Scanning technology based on annular gravitational field generator

Abstract

According to the method, core ideas of a unified field theory and an interference field theory are deeply fused, and frontier fields such as an artificial field and quality technology, an artificial field interference technology and an artificial field control space-time technology are further explored and greatly expanded on the basis of related theories. The invention is an extension of a circular ring type gravitational field generator (application number: 2025105132217), and aims to realize a scanning function. The core principle is that scanning operation is carried out by utilizing a gravitational field, and three gravitational field fluctuation receiving modes in a positive gravitational field area, namely antenna receiving, coil receiving and high-voltage receiving, are configured. Received signals are amplified and converted into digital signals, the digital signals are transmitted to the artificial intelligence system for analysis, finally, images and dynamic effects are presented through the imaging system, and the audio system synchronously plays related sounds.

Description

Technical Field

[0001] The present invention focuses on the forefront of scanning technology and is a practical innovative achievement derived from the deep integration of artificial field plus mass technology, artificial field interference technology, and artificial field control of space-time technology. The core objective of this technology is to achieve long-distance and high-precision scanning efficiency. By integrating a variety of cutting-edge artificial field technologies, it breaks through the limitations of traditional scanning technology in terms of distance and precision, providing a more efficient and accurate scanning solution for related fields. Background Art

[0002] The present invention makes an innovative supplement based on "a toroidal gravitational field generator (Application No.: 2025105132217)", adding three receiving modes: antenna reception, coil reception, and high-voltage reception. Through mode expansion and function integration, it endows the device with the ability to scan the gravitational field, upgrading the original device to a practical technology with multi-mode reception and high-precision scanning functions, meeting the application requirements of diverse scenarios.

[0003] The outstanding advantage of the present invention is that, relying on a unique technical architecture, it can achieve high-precision scanning operations under long-distance conditions. Moreover, there is no radiation leakage during the entire scanning process, fundamentally eliminating radiation hazards. In key dimensions such as scanning accuracy control, effective operating distance expansion, and ensuring a safe and friendly operating environment, it demonstrates more excellent and remarkable comprehensive advantages compared to traditional technologies. Summary of the Invention

[0004] The present invention is deeply rooted in the technical systems of artificial field plus mass technology, artificial field interference technology, and artificial field control of space-time technology. It innovatively adds three signal receiving modes: antenna reception, coil reception, and high-voltage reception, and successfully develops a breakthrough new scanning technology. Its core principle is to convert a dynamically changing electromagnetic field into a gravitational field. This conversion process not only generates a gravitational field but also precisely divides it into two key parts: a positive gravitational field and an anti-gravitational field.

[0005] At the technical implementation level, the present invention expands based on the existing technical framework. The following focuses on analyzing its new features and core architecture. This technology uses the gravitational field to perform scanning and receives gravitational field fluctuation signals through the above three modes to achieve the scanning target. Specifically, after the gravitational field fluctuation emitted interacts with the target substance, it returns to the device receiving area. When the gravitational field fluctuation is captured by the circuit constructed by the antenna reception and coil reception modes, the signal is processed by the amplifier circuit in sequence, and then converted into a digital signal by the analog-to-digital conversion circuit and transmitted to the computer and server. After in-depth analysis of the data by artificial intelligence, the imaging data is transmitted to the imaging system to present the image, and the audio data is handed over to the audio system for playback. Among them, due to the high-voltage environment involved in the high-voltage reception mode, there is an additional link of converting the high-voltage signal to a low-voltage signal compared to the previous two modes, and the subsequent signal processing, transmission, and display processes are the same as the previous two.

[0006] Preferably, in the implementation of the present invention, in the antenna receiving mode, an antenna is selected as the signal receiving device. Due to its characteristic of directly coupling the electric field, the antenna demonstrates excellent spatial resolution and good bandwidth matching, enabling it to accurately capture the required signals. The coil receiving mode uses a coil to receive signals. By indirectly coupling the magnetic field changes, it exhibits strong anti-interference ability, especially suitable for receiving transient signals and effectively filtering out clutter interference. The high-voltage receiving mode adds a structural component, with a magnetic core added to the high-voltage negative electrode to achieve the conversion of high-voltage signals to low-voltage signals. The magnetic core solution combines economy and practicality, being able to control costs while ensuring performance.

