Biological function activation apparatus and method thereof

Abstract

The present invention provides a biological function activation apparatus and a method thereof for changing a physical state by using a modulated electromagnetic wave. According to the present invention, provided is a biological function activation apparatus comprising an oscillator for outputting an electrical signal of a specific frequency, wherein the biological function activation apparatus is configured to modulate an electromagnetic wave according to the electrical signal of the specific frequency so as to output a longitudinal wave corresponding to the specific frequency, and wherein the specific frequency is determined, in order to change a physical state of a user to a specific state, on the basis of a physical rhythm of the user when the user is in a specific physical state. According to the present invention, by using an electrical signal oscillator manufactured as a semiconductor chip, a biological function activation apparatus capable of generating a longitudinal wave with a simple configuration is provided, thereby solving limitations of existing technology in terms of mass production, price, marketability, usability, and application fields.

Description

Biofunctional Activation Device and Method

[0001] The present invention relates to a bio-function activation device and a method thereof that changes the physical state using modulated electromagnetic waves.

[0002] Biofunctional activation technology is conceptually a technique that evaluates an organism's health status and activates metabolism by enhancing bodily homeostasis. This technology is classified into pharmacological and energy-based approaches. Among these, the pharmacological physical approach investigates how substances interact to induce functional changes in organisms; generally, pharmacological substances target natural products and contribute to disease treatment or metabolic activation through pharmacological mechanisms. On the other hand, energy-based technology activates biological functions by normalizing the body's energy imbalance; this is being researched in traditional Eastern medicine or, in the West, as energy medicine, a category of alternative and complementary medicine.

[0003] Recently, research on energy medicine is actively underway, moving beyond the stage of viewing the human body solely as a mechanical and material entity to regard it as an energetic being that diagnoses and treats through energy fields. In this context, energy sources include electric fields, magnetic fields, electromagnetic waves, and longitudinal waves (scalar energy).

[0004] In particular, scalar energy is a technology that provides many clues for the development of energy medicine, and therapeutic devices utilizing scalar energy are continuously being developed overseas.

[0005] However, the methods for generating longitudinal waves have not been able to move beyond the early methods using coils or plasma. For example, there are methods for generating longitudinal waves (scalar energy) that use special coils to cancel out electromagnetic waves by using two strands of coils wound in opposite directions or by canceling them out in a geometric shape to emit scalar energy, and methods that generate longitudinal waves by generating resonant waves.

[0006] Longitudinal wave generators configured in this manner have limitations in terms of mass production, price, marketability, usability, and application fields due to their large size.

[0007] The present invention aims to solve the problems of the aforementioned prior art by providing a bio-function activation device and a method capable of generating longitudinal waves with a simple configuration by using an electrical signal oscillator manufactured as a semiconductor chip.

[0008] To achieve the above-mentioned purpose, according to one embodiment of the present invention, a bio-function activation device is provided, comprising an oscillator that outputs an electrical signal of a specific frequency, modulating an electromagnetic wave according to the electrical signal of the specific frequency to output a longitudinal wave corresponding to the specific frequency, wherein the specific frequency is a frequency determined based on the body rhythm when the user's physical condition is in a specific state in order to change the user's physical condition to a specific state.

[0009] According to another aspect of the present invention, a bio-function activation device is provided, characterized by comprising: a battery that supplies power; an oscillator electrically connected to the battery and outputting an electrical signal of a specific frequency when power is applied from the battery; a modulation module electrically connected to the oscillator and receiving an electrical signal of a specific frequency output from the oscillator, modulating an electromagnetic wave generated by the electrical signal of the specific frequency, and outputting an electrical signal in which the electromagnetic wave is modulated; and an output module electrically connected to the modulation module and receiving an electrical signal output from the modulation module and outputting the modulated electromagnetic wave according to the received electrical signal to an external space.

[0010] According to another aspect of the present invention, a method for activating bio-functions to change a user's physical state to a specific state is provided, comprising: a step of determining the frequency of an electrical signal based on a body rhythm when the user's physical state is in a specific state; a step of outputting an electrical signal according to the determined frequency; a step of modulating an electromagnetic wave generated by the output electrical signal into a longitudinal wave; and a step of outputting the modulated longitudinal wave to an external space; wherein the electrical signal is a square wave of positive voltage, and the frequency of the electromagnetic wave generated by the output electrical signal and the frequency of the modulated longitudinal wave output to an external space are determined by the determined frequency.

