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Sound Waves Collection

"Exploring the Artistry of Sound Waves: From Waveforms to Abstract Artwork" they have long captivated our imagination

Background imageSound Waves Collection: Waveforms, abstract artwork

Waveforms, abstract artwork
Waveforms. Abstract computer artwork of a surface with a wave rippling through it

Background imageSound Waves Collection: Sound waves, artwork

Sound waves, artwork
Sound waves. Computer artwork showing three different representations of the waveform produced by a sound wave

Background imageSound Waves Collection: Diagram of Bell's second telephone, 1879

Diagram of Bell's second telephone, 1879
3479294 Diagram of Bell's second telephone, 1879; (add.info.: Diagram of Bell's second telephone: Acoustic waves through N (diaphragm) and A (lever)

Background imageSound Waves Collection: Cartoon depicting an old lady using an ear trumpet

Cartoon depicting an old lady using an ear trumpet
5308861 Cartoon depicting an old lady using an ear trumpet; (add.info.: Cartoon depicting an old lady using an ear trumpet)

Background imageSound Waves Collection: Engraving depicting an ear trumpet, a tubular or funnel-shaped devices which collect sound waves

Engraving depicting an ear trumpet, a tubular or funnel-shaped devices which collect sound waves
5308862 Engraving depicting an ear trumpet, a tubular or funnel-shaped devices which collect sound waves and lead them into the ear, 19th century; (add.info.: Engraving depicting an ear trumpet)

Background imageSound Waves Collection: Jules Antoine Lissajou's original apparatus, 1873 (engraving)

Jules Antoine Lissajou's original apparatus, 1873 (engraving)
1574773 Jules Antoine Lissajou's original apparatus, 1873 (engraving); (add.info.: Jules Antoine Lissajou's original apparatus (1857-58) for studying optically the vibration of sound

Background imageSound Waves Collection: Edison's phonometer, 1890

Edison's phonometer, 1890
3479313 Edison's phonometer, 1890; (add.info.: Edison's phonometer which measured the mechanical force of sound waves produced by the human voice)

Background imageSound Waves Collection: Sound Travel, 1867

Sound Travel, 1867
1574784 Sound Travel, 1867; (add.info.: Experiment ot show that sound needs a medium in which to travel. When air in jar is in normal state the bell is audible)

Background imageSound Waves Collection: Jules Antoine Lissajou's original apparatus, 1880

Jules Antoine Lissajou's original apparatus, 1880
1574776 Jules Antoine Lissajou's original apparatus, 1880; (add.info.: Jules Antoine Lissajou's original apparatus (1857-58) for studying optically the vibration of sound

Background imageSound Waves Collection: Sound waves, 1878 (engraving)

Sound waves, 1878 (engraving)
1574775 Sound waves, 1878 (engraving); (add.info.: Sound waves: condensed waves formed by clapper hitting bell, rarified waves during silence between strikes)

Background imageSound Waves Collection: String Telephone, 1878

String Telephone, 1878
1574786 String Telephone, 1878; (add.info.: A string telephone. Engraving from ''Le Telephone'' by T. De Moncel, Paris, 1878.); Universal History Archive/UIG.

Background imageSound Waves Collection: It's In the Air, [193-]. Creator: Unknown

It's In the Air, [193-]. Creator: Unknown
It's In the Air, [193-]. The Federal Theatre Presents - It's In the Air - A Satire on Amateur Broadcasts - 15 Professionals - 14 Pc

Background imageSound Waves Collection: Poster advertising Sonora (colour litho)

Poster advertising Sonora (colour litho)
PER248096 Poster advertising Sonora (colour litho) by Orsi, Italo (1889-1947); Private Collection; (add.info.: Publicity for a manufacturer of radios; affiche pour la marque Sonora; Clear as a bell ;)

Background imageSound Waves Collection: Vibration of Sound, 1871

Vibration of Sound, 1871
1574789 Vibration of Sound, 1871 by Du Maurier, George (1834-96); (add.info.: Vibration of sound: Girl using a stethscope pressed against the wall to listen to curate making music in the house)

Background imageSound Waves Collection: Larynx anatomy, artwork

Larynx anatomy, artwork
Larynx anatomy. Artwork of the anatomy of the human larynx (voicebox) showing the production of vocal sounds (yellow arrows)

Background imageSound Waves Collection: Sound wave created by a percussion instrument, digital illustration

Sound wave created by a percussion instrument, digital illustration

Background imageSound Waves Collection: Concert hall, cross-section illustrating reflection and absorption of sound

Concert hall, cross-section illustrating reflection and absorption of sound

Background imageSound Waves Collection: Hadrosaurid duckbill dinosaurs use soundwaves to defend a Tyrannosaurus Rex

Hadrosaurid duckbill dinosaurs use soundwaves to defend a Tyrannosaurus Rex
Hadrosaurid duckbill dinosaurs use intense soundwaves to prevent a Tyrannosaurus Rex from attacking them

