Publication Date
| In 2026 | 0 |
| Since 2025 | 0 |
| Since 2022 (last 5 years) | 1 |
| Since 2017 (last 10 years) | 2 |
| Since 2007 (last 20 years) | 6 |
Descriptor
| Optics | 13 |
| Problem Solving | 13 |
| Science Instruction | 13 |
| Physics | 10 |
| Light | 7 |
| Scientific Concepts | 6 |
| Teaching Methods | 5 |
| Higher Education | 4 |
| Science Education | 4 |
| Secondary School Science | 4 |
| Educational Technology | 3 |
| More ▼ | |
Source
| Physics Teacher | 7 |
| Physics Education | 3 |
| European Journal of Physics | 1 |
| Journal of Science Education… | 1 |
| Science and Children | 1 |
Author
Publication Type
| Journal Articles | 13 |
| Reports - Descriptive | 6 |
| Guides - Classroom - Teacher | 4 |
| Reports - Research | 2 |
Education Level
| High Schools | 2 |
| Secondary Education | 2 |
| Grade 11 | 1 |
Audience
| Practitioners | 4 |
| Teachers | 4 |
Laws, Policies, & Programs
Assessments and Surveys
What Works Clearinghouse Rating
Grebenev, I. V.; Kazarin, P. V. – Physics Education, 2022
The article describes a methodology for studying Fresnel diffraction with the active involvement of students in discussing the results of a demonstration experiment. To create a clearly visible model of Fresnel zones, a centimeter radio wave range was chosen, in which the first zone is about 10 cm in size. This makes visible the created…
Descriptors: Physics, Science Instruction, Teaching Methods, Models
Chuasontia, Itsarapong; Sirirat, Tanita – Physics Education, 2021
This research aimed to design an instructional module to teach light diffraction by a grating to secondary students applying a science, technology, engineering, and mathematics (STEM)-integrated approach. Based on this approach, instructional management integrated the disciplines of physics and mathematics with engineering design process…
Descriptors: Science Instruction, Light, STEM Education, Grade 11
Mihas, Pavlos – Physics Education, 2012
Fermat's principle is considered as a unifying concept. It is usually presented erroneously as a "least time principle". In this paper we present some software that shows cases of maxima and minima and the application of Fermat's principle to the problem of focusing in lenses. (Contains 12 figures.)
Descriptors: Problem Solving, Computer Software, Scientific Principles, Science Instruction
Suppapittayaporn, Decha; Panijpan, Bhinyo; Emarat, Narumon – Physics Teacher, 2010
After learning how to trace the principal rays [Fig. 1(i)] through a thin lens in order to form the image in the conventional way, students sometimes ask whether it is possible to use other rays emanating from the object to form exactly the same image--for example, the two arbitrary rays shown in Fig. 1(ii). The answer is a definite yes, and this…
Descriptors: Light, Problem Solving, Scientific Concepts, Science Instruction
Vick, Matthew – Physics Teacher, 2010
From MP3 players to cell phones to computer games, we're surrounded by a constant stream of ones and zeros. Do we really need to know how this technology works? While nobody can understand everything, digital technology is increasingly making our lives a collection of "black boxes" that we can use but have no idea how they work. Pursuing…
Descriptors: High Schools, Music, Technology Integration, Optics
Mihas, Pavlos – European Journal of Physics, 2008
A historical discussion of the theories which deal with the formation of real images in mirrors and lenses is presented in this paper. Speculations on mirrors appeared as early as Plato. Euclid's, Hero's and Ptolemy's approaches to visual rays are described. The theory on burning mirrors starts with Diocles and later was continued by the Arabs. Al…
Descriptors: Optics, Physics, Theories, Scientific Concepts
Peer reviewedWhineray, Scott – Physics Teacher, 1995
Presents a problem involving the double-slit interference pattern that relates to the real-world situation of guiding an aircraft to a safe landing. (JRH)
Descriptors: Acoustics, Aviation Technology, Higher Education, Navigation
Peer reviewedGreenslade, Thomas B., Jr. – Physics Teacher, 1994
Discusses and provides an example of reflectivity approximation to determine whether reflection will occur. Provides a method to show thin-film interference on a projection screen. Also applies the reflectivity concepts to electromagnetic wave systems. (MVL)
Descriptors: Demonstrations (Science), Higher Education, Light, Misconceptions
Peer reviewedCiferno, Thomas M.; And Others – Physics Teacher, 1995
Describes the construction and use of an electrooptic apparatus that can be incorporated into the classroom to test liquid crystal displays (LCDs) and introduce students to experiments of an applied physics nature with very practical implications. Presents experiments that give students hands-on experience with technologies of current interest to…
Descriptors: Hands on Science, Optics, Physics, Problem Solving
Peer reviewedNassar, Antonio B. – Physics Teacher, 1994
Discusses a well-known optical refraction problem where the depth of an object in a liquid is determined. Proposes that many texts incorrectly solve the problem. Provides theory, equations, and diagrams. (MVL)
Descriptors: Higher Education, Light, Misconceptions, Optics
Peer reviewedBar, Varda; Terkel, Amelia – Science and Children, 1979
Activities used to teach optics to fifth and sixth graders are presented. Moon phases and solar and lunar eclipses are included. (SA)
Descriptors: Elementary Education, Elementary School Science, Instructional Materials, Light
Peer reviewedEylon, Bat-Sheva; And Others – Journal of Science Education and Technology, 1996
Explores the potential of the RAY learning environment in improving learning about optics. Results indicate that this environment, which includes a flexible ray-tracing simulation, had a significant effect on the spontaneous and correct use of the model by students in solving problems and a limited effect on conceptual understanding, but promoted…
Descriptors: Case Studies, Computer Uses in Education, Educational Technology, Foreign Countries
Peer reviewedZwicker, Earl, Ed. – Physics Teacher, 1983
Presents examples of physics activities using common objects such as a tuning fork, umbrella (for double diffraction patterns), and a toy car. Provides questions designed to stimulate student curiosity/interest and which provide models for developing additional units on everyday objects and toys. (JM)
Descriptors: College Science, Demonstrations (Educational), Group Instruction, High Schools

Direct link
