Future-Note Theory_15:Technical Feasibility of Physically Passing Through Solid Walls: A Perspective Based on Interaction Scale in the Future-Note Theory
This paper aims to conceptually explore the possibility of humans passing through solid walls without invoking supernatural abilities or unknown physical laws, from the perspective of the Future-Note Theory. In conventional physics, the electromagnetic repulsion between the electron clouds of atoms and molecules that constitute a wall renders physical passage impossible. However, according to the Future-Note Theory, physical existence is understood as a relational structure that emerges only under conditions where interactions can effectively occur. From this standpoint, if the interaction scales between the atomic and electronic structures of a human and those of a wall are mismatched, tactile interactions may not be established, while visual interactions remain effective. Under such conditions, a human could behave as if "passing through" the wall in a conceptual sense. Through thought experiments and conceptual analysis, this paper examines the conditions under which interaction-scale mismatches can result in a non-contact state with physical barriers. It further discusses the technical feasibility in terms of controlling electron cloud scales, managing interatomic interactions, and maintaining structural integrity. Although current technology does not allow such manipulations, this study provides a framework for understanding wall passage not as a violation of physical laws but as a phenomenon dependent on interaction-scale conditions.
This paper aims to conceptually explore the possibility of humans passing through solid walls without invoking supernatural abilities or unknown physical laws, from the perspective of the Future-Note Theory. In conventional physics, the electromagnetic repulsion between the electron clouds of atoms and molecules that constitute a wall renders physical passage impossible. However, according to the Future-Note Theory, physical existence is understood as a relational structure that emerges only under conditions where interactions can effectively occur. From this standpoint, if the interaction scales between the atomic and electronic structures of a human and those of a wall are mismatched, tactile interactions may not be established, while visual interactions remain effective. Under such conditions, a human could behave as if "passing through" the wall in a conceptual sense. Through thought experiments and conceptual analysis, this paper examines the conditions under which interaction-scale mismatches can result in a non-contact state with physical barriers. It further discusses the technical feasibility in terms of controlling electron cloud scales, managing interatomic interactions, and maintaining structural integrity. Although current technology does not allow such manipulations, this study provides a framework for understanding wall passage not as a violation of physical laws but as a phenomenon dependent on interaction-scale conditions.
Atomic structure is commonly described as consisting of a compact atomic nucleus surrounded by a spatially extended probabilistic distribution of electrons, such that the majority of the atom’s volume is effectively occupied by space. This understanding is fully consistent with quantum mechanics and does not constitute an unresolved theoretical problem in contemporary physics. Nevertheless, the persistent emphasis on the “emptiness” or “sparsity” of atoms suggests the existence of a continuing conceptual tension between formal physical descriptions and the intuitive understanding of matter rooted in everyday experience. In this paper, we reconsider this so-called “empty atom problem” from the perspective of the Future-Note Theory, a conceptual framework that does not assume physical structures to be fixed to a single, invariant observational scale. Within this framework, fundamental physical quantities such as distance, density, and time are treated not as absolute entities, but as effective and relational quantities whose meaning depends on the scale at which interactions are defined. Rather than interpreting the spatial sparsity of atomic structure as evidence for the existence of physically empty space, this study proposes an alternative view in which such sparsity arises as a consequence of meaningful interactions being confined to specific effective scales. From this perspective, the large spatial separation between the atomic nucleus and the electron distribution is understood not as an essential property of matter, but as a result of descriptions grounded in currently adopted interaction scales. To clarify this viewpoint, we introduce a series of thought experiments in which effective interaction scales are hypothetically modulated, allowing for the conceptual possibility of more compact or more diffuse atomic structures without invoking classical notions of compression or expansion. These considerations are strictly conceptual and speculative, and no claims are made regarding their technological feasibility. The aim of this paper is not to propose new physical laws or experimental techniques, but to illuminate the scale assumptions that have been implicitly fixed in descriptions of atomic structure, thereby preserving and presenting a new framework of questions that may contribute to future theoretical and conceptual developments in fundamental physics.
