Scanning technology based on polar plate acceleration type gravitational field generator

Abstract

The method is based on the core idea essence of unifying the field theory and the interference field theory, and advanced fields such as the artificial field and quality technology, the artificial field interference technology and the artificial field control space-time technology are deeply excavated and greatly expanded. The invention is innovatively expanded on the basis of a pole plate acceleration type gravitational field generator (application number: 2025105895730), and aims to realize a scanning technology based on a gravitational field. A core operation mechanism is mainly developed around gravitational field scanning. In the gravitational field scanning process, in order to effectively receive gravitational field fluctuation, the invention provides three feasible receiving schemes, namely antenna receiving, coil receiving and high-voltage receiving. The three receiving schemes are all deployed in a positive gravitational field area, and after a gravitational field fluctuation signal is successfully received, the signal is firstly amplified by professional equipment and then is converted into a digital signal. The digital signals can be accurately submitted to the artificial intelligence system for deep analysis and processing, finally, the processed result can be visually presented through the imaging system in an image and dynamic mode, meanwhile, the audio system can synchronously play related sounds, and comprehensive and rich information feedback is provided for users.

Description

Technical Field

[0001] This invention, rooted in the forefront of scanning technology, is a practical innovation born from the deep integration of artificial field mass addition, artificial field interference, and artificial field spatiotemporal control. Its core mission is to break through the limitations of traditional scanning, achieving superior scanning capabilities that combine long-range coverage with high-precision analysis. Background Art

[0002] This invention, supplementing and expanding upon the "A Plate Acceleration Gravitational Field Generator (Application No. 2025105895730)," innovatively incorporates three distinct reception schemes: antenna reception, coil reception, and high-voltage reception. These schemes, working in tandem, successfully imbue the technology with scanning capabilities, transforming it from a single-function device into a multifaceted scanning technology system.

[0003] Compared with traditional scanning technology, the advantages of the present invention are extremely prominent. In terms of scanning accuracy, it uses artificial field-related technologies to finely control the gravitational field, which can accurately capture the subtle features of the target object and achieve high-precision scanning at a long distance, effectively solving the problem of a significant drop in accuracy of traditional technologies when scanning at long distances. In terms of operating distance, thanks to the propagation characteristics of the gravitational field itself and the efficient use of the gravitational field by this technology, scanning operations can be carried out over a larger range, breaking through spatial limitations. It is particularly worth mentioning that this technology has the safety feature of being radiation-free, avoiding the potential harm that traditional radiation scanning technology may cause to the human body and the environment. It shows significant advantages in the three dimensions of scanning accuracy, operating distance and environmental friendliness, and has broad application prospects. Summary of the Invention

[0004] This invention is deeply rooted in the solid theoretical and applied foundations of artificial field mass addition, artificial field interference, and artificial field spacetime control. Through bold innovation, it adds three unique signal reception schemes: antenna reception, coil reception, and high-voltage reception, successfully creating a groundbreaking and practically valuable new scanning technology. Its core operating mechanism is ingenious and unique, leveraging advanced technical means to precisely transform the originally dynamically changing electromagnetic field into a gravitational field. In this transformation process, the gravitational field does not exist in a single entity, but rather, based on its physical properties and mechanisms, naturally divides into two core components: the positive gravitational field and the negative gravitational field. These two components complement each other and together create the unique physical landscape of the gravitational field. In practical applications, to achieve efficient reception of gravitational field fluctuation signals, the invention carefully designs three reception schemes, each demonstrating its unique capabilities. The antenna receiving scheme uses the antenna's high sensitivity to specific frequency signals to accurately capture gravitational field fluctuations; the coil receiving scheme uses the induced electromotive force generated by the coil under magnetic field changes to indirectly obtain gravitational field information; the high-voltage receiving scheme uses the special structure of the high-voltage negative pole to achieve stable reception of gravitational field fluctuations in a high-voltage environment.

