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Euler, Manfred – Physics Education, 2013
A hands-on model of scanning tunnelling microscopy (STM) is presented. It uses near-field imaging with sound and computer assisted visualization to create acoustic mappings of resonator arrangements. Due to the (partial) analogy of matter and sound waves the images closely resemble STM scans of atoms. Moreover, the method can be extended to build…
Descriptors: Science Instruction, Physics, Hands on Science, Laboratory Equipment
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Robertson, Bill – Science and Children, 2014
Compare the sounds produced by a symphony with those produced by a high school orchestra, the notes produced by hitting a tympani with those produced by hitting a trash can lid, and the sounds produced by Al Green with those produced by Yoko Ono. Even though the pitch of a note (determined by the "frequency" of the sound wave) is the…
Descriptors: Music, Music Education, Musical Instruments, Acoustics
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Vizcaino Arevalo, Diego Fabian; Castiblanco Abril, Olga Lucia – Physics Education, 2022
The Mayan city of Chichen Itza is full of legends and mysticism. There, in the temple of Kukulkan, in front of a great pyramid with 91 central staircases, an interesting physical-acoustic phenomenon occurs that has fed mythical stories attributed to the Mayas. When clapping your hands in front of the steps, the echo sounds very different from the…
Descriptors: Physics, Scientific Concepts, Acoustics, Foreign Countries
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Campbell, Dean J.; Peterson, Joshua P.; Fitzjarrald, Tamara J. – Journal of Chemical Education, 2013
These laboratory experiments are designed to familiarize students with concepts of spectroscopy by using sound waves. Topics covered in these experiments include the structure of nitinol alloys and polymer chain stiffness as a function of structure and temperature. Generally, substances that are stiffer or have higher symmetry at the molecular…
Descriptors: Spectroscopy, Acoustics, Familiarity, Laboratory Experiments
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Ashbrook, Peggy – Science and Children, 2014
Exploration of making and changing sounds is part of the first-grade performance expectation 1-PS4-1, "Plan and conduct investigations to provide evidence that vibrating materials can make sound and that sound can make materials vibrate" (NGSS Lead States 2013, p. 10; see Internet Resource). Early learning experiences build toward…
Descriptors: Acoustics, Discovery Processes, Motion, Learning Experience
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Zhong, Juhua; Cheng, Zhongqi; Guan, Wenchuan – Physics Education, 2011
A simple wind speed measurement device, a paper anemometer, is fabricated based on the theory of standing waves. In providing the working profile of the paper anemometer, an experimental device is established, which consists of an anemometer sensor, a sound sensor, a microphone, paper strips, a paper cup, and sonic acquisition software. It shows…
Descriptors: Meteorology, Acoustics, Science Instruction, Measurement Equipment
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Eshach, H.; Volfson, A. – Physics Education, 2015
In the present paper we suggest an original physical explanatory model that explains the mechanism of the sound amplification process in a stethoscope. We discuss the amplification of a single pulse, a continuous wave of certain frequency, and finally we address the resonant frequencies. It is our belief that this model may provide students with…
Descriptors: Acoustics, Physics, Models, Science Equipment
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Maries, Alexandru; Singh, Chandralekha – Physical Review Physics Education Research, 2018
Drawing appropriate diagrams is a useful problem solving heuristic that can transform a problem into a representation that is easier to exploit for solving it. One major focus while helping introductory physics students learn effective problem solving is to help them understand that drawing diagrams can facilitate problem solution. We conducted an…
Descriptors: Science Instruction, Physics, Introductory Courses, Comparative Analysis
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Francisco Barbosa Escobar; Qian Janice Wang – Cognitive Science, 2024
The interest in crossmodal correspondences, including those involving sounds and involving tastes, has experienced rapid growth in recent years. However, the mechanisms underlying these correspondences are not well understood. In the present study (N = 302), we used an associative learning paradigm, based on previous literature using simple sounds…
Descriptors: Foreign Countries, Learning Modalities, Adults, Acoustics
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Kraftmakher, Yaakov – Physics Teacher, 2010
Two experiments related to standing sound waves in air are adapted for using the ScienceWorkshop data-acquisition system with the DataStudio software from PASCO scientific. First, the standing waves are created by reflection from a plane reflector. The distribution of the sound pressure along the standing wave is measured. Second, the resonance…
Descriptors: Physics, Acoustics, Science Instruction, Science Experiments
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Gunning, Amanda M.; Marrero, Meghan E.; Buonamano, Christina; Somers, Vita – Science and Children, 2018
Waves and sound are rooted in children's everyday experiences. This topic naturally extends to other topics, such as instruments and music, which children find very interesting. As children often see science as separate from their daily lives, it is important to help them make real-life connections. The unit begins with children's observations,…
Descriptors: Science Instruction, Units of Study, Standards, Grade 1
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Merwade, Venkatesh; Eichinger, David; Harriger, Bradley; Doherty, Erin; Habben, Ryan – Science and Children, 2014
While the science of sound can be taught by explaining the concept of sound waves and vibrations, the authors of this article focused their efforts on creating a more engaging way to teach the science of sound--through engineering design. In this article they share the experience of teaching sound to third graders through an engineering challenge…
Descriptors: Science Instruction, Acoustics, Scientific Concepts, Grade 3
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Merricks, Jessica; Henderson, Jennifer – Science and Children, 2014
Sound is typically thought of something that is heard. Can it be seen or felt? Most students experience the noises that surround them in everyday life, but few stop to think about what sound is, how it travels, and the biological challenges associated with perceiving sound. Since students are already familiar with everyday sounds, inquiry-based…
Descriptors: Acoustics, Concept Teaching, Scientific Concepts, Grade 4
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Lipscombe, T. C.; Robinson, Ian M. – Physics Education, 2021
The most important question for anyone born in London is 'Are you a Cockney?' Only those born within the sound of Bow bells can truthfully answer the question with a resounding 'yes.' 'Cockney' is a term of pride in the heart of the East End, an area recently made internationally famous to a new audience due to the global success of the TV series…
Descriptors: Acoustics, Foreign Countries, Physics, Geographic Location
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Lee, C. K.; Wong, H. K. – Physics Education, 2011
An experiment to verify the Doppler effect of sound waves is described. An ultrasonic source is mounted at the end of a simple pendulum. As the pendulum swings, the rapid change of frequency can be recorded by a stationary receiver using a simple frequency-to-voltage converter. The experimental results are in close agreement with the Doppler…
Descriptors: Laboratory Equipment, Science Experiments, Science Instruction, Motion
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