Tailor-made remote cell-activation system and its application method

Abstract

To provide a tailor-made remote cell-activation system and its application method.SOLUTION: Provided are a remote cell-activation system and its application method configured to work with a computer or a smartphone capable of internet access, sound recording, photographing, executing mobile apps, and updating applications, wherein, by utilizing features of the computer and the smartphone, three different electromagnetic fields are generated in equipment, and quasi-like quantum entanglement pair technology transmits an electric field message after final conversion to a target object in a radio and wireless manner, the technology being applied to the remote cell-activation system 2, a mobile app and an application acting as a command center that issues instructions, and the computer or the smartphone being designed to execute equipment, whereby, by seamlessly combining AI medical diagnosis systems and AI robots, more accurate mobile medical services can be provided for human beings or other living organisms.SELECTED DRAWING: Figure 1

Description

[Technical Field]

[0001] The present invention relates to a cell activation system and its application method, and more particularly to a remote cell activation system and its application method in the biomedical field. [Background technology]

[0002] Biomimetics technology has applications in many fields. These include robots with biomimetic forms and movements, and materials created by utilizing the unique superior properties of biomimetics, which are being used in a variety of fields, including improving quality of life and medicine. However, to date, no product has been developed that mimics biology and uses digital electronics for biomedical applications. Furthermore, no truly carbon-reducing or earth-friendly biomimetic products or technologies have been realized to date. Many of them have to travel through factory production lines and transportation systems before they reach the user, and most are only used once or a few times before eventually being discarded.

[0003] Quantum theory has demonstrated its potential application value in a variety of scientific fields. The phenomenon of quantum entanglement offers a new method of information transmission and opens up new possibilities for the development of remote cell activation technology. Current cell activation technologies mainly rely on physical or chemical methods, which have drawbacks such as low efficiency, lack of flexibility, and difficulty in remote control.

[0004] When doctors prescribe medications for common illnesses such as asthma and diabetes to patients, approximately 30-40% of patients do not achieve the expected therapeutic effect. Furthermore, in arthritis and Alzheimer's disease, the proportion of patients who do not benefit from treatment can be as high as 50-75%. The problem stems from the traditional approach: if a drug works in clinical trials for a large number of people with similar symptoms, it is approved for use in treating that condition, while patients who do not respond during the trials are ignored. Drug development using traditional systems targets "the masses," but the reality is that each of us and the diseases we suffer from are unique. As a result, many drugs are not only ineffective in some target patients, but can also cause serious side effects. As our understanding of genetic differences between human individuals improves, it is believed that designing personalized medicine will provide the best possible treatment (Non-Patent Document 1).

[0005] Environmental pollution in pharmaceutical manufacturing involves multiple aspects, including obtaining raw materials, growing plants, extracting from animals, chemical synthesis, and packaging and transporting medicines. The global pharmaceutical industry's carbon emissions show the significant impact the industry has on the environment. Research shows that the pharmaceutical industry's carbon emissions intensity is around 55% higher than that of car manufacturing, and despite its small market size, it accounts for 28% of the global total. Below are specific carbon emission data and their sources (Non-Patent Document 2).

[0006] Raw material acquisition: 1. Chemical synthesis: Pharmaceutical processes use large amounts of chemicals that are released into the environment, including air and water, during production and use. These chemicals may include organic solvents, heavy metals, and other toxic substances. 2. Plant cultivation: Plants used in medicines often require large amounts of pesticides and fertilizers, which can leach into soil and water, causing agricultural pollution.

[0007] Manufacturing Process: 1. Chemical synthesis and pharmaceutical processes: These processes require large amounts of energy, especially electricity and heat, which are mainly derived from fossil fuels, resulting in high carbon emissions. 2. API Production: The production process of active pharmaceutical ingredients (APIs) releases a large amount of pollutants, further increasing carbon emissions.

[0008] Transportation and Supply Chain: The global pharmaceutical supply chain emits large amounts of carbon from the combustion of fossil fuels as they are transported from production points to locations around the world, and the report notes that supply chain emissions account for more than 80% of total pharmaceutical emissions.

[0009] Waste disposal: Wastewater and waste treatment: Treating wastewater and solid waste generated during pharmaceutical processes also requires significant energy consumption, further increasing carbon emissions.

[0010] Reasons for choosing to use computers and smartphones as devices: Technological innovation should improve human life, not create more technological waste that contributes to the ever-increasing climate crisis.

[0011] The concept of Earth's retention limits was proposed by a team of scientists led by Johan Rockstrom (born December 31, 1965, Swedish scientist). The concept was first released in 2009 and updated in 2015.