[0011] According to the present invention, by using an electrical signal oscillator manufactured as a semiconductor chip, a bio-function activation device capable of generating longitudinal waves with a simple configuration is provided, thereby resolving the limitations of existing devices in terms of mass production, price, marketability, usability, and application fields.

[0012] In addition, according to the present invention, by providing each individual with a wearable bio-function activation device manufactured in a compact size, each individual can activate bio-functions, maintain a positive physical condition, and have the effect of promoting health.

[0013] FIG. 1 is a block diagram showing the schematic configuration of a bio-function activation device according to the present invention.

[0014] Figure 2 is a photograph showing an actual product of a bio-function activation device according to the present invention.

[0015] FIG. 3 is a diagram schematically showing the configuration of a modulation module according to the present invention.

[0016] FIG. 4 is a flowchart showing a method for activating bio-functions to change a user's physical condition to a specific state according to the present invention.

[0017] The present invention is capable of various modifications and may have various embodiments, and specific embodiments are illustrated in the drawings and described in detail in the detailed description. However, this is not intended to limit the invention to specific embodiments, and it should be understood that the invention includes all modifications, equivalents, and substitutions that fall within the spirit and scope of the invention.

[0018] The terms used herein are merely for describing specific embodiments and are not intended to limit the invention. Singular expressions include plural expressions unless the context clearly indicates otherwise. In this specification, terms such as “comprising” or “having” are intended to indicate the presence of the features, numbers, steps, actions, components, parts, or combinations thereof described in the specification, and should be understood as not precluding the existence or addition of one or more other features, numbers, steps, actions, components, parts, or combinations thereof.

[0019] Furthermore, the components of the embodiments described with reference to each drawing are not limited to the respective embodiments and may be implemented to be included in other embodiments within the scope of maintaining the technical spirit of the present invention. It is also obvious that multiple embodiments may be re-implemented as a single embodiment that integrates multiple embodiments, even if a separate description is omitted.

[0020] Furthermore, in the description referring to the attached drawings, identical components are assigned the same or related reference numerals regardless of drawing symbols, and redundant descriptions thereof are omitted. In describing the present invention, if it is determined that a detailed description of related prior art could unnecessarily obscure the essence of the present invention, such detailed description is omitted.

[0021]

[0022] Maxwell, who established the foundations of electromagnetism, initially proposed as many as 20 equations. About 20 years later, Oliver Heaviside consolidated these into four, during which the longitudinal electric wave and electric potential terms disappeared. This resulted in the completion of the Maxwell equations (or Maxwell-Heaviside equations), with the equation for the electric field E and the equation for the magnetic field B as the core concepts. These are Gauss's Law, Gauss's Law of Magnetism, Faraday's Law, and Ampere's Law.

[0023] However, despite Maxwell's equations being an empirical theory that forms the foundation of modern science, they face many challenges today. Professor Konstantin Myles of Germany pointed out that many parts of the fundamental equations of modern electromagnetism have been omitted and simplified, making them less universal equations applicable only in specific situations. Extending this idea, Professor Myles noted that electromagnetic waves propagating through space include longitudinal waves in addition to transverse waves.

[0024] In other words, electromagnetic waves include Hertz’s transverse waves and Tesla’s longitudinal waves; specifically, these are Hertz’s electromagnetic wave (transverse wave), the electric scalar wave (longitudinal wave) proposed by Tesla, and the magnetic scalar wave (longitudinal wave) proposed by Konstantin Miles. A longitudinal wave is formed when either an electric field or a magnetic field is formed in the same direction as propagation. For example, in the case of an antenna forming an electric dipole, it radiates electromagnetic waves containing longitudinal elements, which are also referred to as a field vortex. Furthermore, in situations where electromagnetic waves are radiated, a longitudinal wave may be formed in the form of a near field within half a wavelength or one wavelength.

[0025] Longitudinal waves are waves in which the direction of wave propagation and the direction of vibration of the medium are parallel; unlike transverse waves, which have adverse effects on living organisms, longitudinal waves can have a positive effect on them. Various research results have demonstrated that longitudinal waves have a positive impact on living organisms. For example, it has been revealed that longitudinal electromagnetic waves can cause an increase in energy (measured by an increase in ATP) in plant mitochondria (Heide Schnabl, Hermann Schnable, Konstantin Meyl, Anti-Aging by longitudinal magnetic waves: A new approach by modulating ATP-Levels, OAT(Open Access Text), 2019). Mitochondria exist not only in plant cells but also in animal and human cells, and their product, ATP, is identical and an indispensable component in all life processes.