[0005] To achieve its technical goals, this invention further expands upon the established technologies of artificial field mass addition, artificial field interference, and artificial field spacetime control. The following highlights its new features and core components. This invention innovatively utilizes a gravitational field as a scanning medium and adds three new methods for receiving gravitational field fluctuations, enabling efficient scanning. The specific workflow is as follows: gravitational field fluctuations are precisely transmitted to the target area. After interfering with matter, their propagation path changes, returning to the device. Once captured by the antenna and coil receiving circuits, the gravitational field fluctuations enter a signal amplification circuit for initial amplification. They are then converted to a digital signal by an analog-to-digital converter. This digital signal is then transmitted to computers and servers, where it is deeply analyzed using the powerful data analysis capabilities of artificial intelligence. Imaging data is transmitted to an imaging system for visual display, while audio data is delivered to an audio system for playback. As for the third high-voltage receiving solution, given that it involves a high-voltage environment, there is an additional key step compared to the first two solutions, that is, first converting the high-voltage signal into a low-voltage signal. The subsequent signal amplification, analog-to-digital conversion, and data transmission processes remain consistent with the first two solutions.

[0006] Preferably, in the implementation of the present invention, differentiated solutions are formulated for different signal reception requirements. In the antenna reception solution, the antenna is used as the signal reception device. With its characteristic of directly coupling the electric field, it can accurately capture the subtle changes in the electric field, has extremely high spatial resolution, can clearly locate the signal source, and has excellent bandwidth matching performance, adapting to gravitational field fluctuation signals of various frequencies. In the coil reception solution, a coil is used as the reception device, and the signal is obtained by indirectly coupling the magnetic field change. It has excellent anti-interference ability and is especially suitable for the stable reception of transient signals, and can maintain efficient operation even in a complex electromagnetic environment. In the high-voltage reception solution, a magnetic core is added to the high-voltage negative electrode as a structural component to achieve the conversion of high-voltage signals to low-voltage signals. The magnetic core solution takes into account both economy and practicality, providing reliable guarantee for signal reception in high-voltage environments.

[0007] Preferably, in the implementation of the present invention, the signal amplification circuit carefully adopts a step-by-step amplification architecture from single-tube to multi-tube. This design is not arbitrary, but based on in-depth consideration of the signal transmission characteristics. The step-by-step amplification mechanism can enhance the signal strength stage by stage and hierarchically, "empowering" each link in the signal transmission, effectively offsetting the attenuation loss on the transmission path, and at the same time weakening the influence of noise interference, and finally delivering a clear, stable and high-quality signal source for the subsequent signal processing process, ensuring the integrity and accuracy of the information carried by the signal.

[0008] Preferably, in the implementation of the present invention, after the analog signal is pre-amplified, it will accurately enter the analog-to-digital converter (ADC) to complete the digital conversion. This key step is actually an important link in building a bridge between the analog world and digital analysis. By converting the continuously changing analog signal into a discrete digital signal, the powerful computing and storage capabilities of the computer can be fully utilized to analyze the signal in multiple dimensions and at a deep level, accurately extract the key information contained therein, and greatly improve the accuracy of the data processing result and the efficiency of the subsequent process.

[0009] Preferably, in the implementation of the present invention, in the data acquisition stage, the present invention integrates artificial intelligence, imaging system and audio system algorithms. With the deep learning and pattern recognition capabilities, the artificial intelligence algorithm combines the intuitive visual information presented by the imaging system and the subtle feature information captured by the audio system to form an analysis system of multi-dimensional information fusion, which can quickly and accurately screen out key information from a large amount of data, greatly improving the data processing efficiency and result accuracy.

[0010] Preferably, in the implementation of the present invention, this technology can theoretically achieve an infinitely small scanning accuracy. The root cause of its high precision lies in that this technology uses the gravitational field as the scanning medium, and the gravitational field is essentially composed of spatial fluctuations. At the level of physical theory, space is considered to be infinitely divisible. Based on this, the gravitational field also has a corresponding fine structure. This fine structure endows the technology with the ability to perform extremely subtle scanning and analysis of the target object. By precisely controlling the fluctuation characteristics of the gravitational field, this technology can accurately capture and analyze the structure and properties of matter at the microscopic scale, and thus achieve extremely high scanning accuracy.

[0011] Preferably, in the implementation of the present invention, the gravitational field fluctuations generated by this technology are precisely controlled by the output signal. This output signal consists of two key parts, namely the modulation signal and the carrier signal, and the carrier signal can be generated and provided through an efficient LC oscillation scheme. The core role of the output signal is to adjust the gravitational field fluctuations, enabling the gravitational field fluctuations to adapt to the diverse analysis requirements during the scanning process, thereby ensuring the comprehensiveness and accuracy of the scanning.

