NotesFAQContact Us
Collection
Advanced
Search Tips
Laws, Policies, & Programs
No Child Left Behind Act 20011
Showing 391 to 405 of 615 results Save | Export
Peer reviewed Peer reviewed
Stahl, Frieda – Physics Teacher, 1994
Provides a method to help students understand problem-solving techniques used in introductory physics courses. (MVL)
Descriptors: Higher Education, Misconceptions, Nonmajors, Physics
Peer reviewed Peer reviewed
Meyer, Edwin F., III – Physics Teacher, 1995
Notes that when using the screw as a simple machine, the pitch of the screw is important in the amount of force that will be produced. (MVL)
Descriptors: Force, Hand Tools, Misconceptions, Physics
Jickling, Bob – Clearing, 1991
Some misconceptions about the roles of action and problem solving in environmental education are examined. It is argued that the use of the term problem solving exaggerates the abilities of environmental educators and students. The implications of establishing problem solving as a goal of environmental education are discussed. (KR)
Descriptors: Environmental Education, Environmental Influences, Misconceptions, Problem Solving
Peer reviewed Peer reviewed
BouJaoude, Saouma; Barakat, Hala – School Science Review, 2000
Identifies the misunderstandings and problem-solving strategies of secondary students when solving stoichiometry problems. (Author/CCM)
Descriptors: Chemistry, Misconceptions, Problem Solving, Science Education
Peer reviewed Peer reviewed
Buschman, Larry E. – Teaching Children Mathematics, 2005
The situations created by individual style of problem solving in mathematics by children are discussed. Children can solve their mathematical problem by correcting their misconceptions on their own with the use of open discussions with others.
Descriptors: Misconceptions, Problem Solving, Mathematics Achievement, Mathematics Education
Peer reviewed Peer reviewed
Direct linkDirect link
Taber, Susan B.; Canonica, Michele – Teaching Children Mathematics, 2008
Learning mathematics has traditionally been thought of as a sequential progression. Children learn to count to 10, then to 20, and then to 100. They learn to add without regrouping and then with regrouping. The authors teach addition before multiplication and the two-times table before the six-times table. They usually teach division as a separate…
Descriptors: Learning Activities, Textbooks, Symbols (Mathematics), Problem Solving
Peer reviewed Peer reviewed
Direct linkDirect link
Tariq, V. N. – International Journal of Mathematical Education in Science and Technology, 2008
This study extends the debate concerning the mathematical skills deficit of bioscience undergraduates towards a deeper understanding of their mathematics learning, since only through the latter can appropriate and effective explicit teaching be implemented. Three hundred and twenty-six first-year bioscience undergraduates, from three pre- and four…
Descriptors: Mathematics Education, Test Items, Mathematics Tests, Scoring
Peer reviewed Peer reviewed
Direct linkDirect link
Lee, Yeung Chung – Physics Education, 2007
Physics is perceived by many students to be a difficult subject, and misconceptions about it are quite common not only among school students but also among undergraduates and pre-service postgraduate science teachers. In teaching the topic of gas pressure to primary student teachers studying in the Bachelor of Education programme at my institute,…
Descriptors: Constructivism (Learning), Student Teachers, Physics, Demonstrations (Educational)
Peer reviewed Peer reviewed
Campbell, Patricia F. – Teaching Children Mathematics, 1997
When permitted, children frequently devise approaches to solving problems that are distinct from those typically used by adults. Presents examples of children's thinking from Project IMPACT which illustrate the crucial interplay between a teacher's instructional decisions and children's thinking while confronting mathematical misconceptions.…
Descriptors: Action Research, Elementary Education, Mathematics Instruction, Misconceptions
Peer reviewed Peer reviewed
Antonietti, Alessandro – Educational Leadership, 1997
Debunks five misconceptions about improving creative thinking. To encourage students to think creatively, instructional techniques should reflect an integrated set of mental skills, use materials mimicking real-life situations, consider students' beliefs and tendencies toward creative thinking, show metacognitive sensibility, and foster a creative…
Descriptors: Active Learning, Creativity, Elementary Education, Learning Activities
Peer reviewed Peer reviewed
Hampson, Brad – Research in Science Education, 2000
Focuses on teachers' research in their own classrooms and how teachers make sense of what they see and hear during open-ended technology construction projects. Traces aspects of learning trajectory as a teacher researcher in a year 6 classroom and aspects of improved classroom outcomes. (Contains 41 references.) (Author/YDS)
Descriptors: Elementary Education, Energy, Force, Misconceptions
Peer reviewed Peer reviewed
Wakeley, Dawn M.; de Grys, Hans – Journal of Chemical Education, 2000
Explains the concept of mole and presents a teaching approach in which students can experiment with atoms and develop an understanding of mass ratios. Presents 10 examples of chemistry problems involving moles and unit conversations. (YDS)
Descriptors: Chemistry, Concept Formation, High Schools, Misconceptions
Zuckerman, June T. – 1991
Expert/novice studies of conceptually rich problem solving have demonstrated a relationship between the correctness of a solution and the extent and organization of the solver's conceptual knowledge. This study examines meaningful problem solving and the relationship between the correctness of a solution and the extent of the solver's scientific…
Descriptors: Biology, Educational Research, Graphs, High Schools
Peer reviewed Peer reviewed
Eggleton, Patrick J.; Moldavan, Carla C. – Mathematics Teaching in the Middle School, 2001
Focuses on the importance of building from mistakes in mathematics instruction to develop better reasoning and problem-solving abilities. (Contains 11 references.) (YDS)
Descriptors: Academic Achievement, Mathematics Activities, Mathematics Instruction, Middle Schools
Peer reviewed Peer reviewed
PDF on ERIC Download full text
Hamilton, Eric; Lesh, Richard; Lester, Frank; Brilleslyper, Michael – Advances in Engineering Education, 2008
This article introduces Model-Eliciting Activities (MEAs) as a form of case study team problem-solving. MEA design focuses on eliciting from students conceptual models that they iteratively revise in problem-solving. Though developed by mathematics education researchers to study the evolution of mathematical problem-solving expertise in middle…
Descriptors: Engineering Education, Mathematics Education, Educational Research, Models
Pages: 1  |  ...  |  23  |  24  |  25  |  26  |  27  |  28  |  29  |  30  |  31  |  ...  |  41