It is shown that radiowaves as part of the range of electromagnetic waves have a dual wave-particle nature. Some particles of radio waves are in the oscillation state in which the transition of electromagnetic energy to particle mass and vice versa occurs.
Electromagnetic waves are a radio, light, X-rays and gamma rays. However, traditionally electromagnetic waves considered in scientific and in academic literature in different positions. Radio waves are always considered as a waves, while light is represented as electromagnetic waves and as a stream of particles. Light as electromagnetic waves, which undoubtedly confirmed experimentally in such a phenomenon as wave interference, at the same time treated as a stream of particles, which are called photons. Since radio waves, like light, are electromagnetic waves, also the question arises to interpret them in terms of corpuscular approach. It is shown that the range of radio waves as electromagnetic waves also have dual wave-particle nature – this is the wave and a particle at the same time. Some particles of radio waves stay in the vibrational state with the transition of electromagnetic energy to particle mass and vice versa.
Electromagnetic waves are a radio, light, X-rays and gamma rays. However, traditionally electromagnetic waves considered in scientific and in academic literature in different positions. Radio waves are always considered as a waves, while light is represented as electromagnetic waves and as a stream of particles. Light as electromagnetic waves, which undoubtedly confirmed experimentally in such a phenomenon as wave interference, at the same time treated as a stream of particles, which are called photons. Since radio waves, like light, are electromagnetic waves, also the question arises to interpret them in terms of corpuscular approach. It is shown that the range of radio waves as electromagnetic waves also have dual wave-particle nature – this is the wave and a particle at the same time. Some particles of radio waves stay in the vibrational state with the transition of electromagnetic energy to particle mass and vice versa.
At radio wavelength "photons" are not really needed. The description of this part of the electromagentic spectrum as waves is completeley satisfying. In turn, in the range of cosmic radiation, the description of photons as "particles" is sufficient. However, this may not be intrinsic basic physics but caused by the choice of detectors. Radio detectors are solid metal rods - antennae. The energy density and the wavelength of a radio photon are much smaller than that of the antenna. In the range of cosmic radiation, the detectors are essentially single atoms. The energy density of such a photon is much higher, the wavelength much smaller. The primary process of photon detection at optical wavelengths detectors usually occcurs at a single atom, a limited group of atoms or a band in a solid state detector. There, the energy density is comparable to the energy density of the detected photon. Depending on the detailed conditions, a wave or a beam of particles is perceived.
Through the work of Max Planck, Albert Einstein, Louis de Broglie, Arthur Compton, Niels Bohr, and many others, current scientific theory holds that all particles also have a wave nature (and vice versa).[1] This phenomenon has been verified not only for elementary particles, but also for compound particles like atoms and even molecules. For macroscopic particles, because of their extremely short wavelengths, wave properties usually cannot be detected.[2] Wave–particle duality is an ongoing conundrum in modern physics. Most physicists accept wave-particle duality as the best explanation for a broad range of observed phenomena; however, it is not without controversy.
In contemporary physics a current Quantum Mechanics (QM) theory holds that all particles exhibit a wave nature and vice versa. However, the meaning or interpretation of this statement has not been satisfactorily resolved yet. According to the multispace conception [1] the force field and space are synonyms. Each particle has several force fields: electric, magnetic, gravity. Therefore the particle can be simultaneously in several spaces. So a photon in its own electric and magnetic spaces is a particle, but in the gravity space the photon is a wave. This phenomenon is intrinsic wave-particle duality. The scattering and collisions of fermions (electrons) can form a picture of distribution similar to wave interference. It is apparent wave-particle duality because fermions remain as lumps.
This paper explores the nature of the photon through the double-slit thought experiment, demonstrating that it is not a wave-particle duality. The essence of the photon is that of a pure particle. The double-slit thought experiment concerning photons is pivotal in proving that photons, along with other particles such as electrons, atoms, and macromolecules, are purely particulate in nature. Between the double-slit partition and the screen, photons do not produce coherence or the superposition of probability wave functions. Instead, they generate alternating bright and dark fringes through repeated oscillations between the slits and the detection screen. Within space, photons can interfere with each other's paths based on their momentum, simultaneously altering their trajectories and even their velocities. Thus, a beam of photons possessing greater momentum may carry along a portion of lower-momentum photons, propagating them over considerable distances. By examining the wavelength of electromagnetic waves, the intrinsic relationship between electromagnetic waves and photons is revealed. This establishes that electromagnetic waves are fundamentally pure particle-wave phenomena of photons. The wavelength of an electromagnetic wave essentially represents the spatial distance between consecutive photons as they advance in formation through space. The longer the wavelength of an electromagnetic wave, the greater the distance between successive photons, causing them to diverge more widely in space, as seen with radio waves. Conversely, shorter wavelengths result in closer spacing between photons, leading to more concentrated emission and a pronounced directionality, exemplified by gamma rays. Within the visible spectrum of electromagnetic waves, humans can occasionally transmit information bearing specific content via photons. This information, conveyed through photons, can traverse distances ranging from metres to thousands of kilometres, where it is received and discerned by another individual.