[0012] Preferably, in the implementation of the present invention, to deeply explain the operating mechanisms of the three receiving schemes of the antenna, coil, and high voltage in the present invention, the following targeted discussion is carried out. According to the principle of relativity, when an object moves at a speed v along x the x axis in a uniform linear motion, it will cause a relative change in the spatial structure, which is intuitively manifested as c the x axis tilting. As the moving speed of the object continues to increase and approaches the speed of light x c, this tilting effect will continuously intensify until, at the theoretical level,

[0013] the

[0014] the axis rotates 90 degrees. At this time, the projected length of the space along the moving direction of the object on the x axis theoretically becomes zero, that is, the three-dimensional space degenerates into a two-dimensional space in this specific direction. Given that the fluctuation speed of the gravitational field is constantly the speed of light (this conclusion can be derived from the relationship between the gravitational constant and the scalar speed of light), so in the extreme case where the object moves at the speed of light, an analogous analysis can be made: the anti-gravitational field instantaneously diverges to infinity, while the positive gravitational field instantaneously converges to infinity. The three receiving schemes of the present invention are all in the action region of the positive gravitational field. Since the gravitational field will generate an electric field and a magnetic field as time changes, these derived fields provide signals that can be captured by the three receiving schemes. In practical applications, this technology finally achieves an infinitely small scanning accuracy in theory by precisely regulating the fluctuation characteristics of the gravitational field and combining advanced signal processing algorithms.

[0013] In summary, the technical effects and advantages of the present invention.

[0014] Based on the scientific principle of the transformation of variable electromagnetic fields into gravitational fields, this invention fully integrates and develops cutting-edge achievements such as artificial field plus mass technology, artificial field interference technology, and artificial field space-time control technology. Based on these advanced theories and technologies, this invention presents significant advantages: it has high controllability, and operators can flexibly adjust various parameters according to actual needs; it has powerful data analysis capabilities and can deeply mine key information in signals; it has excellent action distance and breaks through the spatial limitations of traditional technologies; it also has the safe characteristic of no radiation, providing reliable protection for operators and the environment. These advantages cooperate with each other, enabling this invention to occupy a leading position in related fields, greatly improving the flexibility and efficiency of technology applications, and operating in an environmentally friendly and safe manner.

[0015] The most remarkable feature of this invention is that in addition to being able to achieve instantaneous response and theoretically covering an infinite distance, more importantly, the scanning accuracy can infinitely approach zero. This feature stems from the fact that space is infinitely divisible in physical theory. Using the gravitational field as a scanning medium, it can penetrate into the microscopic level for detection. Compared with traditional acoustic wave and electromagnetic wave scanning technologies, this invention has achieved a leapfrog improvement in accuracy, which is a major breakthrough in the field of scanning technology. This breakthrough not only expands the application boundaries of scanning technology but also opens up new possibilities for high-precision measurement, detection, and analysis. Brief Description of the Drawings

[0016] To comprehensively and accurately present the specific details of the technical solutions in the embodiments of this invention or the prior art, a brief overview of the content of the drawings cited in the description process is now given. It should be clearly pointed out that the drawings shown here are only the intuitive presentation carriers of some embodiments of this invention, intended to present the core points in a clear and intuitive manner, and do not exhaust all possible application scenarios. For professional technicians in this field, the basic principles contained in these drawings are like a "key". With solid professional knowledge and rich practical experience, they can deduce and design other related graphics and corresponding implementation schemes based on these basic principles without much creative labor. The core value of these drawings lies in deepening the public's understanding of the technical concept of this invention in an intuitive and easy-to-understand form, just like building a bridge connecting abstract theory and practical application, thereby inspiring the innovative thinking of technicians in different application scenarios and exploring more potential application possibilities.

[0017] Figure 1 Shows the overall layout schematic diagram of the gravitational field generator.

[0018] Figure 2 Shows the schematic diagram of the type of signal receiving device.

[0019] Figure 3 Shows the overall structure schematic diagram of the gravitational field generator.

[0020] Figure 4 A mind map overview of an electrical circuit is presented.