[0012] The team of scientists noted that our top priority is to halve global carbon dioxide emissions by 2030 and achieve net-zero emissions by 2050. This means that all systems that affect our lives must be carbon-neutral.

[0013] However, every time you buy an appliance and bring it home, you find that there are new wiring and configurations. People's homes are always filled with a huge number of wires and outdated devices, and technological waste, which is constantly being produced and recycled for a few small uses, is one of the main causes of environmental destruction.

[0014] If the environment in which humans live continues to deteriorate, there will be a shortage of physical medicines, making it difficult to respond to a pandemic that may occur once every 10 years. The biotechnology and medical community is expected to continue to promote research into more effective remote cell activation system technologies that can reduce contact between doctors and patients, overcome transportation difficulties, instantly send cell activation carrier messages to medical institutions according to the type of pandemic, and be downloaded and used by users around the world.

[0015] Especially after the outbreak of the COVID-19 pandemic, medical technology needs to further research the remote production of digital electronic medicines, technology for remotely transmitting digital electronic medicines to targets, and the development of digital electronic vaccines.

[0016] Conventional techniques rely primarily on physical contact or chemical stimulation to activate cells, but these methods typically require patients to visit a clinic and carry certain risks.

[0017] In conventional technology, every communication requires not only a transmitter but also a receiver. When transmitting information to a human body, animal or plant, the receiver must be connected to or attached to the human body, animal or plant.

[0018] In conventional technologies, consumables (e.g., drugs) used for cell activation can only be used once and must be newly produced, which is environmentally unfriendly and expensive. [Prior art documents] [Non-patent literature]

[0019] [Non-Patent Document 1] BBC Knowledge Issue 80, April 2018 Text: Tailor-made Precision Medicine by Tom Ireland [Non-patent document 2] "How can the pharmaceutical sector reduce its carbon footprint?" August 25, 2021 by Advanco CEO AIF Goebel Summary of the Invention [Problem to be solved by the invention]

[0020] The above prior art involves certain risks because cell activation relies mainly on physical contact or chemical stimuli. Furthermore, a transmitter and receiver are required for information transmission, and when transmitting information to the human body, animals, or plants, the receiver must be connected to or attached to the human body, animals, or plants. In addition, the consumables (such as drugs) used for cell activation can only be used once, which puts a strain on the environment and is expensive. [Means for solving the problem]

[0021] The present invention relates to a customizable remote cell activation system and its application method.

[0022] The customizable remote cell activation system and its application method according to the present invention provides a remote cell activation system and its application method based on quantum theory. The remote cell activation system can be implemented on a computer or smartphone through an app or software, and is characterized by its ease of operation, high efficiency, and excellent flexibility.

[0023] The remote cell activation system according to the present invention is installed in a computer or smartphone and includes a target quasi-quantum entangled pair generation unit, a quasi-quantum entangled pair frequency modulation unit, a quasi-quantum entangled pair execution unit, and a quasi-quantum entangled pair transmission unit. The remote cell activation system is installed in a computer or smartphone and includes a target quasi-quantum entangled pair generation unit, a unit for adjusting the frequency of the quantum entangled pair, a unit for executing the quantum entangled pair, and a unit for transmitting the quantum entangled pair. The target quasi-quantum entangled pair generation unit uses a computer or smartphone to acquire biological cell parameters. , generate a quasi-quantum entangled pair, the quasi-quantum entangled pair frequency modulation unit has a frequency modulation component and uses the frequency modulation component to generate cell activation carrier digital data and target quasi-quantum entangled pair digital data, the quasi-quantum entangled pair execution unit makes the cell activation carrier digital data and the target quasi-quantum entangled pair digital data resonate with each other to generate a waveform of a specific frequency, and the quasi-quantum entangled pair transmission unit remotely executes the generated waveform of a specific frequency after transmitting the resonated cell activation carrier digital data and the target quasi-quantum entangled pair digital data to activate the cells of the physical target.

[0024] The remote cell activation system of the present invention relates to the biomedical field, and is a mobile app or computer application installed on a smartphone, which uses the digital electronic technology of the smartphone or computer to perform biomimetic targeting on a target, taking a photo with the smartphone or computer camera and recording with a recording device, and obtaining target-to-target quasi-quantum entangled pair digital data of the target. The target is a living organism. Based on the type of target, the cell activation carrier digital data already established in the program of the present invention is used, and activation is performed through extraction, selection and optimization, and electric field application technology. The user can also add appropriate cell activation carrier digital data based on the needs of the target or cell activation needs at various times, and send a message of cell activation carrier digital data to the target through the computer or smartphone. Although the present invention is installed on a smartphone or computer, because it applies the principle of quantum entanglement effect, there is no need to touch the target when performing the operation, and there is no distance limit.