[0007] Preferably, in the implementation of the present invention, the signal amplification circuit adopts a step-by-step amplification design from a single tube to multiple tubes to enhance the signal amplification efficiency, ensuring that the signal is fully enhanced during the transmission process, improving the signal quality and accuracy, overcoming signal attenuation and noise interference, and providing a clear and stable signal source for subsequent processing.

[0008] Preferably, in the implementation of the present invention, after the analog signal is amplified, it is converted into a digital signal by means of an analog-to-digital converter (ADC) to achieve data digitization, facilitating subsequent precise analysis and processing. Utilize the computing power of a computer to deeply analyze the signal, extract key information, and improve accuracy and efficiency.

[0009] Preferably, in the implementation of the present invention, after data collection, artificial intelligence algorithms, imaging system algorithms, and audio system algorithms are integrated. With the help of the deep learning and analysis capabilities of artificial intelligence, combined with the intuitive multi-dimensional information provided by the imaging and audio systems, quickly interpret and accurately identify the results of the industrial site scan, improving the data processing efficiency and accuracy.

[0010] Preferably, in the implementation of the present invention, this technology can theoretically achieve an infinitely small scanning accuracy because the gravitational field is used as the scanning medium. The gravitational field is composed of spatial fluctuations. Space is infinitely divisible in physical theory, and the gravitational field has a fine structure, enabling the technology to microscopically scan and analyze the target object. 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 accuracy.

[0011] Preferably, in the implementation of the present invention, the gravitational field fluctuations generated by the technology are controlled by the output signal. The output signal is composed of a modulation signal and a carrier signal, and the carrier signal can be generated through an efficient LC oscillation scheme. This signal is used to adjust the gravitational field fluctuations to achieve diverse analysis of the scan.

[0012] Preferably, in the implementation of the present invention, to clearly understand the operating mechanisms of the three receiving modes of antenna reception, coil reception, and high-voltage reception in the present invention, the following targeted explanations are made: When an object moves in a uniform linear motion along the x-axis at a speed v, its motion state will cause a relative change in the spatial structure, which is intuitively manifested as an inclination phenomenon on the x-axis. As the object's motion speed continuously approaches the speed of light, this inclination effect will become more and more significant. Theoretically, when the speed reaches the speed of light, the x-axis will rotate by 90 degrees. At this time, the projected length of the space along the object's motion direction on the x-axis theoretically becomes zero, that is, the three-dimensional space degenerates into a two-dimensional form in this specific direction. Given that the fluctuation speed of the gravitational field is the same as the speed of light (this characteristic can be deduced from the correlation between the gravitational constant and the scalar speed of light), in the extreme case where the object moves at the speed of light, an analogical analysis can be carried out: The anti-gravitational field will instantaneously diverge to infinity, while the positive gravitational field will instantaneously converge to infinity. The three receiving modes of the present invention are all in the region of the positive gravitational field, and the gravitational field will generate an electric field and a magnetic field as it changes with time, thereby providing the signals required for the three receiving modes. In practical applications, the high precision achieved by the scanning technology benefits from both the precise control of the gravitational field and advanced signal processing technology.

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

[0014] Based on the innovative principle of the conversion of variable electromagnetic fields into gravitational fields, the present invention deeply integrates the cutting-edge achievements of artificial field plus mass technology, artificial field interference technology, and artificial field control of space-time technology. Under this technical framework, the present invention demonstrates many significant advantages: It has high controllability and can precisely regulate operating parameters; it has a powerful data analysis ability and can deeply explore data value; it has an ultra-long action distance and can expand application scenarios; and there is no radiation leakage throughout the process, ensuring excellent safety. These advantages work together to make the present invention take a leading position in related fields, improving both the flexibility and efficiency of technology applications and ensuring the green safety of the operating environment.