[0021] Figure 5 A schematic diagram of part of the structure of the gravitational field generator is shown.

[0022] Figure 6 A schematic diagram showing how the anion and cation acceleration chamber and the container of the polar charge separation system can be designed according to different scenarios.

[0023] Figure 7 A diagram showing the types and effects of acceleration schemes.

[0024] Figure 8 A schematic diagram showing the electric field, magnetic field, and gravitational field being perpendicular to each other and the gravitational field at its maximum value.

[0025] Figure 9 It shows how the gravitational field is further divided into positive gravitational field and anti-gravitational field.

[0026] Figure 10 The structural diagram of the LC oscillation circuit and the corresponding frequency calculation formula are shown.

[0027] Figure 11 A schematic diagram of the waveform of electromagnetic waves is shown, along with a formula for calculating its frequency.

[0028] Figure 12 The mathematical expression of the space-time identification equation is presented, and corresponding schematic diagrams are provided to help understand its physical meaning.

[0029] Figure 13 A diagram showing how the output signal is generated by combining the modulating signal with the carrier signal.

[0030] Figure 14 The derivation process is demonstrated, revealing the similarity between the space-time identity equation and the velocity of electromagnetic waves.

[0031] Figure 15 A schematic diagram showing how positive and negative gravitational fields act on the gravitational field of matter.

[0032] Figure 16 A schematic diagram showing how the motion of an object at the speed of light causes the axis of space to rotate.

[0033] Figure 17 A schematic diagram showing the anti-gravitational field diverging instantaneously to infinity and the positive gravitational field converging instantaneously to infinity.

[0034] Figure 18 A schematic diagram showing the relationship between the gravitational constant of a gravitational field and the scalar speed of light.

[0035] Figure 19 The core theoretical framework and key formulas on which the present invention is based are presented.

[0036] To facilitate understanding of the components and functions of Figures 1 through 5, the following clearly explains the specific meanings of the reference numbers: Gravitational Field Generator 1: As one of the core driving components of the entire system, it is primarily responsible for generating and outputting gravitational field fluctuations. These gravitational field fluctuations are the fundamental physical prerequisite for subsequent scanning and analysis operations. By precisely controlling its parameters, it provides a stable and adjustable gravitational field environment for the system. Antenna Reception Solution 2: This solution uses an antenna as a key device for receiving external signals. With its unique electromagnetic induction properties, the antenna can effectively capture signals of specific frequency bands and formats in space, providing a reliable means for the system to receive necessary information. Coil Reception Solution 3: This solution uses a coil as the core component for signal reception. Based on the principle of electromagnetic induction, the coil sensitively responds to changes in the surrounding magnetic field, thereby acquiring the desired signal, providing the system with another efficient and accurate signal reception method. High-Voltage Reception Solution 4: This solution utilizes a high-voltage negative electrode as a special device for receiving signals. Through the interaction between the high-voltage negative electrode and the surrounding electric field, it can receive specific signals, enriching the system's signal reception versatility. Substance 5: As the system's primary focus, it is the target entity in the entire scanning or analysis process. All system functions revolve around its precise detection and in-depth analysis. DETAILED DESCRIPTION

[0037] Next, the details of the technical solution of the present invention will be comprehensively and deeply analyzed in conjunction with the clear illustrations attached to the embodiments of the present invention. It must be emphasized that the embodiments listed here are only typical representatives of the many feasible implementation plans of the present invention. They are like keys to open the treasure house of technology, using concrete and tangible examples as a medium to intuitively explain the technical solution, but they are by no means a comprehensive coverage of all potential application scenarios. Each embodiment is like a window, through which we can glimpse part of the charm of the technical solution, and there is still a vast world to be unfinished. Based on the contents of the embodiments disclosed in detail in the present invention, those skilled in the art are like standing on the shoulders of giants, relying on their own solid knowledge reserves, reasonable logical reasoning and appropriate creative thinking, and are fully capable of deriving other implementation plans that are highly consistent with the core principles of the present invention. These derived solutions, no matter how the form of expression changes, are essentially a continuation and expansion of the technical ideas of the present invention, and should be deemed to fall within the technical scope claimed for protection by the present invention.

