The concept of quantization in physics begins with the expression E=hν, P=h/λ obtained from the blackbody radiation law, where h is the minimum amount of action [1]. Since there is a mass-energy relation E=mc^2 [2], all matter particles (with mass) can and must be equally capable of being expressed ‡ in terms of E=hν, which leads to the fact that the structure and interactions of all matter must be finite, integer multiples of the quantity hν. While the fact that ν can be continuous* does not prevent the fulfillment of occasions where there is a requirement for energy continuity, the discrete nature of the energy levels dictates that the choice of ν is finite.
In quantum mechanics, the state of a particle can be described by its wave function Ψ(r), or there can be described by the momentum representation φ(p). In fact, we can regard Ψ(r) as a time-domain energy packet and φ(p) as a frequency-domain momentum packet; momentum φ(p) and energy Ψ(r) are a pair of Fourier transformations. If the fundamental composition of matter is a variety of quanta E=hνi (i=1,2,3), then the momentum pi implied in all matter is also a variety. The Fourier transform of a continuous function in the time domain produces an infinite multitude in the frequency domain, and vice versa. Physics really cannot express infinite multinomials. Only the Fourier transform DFT of a finitely discrete time-domain function corresponds to a finite number of discrete terms in the frequency domain, which can express the physical reality under certain conditions. The Fourier transform is related in quantum mechanics to wave-particle duality, superposition, the uncertainty principle, measurement, etc. Therefore, we ask:
1) Is the discrete Fourier transformation the only inevitable choice for the quantization of physics?
2) Since everything is expressed by the photon's E=hν, should fermions (electrons, quarks), W bosons, gluons also be expressed by photons?
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Notes
‡ including all fermions, electrons, quarks, etc. Do we then need to find a direct compositional relation between fermions and E=hν? Since, the composition of quarks is associated with E=hν, why is the interaction not it, but changed to gluons?
* We need to think about the question, what must be the physical meaning of ν in E=hν?
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References
[1] Planck, M. (1900). The theory of heat radiation (1914 (Translation) ed., Vol. 144).
[2] Einstein, A. (1905). Does the inertia of a body depend upon its energy-content. Annalen der Physik, 18(13), 639-641.
[3] Preprint The Relationship Between the Theory of Everything and the Co...
[4] Preprint Convergent and Disperse Cyclic Multiverse Model (CDCMM)