[0015] The most remarkable feature of the present invention is that in addition to achieving instantaneous response and theoretically covering an infinite distance, it also has the key advantage of theoretically infinitely small scanning accuracy. This advantage stems from the fact that space is infinitely divisible in physical theory. Compared with traditional acoustic wave scanning and electromagnetic wave scanning technologies, the present invention has achieved a leapfrog improvement in accuracy, which is a major breakthrough in the field of scanning technology. This breakthrough not only greatly broadens the application boundaries of scanning technology but also opens up new possibilities for high-precision measurement, detection, and analysis work. Description of the Drawings

[0016] In order to present the specific details of the embodiments of the present invention or the prior art solutions in detail and accurately, the contents of the referenced drawings will be summarized below. It should be clearly pointed out that the drawings shown here are only intuitive presentation carriers of some embodiments of the present invention, and are intended to provide a clear and concrete reference perspective, rather than exhaustive of all possible application scenarios. For professionals in this field, based on the core principles presented in the drawings, other related graphics and corresponding implementation plans can be deduced without investing too much creative energy. The core value of these drawings is that they help to deeply understand the technical concept of the present invention in an intuitive and easy-to-understand way, and stimulate the innovative vitality and practical potential of technicians in multiple application scenarios.

[0017] Figure 1 A schematic diagram of the overall layout of the gravitational field generator is shown.

[0018] Figure 2 A schematic diagram showing types of signal receiving devices.

[0019] Figure 3 The overall structural diagram of the gravitational field generator is shown.

[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 schematic diagram showing how to generate an output signal by combining a modulation signal and a carrier signal.

[0030] Figure 14 A derivation process is shown, revealing the similarity between the space-time unification equation and the speed of electromagnetic waves.

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

[0032] Figure 16 A schematic diagram showing the rotation of the space axis caused by the object moving at the speed of light.

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

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

[0035] Figure 19 A schematic diagram showing the core theoretical framework and its key formulas on which the present invention is based.

[0036] In Figures 1 to 5 In the content presented, the meanings corresponding to each label are explained as follows: Gravitational field generator 1: As the core device of the entire system, its function is to generate gravitational field fluctuations and provide a basic energy field source for subsequent scanning and analysis work. Receiving device 2: Located in the positive gravitational field region, it has three signal receiving modes: antenna receiving, coil receiving, and high-voltage receiving, which can flexibly adapt to different scenario requirements. Antenna receiving mode 201: Using the antenna as the signal receiving carrier to directly capture gravitational field fluctuation signals. Coil receiving mode 202: Using the coil as the signal receiving unit to indirectly sense the changes in gravitational field fluctuations. High-voltage receiving mode 203: Using the negative high-voltage terminal as the signal receiving end to complete the signal receiving task in special environments. Matter 3: The target object to be scanned or analyzed by the system, which is the core target for the technology to play its role. Detailed implementation manners

[0037] The following will comprehensively and meticulously analyze the technical details of the present invention in combination with the drawings of the embodiments of the present invention. It should be emphasized that the embodiments listed here are only typical representatives of the diverse feasible solutions of the present invention, intended to be explained through specific cases rather than covering all potential application scenarios. Those skilled in the art can, based on the content of the embodiments disclosed in the present invention, deduce other solutions that conform to the principles of the present invention through reasonable derivation and appropriate innovation, and such solutions should all be included in the technical scope claimed by the present invention.

[0038] Overview of the Embodiment: This embodiment expands and innovates based on the artificial field plus mass technology, artificial field interference technology, and artificial field space-time control technology. The following will focus on its new features and core architecture. The present invention uses the gravitational field scanning method and adds three new modes to receive gravitational field fluctuation signals to achieve the scanning purpose. Specifically, after the gravitational field fluctuation is emitted and interacts with the target substance, it then returns to the equipment area. When the gravitational field fluctuation is captured by the circuit composed of the antenna reception mode and the coil reception mode, the signal is processed by the signal amplification circuit and then converted into a digital signal by the analog-to-digital conversion circuit, and transmitted to the computer and the server. The artificial intelligence analyzes the data, the imaging data is presented in the imaging system, and the audio data is played in the audio system. The third high-voltage reception mode involves high voltage and has an additional step of converting the high-voltage signal to a low-voltage signal compared to the first two, and the rest of the process is the same as the first two.