This paper re-examines a fundamental assumption: that “solidity” is an inherent property of matter. Through a thought experiment involving neutrinos — particles that rarely interact with electromagnetic fields — it is shown that the same wall appears solid to a human observer but nearly void to a neutrino. The paper argues that solidity is not a fixed attribute of matter, but a cognitive product of the observer's perceptual system and scale of interaction. This does not deny the existence of walls, but repositions our understanding of them: the “solid world” we perceive is a product of our own perceptual structure. Keywords:
A tennis ball is not expected to penetrate through a brick wall since a motion under a barrier is impossible in classical mechanics. With quantum effects a motion of a particle through a barrier is allowed due to quantum tunneling. According to usual theories of tunneling, the particle density decays inside a classical barrier resulting in an extremely slow pentration process. However, there are no general laws forbidding fast motion through classical barriers. The problem addressed is investigation of unusual features o quantum tunneling through a classic static barrier which is at least two-dimensional. Here we show that penetration through such barrier can be not slow. When the barrier satisfies the certain conditions, a regime of quantum lens is possible with formation of caustics. De Broglie waves are reflected from the caustics, interfere, and result in a not small flux from under the barrier. This strongly contrasts to the usual scenario with a decaying under-barrier density. We construct a particular example of fast motion through a classical barrier. One can unexectedly conclude that, in principle, nature allows fast penetration through classical barriers which against common sense. The phenomenon may be responsible for a variety of processes in labs and nature. For example, tunneling in solids may occur with a different scenario, in biophysics and chemistry one can specify conditions for unusual reactions, and evanescent optical waves may strongly change their properties. In condensed matter and cosmic physics there are phenomena with misterious reasons of an energy emission, for instance, gamma-ray bursts. One can try to treat them in the context of fast escape from under some barriers.
"Dark Matter Mediated Quantum Entanglement: Surpassing the Speed of Light with Future-Note Theory" This paper presents a radical reinterpretation of quantum entanglement based on the Future-Note Theory, treating it not as a nonlocal mathematical abstraction, but as a physically mediated phenomenon through local dark matter (DM) flows and micro black hole/wormhole gates (BHc/WHc gates). Local DM variations instantaneously correlate remote particles, theoretically enabling decoherence suppression and unprecedented qubit longevity. DM pulse transmission via BHc/WHc gates allows quantum communication, cryptography, computation, and teleportation beyond conventional light-speed limitations, effectively challenging the universal constancy of the speed of light. Entanglement’s physical essence emerges from this framework: local DM flows act as the information medium, while BHc/WHc gates create interlayer channels for near-instantaneous correlation. Controlled local time progression and inertial modulation stabilize entangled states, transforming entanglement from an abstract statistical correlation into a tangible, manipulable physical phenomenon. With this approach, cosmic-scale quantum networks could operate with effectively zero latency, synchronizing distant planetary or interstellar nodes instantaneously. Ultra-high-speed quantum computation becomes feasible in locally accelerated “quantum computation spaces,” where DM flow stabilization maintains long-lived coherence across thousands of qubits. Quantum cryptography leverages DM-induced true randomness and gate-mediated isolation, enabling theoretically unbreakable security at planetary and interstellar scales. Quantum teleportation may employ DM pulse transfer via BHc/WHc gates to reconstruct quantum states remotely without classical communication delays, enabling instantaneous quantum information transfer across vast cosmic distances. In essence, Future-Note Theory provides a unified physical foundation for quantum entanglement, bridging abstract quantum formalism and ultra-futuristic technological applications. It offers a roadmap for next-generation quantum systems where cosmic-scale instantaneous communication, accelerated computation, and unbreakable cryptography are physically realizable. By surpassing conventional light-speed constraints, this theory fundamentally redefines the design philosophy of quantum information science, opening unprecedented pathways toward a universe-wide, near-instantaneous quantum technological paradigm.
This work explores whether several apparently independent physical phenomena may be viewed through a shared interpretative perspective centered on relational structure, interaction, and stabilization. Within the Relational Structural Interpretative Framework (RSIF), observation is interpreted as interaction, measurable states are interpreted as relationally stabilized conditions, and observable phenomena emerge through interaction-sensitive structural organization. This work does not propose a replacement for existing physical theories, but instead presents an exploratory interpretative framework intended to encourage further conceptual and experimental discussion.
In traditional quantum mechanics, electron tunneling is described as a quantum penetration effect through a potential barrier. This paper proposes a new physical framework based on the Energy Gradient Model 2.0 (EGM 2.0), which reinterprets the tunneling phenomenon from the perspective of electron cloud deformation and energy gradient driving. Experiments show that when an external potential is applied to a stable electronic system, the electron cloud distribution is reconstructed without destroying the basic electronic structure. A clear energy threshold exists: below the threshold, only electron cloud deformation and spatial rearrangement occur, which corresponds to the tunneling effect; above the threshold, the original quantum state is destroyed, leading to quantum transition. The EGM 2.0 model unifies the mechanism of electron tunneling and quantum transition, providing a consistent classical-quantum physical explanation.