Biofield produced and guided by artificial field

Description

Artificial field guided biofield technology Technical Field

[0001] This invention relates to the cutting-edge field of field interference technology in unified field theory. As an advanced version of brain-computer interface technology, it focuses on developing an advanced technology that enables remote machine control through thought. Background Technology

[0002] Brain-computer interface (BCI) technology, as an innovative achievement at the intersection of neuroscience and engineering, has shown broad application prospects, but it still faces several technical challenges. First, signal acquisition and processing are difficult, especially for non-invasive BCIs which are susceptible to external interference, while invasive BCIs face surgical risks and long-term maintenance challenges. Second, individual differences limit the applicability of BCIs, making it difficult for universal models and algorithms to cover all users. Furthermore, the stability and reliability of the system urgently need to be addressed, as interruptions or malfunctions could have serious consequences for users. Finally, technological maturity, cost, user acceptance, and training requirements all limit the widespread application of BCI technology. Therefore, in-depth research and improvement addressing these shortcomings are crucial to promoting the development of BCI technology. Technical issues

[0003] Given the current limitations of brain-computer interface (BCI) technology, the emergence of field interference technology offers a novel perspective and potential solutions to these problems. This technology not only foreshadows breakthroughs in overcoming many of the challenges facing BCI, but also paves an unprecedented path for its innovation and development. Through in-depth exploration and application of field interference technology, we can expect to stimulate technological innovation in related fields, accelerate the comprehensive development of field interference technology, and thus lay a solid foundation for achieving broader and deeper virtualization technologies. This includes, but is not limited to, developing more advanced dream experience technologies, virtual game technologies, enabling direct communication between thoughts and animals, and exploring cutting-edge technologies that directly scan knowledge into the brain. The advancement of these technologies will not only greatly enrich human technological means, but will also profoundly influence how we perceive and interact with ourselves and the world around us. Technical solutions

[0004] This invention proposes a mind-based remote machine operation technology based on the principle of interference between artificial and biofields. This technology ingeniously integrates the scientific principles of artificial field guidance and biofield sensing, achieving a cutting-edge breakthrough in precisely controlling remote machines through thought. In this technological framework, the artificial field, as the core of guidance and control, can accurately capture and respond to specific information in the biofield (especially the weak bio-electromagnetic field generated by human thought) through a carefully designed field distribution and interference mechanism. The biofield, as one of the physical manifestations of human thought activity, contains rich thought information that is difficult to directly capture and utilize under normal circumstances. However, through the innovative technology of this invention, these weak bio-electromagnetic signals can be effectively amplified, analyzed, and transformed into control commands for remote machines. To achieve mind-based remote operation, this invention employs advanced field interference principles. During the interaction between the artificial and biofields, by precisely controlling the intensity and frequency of the artificial field, selective enhancement and interference of specific thought information in the biofield can be achieved, thereby guiding and shaping thought signals that meet operational requirements. These processed thought signals are then transformed into machine-recognizable control commands, achieving a seamless connection between thought and machine.

[0005] To achieve the above technical objectives, the present invention adopts the following technical solution: The present invention relates to a data analysis technology based on the principle of field interference, and a method for remotely operating machines through thought. This technology is also a technology for guiding biofields through artificial field mechanisms, and its implementation relies on artificial field technology as a prerequisite. Artificial field technology mainly utilizes unit gravitational field emitters and gravitational field receivers to construct the emission and reception fields. A unit gravitational field emitter consists of one or more gravitational field generators, which work together to ensure the stability of the field distribution. A gravitational field generator is essentially a device that generates a changing electromagnetic field through moving positive and negative charges, and then converts this changing electromagnetic field into a gravitational field. It is worth noting that a gravitational field receiver can also be broadly considered as a gravitational field emitter. However, they differ significantly in function: the main function of a gravitational field emitter is to emit the gravitational field outward, while a gravitational field receiver absorbs the gravitational field inward. In this technology, the biofield specifically refers to the field generated by human thought and consciousness. Human consciousness originates from the specific movement of charged particles and ions in the brain, which generates a corresponding biofield. When an artificial field interferes with the biofield, we call it field interference, that is, the interference of the artificial field on the biofield. In summary, this invention achieves the goals of data analysis and remote thought-based machine operation through the interference of artificial field technology and the biofield.

[0006] Preferably, in the specific practice of this invention, in order to effectively enhance the electromagnetic field strength and thus enhance the gravitational field strength, we have adopted a series of comprehensive measures. These measures include increasing the output power of the power supply to improve voltage and current supply, expanding the capacity of the capacitor bank to store more electrical energy, increasing the number of turns of the transformer secondary coil to enhance the electromagnetic induction effect, and simultaneously increasing the coil diameter to optimize the magnetic field distribution. In addition, we have paid special attention to and optimized the resonant cavity structure of the gravitational field transmitter to further improve energy conversion and transmission efficiency. These comprehensive measures work synergistically to significantly enhance the gravitational field strength, and the direct increase in gravitational field strength means that the effective transmission and reception distance is extended, thereby making the application scope of this invention wider and more flexible in adapting to various different application scenarios.