[0026]

[0027] The present invention relates to a bio-function activation device capable of improving a user's bio-function by generating longitudinal waves using an electrical signal oscillator manufactured as a semiconductor chip.

[0028] The bio-function activation device according to the present invention includes an oscillator that outputs an electrical signal of a specific frequency, and modulates electromagnetic waves according to the electrical signal of the specific frequency to output a longitudinal wave corresponding to the specific frequency. At this time, the specific frequency is a frequency determined based on the body rhythm when the user's physical condition is in a specific state in order to change the user's physical condition to a specific state.

[0029] Here, the user's physical state being in a specific state may be, for example, a state where muscle cells are activated, a state where blood flow in the body increases, or a state where stress or fatigue is relieved. This specific state may be a physical state that the user wishes to reach from their current physical state. For example, if the user is currently under a lot of stress or has high fatigue, they may want a state where stress or fatigue is low.

[0030] Furthermore, the body rhythm when the user's physical state is in a specific state refers to the rhythm of electromagnetic energy emitted from the body when the human body is in a specific state, or the rhythm of physical, electromagnetic, or acoustic stimuli applied to the human body to switch the human body state to a specific state.

[0031] Unlike other longitudinal wave generators, the present invention allows for a smaller and simpler device configuration by using an electrical signal oscillator manufactured as a semiconductor chip.

[0032]

[0033] FIG. 1 is a block diagram showing the schematic configuration of a bio-function activation device according to the present invention.

[0034] Referring to FIG. 1, the bio-function activation device (100) according to the present invention includes a battery (110), an oscillator (120), a modulation module (130), and an output module (140).

[0035] First, the battery (110) supplies power. The power supplied by the battery (110) may be a DC (direct current) power source.

[0036] The oscillator (120) is electrically connected to the battery (110) and outputs an electrical signal of a specific frequency when power is supplied from the battery (110). Here, the electrical signal output by the oscillator (120) is an AC (alternating current) signal, and it is particularly preferable that it be a square wave of positive voltage. In addition, the specific frequency of the electrical signal may be a frequency that is preset before the user uses the bio-function activation device (100).

[0037] The modulation module (130) is electrically connected to the oscillator (120) to receive an electrical signal of a specific frequency output from the oscillator (120), modulates an electromagnetic wave generated by the electrical signal of the specific frequency, and outputs an electrical signal in which the electromagnetic wave is modulated.

[0038] The modulation module (130) modulates the electromagnetic waves generated by the electrical signal by changing the spin of the electrons moving within the wiring. Generally, the electromagnetic waves from the electrical signal output from the oscillator (120) are transverse waves, and the modulation module (130) modulates these electromagnetic waves into longitudinal waves and can output an electrical signal in which the electromagnetic waves are modulated.

[0039] The electromagnetic waves caused by the electrical signal output from the modulation module (130), the electrical signal passing through the wiring between the modulation module (130) and the output module (140), and the electrical signal transmitted to the output module (140) are electromagnetic waves modulated by the modulation module (130), and the electromagnetic waves caused by the electrical signal output from the modulation module (130), the electrical signal passing through the wiring between the modulation module (130) and the output module (140), and the electrical signal transmitted to the output module (140) are output to an external space, so that a user using the bio-function activation device (100) may be exposed to these electromagnetic waves.

[0040] The output module (140) is electrically connected to the modulation module (130) to receive an electrical signal output from the modulation module (130) and outputs an electromagnetic wave according to the received electrical signal to an external space.

[0041] Ultimately, when power is applied to the oscillator (120), the oscillator (120) outputs an electrical signal of a specific frequency, and the output electrical signal is modulated by an electromagnetic wave in a modulation module (130) and the modulated electromagnetic wave is output to an external space through an output module (140).

[0042] Modulated electromagnetic waves are incident on a user wearing a bio-function activation device (100), and the incident electromagnetic waves stimulate the cells constituting the user's body within the user's body, particularly centered around the location where the bio-function activation device (100) is worn, and if the user is continuously exposed to the stimulation of electromagnetic waves, the user's body changes into a physical state different from before wearing the bio-function activation device (100).