[0038] Overview of the Embodiment: This embodiment has made innovative expansions based on the artificial field plus mass technology, artificial field interference technology, and artificial field control of space-time technology. The following will focus on its newly added features and core components. The present invention uses the gravitational field scanning technology and innovatively adds three new schemes for receiving gravitational field fluctuations to achieve efficient and accurate scanning operations. The specific process is as follows: The gravitational field generating device emits gravitational field fluctuations, which interact with the substance to be scanned (such as interference, etc.), deflect and then return to the area where the device is located. When the gravitational field fluctuations are captured by the receiving circuit composed of the antenna receiving scheme and the coil receiving scheme, the signal will first enter the signal amplification circuit for enhancement processing, and then be converted into a digital signal by the analog-to-digital signal conversion circuit. These digital signals are further transmitted to the computer and the server, and in-depth data analysis is carried out by artificial intelligence algorithms. The imaging data obtained from the analysis is transmitted to the imaging system for visual display, and the audio data is transmitted to the audio system for playback. It is worth mentioning the third high-voltage receiving scheme. Due to the high-voltage environment involved, compared with the first two schemes, it adds an additional key step, that is, first converting the high-voltage signal into a low-voltage signal, and the subsequent signal amplification, conversion, and transmission steps are the same as the first two schemes.

[0039] Specifically, focus on the construction details of the gravitational field generator. Its power supply circuit is responsible for providing stable and suitable power supply for the entire system; the signal transmission circuit ensures the accurate and efficient transmission of various signals between different modules; the drive control circuit precisely regulates the operating states of each component; and the rectifier filter circuit purifies the current to ensure the stable operation of the device. In addition, key physical modules such as gas ionization, efficient charge separation, and precise acceleration of charged particles have completed scientific and innovative designs based on the systematic sorting, integration, and in-depth optimization of existing mature technologies. Given that the above components and their working principles are already in the category of widely verified and technically mature in this field, to avoid repeated description of content and causing redundant space, the technical details of them will not be elaborated here. It should be emphasized that this embodiment innovatively adds three gravitational field fluctuation receiving schemes as the core means to complete the scanning operation, which is a major highlight of this technical solution.

[0040] Specifically, in this embodiment, as shown in Figures 8 to 19, these figures collectively present the core elements of constructing the gravitational field generator, covering in-depth content such as its principle explanation, theoretical basis, formula derivation, etc. They are not only the theoretical cornerstone for the precise construction of the gravitational field generator, but also the underlying support for the subsequent smooth development and efficient operation of the scanning technology, laying a solid theoretical framework for the entire technical system.

[0041] Specifically, in this embodiment, as shown in FIGS. 1, 3 to 7, these figures focus on the hardware layout level of the gravitational field generator, and detail its overall architecture, mind map, key hardware parameters, etc. These information are not only important bases for the physical construction of the gravitational field generator, but also indispensable basic materials for constructing other artificial field technologies, providing hardware-level guarantees for the coordinated development of various technologies.

[0042] Specifically, in this embodiment, as shown in FIG. 2, this figure clearly shows the hardware differences among the three receiving schemes, namely, antenna receiving scheme 2, coil receiving scheme 3, and high-voltage receiving scheme 4, in the form of circuit symbols. Among them, antenna receiving scheme 2 uses an antenna to complete signal reception; coil receiving scheme 3 uses a coil to capture signals; high-voltage receiving scheme 4 performs voltage conversion at the negative high-voltage terminal through a magnetic core to obtain low-voltage signals, laying a foundation for subsequent signal processing.

[0043] Specifically, in this embodiment, as shown in FIGS. 1 to 4, when the first antenna receiving scheme 2 is adopted, the circuit system delivers a high-voltage electric field with a specific signal to the gravitational field generator 1. Under this architecture, the cation acceleration chamber is connected to the positive high-voltage terminal, and the anion acceleration chamber is connected to the negative high-voltage terminal. Then the gravitational field generator 1 generates a specific type of anti-gravitational field fluctuation, such as high-frequency or low-frequency anti-gravitational field fluctuations, to perform a scanning operation on the target substance 5. As shown in FIGS. 16, Figure 17 shows, from a theoretical level, the dynamic changes of the gravitational field. The anti-gravitational field instantaneously diverges to infinity, and the positive gravitational field instantaneously converges to infinity. Then the anti-gravitational field turns back and gradually forms a positive gravitational field. Returning to FIG. 1, at this time, the antenna receiving scheme 2 is exactly in the positive gravitational field region. Since the gravitational field generates an electric field over time, the antenna receiving scheme 2 begins to receive relevant gravitational field fluctuation signals. As shown in FIG. 4, the received signals are first enhanced by an amplifier circuit and then converted into digital signals by an analog-to-digital signal conversion circuit. These digital signals are transmitted to a computer and a server and then deeply processed by an artificial intelligence algorithm to analyze relevant data. After that, the imaging system and the audio system synthesize the data to generate images and sounds, which are finally provided for researchers for further analysis.