[0007] Preferably, in this invention, a rectifier circuit is introduced as a key technology for achieving directional transmission and reception of the gravitational field. As a specially designed circuit structure, the main function of a rectifier circuit is to convert electrical energy supplied by an AC power source into direct current (DC). Rectifier circuits come in various types, mainly including four basic forms: half-wave rectifier circuits, full-wave rectifier circuits, bridge rectifier circuits, and voltage doubler rectifier circuits. The core function of these rectifier circuits is that they can convert AC power into unidirectional pulsating DC power, thereby providing a stable and reliable DC voltage or current source for the subsequent gravitational field generator circuit. This conversion process not only ensures the stable operation of the gravitational field generator but also lays a solid foundation for subsequent field interference operations, making it a crucial link in achieving directional transmission of the gravitational field.

[0008] Preferably, in this invention, to accurately simulate and realize various complex field distributions in space, we introduce the concept of a unitary gravitational field emitter. This emitter is designed to be extremely flexible, allowing a single gravitational field generator to operate independently, or multiple gravitational field generators to be combined as needed. This design aims to adapt to various application scenarios, providing broad adaptability. By precisely controlling the operating states of these gravitational field generators, we can quickly and efficiently construct the required field distribution, thereby ensuring the efficiency and accuracy of the entire process.

[0009] Preferably, in this invention, the realization of field interference relies on the following key components: a gravitational field generator as the emission source, a gravitational field receiver responsible for receiving signals, and a coil for capturing and comparing additional signals. Here, the target object is the biofield, specifically the field generated by human consciousness. The generation of the gravitational field originates from the transformation of a changing electromagnetic field, which is dynamically generated by moving positive and negative charges. It is worth noting that an electric field can be transformed into a gravitational field in the opposite direction. On the other hand, the biofield is composed of specific motion patterns of microscopic particles such as charged particles and ions within a living organism. When the gravitational field interferes with the biofield, the resulting composite signal is captured by the gravitational field receiver. To enhance the accuracy of the analysis, auxiliary signals received by the coil are also used for comparison and verification. Subsequently, these interference signals undergo further data processing and analysis, ultimately triggering corresponding operations or responses.

[0010] Preferably, in this invention, a specialized matching circuit is employed to generate the desired relative electromagnetic field (and subsequently convert it into a gravitational field). This matching circuit ensures effective signal amplification and transmission to the driver board. Within the driver board, the signal is first boosted and then rectified to generate the expected electromagnetic field. This electromagnetic field is then further converted into a gravitational field and emitted, intended to interfere with the biofield. At the receiving end, the signal captured by the receiver is first amplified to enhance its intensity. Subsequently, these amplified analog signals are converted into digital signals for data analysis. By analyzing these digital signals in depth, relevant instructions can be extracted to guide the machine in executing the next operation, thereby achieving interaction with the biofield. Beneficial effects

[0011] In summary, this invention offers the following technical effects and advantages.

[0012] Based on the theory of interference fields, this invention develops a technology that enables remote control of machines through thought and deep interaction with them. This technology can be regarded as an innovation and upgrade of brain-computer interface technology.

[0013] The core of this invention lies in the in-depth exploration and successful application of an innovative coupling mechanism between interference fields. This technology, through precise control of the frequency, intensity, and spatial distribution of changing electromagnetic fields, cleverly induces a weak gravitational effect. This effect can interfere with biofields, thereby enabling remote control of machines and deep interaction. This achievement marks a significant upgrade in brain-computer interface technology. Compared to traditional brain-computer interface technology, this invention demonstrates significant advantages in signal acquisition. Its signal acquisition process is simpler, eliminating the need for implanted electrodes, thus greatly improving safety. Simultaneously, thanks to the advanced interference field coupling mechanism, the signal acquisition accuracy of this invention far surpasses that of traditional brain-computer interface technology, providing users with a more precise and reliable control experience. Furthermore, the technical principles of this invention also hold broad application prospects. For example, it can be further developed into dream experience technology, allowing users to experience the wonders of dreams in a safe virtual environment; it can also be applied to the field of virtual games, achieving seamless connection between players and game characters, bringing an unprecedented immersive gaming experience. Even more remarkably, this technology also holds the promise of enabling direct communication between thoughts and animals, breaking down communication barriers between species. In the future, we may even explore the possibility of scanning knowledge directly into the brain, bringing revolutionary breakthroughs to human cognition and learning. Attached Figure Description

[0014] To more clearly illustrate the technical details of the embodiments of the present invention or the prior art, the accompanying drawings involved in the description of the embodiments or the prior art will be briefly described below. Please note that the accompanying drawings described below are only used to illustrate some specific embodiments of the present invention, and not all of them. For those skilled in the art, based on the information shown in these drawings, other drawings related to the present invention and their application scenarios can be understood and derived without additional creative work.