[0025] In the remote cell activation system and its application method according to the present invention, the remote cell activation system uses digital electronic technology to perform biomimetic targeting on living organisms and obtain quasi-quantum entangled pair digital data. The biomimetic mechanism of the remote cell activation system obtains the quasi-quantum entangled pair digital data of the target through photography and audio recording. Users can add suitable cell activation carriers based on different types of cell activation needs. Finally, remote cell activation operations are performed through the quantum entanglement effect via devices such as computers or smartphones, without the need to wear message receiving devices or connect to the Internet.

[0026] The present invention proposes a remote cell activation system and its application method based on the quantum entanglement effect, breaking through the limitations of conventional technologies.

[0027] The present invention breaks through this technical concept, and the target does not need to be equipped with or connected to any message data receiving device.

[0028] The cell activation carrier made by the present invention can be reused forever, is environmentally friendly, saves resources and protects the earth.

[0029] The new remote cell activation system proposed by this invention uses quasi-quantum entangled pairs to realize remote message transmission, connects to a dynamic carrier database, and can provide customized cell activation solutions based on user needs. This not only reduces the need for long-distance transportation, but also reduces carbon dioxide emissions, and has wide application prospects and huge market potential. [Brief explanation of the drawings]

[0030] [Figure 1] FIG. 1 is a block diagram of a remote cell activation system application according to the present invention. [Figure 2] 1 is a flowchart of the quasi-entangled pair digital data extraction according to the present invention. [Figure 3] 1 is a flowchart of cell activation carrier selection and application according to the present invention. [Figure 4] FIG. 2 is a schematic diagram of a computer version of a system implementation interface according to the present invention. [Figure 5] 1 is a schematic diagram of a smartphone version of the system implementation interface according to the present invention; [Figure 6] 1 shows the plasma activity during photo development on a computer monitor (screen) according to the present invention. [Figure 7] 4 shows the electric field situation when the system according to the present invention is running. [Figure 8] FIG. 1 is a plan view of the execution of a system mobile app and applications according to the present invention. [Figure 9] FIG. 1 is a side execution diagram of a system mobile app and application according to the present invention. [Figure 10] 1 is a computerized version of the system according to the present invention, showing a digital image of a cell activation carrier and the execution status of the targeted cell activation area. [Figure 11] 4 shows the change in current in the electric field when the system according to the present invention implements a dynamic meridian system. [Figure 12] 1 shows the layer-by-layer superimposition of digital images of a cell activation carrier in a computerized version of the system according to the present invention. [Figure 13] 1 illustrates transmission between parent and child fields through an entangled pair in accordance with the present invention. [Figure 14] When the computer or smartphone according to the present invention is turned on, an electromagnetic field A is formed in the computer and smartphone. [Figure 15] 1 shows that when the mobile app or application of the cell activation system according to the present invention starts to operate, an electromagnetic field B is formed. [Figure 16] It will be shown that when the sound or image of the target object according to the present invention is continuously activated, an additional electromagnetic field C is created. [Figure 17] 1 is a schematic diagram of the execution of a smartphone version of a mobile application according to the present invention; DETAILED DESCRIPTION OF THE INVENTION

[0031] (One embodiment) As shown in FIG. 1, the remote cell activation system 2 according to the present invention is installed on a computer 31 or a smartphone 32, and a user logs in to the operation interface of the remote cell activation system 2. The remote cell activation system 2 includes a target quasi-quantum entangled pair generation unit 3, a quasi-quantum entangled pair frequency modulation unit 4, a quasi-quantum entangled pair execution unit 5, and a quasi-quantum entangled pair transmission unit 6. The target quasi-quantum entangled pair generation unit 3 utilizes a computer 31 or a smartphone 32 to acquire biological cell parameters and generate quasi-quantum entangled pairs. The quasi-quantum entangled pair frequency modulation unit 4 has frequency modulation components 7 to 18, and generates cell activation carrier digital data 20 and target quasi-quantum entangled pair digital data 22, 23 using the frequency modulation components 7 to 18. The quasi-quantum entangled pair execution unit 5 causes the cell activation carrier digital data 20 and the target quasi-quantum entangled pair digital data 22, 23 to resonate with each other, generating a waveform of a specific frequency. The quasi-quantum entangled pair transmission unit 6 remotely executes the waveform of a specific frequency generated after transmitting the resonant cell activation carrier digital data 20 and the target quasi-quantum entangled pair digital data 22, 23. The target 21 is a living organism.

