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Chong, Zhiwei; Wu, Zhuoyi; Wei, Yajun – Physics Education, 2022
The motion equations of a body under gravity and resistance linearly dependent on speed are usually analysed by solving differential equations. In this paper we report a derivation not explicitly involving differential equations but instead based on some elementary mathematical operations. The derivation uses only knowledge covered in a typical…
Descriptors: Motion, Equations (Mathematics), Physics, Science Instruction
Adamopoulos, Anastasios; Adamopoulos, Nikolaos – International Journal of Mathematical Education in Science and Technology, 2022
The cases of constant and quadratic damping of free oscillations are missing from standard textbooks, even at college and university level. The case most examined is that of linear damping, the reason being that the student can work out a closed form which describes all stages of motion. The case of constant damping is straightforward to be…
Descriptors: Scientific Concepts, Mechanics (Physics), Problem Solving, Calculus
Iwuanyanwu, Paul Nnanyereugo – Journal of Education in Science, Environment and Health, 2019
The present study explores students' understanding of calculus-based kinematics (henceforth, CBK), in which argumentation is taken as the sequence of the modes of fostering reasoning and problem-solving. The investigation stresses the importance of arguments students bring to the learning situation of CBK and recognizes the active construction of…
Descriptors: Calculus, Mechanics (Physics), Motion, Problem Solving
Tisdell, Christopher C. – International Journal of Mathematical Education in Science and Technology, 2019
Recently, Gauthier introduced a method to construct solutions to the equations of motion associated with oscillating systems into the mathematics education research literature. In particular, Gauthier's approach involved certain manipulations of the differential equations; and drew on the theory of complex variables.Motivated by the work of…
Descriptors: Teaching Methods, Mathematics Instruction, Calculus, Motion
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
Prentice, A.; Fatuzzo, M.; Toepker, T. – Physics Teacher, 2015
By describing the motion of a charged particle in the well-known nonuniform field of a current-carrying long straight wire, a variety of teaching/learning opportunities are described: 1) Brief review of a standard problem; 2) Vector analysis; 3) Dimensionless variables; 4) Coupled differential equations; 5) Numerical solutions.
Descriptors: Magnets, Motion, Physics, Learning Activities
Rave, Matthew; Sayers, Marcus – Physics Teacher, 2013
The following kinematics problem was given to several students as a project in conjunction with a first-semester calculus-based physics course. The students were asked to keep a journal of all their work and were encouraged to keep even their scrap paper. The goal of the project was to expose the students to the process of doing theoretical…
Descriptors: Science Instruction, Physics, Introductory Courses, Calculus
Bryan, Kurt – PRIMUS, 2011
This article presents an application of standard undergraduate ODE techniques to a modern engineering problem, that of using a tuned mass damper to control the vibration of a skyscraper. This material can be used in any ODE course in which the students have been familiarized with basic spring-mass models, resonance, and linear systems of ODEs.…
Descriptors: Mathematical Models, Geometry, Undergraduate Study, Engineering
De Luca, R.; Ganci, S. – European Journal of Physics, 2011
We propose an analytic solution to the problem of the mechanical paradox consisting of a sphere rolling upwards on two diverging inclined guides as devised by Gardner. The presence of an unstable equilibrium point is highlighted and the analytic solution is found by means of elementary calculus concepts. (Contains 4 figures and 3 footnotes.)
Descriptors: Calculus, Science Instruction, Problem Solving, Motion
Cory, Beth – Mathematics Teacher, 2010
National Council of Teachers of Mathematics' (NCTM's) (2000) Connections Standard states that students should "recognize and use connections among mathematical ideas; understand how mathematical ideas interconnect ...; [and] recognize and apply mathematics in contexts outside of mathematics" (p. 354). This article presents an in-depth…
Descriptors: Graphs, Physics, Calculus, Mathematics Instruction
Llibre, J; Teixeira, M. A. – European Journal of Physics, 2010
In a recent paper (Denny 2002 Eur. J. Phys. 23 449-58), entitled "The pendulum clock: a venerable dynamical system", Denny showed that in a first approximation the steady-state motion of a weight-driven pendulum clock is shown to be a stable limit cycle. He placed the problem in a historical context and obtained an approximate solution using the…
Descriptors: Calculus, Motion, Physics, Scientific Principles
Mertens, Stephan; Mingramm, Sebastian – European Journal of Physics, 2008
The classical problem of the brachistochrone asks for the curve down which a body sliding from rest and accelerated by gravity will slip (without friction) from one point to another in least time. In undergraduate courses on classical mechanics, the solution of this problem is the primary example of the power of variational calculus. Here, we…
Descriptors: Calculus, Motion, Problem Solving, Mechanics (Physics)
Provost, J.-P.; Bracco, C. – European Journal of Physics, 2009
Proceeding like Newton with a discrete time approach of motion and a geometrical representation of velocity and acceleration, we obtain Kepler's laws without solving differential equations. The difficult part of Newton's work, when it calls for non-trivial properties of ellipses, is avoided by the introduction of polar coordinates. Then a simple…
Descriptors: Motion, Secondary School Teachers, Equations (Mathematics), Mathematics Instruction
Osler, T. J.; Chandrupatla, T. R. – International Journal of Mathematical Education in Science & Technology, 2006
The analysis of tautochrone problems involves the solution of integral equations. The paper shows how a reasonable assumption, based on experience with simple harmonic motion, allows one to greatly simplify such problems. Proposed solutions involve only mathematics available to students from first year calculus.
Descriptors: Motion, Calculus, Physics, Equations (Mathematics)
Farmaki, Vassiliki; Paschos, Theodorus – Educational Studies in Mathematics, 2007
The integration of history into educational practice can lead to the development of activities through the use of genetic "moments" in the history of mathematics. In the present paper, we utilize Oresme's genetic ideas--developed during the fourteenth century, including ideas on the velocity-time graphical representation as well as geometric…
Descriptors: Teaching Methods, Mathematical Models, Learning Activities, Geometric Concepts
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