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DiLisi, Gregory A.; Chaney, Alison; McLean, Stella; Rarick, Richard – Physics Teacher, 2020
Over the past several years, we have contributed several articles to "TPT" that focused on a forensics-style reexamination of historical events. In each article, we presented a case study as a pedagogy for teaching topics from introductory-level physics courses. Recently, we assembled our prior work into a series of…
Descriptors: Teaching Methods, Introductory Courses, Physics, Science Instruction
Milbourne, Jeff; Bennett, Jonathan – Physics Teacher, 2017
Physics education research has a tradition of studying problem solving, exploring themes such as physical intuition and differences between expert and novice problem solvers. However, most of this work has focused on traditional, or well-structured, problems, similar to what might appear in a textbook. Less work has been done with open-ended, or…
Descriptors: Physics, Science Instruction, Problem Solving, Teaching Methods
Geske, Matthew – Physics Teacher, 2019
Many introductory physics courses begin with the teaching of motion and kinematics. This naturally leads to the use of constant acceleration equations to solve various problems involving common motions (free fall being a notable example). Students can sometimes get the impression that these equations are the only thing they need to remember in…
Descriptors: Physics, Science Instruction, Scientific Concepts, Introductory Courses
Frensley, John – Physics Teacher, 2019
Traditional high school physics instruction often comes across as a mere extension of the mathematics classroom to many of our students. Solving numerical physics problems using structures such as the GUESS method (given, unknown, equation, substitute, solve) doesn't help students with conceptual understanding. With the advent of physics education…
Descriptors: High School Students, Secondary School Science, Physics, Science Process Skills
Licini, Jerome C. – Physics Teacher, 2018
An important but challenging problem-solving technique in introductory mechanics is that of using "tilted axes." For inclined plane and centripetal motion problems, using axes that are aligned relative to the ramp direction or the radial direction (rather than the horizontal and vertical) yields equations that are conceptually more…
Descriptors: Problem Solving, Mechanics (Physics), Science Instruction, Motion
Frank, Brian W. – Physics Teacher, 2018
The goal of this paper is to illustrate different ways that cardsorting activities (or "card stacks") can be implemented in the introductory physics classroom, along with various tips and resources for getting started. My first attempt at developing a card stack came about from simply wanting to try out a fun way to change student…
Descriptors: Task Analysis, Problem Sets, Introductory Courses, Physics
Liao, David – Physics Teacher, 2018
Students often struggle in AP Physics 1 because they have not been previously trained to develop qualitative arguments. Extensive literature on multiple representations and qualitative reasoning provides strategies to address this challenge. Table I presents three examples, including SiQuENC, which I adapted from a strategy promoted by Etkina et…
Descriptors: Advanced Placement, Physics, Problem Solving, Science Process Skills
Flannery, William – Physics Teacher, 2019
This paper describes a high school or introductory university course in scientific programming that introduces the computer revolution into the physics curriculum at the beginning. In the first one-hour lecture, Euler's method is presented and used to compute a solution to the analytically unsolvable two-body problem. In the remainder of the…
Descriptors: Science Instruction, Physics, Secondary School Science, High Schools
Aragoneses, Andrés; Messer, Rebecca – Physics Teacher, 2020
Introductory physics courses can be a challenge for some college students, especially those that have not taken Advanced Placement (AP) physics courses in high school. Even some classical mechanics concepts, such as energy, power, or the laws of Newton, can be non-intuitive and hard to grasp. When it comes to evaluating the learning outcome of our…
Descriptors: Physics, Science Instruction, Teaching Methods, Video Technology
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
Morse, Robert A. – Physics Teacher, 2016
Students get a sense of realistic values for physical situations from texts, but more importantly from solving problems. Therefore, problems should use realistic values for quantities to provide needed practice. Unfortunately, some problems on tests and in textbooks do not use realistic values. Physical situations in electrostatics seem to be…
Descriptors: Problem Solving, Physics, Energy, Science Instruction
Sokolowski, Andrzej – Physics Teacher, 2019
Research identifies two domains by which mathematics allows learning physics concepts: a technical domain that includes algorithmic operations that lead to solving formulas for an unknown quantity and a structural domain that allows for applying mathematical knowledge for structuring physical phenomena. While the technical domain requires…
Descriptors: Physics, Science Instruction, Mathematics Skills, Scientific Concepts
Vilchis, Abraham – Physics Teacher, 2017
Generally speaking, students have difficulty reporting out measurements and estimates of quantities used in the laboratory, and with handling the significant figures associated with them. When required to make calculation involving quantities with different numbers of significant figures, they have difficulty in assigning the corresponding digits…
Descriptors: Standard Setting, Science Process Skills, Measurement Techniques, Statistical Studies
Jones, M. P.; Cook, Courtney J. – Physics Teacher, 2017
The United States is one of only three countries in the world that remain uncommitted to the metric system. Perhaps to policymakers the decision to hang on to miles, pounds, and gallons is one of tradition. However, as a physics teacher I have seen firsthand how growing up with U.S. Customary Units (commonly called by the pseudonym "British…
Descriptors: STEM Education, Metric System, Barriers, Science Process Skills
Kortemeyer, Gerd – Physics Teacher, 2016
I think most physics teachers would agree that two important components of a proper solution to a numerical physics problem are to first figure out a final symbolic solution and to only plug in numbers in the end. However, in spite of our best efforts, this is not what the majority of students is actually doing. Instead, they tend to plug numbers…
Descriptors: Physics, Problem Solving, Learning Strategies, Educational Practices

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