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Rodriguez, Jon-Marc G.; Bain, Kinsey; Hux, Nicholas P.; Towns, Marcy H. – Chemistry Education Research and Practice, 2019
Problem solving is a critical feature of highly quantitative physical science topics, such as chemical kinetics. In order to solve a problem, students must cue into relevant features, ignore irrelevant features, and choose among potential problem-solving approaches. However, what is considered appropriate or productive for problem solving is…
Descriptors: Science Instruction, Problem Solving, Chemistry, Kinetics
Bain, Kinsey; Rodriguez, Jon-Marc G.; Towns, Marcy H. – Journal of Chemical Education, 2019
The themes discussed in this study relate to how students reason about the information encoded in rate constants, which is important for developing a deep understanding of chemical kinetics at the molecular level. This study is part of a larger project centered more generally on students' understanding and use of mathematics in chemical kinetics.…
Descriptors: Science Instruction, Teaching Methods, Molecular Structure, Scientific Concepts
Sztrajman, Jorge; Sztrajman, Alejandro – Physics Teacher, 2017
The aim of this paper is to propose a method for solving head-on elastic collisions, without algebraic complications, to emphasize the use of the fundamental conservations laws. Head-on elastic collisions are treated in many physics textbooks as examples of conservation of momentum and kinetic energy.
Descriptors: Kinetics, Motion, Physics, Teaching Methods
Popova, Maia; Bretz, Stacey Lowery – Journal of Chemical Education, 2018
The purpose of this study was to analyze organic chemistry students' annotations of reaction coordinate diagrams to better understand how they sought connections between reactions and reaction coordinate diagrams. Thirty-six students enrolled in Organic Chemistry II participated in semistructured, think-aloud interviews that asked students to…
Descriptors: Organic Chemistry, Undergraduate Students, Misconceptions, Problem Solving
Ng, Chiu-king – Physics Education, 2016
Instead of solving ordinary differential equations (ODEs), the damped simple harmonic motion (SHM) is surveyed qualitatively from basic mechanics and quantitatively by the instrumentality of a graph of velocity against displacement. In this way, the condition b ? [square root]4mk for the occurrence of the non-oscillating critical damping and…
Descriptors: Problem Solving, Calculus, Motion, Qualitative Research
Janssen, Paul; Janssens, Ewald – Physics Teacher, 2015
To familiarize first-year students with the important ingredients of a physics experiment, we offer them a project close to their daily life: measuring the effect of air resistance on a bicycle. Experiments are done with a bicycle freewheeling on a downhill slope. The data are compared with equations of motions corresponding to different models…
Descriptors: Physics, Science Experiments, College Freshmen, Motion
Kagan, Mikhail – Physics Teacher, 2013
As we typically teach in an introductory mechanics course, choosing a
"good" coordinate frame with convenient axes may present a major
simplification to a problem. Additionally, knowing some conserved quantities
provides an extremely powerful problem-solving tool. While the former idea
is typically discussed in the context of…
Descriptors: Science Instruction, Physics, Kinetics, Mechanics (Physics)
Gates, Joshua – Physics Teacher, 2014
Newton's second law is one of the cornerstones of the introductory physics curriculum, but it can still trouble a large number of students well after its introduction, hobbling their ability to apply the concept to problem solving and to related concepts, such as momentum, circular motion, and orbits. While there are several possibilities for…
Descriptors: Science Experiments, Scientific Principles, Scientific Concepts, Science Education
Martinez-Luaces, Victor – International Journal of Mathematical Education in Science and Technology, 2009
In engineering careers courses, differential equations are widely used to solve problems concerned with modelling. In particular, ordinary differential equations (O.D.E.) linear systems appear regularly in Chemical Engineering, Food Technology Engineering and Environmental Engineering courses, due to the usefulness in modelling chemical kinetics,…
Descriptors: Engineering Education, Kinetics, Equations (Mathematics), Teaching Methods
Jewett, John W., Jr. – Physics Teacher, 2008
Energy is a critical concept in physics problem-solving, but is often a major source of confusion for students if the presentation is not carefully crafted by the instructor or the textbook. A common approach to problems involving deformable or rotating systems that has been discussed in the literature is to employ the work-kinetic energy theorem…
Descriptors: Kinetics, Energy, Problem Solving, Motion
Peer reviewedMorrison, Howard L. – Physics Teacher, 1972
Descriptors: Force, Instructional Materials, Kinetics, Motion
Peer reviewedWinans, J. Gibson – Physics Teacher, 1971
Descriptors: College Science, Graphs, Instructional Materials, Kinetics
Peer reviewedStowe, Lawrence G. – Physics Teacher, 1995
Describes the graphing calculator as a new graphical approach to standard physics problems. Presents a collision problem to illustrate its use. (JRH)
Descriptors: Energy, Graphing Calculators, Kinetics, Motion
Peer reviewedAmyotte, Paul R. – Chemical Engineering Education, 1991
Various examples of open-ended problems and ways to obtain them are presented. Suggestions for incorporating open-ended problems and some of the benefits and difficulties encountered by teachers and students are discussed. Examples are from courses on mass and energy balances, communications, kinetics and ideal reactors, and reactor design. (KR)
Descriptors: Chemistry, College Science, Creative Thinking, Critical Thinking
Peer reviewedBrown, Ronald A. – Physics Teacher, 1992
Discusses solutions to the problem of maximizing the range of a projectile. Presents three references that solve the problem with and without the use of calculus. Offers a fourth solution suitable for introductory physics courses that relies more on trigonometry and the geometry of the problem. (MDH)
Descriptors: High Schools, Higher Education, Kinetics, Mathematical Formulas
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