In this classroom guided inquiry lesson, students will rotate through five stations of various sound instruments to look at how length affects pitch. Student will develop a hypothesis, make observations, and draw a conclusion about what happens when the length of the vibrating sound source changes.

Open tube resonators of nearly identical length produce sound waves with frequencies very close together. The difference between the two frequenciesy is the beat note frequency heard when two resonators (musical intruments)are slightly out-of-tune.

This activity is a classroom experiment where students learn about sound. Students will use musical instruments to explore the relationship between length and pitch.

This activity is a classroom activity where students use the inquiry method to answer the question "How is sound made?" by observing different sound producers and coming up with their own conclusion.

This activity is an experiment on how sound is energy and travels in waves. Students will investigate sound using different objects in the room.

Students will investigate how sounds are made and changed, record their findings in their journal, share these findings with the class, and develop further questions about sound.

This is an activity demonstrating how pitch varies using water bottles, and allows students to investigate pitch further with rulers, straws, and water bottles.

This course is an introduction to Islam from the perspective of media and sound studies, intended for advanced undergraduates and graduate students. From the time of the Prophet Muhammad, Islam in its various manifestations has had a complex relationship with media. While much contemporary writing focuses on Islam in the media, this course explores how many aspects of Islamic practice and thinking might be understood as media technologies that facilitate the inscription, storage and transmission of knowledge. Central questions include: How do Islam and media technologies relate? What kinds of practices of inscription and transmission characterize Islam in all its varieties across time and place? How might Islamic thought and practice be understood in light of databases, networks, and audiovisual sensation? Given the rich diversity in Islam historically and geographically, emphasis will be placed on these interconnected but divergent practices from the earliest revelations of the Qur’an to contemporary Islamist political movements, with geographies spanning from Indonesia to the Middle East and North Africa, as well as in Europe and North America. In addition to exploring these themes through reading and writing, students will be encouraged to complete course assignments and projects in media, using audiovisual documentary or composition as a means of responding to the course themes.

Students use a microphone and Vernier LabQuest to record the sound of a finger-snap echo in a 1-2 meter cardboard tube. Students measure the time for the echo to return to the microphone, and measure the length of the tube. Using their measurements, students determine the speed of sound. While other authors have produced similar labs, this version includes uncertainty analysis consistent with effective measurement technique as presented in the module Measurement and Uncertainty.

Students experience a simulation of echolation, using the sensory method to walk along a path while blindfolded. This relates to the issue of bycatching by fisheries, which they learned about in the associated lesson. Bycatching affects marine animals, especially dolphins, which use echolocation to identify the location of objects in the water, but have difficulty identifying nets, and thus are often caught accidentally. Students learn how echolocation works, why certain animals use it to determine the size, shape and distance of objects, and how humans can potentially take advantage of dolphins' echolocation ability when developing bycatch avoidance methods.

This activity is an experiment where students learn about angles of reflection and use that knowledge to reflect a light beam around obstacles to a target across the classroom.

This course is about the study of speech sounds; how we produce and perceive them and their acoustic properties. Topics include the influence of the production and perception systems on phonological patterns and sound change, students learn acoustic analysis and experimental techniques. Students taking the graduate version complete different assignments.