[0015] Figure 1 shows a schematic diagram of the overall structural layout of the present invention.

[0016] Figure 2 presents a mind map diagram illustrating the conceptual idea and components of this invention.

[0017] Figure 3 shows a schematic diagram of incorporating the labels from Figure 1 into Figure 2.

[0018] Figure 4 shows a more detailed breakdown of the section labeled 2 in Figure 3.

[0019] Figure 5 shows a schematic diagram of the circuit structure of the gravitational field generator.

[0020] Figure 6 shows a schematic diagram of the structure of the unit gravitational field emitter.

[0021] Figure 7 shows a schematic diagram of the circuit structure of the gravitational field receiver.

[0022] Figure 8 shows a schematic diagram of the structure for converting a high-voltage signal into a low-voltage signal.

[0023] Figure 9 presents a schematic diagram of the interference field.

[0024] Figure 10 presents a schematic diagram of the core theoretical formula upon which this invention is based and its general representation.

[0025] In Figures 1 to 9, the specific meanings of each label are explained as follows: Computer and Server 1: Responsible for signal processing, analysis, and recording. Circuit 2: Performs multiple functions, including communication, signal amplification, boost driving, high-voltage to low-voltage signal conversion, rectification, and signal type conversion. Unit Gravitational Field Emitter 3: Specifically used to generate and emit a gravitational field. Person 4: The target object of this invention. Gravitational Field Receiver 5: Responsible for receiving field signals from a remote location. Coil 6: Used to capture signals and compare them with the signals received by the gravitational field receiver. Further subdividing the functional modules of Circuit 2: Signal Amplification Circuit 201: Specifically used to enhance signal power and ensure signal transmission stability. Signal Driving, Boosting, and Rectifying Circuit 202: Provides the necessary power to the unit gravitational field emitter, including signal driving, voltage boosting, and rectification. Boosting and Rectifying Circuit 203 (some functions overlap with 202, but here specifically refers to the part that powers the receiver): Specifically provides a stable power supply to the gravitational field receiver, including voltage boosting and rectification. High-voltage signal to low-voltage signal circuit 204: Responsible for safely converting high-voltage signals to low-voltage signals to prevent circuit damage due to high voltage. Signal amplification, conversion and communication circuit 205: Not only is it used for signal amplification, but it also converts analog signals to digital signals and undertakes the task of signal communication transmission. The best embodiment of the present invention

[0026] The technical solutions of the embodiments of the present invention will be described in detail and clearly below with reference to the accompanying drawings. It should be noted that the illustrated embodiments are merely examples among many possible implementations of the present invention, and not a complete and exhaustive list. Based on the embodiments disclosed in this invention, any other implementations that can be conceived by those skilled in the art without creative effort should be considered to be covered within the scope of the technical solutions claimed in this invention.

[0027] This embodiment details an innovative artificial field-guided biofield technology that combines interference field theory with data analysis techniques to achieve efficient remote interaction between thought and machine. The technology system comprises a series of precisely designed components, including a computer and server system 1 (responsible for signal processing, communication protocol management, and data recording), a circuit system 2 (providing power to the gravitational field transmitter and receiver, and handling signal reception, conversion, and transmission), a unit gravitational field transmitter 3 (generating a specific gravitational field pattern according to instructions), a biofield provider 4 (a person, as the target object, whose thought or biofield becomes the subject of interference), a gravitational field receiver 5 (capturing and analyzing signals from the gravitational field transmitter, detecting changes after interference), and an independent comparison coil 6 (receiving and storing the original gravitational field signal for comparative analysis with the interfered signal). These components work together to construct a complete closed-loop system from signal processing and gravitational field conversion to field interference and signal reception and comparison. The system's workflow includes signal processing and command issuance, gravitational field generation and emission, biofield interference, signal reception and comparative analysis, and result output and feedback. Through advanced algorithms and data analysis techniques, the system can accurately process signals and evaluate interference effects. Furthermore, this technology exhibits high flexibility and scalability, enabling it to adapt flexibly to various complex application scenarios. Detailed illustrations in Figures 1 to 10 provide an intuitive way to understand and operate the system, making the technology easier to comprehend and implement. In summary, the artificial field-guided biofield technology of this embodiment successfully achieves efficient remote interaction between thought and machine, opening new avenues for research on the interaction between biofields and physical fields. Embodiments of the present invention

