Dynamic balance biological radio wave near field sensing resonator

Abstract

The invention provides a dynamic balance biological radio wave near-field sensing resonator which comprises a shell with a driving unit and a turntable arranged in the shell. The center position of the rotating disc is connected to the output of the driving unit, a plurality of resonance units are arranged on any face or the inner side of the rotating disc, and the weight of the resonance units is evenly distributed to the rotating disc so that the driving unit can drive the rotating disc to rotate to achieve dynamic balance. According to the dynamic balance biological radio wave near-field sensing resonator, the weights of the resonance units are uniformly configured on the turntable, so that shaking, vibration or unbalanced force caused by rotation is reduced, mechanism abrasion is reduced by achieving dynamic balance, the service life is prolonged, micro radio waves subjected to resonance amplification can be stably fed back to a human body, and the human body is protected from being damaged. And blood circulation is promoted to keep health.

Description

Technical Field

[0001] This invention relates to a bioelectric wave near-field sensing resonator, and more particularly to a dynamically balanced bioelectric wave near-field sensing resonator. Background Technology

[0002] Existing biochips are mostly embedded in patches for direct application to the skin, allowing the target material or sensor to directly contact the skin. This avoids transmission problems caused by clothing or spatial interference, making them suitable for targeting specific areas of the body. They create electric or magnetic fields at acupoints or localized areas to promote blood circulation and relieve discomfort. The applications of biochips are quite extensive. Examples include medical patches containing traditional medications, health care patches incorporating magnets, titanium, germanium, or other special substances, and NFC patches that use near-field communication (NFC) to wirelessly monitor physiological information such as heart rate, blood sugar, and blood pressure. In addition to their original functions, these patches can also utilize the weak currents generated by the body itself to promote the penetration of drugs or other special substances into the body. Summary of the Invention

[0003] However, existing biochips are applied as patches, which may cause concerns or worries for users whose skin is prone to allergies or discomfort. Therefore, the inventors of this project have developed a biochip device that does not need to be applied to the body, which is suitable for various users and different body parts, promotes human circulation, and improves health.

[0004] To achieve the above objectives, the present invention provides a dynamic balance bioelectric wave near-field sensing resonator, comprising: a housing including a driving unit; a turntable disposed within the housing, the center of the turntable being connected to the output of the driving unit, and at least one central resonant unit disposed at the center of the turntable on any side or inner side of the turntable; a plurality of first converging resonant units disposed on the central resonant unit; an annular resonant unit including a central hollow area for arranging the central resonant unit so that the annular resonant unit surrounds the outer periphery of the central resonant unit; a plurality of extended resonant units radially arranged around the outer periphery of the annular resonant unit; and a plurality of second converging resonant units symmetrically arranged around the center position on the periphery of the turntable, each of the second converging resonant units overlapping one end of the plurality of extended resonant units; wherein each of the extended resonant units contacts a single second converging resonant unit, and the weight of the plurality of resonant units is evenly distributed to the turntable so that the turntable is rotated by the driving unit to achieve dynamic balance.

[0005] Furthermore, one end of the extended resonant unit is in contact with or partially covered by the outer periphery of the annular resonant unit.

[0006] Furthermore, the number of the first converging resonant units is between 1 and 3, the number of the extended resonant units is between 44 and 46, and the number of the second converging resonant units is between 7 and 9.

[0007] Furthermore, the number of the central resonant unit and the ring resonant unit is one, the number of the first converging resonant units is two, the number of the extended resonant units is 45, and the number of the second converging resonant units is five.

[0008] Furthermore, the outer diameter of the central resonant unit is between 14.9 mm and 15.1 mm, the width of the first converging resonant unit is between 3.9 mm and 4.1 mm, and the length is between 9.9 mm and 10.1 mm, the outer diameter of the annular resonant unit is between 38.9 mm and 39.1 mm, and the inner diameter is greater than or equal to the outer diameter of the central resonant unit, the width of the extended resonant unit is between 2.9 mm and 3.1 mm, and the length is between 29.9 mm and 30.1 mm, and the width of the second converging resonant unit is between 8.9 mm and 9.1 mm, and the length is between 29.9 mm and 30.1 mm.