[0032] As shown in FIG. 2, the remote cell activation system 2 according to the present invention includes an analog signal source 24 and a digital signal source 25 . An analog signal source 24 is passed through an analog signal processor 26 where signal processing is performed, and the processed signal is input to an analog / digital interface 28 at the hardware interface input end. A digital signal source 25 is processed through a digital signal processor 27, and the processed signal is input to a digital interface 29 at the input end of the hardware interface. The signal is processed via an analog / digital interface 28 or a digital interface 29 and then sent to a signal converter 30 . The signal converter 30 converts signals of different formats into a unified digital signal format and inputs it into the remote cell activation system 2 . The remote cell activation system 2 can execute application logic related to cell activation or biotechnology and generate target quasi-quantum entangled pair digital data 22, 23.

[0033] As shown in FIGS. 3 to 5 and 13, a method for selecting a cell activation carrier will be described. First, the user performs identification and analysis of the target 21, including target 21 type identification, target 21 pathology data analysis, and target 21 description. According to the above, the specific attributes of the target 21 are determined, and the subsequent cell activation carrier selection process is carried out. After obtaining the analysis results of the target 21, the user enters the step of "selecting the relevant cell activation carrier." In this step, the system first checks the cell activation carrier digital database 19 . The cell activation carrier digital database 19 contains various types of cell activation carrier digital data 20, and the user searches for the corresponding cell activation carrier digital data 20 in the cell activation carrier digital database 19 based on the attributes of the target object 21. If the cell activation carrier digital data 20 in the cell activation carrier digital database 19 matches the target object 21, the user selects the cell activation carrier digital data 20 in the system to perform the subsequent operations. If no matching cell activation carrier digital data 20 is found, the user can customize new cell activation carrier digital data 20 and ensure it matches the attributes of the target object 21. After selecting or establishing the cell activation carrier digital data 20, the system will enter the quasi-quantum entangled pair transmission unit 6 to initiate the cell activation process. In this way, the selected cell activation carrier digital data 20 is applied to process the target 21 .

[0034] As shown in Figures 4 to 10, in the area of ​​cell activation carrier digital data 20 and the area of ​​target quasi-quantum entangled pair digital data 22, their inherent frequencies are enhanced by continuously flashing or scanning multiple digital red dots 34. The digital red dot 34 continuously flashes a moving target meridian and anatomical diagram to enhance the field activity technique in the area.

[0035] As shown in FIGS. 1 to 5 in conjunction with FIGS. 6 to 17, the implementation of the present invention is divided into two parts. 1. Software Technology: Mobile Apps and Applications 2. Hardware Technology: Smartphones 32 and Computers 31

[0036] Part 1: Software Technology: Mobile Apps and Applications The target quasi-quantum entangled pair digital data 22, 23 is extracted in two ways. 1. Image capture: The user uses the camera of the computer 31 or smartphone 32 to capture image data of the target 21. The image data is converted into target quasi-quantum entangled pair digital data 22, 23, which obtains a wave frequency similar to that of the target 21. 2. Audio recording: The user uses the microphone of the computer 31 or smartphone 32 to record the audio data of the target 21. The audio data is converted into target quasi-quantum entangled pair digital data 22, 23, and obtains a wave frequency similar to that of the target 21.

[0037] The cell activation carrier digital data 20 is selected. According to different types of needs, add cell activation carrier digital data 20 suitable for different types of cell activation. 1. Judgment method: 1. Type identification based on target 21. 2. Pathological analysis based on target 21. 3. Description based on target 21. Second, in order to allow users to flexibly and fully utilize the resources of this system, the present invention specifically designs and implements the following functions: 1. The present invention designs a cell activation carrier digital database 19 that can be dynamically updated according to different cell activation needs. 2. The present invention can select corresponding cell activation carrier digital data 20 from a pre-set cell activation carrier digital database 19 according to the user's needs and the type of cell activation. 3. When there is no applicable cell activation carrier digital data 20 in the cell activation carrier digital database 19, the present invention provides the user with the ability to customize new corresponding cell activation carrier digital data 20.

[0038] Software implementation technology: 1. Remote control: Using a computer 31 or a smartphone 32, the message of the cell activation carrier digital data 20 is reliably and accurately transmitted to the target cell of the target object 21 through quasi-quantum entanglement pair technology. Second, cell activation: Cell activation operation is performed via a computer 31 or a smartphone 32, and activation messages are continuously transmitted to the target cells of the target object 21 using quasi-quantum entanglement pair technology to achieve the activation effect. Third, users can make further adjustments and optimizations based on the cell activation effect.

