Field wave impurity partitioning and self-calibration mass production structure based on osmotic pressure principle

Abstract

The application discloses a field wave impurity partition storage and self-calibration mass production structure based on the principle of osmotic pressure, which is integrated in a field operation cavity, and a core operation area and an impurity storage area are separated through a semi-permeable membrane. By using a field osmotic pressure potential difference, standard field wave storage and automatic edge storage of impurity field waves are realized. Pure physical passive completion of waveform purification and self-calibration of field source device tolerance eliminates individual performance differences of devices, realizes modular mass production and component interchange, and has the advantages of simple structure, no power consumption, good durability, etc. The application completely solves the industry pain points of poor consistency of field operation computers in mass production and inability to scale production, and reduces mass production cost and processing precision requirements.

Description

Technical Field

[0001] This invention relates to the field of mass production technology of field computing computers, specifically to a mass production structure for field wave impurity partitioning and self-calibration based on the principle of osmotic pressure. Background Technology

[0002] The core field source devices of field computing computers have inherent manufacturing tolerances. Different devices have individual differences in the purity, frequency, and phase of the output field waves, resulting in the unique performance of each field generator. This makes it impossible to achieve modular interchangeability and mass production. Existing waveform calibration technologies rely on active circuits and transceiver units, which are complex in structure, disrupt the pure field computing architecture, and increase power consumption and cost. They cannot automatically eliminate individual differences of devices at the physical level, thus hindering the industrialization of field computing computers. Summary of the Invention

[0003] Purpose of the invention To address the pain points of mass production, a mass production structure based on the principle of osmotic pressure is provided, which enables passive automatic waveform calibration, impurity fixed domain isolation, unified field operation performance, and adaptability to mass production. Technical solution A mass-production structure for field wave impurity partitioning and self-calibration based on the principle of osmotic pressure is integrated inside the closed computing cavity of a field computing computer, including a central core computing area, an edge impurity containment area, a gradient refractive index semi-permeable membrane separation layer, and an internal buffer medium. The gradient refractive index semipermeable membrane partition layer divides the cavity into a central core operation area and an edge impurity containment area, forming a strong field difference gradient by utilizing the physical principle of field osmotic pressure. High-frequency coherent standing wave fields that meet the computation standards remain stably in the central core computation area due to field state matching and potential difference fit, and participate in field interference computation. Non-standard field wave impurities such as noise, distortion, phase deviation, and frequency shift generated by field source devices automatically penetrate and migrate to the edge impurity containment area under the drive of field potential difference, and are permanently constrained, preventing them from entering the core computing area. The intracavity buffer medium assists in the rapid convergence of the field wave to a steady state, further improving calibration efficiency; The structure is completely passive, without electronic control intervention or additional circuitry. It automatically completes field wave purification and device tolerance self-calibration through pure physics. After assembling different batches and individual field source devices, the field state performance of the core computing area is completely consistent, realizing modular mass production and interchangeability. Beneficial effects Passive, purely physical self-calibration, requiring no circuit intervention and without disrupting the pure field computing architecture; Impurities are centrally contained in a fixed area, which does not interfere with core operations and ensures operational stability. Completely eliminate individual tolerances of field source devices to achieve modular mass production and component interchangeability; Relaxing the precision requirements for device manufacturing significantly reduces mass production costs and improves production yield. It has a simple structure, no easily damaged parts, good durability, and is suitable for long-term stable operation.

Claims

1. A mass-production structure for field wave impurity partitioning and self-calibration based on the principle of osmotic pressure, characterized in that, Integrated inside the field computing cavity, it consists of a central core computing area, an edge impurity containment area, a gradient refractive index semi-permeable membrane separation layer, and an internal buffer medium.

2. The structure according to claim 1, characterized in that, A semi-permeable membrane is used to create an osmotic pressure gradient, thereby achieving physical separation and isolation between the standard field wave and the impurity field wave.

3. The structure according to claim 1, characterized in that, Non-standard field wave impurities automatically migrate to the edge containment region and do not enter the core computing region.

4. The structure according to claim 1, characterized in that, The entire process is passive and without electrical control, achieving field wave self-calibration and device tolerance cancellation purely through physical means.

5. The structure according to claim 1, characterized in that, It enables modular interchangeability of field source devices, making it suitable for mass industrial production.