[0009] Furthermore, the outer diameter of the central resonant unit is 15mm, the width of the first converging resonant unit is 4mm and the length is 10mm, the outer diameter of the annular resonant unit is 39mm and the inner diameter is greater than or equal to the outer diameter of the central resonant unit, the width of the extended resonant unit is 3mm and the length is 30mm, and the width of the second converging resonant unit is 9mm and the length is 30mm.

[0010] Furthermore, the central resonant unit is in the shape of a disc, the annular resonant unit is in the shape of a hollow disc, and the first converging resonant unit, the extended resonant unit, and the second converging resonant unit are all in the shape of long strips.

[0011] Furthermore, each of these resonant units is a microchip integrated circuit.

[0012] Furthermore, each of the microchip integrated circuits includes a receiver for receiving radio wave signals, a high-frequency oscillator connected to the receiver and resonantly amplifying the radio wave signals, and a transmitter connected to the high-frequency oscillator and outputting the resonantly amplified radio wave signals.

[0013] Furthermore, the individual transmitters of the first and second convergent resonant units are pointed towards the human body.

[0014] The dynamic balance bioelectric wave near-field sensing resonator of the present invention reduces swaying, vibration or unbalanced forces caused by rotation by evenly distributing the weight of multiple resonant units on a turntable. By achieving dynamic balance, it reduces wear and tear on the mechanism and extends service life. It can also smoothly feed back the resonant amplified micro-electro waves to the human body to promote blood circulation and maintain health. Attached Figure Description

[0015] Figure 1 This is a side-view transparent schematic diagram of the dynamic balance bioelectric wave near-field sensing resonator of the present invention.

[0016] Figure 2 This is a top-view transparent schematic diagram of the dynamic balance bioelectric wave near-field sensing resonator of the present invention.

[0017] Figure 3 This is a schematic diagram of the feedback of the dynamic balance bioelectric wave near-field sensing resonator of the present invention.

[0018] The diagram is marked as follows:

[0019] 100 Dynamically Balanced Bioelectric Wave Near-Field Sensing Resonator

[0020] 10. Outer shell

[0021] 11 Drive Unit

[0022] 20 turntables

[0023] 30 Resonance Module

[0024] 31 Central Resonance Units

[0025] 32 First Converging Resonance Unit

[0026] 33 Ring Resonance Units

[0027] 34 Extended Resonance Units

[0028] 35 Second convergent resonant unit

[0029] Z Central hollow area Detailed Implementation

[0030] The detailed description and technical content of this invention are now explained in conjunction with the accompanying drawings. Furthermore, for ease of explanation, the drawings in this invention may not be drawn to actual scale, and these drawings and their scales are not intended to limit the scope of this invention; this is stated in advance.

[0031] First, please refer to Figure 1The figure shows a transparent side view of the dynamic balance bioelectric wave near-field sensing resonator of the present invention. As shown in the figure, the present invention discloses a dynamic balance bioelectric wave near-field sensing resonator 100, which includes a housing 10 with a drive unit 11 and a turntable 20 disposed in the housing 10. A resonant module 30 including multiple resonant units is disposed on any side or inner side of the turntable 20. The present invention achieves dynamic balance by evenly distributing the weight of the multiple resonant units to the turntable 20 so that the drive unit 11 drives the turntable 20 to rotate. This reduces the shaking, vibration or unbalanced force that occurs during rotation, avoids mechanical damage, and ensures that the functions of the multiple resonant units are maximized.

[0032] The center of the turntable 20 is connected to the output of the drive unit 11. In one embodiment, the drive unit 11 may include, for example but not limited to, a motor and a power supply mechanism for supplying power to the motor, for driving the turntable 20 to rotate. The power supply mechanism may include, for example but not limited to, a battery pack, an external power supply, or other device or equipment that provides power to the rotating turntable 20 and is housed within the housing 10. In one embodiment, the drive unit 11 drives the turntable 20 to rotate, for example but not limited to, in a clockwise or counterclockwise direction. To achieve dynamic balance, the turntable 20 is preferably circular in shape, which helps maintain the stability of the turntable 20 during rotation and reduces the generation of swaying, vibration, or unbalanced forces.