[0043]

[0044] Meanwhile, when the modulation module (130) modulates the electromagnetic wave from the electric signal into a longitudinal wave, the frequency of the transverse wave from the electric signal or the longitudinal wave output from the modulation module (130) is determined by the frequency of the electric signal input to the modulation module (130), and this is ultimately determined by the frequency of the electric signal output from the oscillator (120).

[0045] The bio-function activation device (100) is intended to stimulate the body's cells to change the user's physical condition to a specific state, and it is preferable that the specific frequency of the electrical signal output from the oscillator (120) be a low frequency corresponding to the human body rhythm. For example, the frequency range in which humans can feel vibration phenomena is approximately 0.1 to 500 Hz, and among these, the frequency range that can affect the human body is approximately 1 to 90 Hz. In addition, human brainwaves are known to be approximately 10 Hz for an average adult. On the other hand, high-frequency electromagnetic waves mostly act as noise and are more likely to have an adverse effect on the body.

[0046] Furthermore, according to the study by Lipkova and Cechak, humans emit electromagnetic energy in the frequency range of 0.5–30 Hz, and in particular, there are harmonic components at frequencies of 2 Hz, 3 Hz, 4.2 Hz, 16.8 Hz, and 21.3 Hz associated with human heart, respiratory, and brain functions. (Lipkova, J. and Cechak, J. Human electromagnetic emission in the ELF band, Measurement Science Review. 5, 29-32, 2005)

[0047] When the harmonic components of the electromagnetic energy emitted from the human body resonate with the electromagnetic waves incident from the outside, the cells, tissues, and organs constituting the human body can resonate, thereby activating biological functions. Accordingly, the specific frequency of the electrical signal output from the oscillator (120) may include at least one of 2 Hz, 3 Hz, 4.2 Hz, 16.8 Hz, and 21.3 Hz.

[0048]

[0049] Meanwhile, the output module (140) may be composed of at least one of an antenna, an LED, and a speaker, for example, the output module (140) may be composed of a single antenna or may be composed including an antenna and an LED.

[0050] When the output module (140) is configured as an antenna, the antenna may be configured as a spiral metal pattern, wherein the direction in which the spiral metal pattern rotates is preferably corresponding to the spin direction of the electron generating the longitudinal wave, for example, the spiral metal pattern may be configured as a pattern that expands while rotating clockwise from the center of the metal pattern.

[0051] The electromagnetic waves output from the output module (140) are longitudinal waves and may have a low frequency. For example, the frequency of the longitudinal waves output from the output module (140) may include at least one of 2 Hz, 3 Hz, 4.2 Hz, 16.8 Hz, and 21.3 Hz.

[0052] When the output module (140) includes an LED, the LED is more effective in activating bodily functions when it is a blue LED or an orange LED.

[0053]

[0054] Figure 2 is a photograph showing an actual product of a bio-function activation device according to the present invention.

[0055] Referring to Fig. 2, the bio-function activation device can be made very small and light, so that users can wear it easily without any burden.

[0056]

[0057] FIG. 3 is a diagram schematically showing the configuration of a modulation module of a bio-function activation device according to the present invention.

[0058] According to FIG. 3, a modulation module (130) according to the present invention includes an input terminal (not shown) into which an electrical signal of a specific frequency is input, a metal pattern (310, 320, 330) for modulating an electromagnetic wave generated by the input electrical signal of a specific frequency, and an output terminal (not shown) for outputting an electrical signal that generates an electromagnetic wave modulated by the metal pattern (310, 320, 330). Here, the electromagnetic wave modulated by the metal pattern (310, 320, 330) may be a longitudinal wave.

[0059] The electrical signal passing through the modulation module (130) is modulated according to the magnetic properties of the metal pattern (310, 320, 330), wherein the magnetic properties of the metal pattern (310, 320, 330) are based on magnetic information recorded in the metal pattern, which may be information stored in advance by magnetizing the metal pattern (310, 320, 330). At this time, the magnetic information recorded in the metal pattern (310, 320, 330) may be information regarding the spin direction of electrons.

