Wei; Zhao, Hongyan; Sun, Fuchun – IEEE Transactions on Education, 2014
System stability is a basic concept in courses on dynamic system analysis and control for undergraduate students with computer science backgrounds. Typically, this was taught using a simple simulation example of an inverted pendulum. Unfortunately, many difficult issues arise in the learning and understanding of the concepts of stability,…
Descriptors: Computer Science Education, Undergraduate Students, Systems Analysis, Simulation
Nokes-Malach, Timothy J.; VanLehn, Kurt; Belenky, Daniel M.; Lichtenstein, Max; Cox, Gregory – European Journal of Psychology of Education, 2013
Research on expertise suggests that a critical aspect of expert understanding is knowledge of the relations between domain principles and problem features. We investigated two instructional pathways hypothesized to facilitate students' learning of these relations when studying worked examples. The first path is through self-explaining how…
Descriptors: Expertise, Knowledge Level, Comparative Analysis, Physics
Svoboda, Julia; Passmore, Cynthia – Science & Education, 2013
Modeling, like inquiry more generally, is not a single method, but rather a complex suite of strategies. Philosophers of biology, citing the diverse aims, interests, and disciplinary cultures of biologists, argue that modeling is best understood in the context of its epistemic aims and cognitive payoffs. In the science education literature,…
Descriptors: Biology, Models, Science Education, Educational Strategies
Sickel, Aaron J.; Lee, Michele H.; Pareja, Enrique M. – Science and Children, 2010
How can a teacher simultaneously teach science concepts through inquiry while helping students learn about the nature of science? After pondering this question in their own teaching, the authors developed a 5E learning cycle lesson (Bybee et al. 2006) that concurrently embeds opportunities for fourth-grade students to (a) learn a science concept,…
Descriptors: Scientific Principles, Learning Processes, Science Instruction, Scientific Concepts
Taasoobshirazi, Gita; Glynn, Shawn M. – Journal of Research in Science Teaching, 2009
A model of expertise in chemistry problem solving was tested on undergraduate science majors enrolled in a chemistry course. The model was based on Anderson's "Adaptive Control of Thought-Rational" (ACT-R) theory. The model shows how conceptualization, self-efficacy, and strategy interact and contribute to the successful solution of quantitative,…
Descriptors: Majors (Students), Self Efficacy, Chemistry, Problem Solving

Lavoie, Derrick R. – Journal of Research in Science Teaching, 1999
Examines the effects of adding a prediction/discussion phase at the beginning of a three-phase learning cycle involving exploration, term introduction, and concept application. Finds that the instructional innovation produced significant gains relative to the use of process skills, logical thinking skills, science concepts, and scientific…
Descriptors: High Schools, Instructional Innovation, Learning Processes, Learning Strategies

Thompson, Cathy L. – School Science and Mathematics, 1989
Discusses the advantages of using discrepant events in elementary school science classrooms in terms of motivation and problem solving skills. Describes the materials, procedures, and reasons behind five discrepant activities. (YP)
Descriptors: Cognitive Development, Cognitive Structures, Elementary School Science, Laboratory Experiments
Wu, Hsin-Kai; Krajcik, Joseph S. – Journal of Research in Science Teaching, 2006
This case study characterizes the inscriptional practices demonstrated by seventh graders, particularly their use of data tables and graphs, in an inquiry-based learning environment. Using a naturalistic approach, we collected multiple sources of data during an 8-month instructional unit that emphasized water quality and relevant concepts. The…
Descriptors: Grade 7, Educational Environment, Water Quality, Graphs