[0044] Specifically, in this embodiment, as shown in FIGS. 1 to 4, when the second coil receiving scheme 3 is enabled, the circuit system undertakes the important task of delivering a specific signal high-voltage electric field to the gravitational field generator 1. Under this architecture, the cation acceleration chamber is connected to the high-voltage positive electrode, and the anion acceleration chamber is connected to the high-voltage negative electrode, thereby constructing a stable electric field environment. The gravitational field generator 1 responds to the electric field signal and generates anti-gravitational field fluctuations of a specific type (such as high-frequency or low-frequency), and these fluctuations precisely act on the target substance 5 to complete the scanning task. As shown in FIGS. 16 and 17, the dynamic evolution law of the gravitational field is elaborated from a theoretical level, that is, the anti-gravitational field instantaneously diverges to infinity, the positive gravitational field instantaneously converges to infinity, and then the anti-gravitational field turns back and gradually converges to form a positive gravitational field. Returning to FIG. 1, at this time, the coil receiving scheme 3 is exactly in the positive gravitational field region. Since the gravitational field generates a magnetic field as time changes, the coil starts to receive relevant gravitational field fluctuation signals by virtue of its unique electromagnetic induction characteristics. As shown in FIG. 4, the received signals are first enhanced by an amplifier circuit and then converted into digital signals by an analog-to-digital signal conversion circuit. After these digital signals are transmitted to the computer and the server, they are deeply processed by an artificial intelligence algorithm to analyze relevant data. Finally, the imaging system and the audio system synthesize the data to generate images and sounds for researchers to further analyze and study.

[0045] Specifically, in this embodiment, as shown in FIGS. 1 to 4, when the high-voltage receiving scheme 4 is adopted, the circuit system precisely delivers a high-voltage electric field with a specific signal to the gravitational field generator 1. Under this architecture, the cation acceleration chamber is connected to the high-voltage positive electrode, and the anion acceleration chamber is connected to the high-voltage negative electrode. The gravitational field generator 1 generates anti-gravitational field fluctuations of a specific type such as high-frequency or low-frequency according to the electric field signal, and these fluctuations precisely act on the target substance 5 to complete the scanning operation. As shown in FIGS. 16 and 17, the dynamic change characteristics of the gravitational field are revealed from a theoretical level, that is, the anti-gravitational field instantaneously diverges to infinity, the positive gravitational field instantaneously converges to infinity, and then the anti-gravitational field turns back and gradually forms a positive gravitational field. As shown in FIG. 5, at this time, the high-voltage receiving scheme 4 is in the positive gravitational field region. Since the gravitational field generates a magnetic field as time changes, the high-voltage receiving scheme 4 starts to receive relevant gravitational field fluctuation signals accordingly. As shown in FIGS. 2 and 5, a toroidal magnetic core is added at the high-voltage negative electrode in this scheme. This magnetic core has a high conversion efficiency and can effectively convert the received signals into low-voltage signals. As shown in FIG. 4, the converted low-voltage signals are enhanced by an amplifier circuit and then converted into digital signals by an analog-to-digital signal conversion circuit. After these digital signals are transmitted to the computer and the server, they are deeply processed by an artificial intelligence algorithm to analyze relevant data. Finally, the imaging system and the audio system synthesize the data to generate images and sounds for researchers to further analyze and study.