[0039] Specifically, focusing on the construction details of the gravitational field generator, its power supply circuit is responsible for stable power supply, the signal transmission circuit ensures accurate signal transmission, the drive control circuit realizes fine regulation, the rectifier filter circuit optimizes the power quality, and key physical modules such as gas ionization, efficient charge separation, and precise acceleration of charged particles cooperate. These components achieve scientific design and innovation on the basis of systematically integrating and optimizing existing technologies. Since such components and their principles are mature and common in this field, to avoid repetition, the technical details are not elaborated here. It should be emphasized that the present invention adds three new gravitational field fluctuation reception modes to complete the scanning task.

[0040] Specifically, in this embodiment, as Figures 8 to 19 shown, its content focuses on the construction of the gravitational field generator, covering core points such as principle explanation, theoretical derivation, and formula calculation. These contents constitute the theoretical cornerstone and technical support for the realization of the scanning technology.

[0041] Specifically, in this embodiment, as Figure 1 、 Figures 3 to 7 shown, what is presented is the overall architecture layout, mind map framework, and hardware parameter configuration of the gravitational field generator and other key information. These contents are not only important bases for the construction of the gravitational field generator itself but also indispensable basic elements for constructing other artificial field technologies.

[0042] Specifically, in this embodiment, as Figure 2 shown, what is displayed are the circuit symbol identifications of the antenna reception mode 201, the coil reception mode 202, and the high-voltage reception mode 203, intuitively reflecting the hardware differences of these three reception modes. Among them, the antenna reception mode 201 relies on the antenna to complete signal reception, the coil reception mode 202 uses the coil to capture the signal, and the high-voltage reception mode 203 completes the conversion of the high-voltage signal to a low-voltage signal by adding a magnetic core at the negative high-voltage terminal.

[0043] Specifically, in this embodiment, in combination with Figures 1 to 4 Content: When the first antenna reception mode 201 is adopted, the circuit applies a high-voltage electric field containing a specific signal to the gravitational field generator 1, making the cation acceleration chamber connected to the high-voltage positive electrode and the anion acceleration chamber connected to the high-voltage negative electrode, so as to drive the gravitational field generator 1 to generate high-frequency or low-frequency anti-gravitational field fluctuations and perform a scanning operation on the target substance 3. Based on Figure 16 , Figure 17 The theory shown, "The anti-gravitational field instantaneously diverges to infinity, and the positive gravitational field instantaneously converges to infinity", after the anti-gravitational field propagates, it turns and returns, and then forms a positive gravitational field. At this time, the receiving device 2 is exactly in the positive gravitational field region. Since the gravitational field generates an electric field as time changes, the antenna reception mode 201 captures the relevant gravitational field fluctuation signals through this. The signals are processed by the amplifier circuit and converted into digital signals, and then transmitted to the computer and the server. The artificial intelligence analyzes the data, and the image and sound are synthesized by the imaging and audio systems for the researchers to deeply analyze.

[0044] Specifically, in this embodiment, referring to Figures 1 to 4 The process shown: When the second coil reception mode 202 is enabled, the circuit system injects a high-voltage electric field carrying a specific signal into the gravitational field generator 1, making the cation acceleration chamber connected to the high-voltage positive electrode and the anion acceleration chamber connected to the high-voltage negative electrode, so as to drive the gravitational field generator 1 to generate high-frequency or low-frequency anti-gravitational field fluctuations and perform a precise scan on the substance 3. According to Figure 16 , Figure 17 The principle described, "The anti-gravitational field instantaneously diverges to infinity, and the positive gravitational field instantaneously converges to infinity", after the anti-gravitational field propagates, it turns and returns, and finally forms a positive gravitational field. At this time, the receiving device 2 is in the region of action of this positive gravitational field. Since the gravitational field generates a magnetic field as time goes by, the coil reception mode 202 captures the relevant gravitational field fluctuation signals through this. The signals are processed by the amplifier circuit and converted into digital signals, and then transmitted to the computer and the server. The artificial intelligence conducts in-depth analysis, and the image and sound are synthesized by the imaging and audio systems for the researchers to further explore and analyze.