[0033] Next, please refer to the following: Figure 2 The figure shows a top-view transparent schematic diagram of the dynamic balance bioelectric wave near-field sensing resonator of the present invention. As shown, the resonant module 30 described above has at least one central resonant unit 31, multiple first converging resonant units 32, one ring resonant unit 33, multiple extended resonant units 34, and multiple second converging resonant units 35 disposed on the turntable 20. Each of the multiple resonant units is a microchip integrated circuit. Each microchip integrated circuit includes a receiver for receiving radio wave signals, a high-frequency oscillator connected to the receiver and resonantly amplifying the radio wave signals, and a transmitter connected to the high-frequency oscillator and outputting the resonantly amplified radio wave signals. The transmitters of the first converging resonant units 32 and the second converging resonant units 35 are pointed towards the human body. In one embodiment, the receivers and transmitters of the multiple resonant units are, for example, but not limited to, independent antennas or co-constructed as a single antenna. In one embodiment, to avoid electrical interference between the multiple resonant units, an insulating layer is disposed between the multiple resonant units, for example, but not limited to, resin, ceramic, metal-based oxide, nitride, and thermally conductive materials.

[0034] The central resonant unit 31 is located at the center of the turntable 20; the first converging resonant unit 32 is arranged on the central resonant unit 31; the annular resonant unit 33 includes a central hollow area Z for the central resonant unit 31 to be arranged, so that the annular resonant unit 33 surrounds the outer periphery of the central resonant unit 31, wherein the shape of the central hollow area Z is, for example, but not limited to, corresponding to the shape of the central resonant unit 31, or the shape of the central hollow area Z is larger than the shape of the central resonant unit 31; the extended resonant unit 34 is arranged radially around the outer periphery of the annular resonant unit 33, wherein one end of the extended resonant unit 34 toward the annular resonant unit 33 is, for example, but not limited to, in contact with the outer periphery of the annular resonant unit 33, or the portion of that end of the extended resonant unit 34 is covered by the annular resonant unit 33; the second converging resonant unit 35 is symmetrically arranged on the periphery of the turntable 20 with the center of the turntable 20 as the center, each second converging resonant unit overlapping one end of a plurality of extended resonant units 34, wherein each extended resonant unit 34 contacts a single second converging resonant unit 35.

[0035] To ensure dynamic balance during rotation of the turntable 20, the central resonant unit 31 is preferably circular. In configuration, the center of the central resonant unit 31 is aligned with the center of the circular turntable 20. By ensuring the turntable 20 and the central resonant unit 31 are identical in shape and coaxially aligned, the turntable 20 evenly bears the weight of the central resonant unit 31. The first converging resonant unit 32 is preferably elongated. In configuration, the first converging resonant unit 32 is symmetrically positioned on the central resonant unit 31, with the center of the central resonant unit 31 as a reference. By ensuring the central resonant unit 31 and the turntable 20 are coaxially aligned, the weight of the first converging resonant unit 32 is evenly distributed across the turntable 20. The annular resonant unit 33 is preferably hollow circular. In configuration, the center of the annular resonant unit 33 is aligned with the center of the central resonant unit 31. The central resonant unit 31 is coaxially arranged with the turntable 20, and the turntable 20 has a similar shape to the annular resonant unit 33, so that the weight of the annular resonant unit 33 is evenly distributed on the turntable 20. The extended resonant unit 34 is preferably in the shape of a long strip. In the configuration, multiple extended resonant units 34 are radially and evenly arranged around the center position of the turntable 20 to evenly distribute the weight of the multiple extended resonant units 34 on the turntable 20. The second converging resonant unit 35 is preferably in the shape of a long strip. In the configuration, the second converging resonant unit 35 is symmetrically and evenly arranged on the outward end of the extended resonant unit 34 with the center position of the central resonant unit 31 and / or the annular resonant unit 33 as a reference. The central resonant unit 31, the annular resonant unit 33 and the turntable 20 are coaxially arranged to evenly distribute the weight on the turntable 20.