[0028] In this detailed explanation, it is important to emphasize that the power supply circuit, signal circuit, drive circuit, and input voltage rectification circuit are all built upon existing mature technologies. The operating mechanisms of these components also follow established industry frameworks; therefore, to avoid redundancy, this article will not delve into a detailed explanation of their working principles. In practical applications, the entire system's workflow is as follows: First, the computer generates and outputs a series of digital signals. These signals are then fed into a dedicated amplifier circuit, whose main function is to amplify the signal amplitude to a level sufficient to drive subsequent circuits. The amplified signals then enter the drive circuit, whose normal operation depends on the stable energy provided by the power supply circuit. The drive circuit not only receives the amplified digital signals but also converts them into a form suitable for the boost circuit input. The boost circuit further adjusts the signal voltage or current to meet the specific input energy requirements of the gravitational field generator. At the output of the boost circuit, the signal may also need to be rectified to ensure its stability and reliability. The rectified signal is then fed into a capacitor bank, which smooths current fluctuations and stores energy, providing a stable and continuous power supply to the gravitational field generator. The gravitational field generator is the core component of the entire system. It efficiently converts input electrical energy into a changing electromagnetic field, and further converts this electromagnetic field into a gravitational field. This gravitational field then interferes with the biofield. This interference effect is captured by two signal receiving modes: a dedicated gravitational field receiver and a coil induction method. By comparing these two receiving modes, signal errors can be significantly reduced, improving data accuracy. It is worth noting that the gravitational field receiver can also be broadly considered a gravitational field generator, but the main difference lies in the direction of the generated gravitational field. The transmitter's gravitational field extends outward, while the receiver's gravitational field is focused inward. The received signal is amplified again by another stage of amplification circuitry to ensure accurate detection and recording. The amplified signal then enters a conversion circuit, whose main function is to convert the signal into a form suitable for computer processing. Finally, the processed signal is transmitted back to the computer, which uses advanced artificial intelligence algorithms to analyze these signals in depth and stores relevant important data for subsequent research and applications.

[0029] In this embodiment, as shown in the circuit diagrams of Figures 4 to 7, the computer and server 1 work together to undertake the important task of signal processing and analysis. The signal undergoes a series of carefully designed processing steps in circuit 2, including amplification by amplifier circuit 201 and driving by drive circuit 202, and is finally successfully transmitted to the unit gravitational field transmitter 3. It is particularly noteworthy that before power is supplied to the gravitational field transmitter 3, it also needs to be processed by a rectifier circuit. The core function of the rectifier circuit is to convert alternating current into direct current, which is crucial for achieving the unidirectionality of the gravitational field. Based on their design differences, rectifier circuits are mainly divided into four types: half-wave rectifier circuits, full-wave rectifier circuits, bridge rectifier circuits, and voltage doubler rectifier circuits. The common function of these rectifier circuits is to convert alternating current into direct current with unidirectional pulsating characteristics, providing stable and reliable DC energy for subsequent circuits. When the DC current passes through the capacitor bank, the capacitor bank performs its energy storage function and releases power to the gravitational field generator 3 when needed. In this process, the capacitor bank not only ensures a stable and sufficient power supply for the gravitational field generator 3, but also improves the energy efficiency of the entire system. Furthermore, the filament in the drive circuit 202 also requires power, which is provided by the isolation transformer built into the circuit 202. The main function of the isolation transformer is to achieve electrical isolation between the high-voltage and low-voltage circuits, thereby effectively preventing leakage current in the high-voltage circuit from posing a potential safety threat to the low-voltage circuit and ensuring the safe and stable operation of the entire system. Simultaneously, the filament is driven by another set of signals; this design aims to further optimize the stability of the gravitational field. It is worth mentioning that the gravitational field receiver 5 can also be broadly considered as a gravitational field generator, as some circuitry is reused, thus reducing the complexity of the circuit structure. This design not only improves the system's integration but also further enhances its reliability and stability. In summary, the circuit design in this embodiment not only achieves precise signal processing and stable power output, but also ensures a safe, stable, and efficient power supply for the gravitational field generator through the ingenious application of rectifier circuits and isolation transformers. Meanwhile, by reusing some circuits and optimizing the signal driving method, the overall performance and stability of the system were further improved.

[0030] Specifically, the design of the unit gravity field generator 3 and gravity field receiver 5 explicitly requires the use of direct current (DC) as their operating power source. To meet this specific requirement, rectification is necessary, effectively converting alternating current (AC) to DC. The rectification process relies on electronic devices with unidirectional conductivity, such as diodes or rectifier bridges. The core function of these devices is to allow current to flow only in one specific direction, thus altering the natural directionality of AC. AC waveforms are sinusoidal, constantly changing between positive and negative poles. This change not only generates a constantly changing electromagnetic field but also complicates signal analysis. When AC passes through these unidirectional conductive devices, its negative and positive half-cycles are processed separately: the negative half-cycle is truncated, while the positive half-cycle is retained or further processed to obtain a smoother DC output. Through rectification, we are essentially removing the rippled components of AC, retaining only its unidirectional flow component to generate DC. In this process, rectifier devices play a crucial role, intelligently selecting whether to allow or block current flow based on its direction, ensuring efficient AC-to-DC conversion. Therefore, circuits 202 and 203 are of great significance in the overall design. In particular, circuit 203 can reuse the design logic or components of circuit 202 to a certain extent to achieve a more efficient and economical rectification process. This design not only meets the DC power requirements of the unit gravitational field generator 3 and the gravitational field receiver 5, but also optimizes the performance and reliability of the entire system.