[0046] The working principle of the present invention is based on a highly innovative theory: by means of specific technologies, the changing electromagnetic field is transformed into a gravitational field, and the gravitational field is further divided into two major categories: positive gravitational field and negative gravitational field. This theory is not a castle in the air, but is born from the fertile soil of mature technical systems such as artificial field plus mass technology, artificial field interference technology, and artificial field control of space-time technology. It is a perfect integration of technological accumulation and innovative thinking. To achieve the goal of efficient scanning, the present invention innovatively proposes three signal receiving schemes. Among them, the antenna receiving scheme and the coil receiving scheme benefit from the long-term development of existing technologies, with a high degree of technological maturity, and have the value of being quickly developed and put into practical application, and can be quickly transformed into productive forces. The high-voltage receiving scheme, on the other hand, takes a different approach. Its unique advantage is that there is no need to additionally set up a receiving device externally, which simplifies the system structure. All three of these schemes use the gravitational field as the core scanning mechanism and exhibit many remarkable advantages: the instantaneous response characteristic greatly improves the scanning efficiency; the action distance is almost infinite, expanding the application scope of scanning; the scanning accuracy can theoretically reach an infinitesimal level, providing the possibility for fine scanning. Particularly crucial is that this technology builds a solid bridge for realizing quantum communication, pioneeringly integrating the scanning and communication functions highly and in an integrated manner, injecting powerful impetus into the technological innovation in related fields.

[0047] Finally, it must be emphasized that the above content is only a comprehensive and detailed elaboration of a preferred embodiment of the present invention, and in no way intends to limit the broad protection scope enjoyed by the present invention. Although we have deeply and thoroughly analyzed the present invention around this embodiment, professionals in the field should understand that they are fully capable of relying on the core technologies and innovative ideas revealed by this embodiment to flexibly and adaptively adjust the technical solutions according to different actual application requirements. Specifically, equivalent replacements, further innovative optimizations, etc. can be carried out on key technical elements. As long as these adjustments, replacements, or optimizations do not deviate from the core concept and basic principles of the present invention, whether manifested as changes in structural form, equivalent substitutions at the functional level, or significant improvements in performance indicators, they should be considered as falling within the protection scope claimed by the present invention. We sincerely welcome and strongly encourage continuous exploration and innovative practices in this field to continuously expand the application boundaries and technical depth of the present invention and inject continuous impetus into the development of science and technology.

Claims

1. A scanning technology based on a plate-accelerated gravitational field generator, the core feature of which is that it innovatively integrates artificial field plus mass technology, artificial field interference technology, and artificial field control of space-time technology in depth. The following will focus on analyzing its new features and core components. This technology uses gravitational field scanning and adds three new schemes to receive gravitational field fluctuations to achieve the scanning purpose. During the specific working process, the gravitational field fluctuations are emitted to the target area. After interfering with matter, they will change the propagation path and return to the area where the device is located. When the gravitational field fluctuations are captured by the circuit composed of the antenna reception scheme and the coil reception scheme, they will enter the signal amplification circuit for signal enhancement, and then be converted into digital signals through the analog-to-digital signal circuit, and then transmitted to the computer and the server. Artificial intelligence conducts data analysis on the digital signals, the imaging data is transmitted to the imaging system for presentation, and the audio data is sent to the audio system for playback. As for the third high-voltage reception scheme, due to the high-voltage environment involved, there is an additional key step compared to the first two schemes, that is, first convert the high-voltage signal into a low-voltage signal, and the subsequent signal amplification, analog-to-digital conversion, and data transmission steps are the same as those of the first two schemes.

2. The scanning technology based on a plate-accelerated gravitational field generator according to claim 1, characterized in that: In terms of the signal receiving device, the antenna reception scheme uses an antenna as the core component, which has significant advantages. It can directly couple the electric field, effectively capture the tiny changes in the electric field, has extremely high spatial resolution, can accurately locate the signal source position, and has good bandwidth matching, and can adapt to gravitational field fluctuation signals of various frequencies. The coil reception scheme selects a coil as the receiving device, and its uniqueness lies in indirectly coupling the magnetic field change. When the gravitational field fluctuation causes the magnetic field to change, the coil can keenly sense it, and has excellent anti-interference ability, especially suitable for receiving transient signals, and can work stably even in a complex electromagnetic environment. In the high-voltage reception scheme, in order to safely and efficiently convert the high-voltage signal into a low-voltage signal, a magnetic core is newly added to the high-voltage negative electrode as a structural component. This scheme has a relatively low cost and strong practicability, and can effectively convert the signal while ensuring safety.