[0045] Specifically, in this embodiment, in combination with Figures 1 to 4 The content shown: When the third high-voltage reception mode 203 is adopted, the circuit provides a high-voltage electric field carrying a specific signal to the gravitational field generator 1, 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, driving the gravitational field generator 1 to generate high-frequency or low-frequency anti-gravitational field fluctuations and perform a scan on the substance 3. Based on Figure 16 , Figure 17According to the principle shown, "the anti-gravitational field instantaneously diverges to infinity, and the positive gravitational field instantaneously converges to infinity". After the anti-gravitational field propagates, it turns and returns to form a positive gravitational field. At this time, the receiving device 2 is in the area of the positive gravitational field. Since the gravitational field generates a magnetic field as it changes over time, the high-voltage receiving mode 203 starts to receive relevant signals. As Figure 2 、 Figure 5 shown, in this mode, an efficient conversion circular magnetic core is added to the high-voltage negative electrode to convert the high-voltage signal into a low-voltage signal. The subsequent signals are amplified, subjected to analog-to-digital conversion, and then transmitted to the computer and the server. The artificial intelligence analyzes the data, and through the imaging and audio systems, images and sounds are synthesized for the researchers to analyze.

[0046] The working principle of the present invention is based on an innovative theory: by specific technical means, the dynamically changing electromagnetic field is converted into a gravitational field, and the gravitational field is further accurately divided into two categories: the positive gravitational field and the anti-gravitational field. This theory is developed based on the profound accumulation of artificial field plus mass technology, artificial field interference technology, and artificial field control of space-time technology. The present invention innovatively proposes three signal receiving modes to achieve the efficient scanning function. Among them, the antenna receiving mode and the coil receiving mode have a high technology maturity and have the value of being quickly put into practical application; the high-voltage receiving mode does not require an additional external receiving device and has a better integration. All three modes use the gravitational field as the scanning medium and have the significant advantages of instantaneous response, an almost infinitely extended action range, and a theoretical scanning accuracy infinitely approaching the microscopic level. Particularly crucial is that this technical system provides underlying support for quantum communication and realizes for the first time the deep integration and integrated innovation of the scanning and communication functions.

[0047] It should be emphasized that the foregoing content only comprehensively and meticulously explains a certain preferred embodiment of the present invention, and in no way intends to limit the protection scope of the present invention. Although in-depth analysis has been carried out around this embodiment, those skilled in the art should clearly recognize that they can, based on the core technologies and innovative ideas disclosed in this embodiment, flexibly carry out adaptive improvements in combination with specific application scenarios, make equivalent replacements or in-depth innovative optimizations of key technical elements. As long as such adjustments, replacements, or optimizations do not deviate from the core essence and basic principles of the present invention, whether manifested as an innovation in the structural form, an equivalent iteration of the function, or a leapfrog improvement in the performance indicators, they should all be included in the protection scope claimed by the present invention. The present invention always adheres to an open attitude, encourages continuous in-depth cultivation and innovation breakthroughs in this field, in order to expand the application boundaries, break through the technical boundaries, and contribute to the progress of science and technology.

Claims

1. A scanning technology based on a toroidal gravitational field generator, whose core features are as follows: innovatively integrating artificial field plus mass technology, artificial field interference technology, and artificial field space-time control technology in depth. The following will focus on analyzing its new features and core architecture. This technology performs scanning by means of a gravitational field and adds three modes to receive gravitational field fluctuations, thereby achieving precise scanning. Specifically, after the emitted gravitational field fluctuations interact with the target substance to generate interference, they will return to the device receiving area along a preset path. When the gravitational field fluctuations are captured by the circuit jointly constructed by the antenna receiving mode and the coil receiving mode, the signal will be processed by the signal amplification circuit step by step, then converted into a digital signal by the analog-to-digital conversion circuit, and then transmitted to the computer and the server. After in-depth analysis of the data by artificial intelligence, the imaging data will be transmitted to the imaging system to present the image, and the audio data will be played by the audio system. As for the third high-voltage receiving mode, due to its involvement in a high-voltage environment, there is an additional key process compared to the first two modes, that is, the high-voltage signal needs to be converted into a low-voltage signal first, and the subsequent signal processing, transmission, and display processes are the same as the first two.