[0039] Part 2: Hardware Technology: Smartphones 32 and Computers 31 Hardware implementation technology: First, the present invention is a technology that uses mobile apps and applications to instruct a smartphone and a computer 31 to perform tasks in the background to generate cell activation, as detailed below. 1. As is well known, when the computer 31 is turned on, electromagnetic waves will be detected, which means that the whole machine will be an electric field and electronic activity will spread. Therefore, the present invention will carry out the following control and design: (1) As shown in Figures 6 and 7, frequent electronic activity occurs between the display and the hardware driver. This electronic activity creates an electromagnetic field, which is mainly generated by the flow of electrons between the conductive glass 35 and the thin film transistor 37. The change in the electric field drives the liquid crystal, causing alignment within the liquid crystal electronic active area 36.

[0040] As shown in Figures 8 and 9, the remote cell activation system 2 of the present invention is a design program that runs on an operating system 33 and performs scanning or clicking actions, and makes full use of this electromagnetic field to execute multiple flashing digital red dots 34, which can then perform clicking actions on the photo. The digital red dot 34 appears to click to the naked eye, but is actually a series of blinking pixel dots that operate through the superposition of high voltage, low voltage, and electrons. To form a stable electric field during the execution process and continuously transmit the resonant wave, the carrier clicking action must be set to be continuous.

[0041] (2) As shown in FIGS. 8 and 9, the image types in the present invention are basically divided into two types. One is the target quasi-quantum entangled pair digital data 22, 23, and the other is the cell activation carrier digital data 20. This allows the remote cell activation system 2 to perform scanning / clicking actions on the image, enhancing the inherent frequency of the image.

[0042] (3) As shown in Figure 10, the present invention is designed to target specific locations on the anatomical chart and meridian chart, amplifying the electronic activity of the specific location and enhancing the coupling resonance between the electronic activity of the specific location and the sound. For example, when the scapula and elbow joint are injured, the scapula and elbow joint are fixed with a frame, the cell activation carrier digital data 20 is added, and then a digital red dot 34 click scan is performed. This can strengthen the intrinsic frequency of the area and help activate the cells in that area.

[0043] (4) As shown in Figure 11, the present invention extends the design of the dynamic meridian system to increase current activity and promote global cellular activation.

[0044] (5) As shown in FIG. 12, the present invention utilizes the electron tunneling effect and electron sharing phenomenon to design a method for selecting various cell activation carrier digital data 20 according to the type of target 21. When the number of cell activation carrier digital data 20 is so large that it occupies the entire screen, the images of the second layer hidden behind the images of the first layer, as well as the images of the third, fourth and eighth layers, are also effectively utilized. In particular, the screen of the smartphone 32 is relatively small, and when multiple images of the cell activation carrier digital data 20 are required, they must be stacked. Once the remote cell activation system 2 begins execution, all subroutines belonging to this application continue to calculate and respond, albeit hidden in the background. The phenomenon of superposition between electrons means that a group of electrons exists in one digital image and multiple groups of electrons exist in multiple digital images. The electrons in these images are not fixed to a particular photograph, but are shared between different images, and because the electrons share orbitals, these images translate information within the images into one another.

[0045] 2. Cell Activation Carrier There are two methods for transmitting digital data 20 to the target 21: (1) Audio quasi-quantum entangled pair digital data through target 21. (2) Image quasi-entangled pair digital data through target 21.

[0046] The present invention utilizes the quantum entanglement effect to transmit vibrations of a resonating computer 31 or smartphone 32 to the target 21 by continuously playing the sound of the target 21 or continuously clicking and scanning the image of the target 21. When playing continuously, there is no need to turn up the volume, and it can be adjusted to the minimum volume, but it cannot be adjusted to mute, and earphones can also be used. The target 21 does not need to hear the sound or see the screen data being executed by the computer 31 or smartphone 32.

[0047] As shown in Figure 13, there is electronic activity in the digital photo and the photo on the display, and clicking the digital red dot 34 does not actually click a photo; these are two different system circuits. However, the electrons in a photographic development are always active, and the electrons in the digital red dot 34 are always active, so an electric field is eventually formed, and an active electric field generates an electromagnetic field that spreads in all directions. However, there is only one electromagnetic field that has the same vibration as sound, and the mechanism by which this is formed is that the mother field is the smartphone 32 or computer 31, and the subfields are the mobile apps or applications, so each circle has a different digital picture, each with its own vibration. To give meaning to this wave, the present invention adds a sound or image of the target 21 that belongs to the same entangled pair as the real target 21, has a similar wave frequency, and can generate the entanglement resonance phenomenon. The digital audio of the target 21 can be continuously played in the mother field, or the digital image of the target 21 can be continuously scanned with the digital red dot 34, and the converted waves can be transmitted to the target 21 no matter how far away it is.