This e-book is one of the results of the international project “The Magic of Sound” coordinated by XV. gimnazija, Zagreb, Croatia, with the partners: Devonport High School for Girls, Plymouth, United Kingdom, Justus-von-Liebig Gymnasium, Neußäs, Germany and Colegiul National Moise Nicoara, Arad, Romania. The project was funded by the European Union through the program Erasmus+.
Based on the existing curricula of all participating schools, we produced the teaching/ learning materials which could make education more interesting. As they are independent from the school system, they can be shared and further developed on a broad base.
The developed teaching/ learning materials and methods integrate the teaching of basic skills, as in science, mathematics, literacy and arts, and present strategies on how to simultaneously give students deeper insights into the global picture. They also provide students with the tools to interconnect their knowledge and apply it in different fields, which still presents one of the biggest challenges in education on the overall.
We chose sound as a topic because we found that it can be perfectly integrated in the subject curricula of Physics, Mathematics, Music, Languages, Biology, History and Psychology in all four countries. The sub-topics are organised in four groups around the main subjects - O1: Magic of Music, O2: Sounds in Nature, O3: Sounds of Europe, O4: Theory of Sound- which allowed us to establish a solid basis for the interdisciplinary teaching. In the final sub-topic, O5: The Magic of Sound, the techniques and examples on how to reorganise the materials in an arbitrary context are presented.
The materials are presented in a variety of forms: worksheets, methodological instructions, presentations, videos, quizzes, etc. There are examples of completely developed interdisciplinary units, but there are also shorter pieces that incorporate elements of general knowledge or other subject- specific links which enrich the teaching of a primary subject without overloading it. Some materials include evidence of students’ work.
Most of the materials are given in four languages of the participating countries, all of them in the English language. Topics to be incorporated in the teaching of languages are structured as follows: French is given separately, because it is not one of the four “official” languages, English given only in the sections in English, and German is given in all sections.
Some materials allow students to see the opportunities for future employment within the EU in the context of what has been taught, and to realize that being a part of Europe does not mean losing their identity, but enhance it in many positive ways. Together we are stronger.

After the unit on Electricity and Magnetism, students are given the opportunity to experience practical applications of the concept as they construct their own headphones and listen to music from their I-pods.

Learn about the fundamental connections between math and music, in four Acts: "Rhythm," "Frequency," "Harmony," and "Fractals." Concepts presented in the video documentary are reinforced by hands-on experiments using the Google Chrome Music Lab Experiments. Learn the instructional design process used in creation of The Majesty of Music and Math incorporating Universal Design for Learning and the methodology of assessing non-cognitive skills using a combination of gains in Experience Level, Depth of Knowledge, and Performance Quality.

Students apply sound-activated light-up EL wire to create personalized light-up clothing outfits. During the project, students become familiar with the components, code and logic to complete circuits and employ their imaginations to real-world applications of technology. Acting as if they are engineers, students are challenged to incorporate electroluminescent wire to regular clothing to make attention-getting safety clothing for joggers and cyclists. Luminescent EL wire stays cool, making it ideal to sew into wearable projects. They use the SparkFun sound detector and the EL sequencer circuit board to flash the EL wire to the rhythm of ambient sound, such as music, clapping, talking—or roadway traffic sounds! The combination of sensors, microcontrollers and EL wire enables a wide range of feedback and control options.

Students learn about sound waves and use them to measure distances between objects. They explore how engineers incorporate ultrasound waves into medical sonogram devices and ocean sonar equipment. Students learn about properties, sources and applications of three types of sound waves, known as the infra-, audible- and ultra-sound frequency ranges. They use ultrasound waves to measure distances and understand how ultrasonic sensors are engineered.

This module is centered on the driving question, “How can we as engineers design a concert experience for others to enjoy?” In order to answer this question, students will consider what a wave is, and how waves are modeled. They will explore sound and light waves, and how these waves interact with various media. The culminating performance task requires students to synthesize this information, and apply it to the design of a concert experience.

The materials below are shared via a google drive folder and can be viewed and downloaded for use.

Students learn the physical properties of sound, how it travels and how noise impacts human health—including the quality of student learning. They learn different techniques that engineers use in industry to monitor noise level exposure and then put their knowledge to work by using a smart phone noise meter app to measure the noise level at an area of interest, such as busy roadways near the school. They devise an experimental procedure to measure sound levels in their classroom, at the source of loud noise (such as a busy road or construction site), and in between. Teams collect data using smart phones/tablets, microphones and noise apps. They calculate wave properties, including frequency, wavelength and amplitude. A PowerPoint® presentation, three worksheets and a quiz are provided.

Students are introduced to various types of hearing impairments and the types of biomedical devices that engineers have designed to aid people with this physical disability.