A method and system for hydration-mediated energy restoration

Abstract

This invention discloses a method and system for hydration-mediated energy repair, belonging to the field of biointerface microenvironment regulation technology. This method constructs a stable and ordered hydration microenvironment at the biointerface, using an ordered water molecule hydration layer as a carrier for the conduction of a mild physical energy field. Combined with the synergistic regulation of hydration parameters and energy output parameters, it optimizes energy conduction and improves microenvironmental stability at the biointerface. The system mainly includes a hydration regulation unit, an energy output unit, a synergistic control unit, and a carrier substrate. Relying on the coordinated operation of two modules, it overcomes the shortcomings of traditional single-energy-action methods, such as high energy loss and weak targeting. The overall solution of this invention is positioned for non-therapeutic daily microenvironment conditioning. The solution architecture is novel, its operation is mild, and its feasibility is strong, possessing good application and promotion value.

Description

Technical Field

[0001] This invention relates to the fields of biological interface microenvironment regulation and weak physical energy coupling application technology, specifically to a hydration-mediated energy repair method and system, applicable to non-therapeutic daily microenvironment conditioning and biological interface state optimization and maintenance scenarios. Background Technology

[0002] The distribution of water molecules and the hydration state of the interface on the surface of organisms directly affect the conduction efficiency and uniformity of external weak physical energy. Currently, common maintenance and conditioning equipment mainly falls into two categories: one relies solely on humidity regulation to achieve surface moisturization, only altering macroscopic environmental moisture conditions and failing to form a stable and ordered interface hydration structure; the other directly uses a single physical energy source for external action, generally suffering from severe energy dissipation, high interface loss, weak targeting, and low energy utilization efficiency. In existing conventional technical solutions, hydration regulation and physical energy output operate independently. The industry has not yet developed a coupled control approach using an ordered hydration layer as an energy-mediating carrier, lacking a holistic solution that links the two systems in a coordinated manner, making it difficult to simultaneously achieve interface environment optimization and gentle, uniform energy action. To address the shortcomings of existing technologies, this paper proposes a method and system for hydration-mediated energy repair. Summary of the Invention

[0003] The purpose of this invention is to overcome the shortcomings of the single regulation mode in the existing technology and provide a method and system for hydration-mediated energy repair. By pre-constructing a stable biological interface hydration layer, using the hydration structure as an energy conduction medium, and coordinating parameter regulation of dual modules, energy loss is reduced, the uniformity of action is improved, and non-therapeutic microenvironment homeostasis regulation is achieved.

[0004] 1. Methods of hydration-mediated energy repair A method for hydration-mediated energy repair includes the following steps: The first step involves continuously building and maintaining a stable and uniform ordered water molecule hydration layer at the biological interface by releasing trace amounts of water molecules and controlling environmental humidity in the target area to be treated. The second step is to activate the energy output end and continuously output a mild and controllable physical energy field to the outside, relying on the orderly hydration layer at the interface to complete the interface transfer and uniform distribution of energy. The third step involves adopting a collaborative control mode to match hydration environment parameters and energy output parameters in real time, dynamically adjusting the operating intensity according to changes in the interface environment, maintaining long-term adaptation between hydration state and energy action mode, continuously improving the local biological interface microenvironment, and completing non-therapeutic homeostatic repair and daily conditioning.

[0005] Furthermore, the physical energy field used is selected from one or more composite forms of low-frequency weak electromagnetic field, micro-vibration energy field, and gentle electrostatic field, which has a gentle effect and is suitable for long-term daily maintenance scenarios.

[0006] Furthermore, the hydration control mainly manages local relative humidity and free water molecule concentration; the energy control mainly manages output intensity, operating frequency, and single-action duration, and all parameters can be flexibly adjusted within the normal safe range.

[0007] 2. Hydration-mediated energy repair system A hydration-mediated energy repair system includes a hydration regulation unit, an energy output unit, a co-control unit, and a support substrate.

[0008] Both the hydration control unit and the energy output unit are connected to the collaborative control unit, which provides unified power supply and logic control. All functional modules are integrated and arranged on the supporting substrate, resulting in a compact structure and convenient use.

[0009] The hydration control unit is responsible for sensing the humidity of the surrounding environment in real time and releasing trace amounts of water molecules in a controllable manner to maintain the stable existence of the ordered hydration structure at the interface of the target area. The energy output unit is responsible for generating a mild physical energy field within a defined range and projecting it directionally to the target treatment area; The collaborative control unit has built-in linkage control logic, which can synchronously adjust the hydration release intensity and energy output level to ensure that the working rhythm of the two is matched. The support substrate can adopt a flexible or portable fixing structure, making it convenient to fit different parts of the human body.

[0010] Furthermore, the hydration control unit includes an environmental sensing module, a trace water molecule release module, and a humidity regulation submodule, achieving closed-loop stable control.

[0011] Furthermore, the energy output unit includes an energy generation module, a directional conduction module, and a multi-level adjustment module to easily adapt to different usage needs.

