This work presents a structural reinterpretation of quantum tunneling based on stratified electron-field continuity. Potential barriers are described as suppression zones that selectively attenuate electron-field strata rather than blocking particles. Tunneling emerges as coherent field propagation across stratified layers, offering a deterministic and physically intuitive alternative to probabilistic transmission models.
This work presents a structural reinterpretation of quantum tunneling based on stratified electron-field continuity. Potential barriers are described as suppression zones that selectively attenuate electron-field strata rather than blocking particles. Tunneling emerges as coherent field propagation across stratified layers, offering a deterministic and physically intuitive alternative to probabilistic transmission models.
Description / Summary This work proposes a structural reinterpretation of electron behavior in which quantum phenomena arise from stratified field organization rather than point-particle dynamics evolving in linear time. By treating the electron as a coherent field pattern distributed across discrete structural layers, quantum effects such as probabilistic outcomes, apparent non-locality, and limits of quantum computation are understood as consequences of cross-layer interaction and accessibility. The approach preserves established physical formalisms while offering a unifying conceptual framework that clarifies measurement, vacuum effects, and computational constraints without introducing new particles, forces, or speculative mechanisms.
Description / Summary This work proposes a structural reinterpretation of electron behavior in which quantum phenomena arise from stratified field organization rather than point-particle dynamics evolving in linear time. By treating the electron as a coherent field pattern distributed across discrete structural layers, quantum effects such as probabilistic outcomes, apparent non-locality, and limits of quantum computation are understood as consequences of cross-layer interaction and accessibility. The approach preserves established physical formalisms while offering a unifying conceptual framework that clarifies measurement, vacuum effects, and computational constraints without introducing new particles, forces, or speculative mechanisms.
This paper proposes a classical alternative explanation for the tunneling effect in quantum mechanics. Standard quantum theory describes tunneling as a particle "penetrating" a potential barrier whose energy exceeds the particle's own kinetic energy with a certain probability. However, this explanation focuses only on the mathematical initial and final states, completely ignoring any dynamical process the electron may undergo before the barrier, and lacks a physical picture. This paper argues that tunneling is not an intrinsic quantum property of a single electron, but rather a collective statistical fluctuation event involving multiple electrons: electrons near the barrier, through a series of random collisions in the correct direction, gradually transfer and concentrate kinetic energy onto the electron closest to the barrier, enabling it to instantaneously acquire kinetic energy exceeding the barrier threshold and thus classically fly over the barrier. During the crossing, the electron must do work against the barrier, converting kinetic energy into potential energy; therefore, after crossing, its kinetic energy is reduced and it cannot cross the same barrier again. Tunneling probability is reinterpreted as the success probability of such a "directed energy relay" event. This model is fully self-consistent within the framework of classical electromagnetism and statistical mechanics, requiring no wave functions or probability waves, with a clear physical picture and explicit causal chain. This paper further points out that under strictly single-electron conditions, this model predicts that tunneling will completely disappear, a prediction that stands in fundamental opposition to the standard quantum model and can serve as a decisive experiment to test the two theories.
This work is the nineteenth installment in the Time Field Theory (TFT) series, succeeding Time Field Theory XVIII: Entanglement, Common Phase Splitting, and the Local Interpretation of Bell Experiments. This work presents a fully transparent, first-principles physical framework with no black-box operations or uninterpreted postulates. All dynamical processes are derived deterministically from time-field axioms, with clear, traceable physical mechanisms at every step. Within the TFT framework, quantum tunneling is derived without reliance on conventional quantum mechanics or probabilistic interpretation. Two fundamental mechanisms are distinguished: (1) electric potential coupling responsible for phase modulation, interference, and tunneling attenuation; (2) mass/time-field gradient responsible for phase locking, measurement, and localization. Tunneling is interpreted as deterministic time-field splitting rather than probabilistic selection: a portion of the time-field oscillation is retained inside the barrier with real energy deposition, while the remainder transmits. The tunneling transmission coefficient is verified against experimental data and shows quantitative agreement. A 2025 observation of under-barrier recollision supports real interactions inside the barrier, consistent with TFT. This work contributes to the unification of gravity, special relativity, and quantum mechanics within a self-consistent, locally realistic, and fully transparent time-field dynamics framework.
Quantum tunneling is conventionally described using the stationary Schrödinger equation with an externally imposed potential barrier. In this work, we present a dynamical formulation of quantum tunneling in which the barrier is modeled as a structured medium possessing quantized internal modes that interact coherently with an incident electron. Using the Heisenberg operator formalism and a second-quantized representation of the barrier medium, we derive coupled dynamical equations governing the electron–barrier interaction. Under a continuum-mode and mean-field approximation, the collective response of the barrier modes generates an effective potential that reproduces the conventional rectangular barrier model and the standard tunneling transmission probability obtained from the Schrödinger equation. Within this framework, a tunneling traversal time is naturally defined from the dynamical evolution of the electron and is shown to depend on the barrier width, barrier height, and incident electron energy. Numerical simulations illustrating the transmission probability and tunneling-time behavior are presented. The results provide a complementary microscopic interpretation of tunneling processes in structured quantum media and may be relevant to nanoscale transport, photonic barriers, and coherent quantum devices.