[0031] Based on their working principle and characteristics, rectifier circuits are mainly divided into four types. The following is a detailed explanation of these four types of rectifier circuits: First, the half-wave rectifier circuit. This circuit cleverly utilizes the unidirectional conduction characteristic of diodes. In one complete cycle of alternating current, the current can only flow through the load for half a cycle, while the other half is blocked by the diode. Therefore, the output voltage obtained at the load is approximately half of the original AC voltage. Although the half-wave rectifier circuit has a simple structure, its rectification efficiency is low, and the output voltage fluctuation is relatively large. Second, the full-wave rectifier circuit. Compared with half-wave rectification, the full-wave rectifier circuit can fully utilize both half-waves of the alternating current for rectification, thus significantly improving rectification efficiency and making the output voltage smoother. There are two implementation methods for full-wave rectifier circuits: the transformer center-tapped full-wave rectifier circuit. This circuit requires the secondary winding of the transformer to have a center tap, thereby separating the positive and negative half-waves of the AC voltage. During the positive half-wave, one diode conducts, allowing current to flow through it to the load; during the negative half-wave, the other diode conducts, similarly allowing current to flow through it to the load. Therefore, current continuously flows through the load throughout the entire AC voltage cycle. This is the bridge full-wave rectifier circuit. This circuit consists of a rectifier bridge with four diodes, each responsible for rectifying one half-wave. When the positive half-wave of the sinusoidal AC arrives, two diodes conduct, while the other two are off; when the negative half-wave arrives, the other two diodes conduct, while the previously conducting two are off. In this way, the direction of current flowing through the load remains consistent, resulting in a smooth DC voltage output. The third type, which can actually be seen as a special case of the second, is the full-wave bridge rectifier circuit. It is also a full-wave rectifier circuit, but uses a rectifier bridge composed of four diodes to achieve full-wave rectification. This circuit has a compact structure and high efficiency, and is a widely used rectifier circuit in practical applications. The fourth type is the voltage doubler rectifier circuit. This is a special type of rectifier circuit that utilizes the rectification effect of diodes and the energy storage function of capacitors to convert lower AC voltages into higher DC voltages. Voltage doubler rectifier circuits have unique advantages in applications requiring high-voltage DC power supplies. In summary, these four types of rectifier circuits each have their own characteristics and applicable ranges; in practical applications, the appropriate type of rectifier circuit should be selected based on specific needs.

[0032] Specifically, as shown in Figures 5 and 7, the unit gravitational field transmitter 3 and the gravitational field receiver 5 achieve their gravitational field interaction mechanism by configuring their positive and negative poles with opposite polarities. During this process, the moving positive and negative charges inside the transmitter generate a dynamically changing electromagnetic field. Subsequently, this electromagnetic field is converted into a gravitational field through a specific conversion mechanism. It is worth noting that because the positive and negative poles of the transmitter and receiver are configured with opposite polarities, the directions of their respective generated electric fields are also opposite. This opposite direction of the electric fields further leads to the converted gravitational fields also exhibiting opposing directions. To further optimize the structure of the unit gravitational field transmitter 3 and improve its performance, we adopted the design layout shown in Figure 6, which introduces a configuration of multiple gravitational field generators. The core purpose of this design is to optimize the distribution of the gravitational field in space, making it more uniform. Simultaneously, by increasing the number of gravitational field generators, we aim to enhance the overall strength and coverage of the gravitational field. This not only more effectively improves the interaction efficiency between the transmitter and receiver but also significantly enhances the stability and reliability of the gravitational field.

[0033] Specifically, the radiation distance of a gravitational field is directly affected by its strength, which in turn is determined by the electric field strength. Therefore, increasing the electric field strength is key to enhancing the gravitational field strength. To achieve this, we can adopt the following approaches: First, increasing the power supply is a direct and effective method. Increasing the output power directly increases the velocity and quantity of charges in the electric field, thus strengthening the field. Second, adjusting the number of turns and diameter of the transformer's secondary coil is also a feasible option. By increasing the number of turns or the diameter of the secondary coil, the transformer's output voltage and current can be increased, thereby enhancing the electric field strength. Furthermore, adding capacitor banks is also an effective method. Capacitors can store charge and release it when needed; therefore, increasing the capacitance of the capacitor bank can increase the total amount of charge in the electric field, thus strengthening the field. Finally, optimizing the structure of the resonant cavity of the gravitational field generator is also a worthwhile consideration. By adjusting the shape, size, and materials of the resonant cavity, the distribution and transmission efficiency of the electric field within it can be improved, thereby enhancing the electric field strength. In summary, all of the above methods can, to some extent, increase the electric field strength, thereby enhancing the gravitational field strength. These schemes are relatively easy to implement and can effectively improve the radiation distance and interaction efficiency of gravitational fields while ensuring safety and stability.