Background imageSound Waves Collection: Thin-film thermocouples C016 / 6482

Thin-film thermocouples C016 / 6482
Thin-film thermocouples. Thermocouples, used for temperature measurements, are based on the thermoelectric effect between two metals

Background imageSound Waves Collection: Ultrasound power tests C016 / 6464

Ultrasound power tests C016 / 6464
Ultrasound power tests. Researcher carrying out buoyancy tests to measure the power output of ultrasound devices. This method is a form of calorimetry and solid-state pyroelectrics

Background imageSound Waves Collection: Ultrasound thermal test object casing C016 / 6490

Ultrasound thermal test object casing C016 / 6490
Ultrasound thermal test object casing. Expanded view of the casing used in a device known as a thermal test object (TTO). This is used for testing temperature rises caused by ultrasound beams

Background imageSound Waves Collection: Ultrasound beam plotting tests C016 / 6455

Ultrasound beam plotting tests C016 / 6455
Ultrasound beam plotting tests. Researcher carrying out tests with ultrasound beam plotting equipment. This equipment is used to accurately measure and plot the output of medical ultrasound devices

Background imageSound Waves Collection: Ultrasound hydrophone calibration C016 / 6470

Ultrasound hydrophone calibration C016 / 6470
Ultrasound hydrophone calibration equipment. This equipment is used to calibrate hydrophones (underwater microphones) that are used to detect and measure ultrasound waves

Background imageSound Waves Collection: Ultrasound thermal test object casing C016 / 6491

Ultrasound thermal test object casing C016 / 6491
Ultrasound thermal test object casing. Expanded view of the casing used in a device known as a thermal test object (TTO). This is used for testing temperature rises caused by ultrasound beams

Background imageSound Waves Collection: Ultrasound power tests C016 / 6466

Ultrasound power tests C016 / 6466
Ultrasound power tests. Researcher carrying out buoyancy tests to measure the power output of ultrasound devices. This method is a form of calorimetry and solid-state pyroelectrics

Background imageSound Waves Collection: Ultrasound beam plotting tests C016 / 6456

Ultrasound beam plotting tests C016 / 6456
Ultrasound beam plotting tests. Researcher carrying out tests with ultrasound beam plotting equipment. This equipment is used to accurately measure and plot the output of medical ultrasound devices

Background imageSound Waves Collection: Ultrasound beam plotting equipment C016 / 6458

Ultrasound beam plotting equipment C016 / 6458
Ultrasound beam plotting equipment. This equipment is used to accurately measure and plot the output of medical ultrasound devices

Background imageSound Waves Collection: Thin-film thermocouple C016 / 6484

Thin-film thermocouple C016 / 6484
Thin-film thermocouple, close-up. Thermocouples, used for temperature measurements, are based on the thermoelectric effect between two metals

Background imageSound Waves Collection: Ultrasound beam plotting equipment C016 / 6450

Ultrasound beam plotting equipment C016 / 6450
Ultrasound beam plotting equipment. This equipment is used to accurately measure and plot the output of medical ultrasound devices

Background imageSound Waves Collection: Ultrasound (HIFU) transducers C016 / 6487

Ultrasound (HIFU) transducers C016 / 6487
Ultrasound (HIFU) transducers. High-intensity focused ultrasound (HIFU) transducers are used in medical research. They are capable of focusing ultrasound waves to very high intensities

Background imageSound Waves Collection: Primary standard radiation force balance C016 / 6477

Primary standard radiation force balance C016 / 6477
Primary standard radiation force balance. Radiation force balances are used to measure the output power generated by transducers, devices that convert one form of energy to another

Background imageSound Waves Collection: Thin-film thermocouple C016 / 6486

Thin-film thermocouple C016 / 6486
Thin-film thermocouple, close-up. Thermocouples, used for temperature measurements, are based on the thermoelectric effect between two metals

Background imageSound Waves Collection: Ultrasound beam plotting tests C016 / 6460

Ultrasound beam plotting tests C016 / 6460
Ultrasound beam plotting tests. Researcher carrying out tests with ultrasound beam plotting equipment. This equipment is used to accurately measure and plot the output of medical ultrasound devices

Background imageSound Waves Collection: Ultrasound hydrophone calibration C016 / 6474

Ultrasound hydrophone calibration C016 / 6474
Ultrasound hydrophone calibration equipment. This equipment is used to calibrate hydrophones (underwater microphones) that are used to detect and measure ultrasound waves

Background imageSound Waves Collection: Ultrasound power testing equipment C016 / 6468

Ultrasound power testing equipment C016 / 6468
Ultrasound power testing equipment. This equipment is used to carry out buoyancy tests to measure the power output of ultrasound devices

Background imageSound Waves Collection: Ultrasound power tests C016 / 6465

Ultrasound power tests C016 / 6465
Ultrasound power tests. Researcher carrying out buoyancy tests to measure the power output of ultrasound devices. This method is a form of calorimetry and solid-state pyroelectrics

Background imageSound Waves Collection: Ultrasound beam plotting equipment C016 / 6452