[0048] 3. The target 21 can receive the cell activation carrier digital data 20 message without having to be equipped with or connected to a device. All of the cell activation targets 21 described in this invention have electromagnetic responses and are capable of sending and receiving electronic signals. For example, the human body is a conductor and can be likened to an antenna, only its structure and configuration differ from those of an antenna. The electronic activity in the human body is like an antenna, and ultrasound, X-ray imaging, tomography, and MRI all diagnose disease by reading the body's electrical activity.

[0049] More specifically, the human body is a true electronic transceiver capable of sending and receiving electronic signals; it acts as an antenna when receiving information, a radio station when transmitting information, and the sound it makes is a type of electromagnetic wave emitted by the human body. The present invention utilizes the entanglement effect and relies on the sound or image of the entangled paired target 21 to lock onto the target 21 and transmit an electronic signal, and the target 21, which may be a human body, animal, or plant, does not need to be equipped with a receiver to receive the message.

[0050] Second, the present invention relates to an electric field technology for manufacturing cell activation carriers and resonant cell activation carriers using a computer 31 and a smartphone 32, and the content thereof is as follows: 1. Create three electromagnetic fields. (1) As shown in Figure 14, when the computer 31 and the smartphone 32 are in a powered state, the computer 31 and the smartphone 32 form an electromagnetic field A. Within this A, we further create electromagnetic fields B and C, respectively. (2) As shown in Figure 15, when the mobile app and application of the remote cell activation system 2 start operating, an electromagnetic field B is formed. (3) As shown in FIG. 16, when the sound or image of the target 21 continues to operate, an electromagnetic field C is formed. 2. Activate three electromagnetic fields A, B, and C simultaneously.

[0051] As shown in Figure 16, when three electromagnetic fields A, B, and C are operating simultaneously, they form overlapping resonance between the fields (this type of overlapping resonance activity is actually all electronic activity, as it is a series of codes with digital units). 3. Transmit the message after overlap resonance to the target. The method of transmitting a message to the target 21 is mainly via a computer 31 or a smartphone 32, which plays back the voice or a photo of the target 21. (1) In the technical section of the present invention, the main functions of the digital audio of the target 21 are as follows: a. Lock on the target 21 that emits the sound. The sound emitted by the target 21 and the sound played by the computer 31 or smartphone 32 originate from the same target 21, and even if the computer 31 or smartphone 32 that plays the sound and the target 21 are far apart, they can resonate with each other. b. It serves as a carrier wave that transmits cell activation carrier waves. All carriers and sounds are Fourier transformed within the electric field of the computer 31 or smartphone 32. Each set of transformed electronic activity contains a packet of sound, which can be likened to a conveyor belt delivering these packets to the target 21 that emitted the sound. The same is true if an image of the target 21 is used as the carrier. (2) A method for continuously strengthening the entanglement effect of entangled pairs: In order to continuously strengthen the entanglement effect of the entangled pair, the computer 31 and the smartphone 32 need to constantly play audio or scan images of the target 21 during the resonance execution period. If the audio playback or the scanning of the target 21 image is stopped, the entanglement effect between the target 21 and the audio playback is discontinued. There is no need to turn up the volume, you can adjust it to the minimum volume, but you cannot mute it, and you can also use earphones. The target 21 does not need to be audible, and the image does not need to be visible when the computer 31 or smartphone 32 is running. 4. Resonance, the changes that occur in the body after transmission is performed. (1) As shown in Figure 17, when the human body, animals, or plants are sick, there is an irregularity in atomic activity. 38 In other words, the state of atomic activity is disturbed and the cells are weakened. (2) Activates cells and helps repair the body

[0052] As shown in Figure 17, the carrier waves output by the computer 31 or smartphone 32 are stable, so when the particles of these carrier waves collide with particles inside the target 21, they resonate with the particles inside the target 21, causing a harmonic vibration effect. This kind of effect gradually adjusts the irregular waves formed in the target 21 due to disease and transforms them into stable and orderly waves, achieving the purpose of cellular activation through the regularity of atomic activity 39.

[0053] When a human or animal or plant is sick, the body's functions are slowed or weakened and it is unable to mount an immune response to eradicate bacteria. The remote cell activation system 2 helps activate cells, enhances bodily functions, and fights bacteria. The operator can select or add suitable cell activation carrier digital data 20 according to different discomfort symptoms and types of the organism to achieve the purpose of cell activation.