[0034] Specifically, as shown in Figure 9, we use a two-dimensional diagram to visually illustrate the phenomenon of field interference and explore the possibility of using artificial fields to interfere with biofields. Artificial fields are mainly gravitational fields generated by changing electromagnetic fields, which in turn originate from moving positive and negative charges. Correspondingly, the biofield here specifically refers to the field of human consciousness. Human consciousness is essentially a manifestation of specific movement patterns of charged particles and ions in the brain, and these movement patterns then generate corresponding biofields. From the definitions of artificial and biofields, it is easy to see that both involve states of motion in space. Furthermore, the phenomenon of light can be understood as electrons approaching zero mass under specific conditions and transforming into photons, which can be seen to some extent as space carrying photon motion. The light interference formula, from a certain perspective, is a mathematical description of the superposition state of space, as shown in Figure 10. When the gravitational field and the biofield interfere, the signals carried by this interaction process can be received and analyzed, thereby calculating relevant data. In-depth analysis of this data allows us to extract meaningful instruction information. These instructions are then transmitted to the machine, enabling real-time interaction between humans and machines. This process not only reveals the complexity of field interference phenomena, but also demonstrates their potential application value in the field of human-computer interaction.

[0035] Specifically, as shown in Figures 1 and 8, the signal received by the gravitational field receiver 5 exhibits significant high-voltage characteristics, which may pose a series of challenges during signal processing. To address these challenges, we employ an economical and efficient inductive conversion method to safely and reliably convert high-voltage signals into low-voltage signals. This method is not only cost-effective but also technically relatively easy to implement, making it well-suited for handling such high-voltage signal conversion needs. To further optimize the signal conversion process and improve system performance, we added a coil 6 to the system as a key component for signal reception. Coil 6 is carefully designed and placed in an optimal position to ensure it effectively captures the same signal emitted by the unit gravitational field transmitter 3. The core idea of ​​this design is that by comparing and analyzing the signal received by coil 6 with the signal received by gravitational field receiver 5, the error rate can be significantly reduced, thereby enhancing the accuracy and stability of the entire system. In actual operation, the high-voltage signal captured by gravitational field receiver 5 first undergoes a series of preprocessing and conversion steps for accurate comparison with the signal received by coil 6. This comparison process is crucial because it can instantly identify and correct any potential errors, thereby ensuring the quality of the system's output signal and guaranteeing its accuracy and reliability. In summary, by employing inductive conversion technology and adding coil 6, we successfully achieved the conversion of high-voltage signals to low-voltage signals, significantly improving the accuracy and reliability of the system. This innovative design is not only economically feasible but also technically simple to implement, providing an efficient and practical solution for the field of interferometric field signal processing.

[0036] Specifically, as shown in Figure 4, circuit 205's core function is to process the low-voltage signal converted by gravitational field receiver 5 and the signal received by coil 6. Both types of signals undergo the same amplification and conversion process after entering the circuit. In the amplification circuit section, circuit 205 flexibly employs single-transistor or multi-transistor amplification structures to adapt to different signal strengths and processing requirements. This design ensures that the signal maintains sufficient stability and strength during amplification, providing a solid foundation for subsequent signal conversion and processing. The importance of the amplification step is self-evident; it directly relates to the circuit's ability to capture weak signals and the accuracy of overall signal processing. Next, in the signal conversion stage, circuit 205 cleverly converts the amplified analog signal into a digital signal. This conversion process is extremely common in modern electronic systems, enabling signals to be stored, transmitted, and processed more conveniently in computers or other digital devices. Through analog-to-digital conversion, circuit 205 not only improves the versatility and compatibility of the signal but also provides a more convenient and efficient tool for subsequent signal analysis and processing. In summary, circuit 205, through its carefully designed amplification and conversion process, successfully converts the weak signals received by gravitational field receiver 5 and coil 6 into stable and easily processed digital signals. Industrial applicability