2. The scanning technique based on a toroidal gravitational field generator according to claim 1, characterized in that: In terms of the signal receiving device, the antenna receiving mode takes the antenna as the core, and its advantage lies in its ability to directly couple the electric field, with excellent spatial resolution and good bandwidth matching; the coil receiving mode uses a coil to receive signals by indirectly coupling the magnetic field change, with outstanding anti-interference ability, especially suitable for transient signal scenarios; the high-voltage receiving mode is a new structure for processing high-voltage signal conversion to low-voltage signal, adding a magnetic core to the negative pole of high voltage, and this solution combines economy and practicality.

3. The scanning technology based on a toroidal gravitational field generator according to claim 1, characterized in that: The signal amplification circuit adopts a step-by-step amplification architecture from single-tube to multi-tube. This design aims to enhance the signal amplification efficiency, ensure that the signal is fully enhanced during the transmission process, and improve the signal quality and accuracy. Step-by-step amplification can effectively resist signal attenuation and noise interference, providing a clear and stable signal source for subsequent signal processing.

4. A scanning technique based on a toroidal 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 step aims to achieve data digitization, facilitating subsequent precise data analysis and processing. Through analog-to-digital conversion, the powerful computing power of the computer can be fully utilized to deeply analyze the signal, extract key information, and improve the analysis accuracy and efficiency.

5. A scanning technique based on a toroidal gravitational field generator according to claim 1, characterized in that: After data acquisition, this technology integrates artificial intelligence algorithms, imaging system algorithms, and audio system algorithms. With the help of the deep learning and analysis capabilities of artificial intelligence, combined with the intuitive multi-dimensional information provided by the imaging and audio systems, it can quickly interpret and accurately identify the results of the artificial field scanning, improving the data processing efficiency and accuracy.

6. A scanning technique based on a toroidal gravitational field generator according to claim 1, characterized in that: This technology has a theoretically infinitely small scanning accuracy. Its high precision stems from using the gravitational field as the scanning medium, and the gravitational field is essentially composed of spatial fluctuations. Based on the infinite divisibility of space in physical theory, the gravitational field has a fine structure, enabling this technology to conduct detailed scanning and analysis of the target object at the microscopic level. By precisely controlling the characteristics of the gravitational field fluctuations, the structure and properties of matter can be captured and analyzed at the microscopic scale, achieving extremely high scanning accuracy.

7. A scanning technique based on a toroidal gravitational field generator according to claim 1, characterized in that: The gravitational field fluctuations generated by this technology are regulated by the output signal. The output signal is composed of a modulation signal and a carrier signal, and the carrier signal can be generated through an efficient LC oscillation scheme. This output signal is used to adjust the gravitational field fluctuations to achieve diverse analysis of the scan.

8. A scanning technique based on a toroidal gravitational field generator according to claim 1, characterized in that: To thoroughly explain the operating mechanisms of the three receiving modes of the antenna, coil, and high voltage of the present invention, the following special explanations are made. When an object moves in a uniform straight line along the x-axis at a speed v, its motion state will cause a relative change in the spatial structure, which is intuitively manifested as an inclination of the x-axis. As the object's motion speed approaches the speed of light, this inclination effect becomes more significant. Theoretically, when the speed reaches the speed of light, the x-axis will rotate 90 degrees. At this time, the projected length of the space along the object's motion direction on the x-axis theoretically becomes zero, that is, the three-dimensional space degenerates into a two-dimensional form in this specific direction. Given that the gravitational field fluctuation speed is the speed of light (this characteristic can be deduced from the relationship between the gravitational constant and the scalar speed of light), 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 modes of the present invention are all in the positive gravitational field region, and as the gravitational field changes with time, it will generate an electric field and a magnetic field, thereby providing the signals required for the three receiving modes. In practical applications, the high precision of this scanning technology is due to the precise control of the gravitational field and advanced signal processing technology.

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