[0060] Additionally, the metal pattern (310, 320, 330) is formed in a predetermined shape (shape, size, and position). This is intended to adjust the characteristics of the electromagnetic wave modulated by the metal pattern (310, 320, 330), for example, the intensity or energy characteristics of the electromagnetic wave output from the output module (140) can be adjusted according to the shape of the metal pattern (310, 320, 330).

[0061] Since a user of the bio-function activation device (100) may be exposed to electromagnetic waves output from the bio-function activation device (100) for a long time, it is necessary to adjust the energy applied to the body by said electromagnetic waves to an appropriate level. For example, if the intensity of the electromagnetic waves output from the output module (140) is strong, it may activate the user's bio-function in the short term, but it may cause side effects to the user's body in the long term. Therefore, the intensity and energy characteristics of the electromagnetic waves output from the output module (140) must be adjusted so that the user's bio-function can be appropriately adjusted without burdening the user's body even with long-term use. At this time, it is desirable that the intensity of the electromagnetic waves output from the output module (140) be at a level similar to the intensity of electromagnetic waves emitted from the human body, and it is desirable that the energy of the electromagnetic waves have the characteristic of being uniformly distributed.

[0062] To this end, metal patterns (310, 320, 330) are formed differently on one side and the other side of the modulation module (130). The metal pattern (310) is formed in the center of one side of the modulation module (130), and the metal patterns (320, 330) are smaller in size than the metal pattern (310) and are formed spaced apart from each other on the other side of the modulation module (130). The metal patterns (320, 330) formed on the other side of the modulation module (130) may be formed at a position corresponding to the positions of the input electrode and the output electrode of the modulation module (130). Here, the position corresponding to the positions of the input electrode and the output electrode may be the same position as the position of the input electrode and the output electrode, a position close to the input electrode and the output electrode, or a position corresponding to the opposite side of the surface where the input electrode and the output electrode are formed. Additionally, a plurality of metal patterns (320, 330) formed on the other side of the modulation module (130) may be arranged spaced apart from the center of the modulation module (130) at a certain distance. As the metal pattern (310, 320, 330) is formed in this form, the energy of the electromagnetic waves output from the output module (140) can have the characteristic of being uniformly distributed.

[0063] Here, the metal patterns (310, 320, 330) allow the electrical signal passing through the modulation module (130) to pass directly or in close proximity. If the electrical signal passes directly through the metal patterns (310, 320, 330), the metal patterns (310, 320, 330) may be directly connected to the wiring through which the electrical signal passes within the electromagnetic modulation module (130). If the electrical signal passes in close proximity to the metal patterns (310, 320, 330), the wiring through which the electrical signal passes within the electromagnetic modulation module (130) may be placed in close proximity to the metal patterns (310, 320, 330). Additionally, the metal patterns (310, 320, 330) each allow the electrical signal passing through the modulation module (130) to pass directly or in close proximity. For example, a metal pattern (310) formed on one side of the modulation module (130) can be arranged so that an electrical signal passes through in close proximity, while a metal pattern (320, 330) formed on the other side can be arranged so that an electrical signal passes through directly. Conversely, a metal pattern (310) formed on one side of the modulation module (130) can be arranged so that an electrical signal passes through directly, while a metal pattern (320, 330) formed on the other side can be arranged so that an electrical signal passes through in close proximity.

[0064] Additionally, the modulation module (130) may further include an electromagnetic wave adjustment circuit (not shown) capable of adjusting the intensity and energy characteristics of the electromagnetic waves modulated by the metal patterns (310, 320, 330). The electromagnetic wave adjustment circuit may be composed of a resistor (R) and a capacitor (C), and the intensity and energy characteristics of the electromagnetic waves modulated by the metal patterns (310, 320, 330) can be adjusted by adjusting the resistance value of the circuit and the capacitance of the capacitor.

[0065]

[0066] FIG. 4 is a flowchart showing a method for activating bio-functions to change a user's physical condition to a specific state according to the present invention.

[0067] Referring to FIG. 4, the bio-function activation method first determines the frequency of an electrical signal based on the body rhythm when the user's physical condition is in a specific state in step 410.

[0068] When the frequency of the oscillator (120) is set according to the frequency of the determined electrical signal, in step 420, the oscillator (120) outputs an electrical signal of a specific frequency according to the determined frequency. At this time, it is preferable that the electrical signal be a square wave of positive voltage.