[0037] The working principle of this technology is rooted in the fundamental principles of physics, particularly the laws governing the movement of positive and negative charges. The movement of these charges generates a changing electromagnetic field, which, according to the fundamental laws of physics, can further interact with the gravitational field. Specifically, the dynamic activity of charged particles and ions in the human brain constitutes what we commonly call the biofield, the material basis of thought and consciousness. When we discuss interference fields, we are referring to the interaction between the gravitational field and the biofield, which can be understood as an artificial field interfering with the biofield. At a deeper level, the essence of both fields originates from the dynamic changes in space caused by the motion of objects. Within the framework of unified field theory, the gravitational field is considered a more fundamental physical field, capable of driving and transforming other forms of fields, such as the electromagnetic field. In Figures 9 and 10, we elaborate on these principles using mathematical formulas and diagrams. The movement of positive and negative charges in space, following specific laws, leads to continuous changes in the electromagnetic field. According to fundamental theories of electromagnetism, such as Maxwell's equations, this changing electromagnetic field further generates changes in the magnetic field, thus forming the propagation of electromagnetic waves. However, in the unique application of this technology, we are particularly concerned with how these changing electromagnetic fields are transformed into gravitational fields. Although the direct transformation mechanism from electromagnetic to gravitational fields is not fully and clearly explained in existing physics theories (such as the complex relationships implied by theories like spacetime curvature in general relativity), this technology has initially achieved this goal through practical exploration and theoretical innovation. By precisely controlling the movement of positive and negative charges, we can consciously generate and regulate gravitational fields, thereby achieving interference between emission and biofields. It is important to emphasize that the proposal and verification of this working principle are based on a deep understanding of fundamental principles of physics and the support of experimental data. Although some of the transformation processes still need further clarification within the existing theoretical framework, this technology has proven its feasibility through practice and is expected to promote the development of physics and related fields in the future. Furthermore, the principle formulas in Figure 10 are not only a mathematical description of this working principle but also a key basis for technical design and experimental verification. By continuously optimizing and adjusting the parameters and variables in these formulas, we can further improve the performance and reliability of the technology, providing solid support for a wider range of application scenarios. Sequence List Free Content

[0038] Finally, it must be emphasized that the above description represents only preferred embodiments of the present invention and is not intended to limit the scope of protection of the present invention. Although we have described the present invention in detail with reference to the foregoing embodiments, those skilled in the art should understand that they are fully capable of making necessary adjustments or equivalent substitutions to some technical features based on the technical concept shown in the foregoing embodiments. As long as these adjustments or substitutions are made in accordance with the core ideas and basic principles of the present invention, any modifications, equivalent substitutions, or optimizations made in any form should be considered within the scope of protection of the present invention.

Claims

1. An artificial field-guided biofield technology, characterized in that: The core of this technology lies in utilizing the principle of field interference to achieve data manipulation. Its basic component is a unit gravitational field transmitter, which can be composed of one or more gravitational field generators. These generators manipulate the movement of positive and negative charges to produce changing electromagnetic fields. Subsequently, this changing electromagnetic field is cleverly transformed into a gravitational field. Crucially, this technology can achieve interference between gravitational fields and biofields, thereby enabling data manipulation. Here, the biofield specifically refers to the field corresponding to human consciousness. Human consciousness essentially originates from the specific motion forms of charged particles (such as electrons) and ions in the brain, and these motion forms generate corresponding fields. To effectively receive and process these field signals, this technology introduces a gravitational field receiver and coils as core components. The gravitational field receiver is known for its wide receiving range, capable of capturing weak signals from the biofield. The coils, on the other hand, possess signal comparison capabilities, enabling precise analysis and comparison of the received signals to ensure data accuracy and reliability. Through this design, the technology not only achieves precise capture and interpretation of the biofield (i.e., human consciousness), but also further promotes the possibility of mind-based communication and machine operation, opening up a new path for the deep integration of artificial intelligence and biological science.

2. The artificial field-guided biofield technology according to claim 1, characterized in that: This technology relies on specific field interference principles, specifically the interference between gravitational fields and biofields. Within this technological framework, the biofield specifically refers to the field effect generated by human consciousness, which originates from the specific motion patterns of charged particles, ions, and other microscopic particles within the human brain. It is important to note that consciousness itself is not a concrete object, nor is it part of an object, but rather a manifestation of the motion of microscopic particles within the object (i.e., the brain). Essentially, consciousness can be viewed as a form of information, because the core of information is the reflection of the state and manner of matter's motion. Based on this principle, this technology enables contactless, remote thought-based operation of machines, allowing users to directly control remote mechanical devices through their thoughts. This innovative technology represents a significant upgrade in brain-computer interface (BCI) technology, transcending the physical limitations of traditional BCIs and achieving a more efficient and direct human-computer interaction method.

3. The artificial field-guided biofield technology according to claim 1, characterized in that: The gravitational field in this technology is generated by transforming and changing electromagnetic fields. These changing electromagnetic fields originate from moving positive and negative charges, and their direction is determined by the orientation of the electromagnetic field. Furthermore, the layout and positioning of the transmitter and receiver are influenced not only by the direction of the gravitational field but also by the direction of the electromagnetic field and the direction of movement of the positive and negative charges. To enhance the strength of the gravitational field, i.e., to increase the strength of the electromagnetic field, the following methods can be adopted: increasing the capacitance of the capacitor bank, increasing the power supply, increasing the number of turns of the transformer secondary coil and expanding its diameter, or optimizing the design of the resonant cavity. These measures can all effectively enhance the strength of the electromagnetic field, thereby transforming it into a stronger gravitational field. The radiation distance of the gravitational field is directly affected by its strength; that is, the stronger the gravitational field, the farther its radiation distance. This characteristic is one of the key factors determining whether this technology has the potential to surpass brain-computer interface technology. By adjusting the above methods for enhancing the strength of the gravitational field, the radiation distance of the gravitational field can be flexibly controlled to meet the needs of different application scenarios.