3. A scanning technique based on a plate-accelerated gravitational field generator according to claim 1, characterized in that: The signal amplification circuit adopts a step-by-step amplification design from single-tube amplification to multi-tube amplification. This design aims to significantly enhance the signal amplification effect. By gradually increasing the signal strength, it can effectively overcome the attenuation of the signal caused by factors such as line loss and environmental interference during the transmission process, and at the same time suppress noise interference, providing a clear and stable signal source for subsequent signal processing, and ensuring the signal quality and accuracy.

4. A scanning technique based on a plate-accelerated gravitational field generator according to claim 1, characterized in that: After the analog signal is amplified, it needs to be converted into a digital signal by an analog-to-digital converter (ADC). This conversion process is a key step to realize data digitization, which is convenient for subsequent precise data analysis and processing. With the powerful computing ability of the computer, the digital signal can be deeply mined to extract key information, greatly improving the accuracy and efficiency of the analysis.

5. A scanning technique based on a plate-accelerated gravitational field generator according to claim 1, characterized in that: After data collection, the technology integrates artificial intelligence algorithms, imaging system algorithms, and audio system algorithms. With its deep learning and analysis capabilities, the artificial intelligence algorithm combines the intuitive image information provided by the imaging system algorithm and the sound information presented by the audio system algorithm to achieve rapid interpretation and accurate identification of the results of artificial field scanning, improving data processing efficiency and accuracy.

6. A scanning technique based on a plate-accelerated gravitational field generator according to claim 1, characterized in that: In theory, this technology can achieve infinitely small scanning precision, which benefits from its use of the gravitational field as the scanning medium. The gravitational field is essentially composed of spatial fluctuations. Space is infinitely divisible in physical theory, and the gravitational field also has a fine structure, enabling the technology to perform extremely fine scanning and analysis of target objects. By precisely controlling the fluctuation characteristics of the gravitational field, it is possible to capture and analyze the structure and properties of matter at the microscopic scale, achieving extremely high scanning precision.

7. A scanning technique based on a plate-accelerated gravitational field generator according to claim 1, characterized in that: The gravitational field fluctuations generated by this technology are controlled by the output signal. The output signal consists of a modulation signal and a carrier signal. The carrier signal is generated and provided through an efficient LC oscillation scheme. This output signal is used to adjust the gravitational field fluctuations, making them exhibit diverse characteristics during scanning to meet the analysis requirements of different scenarios.

8. A scanning technique based on a plate-accelerated gravitational field generator according to claim 1, characterized in that: To deeply analyze the operating mechanisms of its three receiving schemes, the following elaboration is made. According to the relevant principles of special relativity, when an object moves in a uniform straight line at a speed v along x the axis, this state of motion will cause a relative change in the spatial structure. Specifically, from the perspective of the change in the spacetime metric, x the axis will show an inclination. As the moving speed of the object continuously increases, this inclination effect becomes more and more significant. When the moving speed of the object approaches the speed of light c , the degree of inclination will reach the extreme. Under theoretical derivation, x the axis will rotate by 90 degrees. At this time, the projected length of the space along the moving direction of the object on the x axis will theoretically be reduced to zero, which means that the original three-dimensional space degenerates into a two-dimensional space in this specific direction. Since the gravitational field propagates at the speed of light (this conclusion can be derived from the internal connection between the gravitational constant and the scalar speed of light), in the extreme hypothetical scenario where the object moves at the speed of light, an analogous analysis can be carried out: the anti-gravitational field instantaneously diverges to infinity, while the positive gravitational field instantaneously converges to infinity. The three receiving schemes of the present invention are all arranged in the positive gravitational field region. The positive gravitational field is not static but continuously changes with time, and this change will excite an electric field and a magnetic field. The changing electric field and magnetic field provide signals that can be captured by the three receiving schemes. In actual application scenarios, this scanning technology can achieve high-precision scanning, which is mainly due to two aspects: one is the delicate control of the gravitational field, accurately regulating various parameters of the gravitational field; the other is the adoption of advanced signal processing technology, which can efficiently and accurately extract and process the effective information in the gravitational field signal.

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