[0069] In step 430, the modulation module (130) receives an electrical signal output from the oscillator (120) and modulates the electromagnetic waves generated by this electrical signal into longitudinal waves.

[0070] In step 440, the modulation module (130) outputs an electrical signal in which the electromagnetic wave is modulated into a longitudinal wave, and the output module (140) receives the electrical signal output from the modulation module (130) and outputs the modulated longitudinal wave according to the received electrical signal to an external space.

[0071] Here, the frequency of the electromagnetic wave generated by the electrical signal output from the oscillator (120) and the modulated longitudinal wave output to the external space is determined by the frequency determined in step 410.

[0072] In addition, step 430, which modulates the electromagnetic waves generated by the output electrical signal into longitudinal waves, allows the intensity and energy characteristics of the longitudinal waves to be adjusted by a metal pattern (310, 320, 330) formed in a predetermined shape for modulating the electromagnetic waves according to the electrical signal.

[0073]

[0074] The bio-functional activation effect of the modulated electromagnetic waves according to the present invention was demonstrated through various experiments. Physical fatigue, ocular potential, and blood flow activity were tested.

[0075] Ten physically healthy male and female subjects who had a history of head nervous system diseases were instructed to use a bio-function activation device including an electromagnetic modulation module according to the present invention while watching digital content through an electronic device. Content viewing was conducted for 30 minutes, and physical fatigue, electrooculograms, and blood flow activity were measured before and after use. Specifically, physical fatigue was measured using a Flicker, eye blinking was measured using an electrooculogram, and blood flow activity at the corners of the eyes and the tip of the nose was measured using a thermal imaging camera. The Flicker is a physiological measurement method used to objectively evaluate central nervous system fatigue. The electrooculogram can record potential changes caused by eye blinking by utilizing the potential difference between the cornea and the retina. Facial skin temperature can be evaluated by measuring changes in blood flow activity resulting from the activation of the autonomic nervous system.

[0076] Table 1 shows the change in physical fatigue levels according to the use of the bio-function activation device. As a result of measuring physical fatigue, the difference in physical fatigue levels showed a tendency to decrease by an average of 1.44% after using the bio-function activation device.

[0077]

[0078] Category Content Paired Difference st PMean Std. Deviation Without Bio-activation Device Before / After Viewing - 0.400 1.635 - 1.09 40.288 With Bio-activation Device Before / After Viewing - 0.300 2.431 - 0.57 30.573

[0079]

[0080] Table 2 shows the change in the difference in ocular potential according to the use of the bio-function activation device. As a result of the ocular potential measurement, the difference in blinking showed a tendency to decrease by an average of 17.3% after using the bio-function activation device.

[0081]

[0082] Category Content Paired Differences st PMean Std. Deviation Before / After viewing without bio-activation device 6.5347.2332.7100.027 Before / After viewing with bio-activation device 4.3225.1942.4970.037

[0083]

[0084] Table 3 shows the changes in the difference in blood flow activity according to the use of the bio-function activation device. As a result of measuring blood flow activity, the difference in blood flow activity decreased by an average of 0.45% after using the bio-function activation device, and in the case of the tip of the nose, a tendency was observed for the difference in blood flow activity to decrease by an average of 1.63%.

[0085]

[0086] Category Content Paired Differences st PMean St. Deviation Without bio-activation device (corner of eye) Before / After viewing - 0.40 50.683 - 2.65 10.016 With bio-activation device (corner of eye) Before / After viewing - 0.24 52.431 - 2.05 70.054 Without bio-activation device (tip of nose) Before / After viewing - 1.37 1.026 - 4.22 10.002 With bio-activation device (tip of nose) Before / After viewing - 0.82 00.844 - 3.07 10.013

[0087]

[0088] In conclusion, it was confirmed that when the modulated electromagnetic waves according to the present invention are used, physical fatigue, ocular potential, and blood flow activity are improved. In other words, it was confirmed that biological functions are activated.

[0089]

[0090] The embodiments of the present invention described above are disclosed for illustrative purposes only, and those skilled in the art with ordinary knowledge of the present invention may make various modifications, changes, and additions within the spirit and scope of the present invention, and such modifications, changes, and additions should be considered to fall within the scope of the following claims.