4. The artificial field-guided biofield technology according to claim 1, characterized in that: The unitary gravitational field transmitter in this technology is built upon one or more gravitational field generators. These generators are specifically constructed from ingeniously designed resonant cavities or antenna-shaped conductors, designed to efficiently generate and directionally transmit gravitational fields. Correspondingly, the gravitational field receiver employs a specific conductor structure design capable of efficiently capturing and responding to gravitational field signals, ensuring maximum efficiency in both transmission and reception. Through carefully designed resonant cavities and antenna-shaped conductors, the gravitational field generator effectively converts electromagnetic energy into gravitational field energy and directs it in a specific direction. Simultaneously, the shape and material selection of the gravitational field receiver are optimized to ensure high sensitivity and reception efficiency to gravitational field signals, thereby achieving efficient transmission and utilization of gravitational field energy throughout the entire technology system.

5. The artificial field-guided biofield technology according to claim 1, characterized in that: The circuit system of this technology possesses six core features, detailed below: First, a signal power amplification circuit is included, designed to achieve lossless signal amplification, ensuring signal integrity and clarity during transmission. Second, the circuit system powering the gravitational field transmitter integrates a signal-driven boost circuit and a signal-driven filament circuit. These two circuits work together to provide stable energy to the electromagnetic field, conforming to a specific motion pattern, ensuring accurate transmission of the gravitational field. Third, the gravitational field receiver is also equipped with a dedicated power supply circuit, namely a direct boost circuit, which provides the necessary power to the receiver, ensuring its continuous and stable operation. Furthermore, this technology includes a highly efficient signal receiving circuit that uses a coil as the signal receiving element to capture and convert gravitational field signals from the gravitational field transmitter. In terms of signal processing, the technology employs a high-voltage to low-voltage signal conversion circuit module. This module receives the high-voltage signal from the gravitational field receiver and converts it into a low-voltage signal for subsequent processing. Simultaneously, the signal received by the coil is compared with the high-voltage signal, and an error correction mechanism further improves the signal accuracy. Next, a signal amplification and conversion circuits amplify the received signal and convert the analog signal into a digital signal. This step provides the foundation for subsequent computer data processing and analysis. Finally, the processed digital signal is sent to a communication module for further data processing and analysis by the computer. Based on the analysis results, the computer generates corresponding instructions and enables precise control of the machine through a remote control mechanism. In addition, a server stores all relevant records, facilitating subsequent queries and analysis. The integration with artificial intelligence technology will further enhance the intelligence level of this technology, achieving a faster and more convenient operating experience.

6. The artificial field-guided biofield technology according to claim 1, characterized in that: The configuration and functional details of the rectifier circuit in this technology are as follows: Definition and Function of the Rectifier Circuit: In this artificial field-guided biofield technology, the rectifier circuit plays a crucial role in converting alternating current (AC) to direct current (DC). Through a specific circuit structure, the rectifier circuit can effectively separate the positive and negative half-cycles of the AC waveform, thereby outputting DC with unidirectional pulsating characteristics. Types of Rectifier Circuits: Half-wave rectifier circuit: This circuit uses only one half-cycle of the AC for rectification, therefore the output DC is half-wave. Full-wave rectifier circuit: Unlike half-wave rectification, a full-wave rectifier circuit can utilize both half-cycles of the AC for rectification. This is typically achieved through a center-tapped transformer or a dual-diode configuration, resulting in a full-wave DC output. Bridge rectifier circuit: This circuit uses a bridge structure composed of four diodes, achieving full-wave rectification without a center-tapped transformer. The bridge rectifier circuit not only outputs full-wave DC but also has higher efficiency, making it the preferred solution among rectifier circuits. Voltage multiplier rectifier circuit: By connecting multiple diodes and capacitors in series, the voltage multiplier rectifier circuit can multiply the output voltage. This circuit is suitable for applications requiring higher DC voltage output. The role of the rectifier circuit in artificial field-guided biofield technology: The stable DC power provided by the rectifier circuit is an indispensable part of artificial field-guided biofield technology. It is responsible for providing the necessary power support for various electronic components and maintaining the stable generation of the gravitational field. By precisely controlling the output parameters of the rectifier circuit (such as voltage and current), it is possible to ensure that key indicators such as the strength and frequency of the gravitational field meet the requirements of field interference, thereby improving the accuracy and stability of the field. This precise control is crucial for realizing remote control and data analysis in artificial field-guided biofield technology. In summary, the configuration and function of the rectifier circuit play a pivotal role in artificial field-guided biofield technology, providing a solid theoretical foundation and technical support for the practical application of the technology.

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