[0012] Working principle This invention differs from traditional single-control modes; its core innovation lies in: First, through controlled hydration regulation, an ordered and stable hydration layer structure is established at the biological interface. This hydration layer can serve as an excellent interfacial energy transfer medium, significantly reducing the scattering and loss of physical energy at the body surface interface, making energy action more uniform and gentler.

[0013] At the same time, the coordinated control unit enables the linkage between hydration and energy output conditions, avoiding the disconnect caused by the independent operation of the two systems. The whole system forms a closed-loop conditioning system of "hydration construction - energy mediation - steady-state optimization", which continuously improves the local microenvironment of the biological interface.

[0014] Beneficial effects 1. An innovative hydration-mediated conduction mechanism is introduced, which optimizes the physical energy interface transmission by utilizing an ordered hydration layer, effectively solving the problems of large dispersion, high loss, and poor uniformity in traditional energy equipment; 2. It achieves integrated and coordinated control of hydration environment regulation and energy output, with a complete technical route and closed-loop logic, which is different from the simple functional superposition of existing technologies; 3. The overall solution is for non-therapeutic daily maintenance purposes, with a wide range of applications, is safe and gentle, has no medical or diagnostic attributes, and has strong compliance with regulations. 4. The overall system features a modular design, simple structure, easy mass production and daily use, and broad application prospects. Detailed Implementation

[0015] Example 1 A method for hydration-mediated energy repair: The system maintains a stable humidity range in the target area, slowly releasing trace amounts of water molecules to form a continuous and orderly hydration layer on the body surface. It then activates low-frequency, low-energy output, relying on the hydration layer at the interface to uniformly transfer energy. Throughout the process, it synchronously locks the humidity range and energy output level, maintaining stable parameter operation and completing daily microenvironmental soothing conditioning.

[0016] Example 2 A hydration-mediated energy repair system: It adopts a flexible and fitting carrier substrate, and integrates a hydration control unit, an energy output unit, and a micro-coordination control unit. The hydration module senses the environment in real time and fine-tunes the amount of water molecules released, while the energy module outputs a gentle low-frequency physical field. The coordination control unit has a built-in fixed linkage program to ensure that the hydration environment and energy output start and stop synchronously and match the gears, making it suitable for personal home daily non-therapeutic maintenance.

[0017] All functional units, module structures, and control methods of this invention are mature and conventional hardware and well-known control logic in the field. Those skilled in the art can completely replicate and implement them without additional dedicated experiments by combining the textual description in this specification.

[0018] The above description is merely a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.

Claims

1. A method for hydration-mediated energy restoration, characterized in that, Includes the following steps: (1) Construct a controllable and stable hydration microenvironment outside the target area, and form a uniform and orderly water molecule hydration layer at the biological interface by regulating the local water molecule distribution and environmental humidity. (2) Continuously output a physical energy field of a preset form to the target area, using the ordered hydration layer formed at the biological interface as the mediator of energy conduction and interface coupling; (3) Synchronously and synergistically regulate the operating parameters of the hydration microenvironment and the output parameters of the physical energy field, so that the hydration state and the energy output intensity and action mode are matched with each other, continuously optimize the local biological microenvironment, and achieve non-therapeutic interface homeostasis repair and body microenvironment conditioning.

2. The method for hydration-mediated energy repair according to claim 1, characterized in that: The physical energy field includes any one or more combinations of low-frequency weak electromagnetic fields, micro-vibration energy fields, and soft electrostatic fields.

3. The method for hydration-mediated energy repair according to claim 1, characterized in that: The regulation parameters of the hydration microenvironment include local relative humidity and the amount of free water molecules released; the regulation parameters of the physical energy field include output intensity, frequency of action, and duration of action.

4. The method for hydration-mediated energy repair according to claim 1, characterized in that: The ordered water molecule hydration layer is formed by attaching to the biological interface on the body surface, which is used to reduce physical energy interface loss and improve the uniformity of energy conduction.

5. A system for hydration-mediated energy repair, characterized in that, include: Hydration control unit, energy output unit, collaborative control unit, and supporting substrate; The hydration control unit and energy output unit are electrically connected to the collaborative control unit and are integrated and arranged on the surface or inside of the supporting substrate. The hydration regulation unit is used to regulate the local humidity and water molecule concentration to stably generate an ordered hydration layer at the biological interface. The energy output unit is used to generate and directionally release a mild physical energy field; The collaborative control unit is used to collect environmental parameters in a unified manner and synchronously adjust the operating conditions of the hydration control unit and the energy output unit to achieve the linkage and matching of the two modules. The system is used as a whole for non-therapeutic biological microenvironment conditioning and interface homeostasis optimization in the human body.

6. The system for hydration-mediated energy repair according to claim 5, characterized in that: The hydration control unit includes an environmental sensing module, a trace water molecule release module, and a humidity regulation submodule.

7. The system for hydration-mediated energy repair according to claim 5, characterized in that: The energy output unit includes an energy generation module, a directional transmission module, and a gear adjustment module.

8. The system for hydration-mediated energy repair according to claim 5, characterized in that: The supporting substrate is a flexible or portable fixed structure, suitable for local surface application on the human body.