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Mageswary Karpudewan; Noor Haslina Daman Huri – Journal of Chemical Education, 2023
Transforming the chemistry curriculum to an interdisciplinary perspective is essential for preparing students to meet interdisciplinary career demands and to brace themselves for the challenges of complex environmental and health issues. The study introduces four interdisciplinary electrochemistry STEM-lab activities as an alternative to the…
Descriptors: Interdisciplinary Approach, Science Instruction, Teaching Methods, Chemistry
Hamilton, Nicholas B.; Remington, Jacob M.; Schneebeli, Severin T.; Li, Jianing – Journal of Chemical Education, 2022
We reported a redesign of a physical chemistry laboratory course (CHEM 166) for our chemistry majors at the University of Vermont carried out during the COVID-19 pandemic. We started to teach this course after a curriculum reform, which split an upper-division undergraduate laboratory course into physical and analytical chemistry laboratories. To…
Descriptors: Outcome Based Education, Chemistry, Science Laboratories, Science Curriculum
Guron, Marta; Paul, Jared J.; Roeder, Margaret H. – Journal of Chemical Education, 2016
Although much of the scientific community concerns itself with ideas of a sustainable future, very little of this interest and motivation has reached the classroom experience of the average chemistry major, and therefore, it is imperative to expose students to these ideas early in their careers. The focus of most undergraduate chemistry curricula…
Descriptors: Chemistry, Science Instruction, Majors (Students), Sustainability
Kockmann, Norbert; Lutze, Philip; Gorak, Andrzej – Universal Journal of Educational Research, 2016
Chemical processing industry is progressively focusing their research activities and product placements in the areas of Grand Challenges (or Global Megatrends) such as mobility, energy, communication, or health care and food. Innovation in all these fields requires solving high complex problems, rapid product development as well as dealing with…
Descriptors: Foreign Countries, Engineering, Chemistry, Manufacturing Industry
Irby, Stefan M.; Phu, Andy L.; Borda, Emily J.; Haskell, Todd R.; Steed, Nicole; Meyer, Zachary – Chemistry Education Research and Practice, 2016
There is much agreement among chemical education researchers that expertise in chemistry depends in part on the ability to coordinate understanding of phenomena on three levels: macroscopic (observable), sub-microscopic (atoms, molecules, and ions) and symbolic (chemical equations, graphs, etc.). We hypothesize this "level-coordination…
Descriptors: Chemistry, Formative Evaluation, Graduate Students, College Students
Boyd-Kimball, Debra – Journal of Chemical Education, 2012
Adaptive tools and techniques for lecture instruction were developed for a blind student in a nonmajors college chemistry course. These adaptive instructional aids assisted the student in writing and balancing chemical reactions, calculating unit conversions and concentrations, drawing Lewis dot structures, understanding structural representations…
Descriptors: Chemistry, Nonmajors, Science Instruction, Blindness
Dkeidek, Iyad; Mamlok-Naaman, Rachel; Hofstein, Avi – International Journal of Science and Mathematics Education, 2011
In order to cope with complex issues in the science-technology-environment-society context, one must develop students' high-order learning skills, such as question-asking ability (QAA), critical thinking, evaluative thinking, decision-making, and problem-solving capabilities within science education. In this study, we are concerned with evaluating…
Descriptors: Jews, Social Structure, Chemistry, Science Laboratories
Talanquer, Vincente; Pollard, John – Chemistry Education Research and Practice, 2010
Despite multiple calls for reform, the curriculum for first-year college chemistry at many universities across the world is still mostly fact-based and encyclopedic, built upon a collection of isolated topics, oriented too much towards the perceived needs of chemistry majors, focused too much on abstract concepts and algorithmic problem solving,…
Descriptors: Majors (Students), Chemistry, Problem Solving, Educational Change
Rich, Jennifer; Miller, Daisy; DeTora, Lisa – Across the Disciplines, 2011
Writing plays an integral role in any disciplinary course setting. In the sciences, WAC and WID initiatives primarily focus on using writing to deepen student understanding of scientific concepts. Scholars, however, have paid less attention to how writing may facilitate an understanding of the link between concepts and their quantitative…
Descriptors: Personal Narratives, Cognitive Processes, Problem Solving, Writing Assignments
Padilla, Kira; Van Driel, Jan – Chemistry Education Research and Practice, 2011
The purpose of this paper is to capture the pedagogical content knowledge (PCK) of university professors about quantum chemistry. More specifically, we aimed to identify and analyze relationships between specific PCK components, using an adapted version of the model of PCK of Magnusson "et al.". A sample of university professors (n = 6)…
Descriptors: Chemistry, Pedagogical Content Knowledge, Knowledge Base for Teaching, College Faculty
Chee, Yam San; Tan, Kim Chwee Daniel – Electronic Journal of e-Learning, 2012
Traditional modes of chemistry education in schools focus on imparting chemistry knowledge to students via instruction. Consequently, students often acquire the mistaken understanding that scientific knowledge comprises a fixed body of "proven" facts. They fail to comprehend that the construction of scientific understanding is a human…
Descriptors: Foreign Countries, Educational Games, Computer Games, Computer Simulation
Bissey, Jack E. – J Chem Educ, 1969
Descriptors: Chemistry, Educational Games, Instruction, Problem Solving
Peer reviewedHanks, T. W.; Wright, Laura L. – Journal of Chemical Education, 2002
Introduces the Techniques in Chemistry I course taught in the Furman University Department of Chemistry which focuses on organic and inorganic chemistry. Uses a problem solving approach and active learning. (Contains 17 references.) (YDS)
Descriptors: Active Learning, Chemistry, Course Descriptions, Higher Education
Hwang, Bao-tyan – 1995
Most high school chemistry curricula contain a unit on gas volume and a unit on the particulate nature of matter. The existence and persistence of adolescent preconceptions about the material nature of gases is an important factor to be considered in the teaching of principles or theories related to gases. The purpose of the study reported in this…
Descriptors: Chemistry, Foreign Countries, High Schools, Misconceptions
Peer reviewedAnthony, Sharon; Mernitz, Heather; Spencer, Brock; Gutwill, Joshua; Kegley, Susan; Molinaro, Marco – Journal of Chemical Education, 1998
Describes the implementation of a modular approach and some of the active learning strategies it employs, plans for evaluating the effectiveness of this approach, and plans for disseminating it broadly within the undergraduate chemistry community. (DDR)
Descriptors: Active Learning, Chemistry, Concept Formation, Higher Education

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