[0054] Description of the embodiment: First, use the camera of the computer 31 to take an image or use the recording function to record audio, and obtain the target quasi-quantum entangled pair digital data 22, 23 through the application, select the cell activation carrier digital data 20 suitable for immune cell activation, and remotely transmit it into the target 21 cells to perform the remote cell activation task. Second, use the camera of the smartphone 32 to take an image or use the recording function to record audio, and obtain the target quasi-quantum entangled pair digital data 22, 23 through the mobile app, select the cell activation carrier digital data 20 suitable for tissue cell repair, and remotely transmit it into the cells of the target 21 to perform the remote cell repair work.

[0055] {Embodiment 1}: When a target 21 requires remote skin cell activation, the user passes system commands to a smartphone 32 to take an image of the target 21's skin, record the target 21's voice, and select suitable cell activation carrier digital data 20, which is then transmitted remotely to the target 21's skin cells via quasi-quantum entanglement pair technology, thereby achieving remote cell activation.

[0056] {Embodiment 2}: ​​In certain agricultural applications, if plant cells need to be remotely activated, plant images are taken and transmitted to the remote cell activation system 2. Based on image recognition, the cause of the weakening of the plant cells is identified, suitable chemical molecule digital data is selected, and this is used as cell activation carrier digital data 20, which is then remotely transmitted to the plant cells through quantum entanglement pair technology to realize remote cell activation.

[0057] [Experimental Example 1]: A plant strain at a gardening center was infected with a fungus. The bacterial index of the test strain measured before the experiment was 8126. After five days of remote cell activation chitosan vinegar digital carrier resonance (six hours daily), the index dropped to 6911. After five days of continued resonance, the bacterial count was measured at 13,967, and the plant strain was stronger than it had been 10 days earlier. The number of bacteria measured on the 15th day was 20,051. If not saved, the infected plant stock will gradually decline and die. The fungal population on the plant continued to grow, but was more robust than 15 days earlier. This is because good and bad bacteria grow and decline together, so when a plant looks healthy to the naked eye, it means that the plant's cells are being activated, the good bacteria are increasing, and it is beginning to build up immunity against bad bacteria. This experiment mainly proves that when plants become sick, using the correct cell activation carrier can prevent the symptoms from worsening and gradually restore health.

[0058] [Table 1] JPEG2025183913000002.jpg30145

[0059] [Table 2] JPEG2025183913000003.jpg43145

[0060] During the experiment, the plants were only given water and no nutrients or fertilizer, so a lack of nutrients during reproduction would result in a decrease in the number of beneficial bacteria. Agricultural B Vitamin Carrier Resonance Addition does not actually provide nutrients, but provides a vibration that activates beneficial bacteria, helping plants to grow stronger and produce new leaves.

[0061] [Experimental Example 2] 1. First experiment: Kitchen wastewater is used for the experiment. 10cc of kitchen wastewater is put into each culture dish, and 10cc of bleached water is used for resonance.

[0062] [Table 3] JPEG2025183913000004.jpg28145

[0063] 2. Second experiment: In the experiment using kitchen wastewater, 10cc of kitchen wastewater was poured into each culture dish, and 600cc of bleach water was used for resonance.

[0064] [Table 4] JPEG2025183913000005.jpg43145

[0065] The results of this experiment prove the following: (1) Safety of Remote Cell Activation System 2: Even digital carriers that use large amounts of bleach will not affect living organisms. (2) The reason why the number of bacteria in the experimental group is higher than that in the control group is because the target experimental group is subjected to resonance. Even under harsh environmental conditions (high concentrations of bleach), the cells in the experimental group are activated and then replicate in large numbers.

[0066] 3. Third experiment: In the experiment using kitchen wastewater, 20cc of kitchen wastewater was poured into each culture dish, and agricultural B vitamins, which are effective in inhibiting the growth of bacteria in kitchen wastewater through resonance, were used in a 1:5 diluted solution.

[0067] [Table 5] JPEG2025183913000006.jpg39145

[0068] Regarding the results of this experiment: (1) Cells can be activated by providing an appropriate cell activation carrier. (2) The number of cell activation replication in the experimental group was higher than that in the control group. (3) Because the two sets of bacteria were not given food, the bacteria in the culture dishes gradually died after multiplication. [Explanation of symbols]

