Publication Date
| In 2015 | 0 |
| Since 2014 | 28 |
| Since 2011 (last 5 years) | 78 |
| Since 2006 (last 10 years) | 129 |
| Since 1996 (last 20 years) | 134 |
Descriptor
| Introductory Courses | 136 |
| Physics | 122 |
| Science Instruction | 96 |
| College Science | 74 |
| Scientific Concepts | 49 |
| Teaching Methods | 47 |
| College Students | 42 |
| Problem Solving | 29 |
| Foreign Countries | 23 |
| Mechanics (Physics) | 21 |
| More ▼ | |
Author
| Finkelstein, Noah D. | 9 |
| Singh, Chandralekha | 8 |
| Rebello, N. Sanjay | 7 |
| Ding, Lin | 5 |
| Henderson, Charles | 5 |
| Brewe, Eric | 4 |
| Sawtelle, Vashti | 4 |
| Turpen, Chandra | 4 |
| Yerushalmi, Edit | 4 |
| Cohen, Elisheva | 3 |
| More ▼ | |
Publication Type
| Journal Articles | 136 |
| Reports - Research | 78 |
| Reports - Descriptive | 38 |
| Reports - Evaluative | 20 |
| Guides - Classroom - Teacher | 4 |
| Tests/Questionnaires | 3 |
Showing 1 to 15 of 136 results
Helseth, Lars Egil – Physics Education, 2014
I describe a simple and fascinating experiment wherein helium leaks out of a rubber balloon, thereby causing it to descend. An estimate of the volumetric leakage rate is made by measuring its rate of descent.
Descriptors: Science Instruction, Science Experiments, Scientific Principles, Physics
Gates, Joshua – Physics Education, 2014
Despite their physics instructors' arguments to the contrary, introductory students can observe situations in which there seems to be compelling evidence for magnetic force doing work. The counterarguments are often highly technical and require physics knowledge beyond the experience of novice students, however. A simple example is presented…
Descriptors: Magnets, Scientific Principles, Science Instruction, Physics
Planinsic, G.; Gregorcic, B.; Etkina, E. – Physics Education, 2014
This paper introduces the readers to simple inquiry-based activities (experiments with supporting questions) that one can do with a computer scanner to help students learn and apply the concepts of relative motion in 1 and 2D, vibrational motion and the Doppler effect. We also show how to use these activities to help students think like…
Descriptors: Science Instruction, Teaching Methods, Inquiry, Science Experiments
Baird, William H. – Physics Education, 2013
Some of the results from the electrostatics portion of introductory physics are particularly difficult for students to understand and/or believe. For students who have yet to take vector calculus, Gauss's law is far from obvious and may seem more difficult than Coulomb's. When these same students are told that the minimum potential…
Descriptors: Science Instruction, Educational Technology, Teaching Methods, Spreadsheets
Kincanon, Eric – Physics Education, 2013
An alternative method of presenting the second law of thermodynamics in introductory courses is presented. The emphasis is on statistical approaches as developed by Atkins. This has the benefit of stressing the statistical nature of the law.
Descriptors: Thermodynamics, Scientific Principles, Teaching Methods, Introductory Courses
Briggle, Justin – Physics Education, 2013
We describe the use of Apple's iPod touch/iPhone, acting as the pendulum bob, as a means of measuring pendulum period, making use of the device's three-axis digital accelerometer and the freely available SPARKvue app from PASCO scientific. The method can be readily incorporated into an introductory physics laboratory experiment.…
Descriptors: Motion, Mechanics (Physics), Science Instruction, Handheld Devices
Ben-Shalom, Amir; Gluck, Paul – Physics Education, 2013
By attaching LEDs and lasers to moving objects, and shining their light on photochromic surfaces below them, we can display traces of many motions of interest in introductory physics courses and science museums.
Descriptors: Science Instruction, Physics, Motion, Scientific Concepts
Abdul-Razzaq, Wathiq; Golubovic, Leonardo – Physics Education, 2013
We have developed an exciting non-traditional experiment for our introductory physics laboratories to help students to understand the principle of conservation of angular momentum. We used electric toy cars moving along a long rotating rod. As the cars move towards the centre of the rod, the angular velocity of this system increases.…
Descriptors: Physics, Laboratories, Motion, Laboratory Experiments
Joshi, Amitabh; Serna, Juan D. – Physics Education, 2012
Measuring the refractive index "n" of a substance or medium is part of every introductory physics course. Various approaches to determine this index have been developed over the years based on the different ways light reflects and transmits in the medium. In this paper, the authors would like to present a simple geometrical derivation of the…
Descriptors: Reflection, Optics, Physics, Science Education
Kohnle, Antje; Brown, C. Tom A.; Rae, Cameron F.; Sinclair, Bruce D. – Physics Education, 2012
This article describes problem-based labs and analytical and computational project work we have been running at the University of St Andrews in an introductory physics course since 2008/2009. We have found the choice of topics, scaffolding of the process, timing in the year and facilitator guidance decisive for the success of these activities.…
Descriptors: Physics, Science Education, Science Instruction, Introductory Courses
Aurora, Tarlok S.; Brunner, Bernard J. – Physics Education, 2011
In introductory physics, students learn that an object tossed upward has a constant downward acceleration while going up, at the highest point and while falling down. To demonstrate this concept, a self-propelled fan cart system is used on a frictionless track. A quick push is given to the fan cart and it is allowed to move away on a track under…
Descriptors: Physics, Motion, Science Instruction, Scientific Principles
Lattery, Mark – Physics Education, 2011
The Newtonian force concept is very difficult for introductory students to learn. One obstacle to learning is a premature focus on gravity-driven motions, such as vertical free fall, rolling motion on an inclined plane, and the Atwood's machine. In each case, the main agent of motion ("gravity") cannot be seen, heard, or controlled by the student.…
Descriptors: Video Technology, Physics, Motion, Misconceptions
Mohanty, Soumya D.; Cantu, Sergio – Physics Education, 2011
Commercial video games are increasingly using sophisticated physics simulations to create a more immersive experience for players. This also makes them a powerful tool for engaging students in learning physics. We provide some examples to show how commercial off-the-shelf games can be used to teach specific topics in introductory undergraduate…
Descriptors: Video Games, Physics, College Science, Undergraduate Study
Houari, Ahmed – Physics Education, 2010
Avogadro's number, usually denoted by N[subscript A], plays a fundamental role in both physics and chemistry. It defines the extremely useful concept of the mole, which is the base unit of the amount of matter in the international system of units. The fundamental character of this number can also be illustrated by its appearance in the definitions…
Descriptors: Physics, Chemistry, Science Instruction, Magnets
Abdul-Razzaq, W.; Biller, R. D. – Physics Education, 2010
Introductory physics laboratories have seen an influx of "conceptual integrated science" over time in their classrooms with elements of other sciences such as chemistry, biology, Earth science, and astronomy. We describe a laboratory to introduce this development, as it attracts attention to the voltage induced in the human brain as it is…
Descriptors: Science Activities, Physics, Geology, Science Laboratories

Peer reviewed
Direct link
