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Showing 1 to 15 of 21 results Save | Export
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Hanson, Benjamin S.; Brown, Christa P.; Laurent, Harrison; Hughes, Matt D. G.; Dougan, Lorna – Physics Education, 2020
Hierarchical structure and mechanics are crucial in biological systems as they allow for smaller molecules, such as proteins and sugars, to be used in the construction of large scale biological structures exhibiting properties such as structural support functionality. By exploring the fundamental principles of structure and mechanics at the…
Descriptors: Mechanics (Physics), Biology, Science Instruction, Science Activities
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Childs, Nicholas B.; Horányi, Mihály; Collette, Andrew – Physics Teacher, 2013
We describe the principles of macroscopic charged particle detection in the laboratory and their connections to concepts taught in the physics classroom. Electrostatic dust accelerator systems, capable of launching charged dust grains at hypervelocities (1-100 km/s), are a critical tool for space exploration. Dust grains in space typically have…
Descriptors: Science Instruction, Physics, Science Laboratories, Molecular Structure
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Saucedo, Skyler R. – Physics Teacher, 2013
Gel electrophoresis, used by geneticists and forensic experts alike, is an immensely popular technique that utilizes an electric field to separate molecules and proteins by size and charge. At the microscopic level, a dye or complex protein like DNA is passed through agarose, a gelatinous three-dimensional matrix of pores and nano-sized tunnels.…
Descriptors: Physics, Secondary School Science, Science Instruction, High Schools
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Micklavzina, Stanley; Almqvist, Monica; Sörensen, Stacey L. – Physics Education, 2014
Stanley Micklavzina, a US physics educator on sabbatical, teams up with a Swedish national research laboratory, a synchrotron radiation experimental group and a university science centre to develop and create educational and public outreach projects. Descriptions of the physics, science centre displays and public demonstrations covering the…
Descriptors: Physics, Science Laboratories, Radiation, Molecular Structure
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Jeanmairet, Guillaume; Levy, Nicolas; Levesque, Maximilien; Borgis, Daniel – Journal of Chemical Education, 2014
We propose an in silico experiment to introduce the classical density functional theory (cDFT). Density functional theories, whether quantum or classical, rely on abstract concepts that are nonintuitive; however, they are at the heart of powerful tools and active fields of research in both physics and chemistry. They led to the 1998 Nobel Prize in…
Descriptors: Computation, Introductory Courses, Scientific Concepts, Scientific Principles
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Cheng, Meng-Fei; Cheng, Yufang; Hung, Shuo-Hsien – Teaching Science, 2014
Based on our experience of teaching physics in middle and senior secondary school, we have found that students have difficulty in reasoning at the microscopic level. Their reasoning is limited to the observational level so they have problems in developing scientific models of magnetism. Here, we suggest several practical activities and the use of…
Descriptors: Thinking Skills, Magnets, Science Education, Computer Simulation
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Baseden, Kyle A.; Tye, Jesse W. – Journal of Chemical Education, 2014
Density functional theory (DFT) is a type of electronic structure calculation that has rapidly gained popularity. In this article, we provide a step-by-step demonstration of a DFT calculation by hand on the helium atom using Slater's X-Alpha exchange functional on a single Gaussian-type orbital to represent the atomic wave function. This DFT…
Descriptors: Demonstrations (Educational), Computation, Science Activities, Scientific Concepts
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Jones, Kate L.; Nazarewicz, Witold – Physics Teacher, 2010
The physics of nuclei is not a democratic field. It has to be said, some nuclei are just more interesting than others. And some are more useful than others, either to explain the origins of the elements, or the nature of matter itself, or for uses in medicine and other applied fields. The trick is to work out which nuclei are going to be the most…
Descriptors: Molecular Structure, Scientists, Physics, Nuclear Physics
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Lunk, Brandon; Beichner, Robert – Physics Teacher, 2011
A compass is an excellent classroom tool for the exploration of magnetic fields. Any student can tell you that a compass is used to determine which direction is north, but when paired with some basic trigonometry, the compass can be used to actually measure the strength of the magnetic field due to a nearby magnet or current-carrying wire. In this…
Descriptors: Physics, Calculus, Prediction, Science Instruction
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Heilig, Steven J. – Physics Teacher, 2010
Several years ago a student asked why so many things in the solar system were round. He noted that many objects in the solar system, although not all, are round. The standard answer, which he knew, is that the mutual gravitational attraction of the molecules pulls them into the shape that gets them as close to each other as possible: a sphere.…
Descriptors: Astronomy, Science Instruction, Physics, Scientific Concepts
Holubova, Renata – Online Submission, 2013
The question "how to improve the interest of students to study physics" has been discussed in the author's previous papers too. Within the framework of the project, the author prepared various new interdisciplinary projects to demonstrate how inventions in physics are used in everyday life. Now, about one year later, the author found out…
Descriptors: Foreign Countries, Physics, Interdisciplinary Approach, Relevance (Education)
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Goldader, Jeffrey D.; Choi, Seulah – Physics Teacher, 2010
Finding ways to demonstrate--in a high school classroom--that subatomic particles from space produce other particles capable of reaching the Earth's surface is not a trivial task. In this paper, we describe a Geiger-Muller tube-based cosmic ray coincidence detector we produced at a total cost of less than $200, using two tubes purchased used…
Descriptors: Science Instruction, Physics, Secondary School Science, High Schools
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Chasteen, Stephanie V.; Chasteen, N. Dennis; Doherty, Paul – Physics Teacher, 2008
Fruit batteries and saltwater batteries are excellent ways to explore simple circuits in the classroom. These are examples of air batteries in which metal reacts with oxygen in the air in order to generate free electrons, which flow through an external circuit and do work. Students are typically told that the salt or fruit water acts as an…
Descriptors: Chemistry, Science Teachers, Physics, Scientific Principles
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Petridou, E.; Psillos, D.; Hatzikraniotis, E.; Viiri, J. – Physics Education, 2009
As research shows that the knowledge and use of models and modelling by teachers is limited, particularly for predicting phenomena, we developed and applied a sequence of three representations of a simulated model focusing on polarization and specifically showing the behaviour of an atom, and forces exerted on a dipole and an insulator, when a…
Descriptors: Preservice Teachers, Science Activities, Science Instruction, Physics
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Lewalle, Alexandre – Physics Teacher, 2008
A pair of fine tweezers and a steady hand may well be enough to pick up a grain of sand, but what would you use to hold something hundreds of times smaller still, the size of only one micron? The answer is to use a device that is not mechanical in nature but that relies instead on the tiny forces that light exerts on small particles: "optical…
Descriptors: Thermodynamics, Optics, Laboratory Experiments, Science Instruction
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