[0069] 1. Configuration of the remote cell activation system 2. Remote cell activation system 3. Target Quasi-Entangled Pair Generation Unit 4 Quasi-entangled pair frequency modulation unit 5 Quasi-entangled pair execution unit 6 Quasi-entangled pair transfer unit 7 Frequency Modulation Components 8 Frequency Modulation Components 9 Frequency Modulation Components 10 Frequency Modulation Components 11 Frequency Modulation Components 12 Frequency Modulation Components 13 Frequency Modulation Components 14 Frequency Modulation Components 15 Frequency Modulation Components 16 Frequency Modulation Components 17 Frequency Modulation Components 18 Frequency Modulation Components 19 Cell Activation Carrier Digital Database 20 Cell Activation Carrier Digital Data 21 Target 22 Target Quasi-Quantum Entangled Pair Digital Data 23 Target Quasi-Quantum Entangled Pair Digital Data 24 Analog Signal Sources 25 Digital Signal Source 26 Analog Signal Processor 27 Digital Signal Processor 28 Analog / Digital Interface 29 Digital Interface 30 Signal Converter 31 Computer 32 Smartphone 33 Operating Systems 34 Digital Red Dot 35 Conductive Glass 36 Liquid Crystal Electronic Active Area 37 Thin-film transistor 38 Irregularities in atomic activity 39 Regularities of Atomic Activity

Claims

1. A remote cell activation system, comprising: It is installed on your computer or smartphone, The target has a quasi-entangled pair generation unit, a quasi-entangled pair frequency modulation unit, a quasi-entangled pair execution unit, and a quasi-entangled pair transmission unit; The target quasi-quantum entangled pair generation unit uses the computer or the smartphone to acquire biological cell parameters and generate quasi-quantum entangled pairs; the quasi-entangled pair frequency modulation unit has a frequency modulation component, and generates cell activation carrier digital data and target quasi-entangled pair digital data using the frequency modulation component; The quasi-quantum entanglement pair execution unit mutually resonates the cell activation carrier digital data and the target quasi-quantum entanglement pair digital data to generate a waveform of a specific frequency; The quasi-quantum entangled pair transmission unit remotely executes a waveform of a specific frequency generated after transmitting the cell activation carrier digital data and the target quasi-quantum entangled pair digital data, thereby activating the cells of the physical target. Remote cell activation system.

2. A method for applying a remote cell activation system, comprising: Using digital electronic technology of a smartphone or computer, biomimetic targeting of a target is performed, and the image and audio message quasi-quantum entangled pair of the target is extracted, and cell activation carrier digital data is extracted, and selection and optimization are performed after extraction, and electric field application technology, and remote cell activation is performed and transmitted using quasi-quantum entangled pair technology. According to different types of cell activation needs, appropriate digital data of cell activation carriers are added, and then a message of the digital data of cell activation carriers is sent to the target via a computer or smartphone, and the target does not need to wear a message receiving device or connect to the Internet; The extracted image, voice message and cell activation carrier digital data can be used repeatedly indefinitely. Application method of the remote cell activation system.

3. The computer or smartphone is used as an electric field for emitting cell activation carriers, Based on the quantum entanglement effect and the phenomenon of electron superposition sharing, digital information can be remotely sent and received, and the target does not need to wear a device or be connected to any connecting wires. A method for applying the remote cell activation system according to claim 2.

4. After creating the digital data of the cell activation carrier, it can be used repeatedly, and there is no limit to the number of times or duration of use. After the target message quasi-quantum entangled pair is converted into digital data, it can be used repeatedly, and there is no limit to the number of times or the time of use. A method for applying the remote cell activation system according to claim 2.

5. After creating a living organism or object into the cell activation carrier digital data, the cell activation carrier digital data is a technology that can be used repeatedly indefinitely. A method for applying the remote cell activation system according to claim 2.

6. Utilizing the quantum entanglement effect, the image of the target is taken or the sound is recorded, and the cell activation carrier digital data is remotely transmitted to the target. A method for applying the remote cell activation system according to claim 2.

7. Selecting and optimizing image application and manipulation techniques for the cell activation carrier digital data; A method for applying the remote cell activation system according to claim 2.

8. The cell activation carrier digital data is sent to the target of the quasi-quantum entangled pair, A method for applying the remote cell activation system according to claim 2.

9. Three electric fields are generated, and the digital data of the cell activation carrier is converted into a wave. A method for applying the remote cell activation system according to claim 2.

10. After simultaneously starting the three electric fields A, B, and C, the electric field C of the target quasi-quantum entangled pair can be used to emit a directional wave message even when the target is moving; A method for applying the remote cell activation system according to claim 9.

11. In the cell activation carrier digital data area and the target quasi-quantum entanglement pair digital data area, a plurality of digital red dots are continuously flashed or scanned to enhance the technology of their inherent frequencies; A method for applying the remote cell activation system according to claim 2.

12. The plurality of digital red dots continuously flash a moving target meridian diagram and anatomical diagram to enhance the electric field activity technology in the area. A method for applying the remote cell activation system according to claim 11.

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