Claims

1. Includes an oscillator that outputs an electrical signal of a specific frequency, and By modulating an electromagnetic wave according to an electrical signal of the aforementioned specific frequency, a longitudinal wave corresponding to the aforementioned specific frequency is output, The above specific frequency is a frequency determined based on the body rhythm when the user's body is in a specific state in order to change the user's body state to a specific state. A bio-function activation device characterized by 2. Battery supplying power; An oscillator electrically connected to the battery and outputting an electrical signal of a specific frequency when power is applied from the battery; A modulation module electrically connected to the above oscillator, receiving an electrical signal of a specific frequency output from the above oscillator, modulating an electromagnetic wave generated by the electrical signal of the specific frequency, and outputting an electrical signal in which the electromagnetic wave is modulated; and Includes an output module electrically connected to the modulation module, receiving an electrical signal output from the modulation module, and outputting the modulated electromagnetic wave according to the received electrical signal to an external space. A bio-function activation device characterized by 3. In Paragraph 2, The electrical signal of a specific frequency output from the above oscillator is, It is intended to change the user's physical condition to a specific state, The frequency is determined based on the body rhythm when the user's physical condition is in a specific state. A bio-function activation device characterized by 4. In Paragraph 3, The specific frequency of the electrical signal output from the above oscillator is, Includes at least one of 2Hz, 3Hz, 4.2Hz, 16.8Hz, and 21.3Hz A bio-function activation device characterized by 5. In Paragraph 2, The electrical signal of a specific frequency output from the above oscillator is a square wave of positive voltage. A bio-function activation device characterized by 6. In Paragraph 2, The modulation module includes a metal pattern formed in a predetermined shape for modulating electromagnetic waves according to the electrical signal, wherein When the above electrical signal passes through the modulation module, the electrical signal passes directly or passes in close proximity to the metal pattern. A bio-function activation device characterized by 7. In Paragraph 6, The above modulation module is, A metal pattern is formed in the center of one side, and On the other side, a plurality of metal patterns are formed at positions corresponding to the positions of the input electrode and output electrode of the modulation module. A bio-function activation device characterized by 8. In Paragraph 7, The plurality of metal patterns formed on the above surface are arranged at a certain distance from the center of the modulation module. A bio-function activation device characterized by 9. In Paragraph 6, The above modulation module is, Adjusting the intensity and energy characteristics of electromagnetic waves output from the output module according to the shape of the metal pattern above. A bio-function activation device characterized by 10. In Paragraph 6, The above modulation module modulates electromagnetic waves according to the magnetic properties of the metal pattern, and The magnetic properties of the above metal pattern are determined by the magnetic information recorded in the above metal pattern. A bio-function activation device characterized by 11. In Paragraph 10, The above modulation module further includes an electromagnetic wave adjustment circuit capable of adjusting the intensity and energy characteristics of the electromagnetic waves output to the output module. A bio-function activation device characterized by 12. In Paragraph 2, The above output module includes any one of an antenna, an LED, and a speaker, The electromagnetic waves output from the above output module are longitudinal waves, and The frequency of the electromagnetic waves output from the above output module is low frequency. A bio-function activation device characterized by 13. In Paragraph 12, The above antenna includes a spiral metal pattern for radiating electromagnetic waves, The above spiral metal pattern is a pattern that expands while rotating clockwise from the center of the metal pattern, corresponding to the spin direction of the electron generating the longitudinal wave. A bio-function activation device characterized by 14. In a method for activating biological functions to change a user's physical condition to a specific state, A step of determining the frequency of an electrical signal based on the body rhythm when the user's physical condition is in a specific state; A step of outputting an electrical signal according to the determined frequency above; A step of modulating the electromagnetic waves generated by the above-mentioned output electrical signal into longitudinal waves; and The method includes the step of outputting the above-mentioned modulated longitudinal wave to an external space; The above electrical signal is a square wave of positive voltage, and The frequency of the electromagnetic waves generated by the above-mentioned output electrical signal and the above-mentioned modulated longitudinal waves output to the external space is determined by the above-mentioned determined frequency. A method for activating biological functions characterized by 15. In Paragraph 14, The step of modulating the electromagnetic waves generated by the above-mentioned output electrical signal into longitudinal waves is, The intensity and energy characteristics of the longitudinal wave are adjusted by a metal pattern formed in a predetermined shape for modulation of the electromagnetic wave according to the above electrical signal. A method for activating biological functions characterized by

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