As most of us know, energy is emitted in packets. This indicates that energy is, in fact, divisible. I have previously explained why matter and energy are essentially the same thing; you may refer to my earlier blog posts for that. Energy also possesses the property of divisibility, which is traditionally a characteristic of matter. To examine this more effectively, research must be conducted at the nanoscale. Light, for example, is transmitted through photons. Every photon is actually a piece of light energy. Therefore, we can understand that light is transmitted in fragments. The same applies to sound. If sound waves were not divided into quanta, we would observe sound progressing through a continuous function principle. This would result in the footsteps of ants reaching our ears with their initial intensity, regardless of distance. In such a scenario, no sound would ever lose its volume. However, in reality, we struggle to hear the sounds of distant objects. In other words, a sound wave reaches us only after losing its initial energy. This alone is enough to prove that sound waves propagate in pieces. So, where can we use this information? Matter is already energy, as I mentioned in my previous writings. Similarly, particles observed as matter—such as bosons, mesons, quarks, leptons, and neutrinos—are composed of even smaller sub-particles that will be measurable as technology advances. The further we can advance this understanding, the better we can interpret the relationship between material particles and energy. In essence, just as the material of a vest can be cotton, the material of the universe is energy. Although the scientific proof of this may take centuries, let me state it in advance. Prepared by: Emre Pelit