Sonoluminescence in Layman's terms,

is the emission of light from gas bubbles in a liquid that are made to collapse by sound waves

Sonoluminescence;

The energy of a sound wave in a fluid can concentrate by 12 orders of magnitude to create flashes of light that can be shorter than 50 picoseconds. A

picosecond is a millionth of a millionth of a second. The flashes originate from hot spots that form inside bubbles that nucleate, expand, and crash in response to the travelling sound wave.

We have observed hot spots as small as 10 nanometers and as large as 100 microns. We can generate them one shake at a time or at a rep rate of 10 million times per second. Will the degree of energy focusing that can be achieved with the physics of sonoluminescence someday reach to thermo-nuclear fusion?

Source:

UCLA PUTTERMAN RESEARCH GROUP SONOLUMINESCENCE: SOUND INTO LIGHT

Source:https://www.physics.ucla.edu/Sonoluminescence/sono.pdf 

According to modern science, You'll come to find out that sound can be converted into light, and light into matter. When energized,  each chemical element produces a unique brightness of light and various colors. This can be expressed as unique sounds.

Chemical elements, and Light expressed through frequency (American Chemistry Society) 

"visible light can be thought of as an "octave of light." But this octave of light is at a much higher frequency than the audible range. So, Smith scaled the sine waves' frequencies down by approximately 10-12, fitting the audio output into a range where human ears are most sensitive to differences in pitch."

"The result is that the simpler elements, such as hydrogen and helium, sound vaguely like musical chords, but the rest have a more complex collection of sounds," says Smith.

Source: https://www.acs.org/pressroom/newsreleases/2023/march/what-do-the-elements-sound-like-video.html 

Atom Tones – A periodic table of audible elements

Atom Tones is an audible periodic table that allows us to identify elements through sound and to investigate the atomic world with methods used by sound engineers

Source: https://acoustics.org/atom-tones-a-periodic-table-of-audible-elements/#:~:text=Atom%20Tones%20is%20an%20audible,methods%20used%20by%20sound%20engineers. 

An Investigation Into the Relationship

Between Sound and Color

http://www.people.vcu.edu/~djbromle/color-theory/color01/Relationship-color-sound-joe_goldsmith.html 

Characteristics of Sound and Color

Sound is produced by a mechanical means. Sound travels in waves and exists only within a medium. Light also travels in a wavelike manner but light has electric and magnetic properties and accordingly it is an electromagnetic (EM) wave. Sound travels at 343 m/s in air and light travels through all mediums at almost 300,000,000 m/s. Everyone has heard that light travels faster than sound. In fact, light travels 1 million times faster than sound. One way to describe waves is according to the distance between each peak of the wave, just as in a wave at sea. This distance is called the wavelength and is measure in meters. Another way to describe waves is according to how many peaks pass through a point in one minute (how many waves crash upon the shore in a second?), and is labeled cycles per second of Hertz(Hz).

The electromagnetic spectrum is pictured in Figure 1. This spectrum shows all known types of EM waves. Visible light occupies a very small portion of the spectrum.

Conversion Of Light Into Matter

Creating matter from light is one of the most remarkable predictions of quantum electrodynamics. Evidence of this phenomenon has been observed in experiments involving the interaction of ultra-relativistic electron beams with laser beams, intense laser–plasma interactions, and laser-driven scattering off solid targets. However, these processes all rely on massive particles. The simplest way for light alone to create matter, known as Breit–Wheeler pair production (where two photons produce an electron–positron pair), has yet to be demonstrated in the lab. Here, we propose a novel photon–photon collider design, where a gamma-ray beam interacts with the high-temperature radiation field generated by a laser-heated hohlraum. Using Monte Carlo simulations and current experimental capabilities, we predict this setup could produce around 100,000 Breit–Wheeler pairs in a single shot. This would mark the first successful realization of a pure photon–photon collider and open a new chapter in high-energy physics experiments.

Source: Reference: Pike, O, J. et al. 2014. ‘A photon–photon collider in a vacuum hohlraum’. Nature Photonics, 18 May 2014.