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2025
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| Online Access: | https://doi.org/10.5281/zenodo.17237737 |
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| author | song, seongho song, seongho |
| author_facet | song, seongho song, seongho |
| contents | <p>This paper proposes the phenomenon of 'Inertial Coupling Resonance (ICR)' based on a novel physical model that treats a particle's state as a complex number, composed of a measurable **real part** and an underlying **imaginary part**. We present the core hypothesis that a moving particle possesses an intrinsic internal frequency (f_internal) determined by its state of motion, and that this frequency is proportional to the particle's **Total Inertial Action (mv²)**, given by the relation **f_internal = mv²/h**. Under resonance conditions where the frequency of an external electromagnetic field (f_RF) matches this internal frequency (f_RF ≈ f_internal), the coupling between the particle's **real-part reality and imaginary-part information** is temporarily released (decoupled). Consequently, the particle's kinetic energy is **transferred to the system's imaginary part** and dissipates non-thermally.</p> <p>Based on this complex state model, we provide a unified explanation for several phenomena: (1) the deterministic deceleration of a single atom, (2) room-temperature spin pumping, (3) sonoluminescence, and (4) resonant braking. Specifically, we predict that a Rubidium-87 atom moving at 1.0 m/s will have an internal frequency of **217.80 MHz**, and will exhibit a sharp decrease in velocity when resonating with an external field of the same frequency. This paper presents results from a dynamics simulation that directly implements this physical mechanism, offering a clear method for the theory's experimental verification and establishing its scientific falsifiability.</p> <p>(The dissipation of a particle's kinetic energy can be broadly categorized into two paths. The first is the conventional process of **thermalization**, where energy is disordered and dispersed through random collisions with surrounding particles. From the perspective of our model, this corresponds to decoherent interactions destroying the phase of the internal oscillation, leading to energy dissipation.) <br>(However, the focus of this paper is on a fundamentally different, second path: **'Inertial Coupling Resonance (ICR)'**, induced by a **coherent external field**. Therefore, our discussion excludes general thermalization processes and is confined to this specific non-thermal energy dissipation mechanism that occurs only under specific resonance conditions.)</p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_17237737 |
| institution | Zenodo |
| language | |
| publishDate | 2025 |
| publisher | Zenodo |
| record_format | zenodo |
| spellingShingle | Inertial Coupling Resonance song, seongho song, seongho <p>This paper proposes the phenomenon of 'Inertial Coupling Resonance (ICR)' based on a novel physical model that treats a particle's state as a complex number, composed of a measurable **real part** and an underlying **imaginary part**. We present the core hypothesis that a moving particle possesses an intrinsic internal frequency (f_internal) determined by its state of motion, and that this frequency is proportional to the particle's **Total Inertial Action (mv²)**, given by the relation **f_internal = mv²/h**. Under resonance conditions where the frequency of an external electromagnetic field (f_RF) matches this internal frequency (f_RF ≈ f_internal), the coupling between the particle's **real-part reality and imaginary-part information** is temporarily released (decoupled). Consequently, the particle's kinetic energy is **transferred to the system's imaginary part** and dissipates non-thermally.</p> <p>Based on this complex state model, we provide a unified explanation for several phenomena: (1) the deterministic deceleration of a single atom, (2) room-temperature spin pumping, (3) sonoluminescence, and (4) resonant braking. Specifically, we predict that a Rubidium-87 atom moving at 1.0 m/s will have an internal frequency of **217.80 MHz**, and will exhibit a sharp decrease in velocity when resonating with an external field of the same frequency. This paper presents results from a dynamics simulation that directly implements this physical mechanism, offering a clear method for the theory's experimental verification and establishing its scientific falsifiability.</p> <p>(The dissipation of a particle's kinetic energy can be broadly categorized into two paths. The first is the conventional process of **thermalization**, where energy is disordered and dispersed through random collisions with surrounding particles. From the perspective of our model, this corresponds to decoherent interactions destroying the phase of the internal oscillation, leading to energy dissipation.) <br>(However, the focus of this paper is on a fundamentally different, second path: **'Inertial Coupling Resonance (ICR)'**, induced by a **coherent external field**. Therefore, our discussion excludes general thermalization processes and is confined to this specific non-thermal energy dissipation mechanism that occurs only under specific resonance conditions.)</p> |
| title | Inertial Coupling Resonance |
| url | https://doi.org/10.5281/zenodo.17237737 |