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Raycroft, Mark A. R.; Flynn, Alison B. – Chemistry Education Research and Practice, 2020
Science is rapidly changing with vast amounts of new information and technologies available. However, traditional instructional formats do not adequately prepare a diverse population of learners who need to evaluate and use knowledge, not simply memorize facts. Moreover, curricular change has been glacially slow. One starting goal for curricular…
Descriptors: Organic Chemistry, Science Curriculum, Curriculum Evaluation, Outcomes of Education
Hester, Susan D.; Nadler, Michele; Katcher, Jennifer; Elfring, Lisa K.; Dykstra, Emily; Rezende, Lisa F.; Bolger, Molly S. – CBE - Life Sciences Education, 2018
Providing opportunities for science, technology, engineering, and mathematics undergraduates to engage in authentic scientific practices is likely to influence their view of science and may impact their decision to persist through graduation. Laboratory courses provide a natural place to introduce students to scientific practices, but existing…
Descriptors: STEM Education, Inquiry, Science Laboratories, College Science
Hare, Stephanie R.; Tantillo, Dean J. – Journal of Chemical Education, 2017
When new concepts, models, or theories are introduced in a course, their presentation should be accurate, even if depth is not the goal. In a recent publication in this Journal, the Woodward-Hoffmann rules were invoked in the context of a new laboratory experiment, but the associated description was inaccurate. Here we aim to clarify the…
Descriptors: Chemistry, Organic Chemistry, Laboratory Experiments, Science Instruction
Dauer, Joseph T.; Long, Tammy M. – Journal of Research in Science Teaching, 2015
One of the goals of college-level introductory biology is to establish a foundation of knowledge and skills that can be built upon throughout a biology curriculum. In a reformed introductory biology course, we used iterative model construction as a pedagogical tool to promote students' understanding about conceptual connections, particularly those…
Descriptors: College Science, Biology, Science Curriculum, Introductory Courses
Posthuma-Adams, Erica – Journal of Chemical Education, 2014
As advanced placement (AP) teachers strive to implement the changes outlined in the AP chemistry redesign, they will have the opportunity to reflect on and evaluate their current practices. For many AP teachers, the new focus on conceptual understanding, reasoning, inquiry, and critical thinking over memorization and algorithmic problem solving…
Descriptors: Chemistry, Science Instruction, Science Curriculum, Advanced Placement
Manthey, Seth; Brewe, Eric – CBE - Life Sciences Education, 2013
University Modeling Instruction (UMI) is an approach to curriculum and pedagogy that focuses instruction on engaging students in building, validating, and deploying scientific models. Modeling Instruction has been successfully implemented in both high school and university physics courses. Studies within the physics education research (PER)…
Descriptors: Physics, Self Efficacy, Curriculum Design, Biology
Grushow, Alexander – Journal of Chemical Education, 2011
A rationale for the removal of the hybrid atomic orbital from the chemistry curriculum is examined. Although the hybrid atomic orbital model does not accurately predict spectroscopic energies, many chemical educators continue to use and teach the model despite the confusion it can cause for students. Three arguments for retaining the model in the…
Descriptors: Chemistry, Science Instruction, Science Curriculum, Nuclear Energy
Withers, Michelle – CBE - Life Sciences Education, 2016
Finding the time for developing or locating new class materials is one of the biggest barriers for instructors reforming their teaching approaches. Even instructors who have taken part in training workshops may feel overwhelmed by the task of transforming passive lecture content to engaging learning activities. Learning cycles have been…
Descriptors: College Science, Educational Change, Instructional Innovation, Learning Processes
Eibensteiner, Janice L. – Community College Journal of Research and Practice, 2012
Successful science students have mastered their field of study by being able to apply their learned knowledge and problem solving skills on tests. Problem solving skills must be used to figure out the answer to many classes of questions. What this study is trying to determine is how students solve complex science problems in an academic setting in…
Descriptors: Problem Solving, Community Colleges, Higher Education, Two Year Colleges
Johnstone, A. H. – Journal of Chemical Education, 2010
Large curricular changes of the 1960s brought about by the ChemStudy and Chemical Bond Approach initiatives were generally successful, but they also created learning problems. These were well recognized by a series of surveys in 1971. Recent surveys (2008) show that the same chemical difficulties for learners are still present in most "modern"…
Descriptors: Chemistry, Science Instruction, Science Curriculum, Teaching Methods
Marquard, Robert D.; Steinback, Rebecca – American Biology Teacher, 2009
Major advances in fundamental science are developed using model systems. Classic examples of model systems include Mendel's work with the common garden pea ("Pisium sativa"), classic inheritance work by Morgan with the fruit fly ("Drosophila"), developmental studies with the nematode ("C. elegans"), and transposable elements in maize ("Zea…
Descriptors: Biology, Biochemistry, Science Curriculum, Plants (Botany)
McKagan, S. B.; Perkins, K. K.; Wieman, C. E. – Physical Review Special Topics - Physics Education Research, 2008
Some education researchers have claimed that we should not teach the Bohr model of the atom because it inhibits students' ability to learn the true quantum nature of electrons in atoms. Although the evidence for this claim is weak, many have accepted it. This claim has implications for how to present atoms in classes ranging from elementary school…
Descriptors: Teaching Methods, Science Instruction, Molecular Structure, Models
Houari, Ahmed – Physics Education, 2007
One of the most known phenomena in physics is the Hall effect. This is mainly due to its simplicity and to the wide range of its theoretical and practical applications. To complete the pedagogical utility of the Hall effect in physics teaching, I will apply it here to determine the Faraday constant as a fundamental physical number and the number…
Descriptors: Physics, Science Curriculum, College Science, Models
Peer reviewedFricker, H. S. – Physics Education, 1989
Explains why the isolated sphere models are physically unsound. Describes an improved model for attempting a qualitative explanation of charge concentration. (YP)
Descriptors: College Science, Electricity, Equations (Mathematics), Models
Peer reviewedJungck, John Richard – Journal of College Science Teaching, 1977
Presents a simple pedagogical model to teach the importance of antiparallel complementarity in nucleotide pairing when replication, transcription and coding are initially introduced. (HM)
Descriptors: Biology, College Science, Genetics, Higher Education

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