Ultrasound beam plotting equipment C016 / 6452
Ultrasound beam plotting equipment. This equipment is used to accurately measure and plot the output of medical ultrasound devices

Background imageSound Waves Collection: Thin-film thermocouple C016 / 6483

Thin-film thermocouple C016 / 6483
Thin-film thermocouple. Thermocouples, used for temperature measurements, are based on the thermoelectric effect between two metals

Background imageSound Waves Collection: Ultrasound (HIFU) transducers C016 / 6488

Ultrasound (HIFU) transducers C016 / 6488
Ultrasound (HIFU) transducers. High-intensity focused ultrasound (HIFU) transducers are used in medical research. They are capable of focusing ultrasound waves to very high intensities

Background imageSound Waves Collection: Thin-film thermocouple C016 / 6485

Thin-film thermocouple C016 / 6485
Thin-film thermocouple, close-up. Thermocouples, used for temperature measurements, are based on the thermoelectric effect between two metals

Background imageSound Waves Collection: Ultrasound beam plotting tests C016 / 6454

Ultrasound beam plotting tests C016 / 6454
Ultrasound beam plotting tests. Researcher carrying out tests with ultrasound beam plotting equipment. This equipment is used to accurately measure and plot the output of medical ultrasound devices

Background imageSound Waves Collection: Ultrasound power tests C016 / 6467

Ultrasound power tests C016 / 6467
Ultrasound power tests. Researcher carrying out buoyancy tests to measure the power output of ultrasound devices. This method is a form of calorimetry and solid-state pyroelectrics

Background imageSound Waves Collection: Ultrasound hydrophone calibration C016 / 6473

Ultrasound hydrophone calibration C016 / 6473
Ultrasound hydrophone calibration equipment. This equipment is used to calibrate hydrophones (underwater microphones) that are used to detect and measure ultrasound waves

Background imageSound Waves Collection: Ultrasound thermal test object casing C016 / 6489

Ultrasound thermal test object casing C016 / 6489
Ultrasound thermal test object casing. Expanded view of the casing used in a device known as a thermal test object (TTO). This is used for testing temperature rises caused by ultrasound beams

Background imageSound Waves Collection: Ultrasound beam plotting tests C016 / 6462

Ultrasound beam plotting tests C016 / 6462
Ultrasound beam plotting tests. Researcher carrying out tests with ultrasound beam plotting equipment. This equipment is used to accurately measure and plot the output of medical ultrasound devices

Background imageSound Waves Collection: Ultrasound beam plotting tests C016 / 6453

Ultrasound beam plotting tests C016 / 6453
Ultrasound beam plotting tests. Researcher carrying out tests with ultrasound beam plotting equipment. This equipment is used to accurately measure and plot the output of medical ultrasound devices

Background imageSound Waves Collection: Ultrasound thermal test object C016 / 6492

Ultrasound thermal test object C016 / 6492
Ultrasound thermal test object and sample. A thermal test object (TTO) is used for testing temperature rises caused by ultrasound beams

Background imageSound Waves Collection: Ultrasound power testing equipment C016 / 6469

Ultrasound power testing equipment C016 / 6469
Ultrasound power testing equipment. This equipment is used to carry out buoyancy tests to measure the power output of ultrasound devices



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"Exploring the Artistry of Sound Waves: From Waveforms to Abstract Artwork" they have long captivated our imagination, transcending their scientific origins and inspiring a world of creativity. In the realm of art, waveforms become brushstrokes on a canvas, creating mesmerizing abstract artwork that visually represents the invisible symphony surrounding us. From bat sonar to poster advertising Sonora's vibrant litho colors, sound waves find diverse expressions in our lives, and are not limited to mere auditory experiences but extend their influence into visual realms as well. In 1871, "Vibration of Sound" captured the essence through an intricate illustration. This depiction showcased how vibrations travel through air or other mediums, bringing music and voices to life. Journeying forward in time, we step into a visit at BBC studios in 1937 where soundwaves orchestrate captivating radio broadcasts. The very same soundwaves that create enchanting melodies also give voice to news and stories that resonate with millions across the globe. A digital illustration showcases how even percussion instruments contribute to this symphony by generating unique soundwave patterns. Each strike creates ripples in space, forming an artistic representation of rhythm and harmony. Venturing beyond human creations, we discover how concert halls ingeniously manipulate soundwaves for optimal acoustics. Cross-section illustrations unveil the complex interplay between reflection and absorption within these architectural marvels – ensuring every note reaches its audience with pristine clarity. But it is not just humans who harness the power of soundwaves; nature has its own harmonious tales too. Hadrosaurid duckbill dinosaurs once used these invisible forces as defense mechanisms against mighty Tyrannosaurus Rex predators – showcasing nature's ingenuity at utilizing sonic powers for survival. And speaking of nature's wonders, ultrasound scans offer glimpses into new beginnings - from a 12-week foetus revealing tiny limbs forming amidst swirling echoes to a 6-week foetus displaying the miracle of life in its earliest stages.