[0036] In one embodiment, the number of central resonant units 31 is at least one; the number of first converging resonant units 32 is between one and three, for example, but not limited to one, two, or three; the number of annular resonant units 33 is at least one; the number of extended resonant units 34 is between 44 and 46, for example, but not limited to 44, 45, or 46; and the number of second converging resonant units 35 is between seven and nine, for example, but not limited to seven, eight, or nine. In one embodiment, as... Figure 2 As shown, the number of central resonant units 31 is one; the number of first converging resonant units 32 is two; the number of annular resonant units 33 is one; the number of extended resonant units 34 is 45; and the number of second converging resonant units 35 is eight. In one embodiment, the number of each of the central resonant unit 31, the first converging resonant unit 32, the annular resonant unit 33, the extended resonant unit 34, and / or the second converging resonant unit 35 may be multiple, and the multiple resonant units are respectively arranged in a stacked configuration, for example, but not limited to... Figure 2 At least one additional central resonant unit 31 (not shown in the figure) is stacked on the back side of the central resonant unit 31. Figure 2 Each of the second convergent resonant units 35 in the invention has at least one additional second convergent resonant unit 35 (not shown in the figure) stacked on it. The total number of such resonant units is not limited in this invention, as will be stated here first.

[0037] In one embodiment, the outer diameter of the central resonant unit 31 is between 14.9 mm and 15.1 mm, for example, but not limited to 14.9 mm, 15.0 mm, or 15.1 mm; the width of the first converging resonant unit 32 is between 3.9 mm and 4.1 mm, and the length is between 9.9 mm and 10.1 mm, for example, but not limited to 3.9 mm, 4.0 mm, or 4.1 mm, and the length is 9.9 mm, 10.0 mm, or 10.1 mm; the outer diameter of the annular resonant unit 33 is between 38.9 mm and 39.1 mm, and the inner diameter is greater than or equal to the outer diameter of the central resonant unit 31, for example, but not limited to an outer diameter of 38.9 mm. The width of the extended resonant unit 34 is between 2.9 mm and 3.1 mm, and the length is between 29.9 mm and 30.1 mm, for example, but not limited to a width of 2.9 mm, 3.0 mm, or 3.1 mm, and a length of 29.9 mm, 30.0 mm, or 30.1 mm; the width of the second converging resonant unit 35 is between 8.9 mm and 9.1 mm, and the length is between 29.9 mm and 30.1 mm, for example, but not limited to a width of 8.9 mm, 9.0 mm, or 9.1 mm, and a length of 29.9 mm, 30.1 mm, or 30.1 mm. In one embodiment, the outer diameter of the central resonant unit 31 is 15 mm, the width of the first converging resonant unit 32 is 4 mm and the length is 10 mm, the outer diameter of the annular resonant unit 33 is 39 mm and the inner diameter is greater than or equal to the outer diameter of the central resonant unit 31, the width of the extended resonant unit 34 is 3 mm and the length is 30 mm, and the width of the second converging resonant unit 35 is 9 mm and the length is 30 mm.

[0038] By evenly distributing the weight of multiple resonant units on the turntable 20, the present invention can achieve a uniform mass distribution and dynamic distribution when the turntable 20 rotates, reducing the possibility of generating any rotational torque or vibration, and preventing the center of mass of the turntable 20 from moving or rotating in any direction as it rotates, such as but not limited to unstable unbalanced movements like up-and-down swaying or left-and-right swaying, thereby ensuring the rotational stability of the turntable 20.

[0039] In this invention, "dynamic balancing" refers to the balancing levels established by the International Organization for Standardization (ISO) ISO 1940. The rotor balancing level is divided into 11 levels, expressed as G values ​​in millimeters-seconds (mm / s), representing the maximum vibration velocity caused by imbalance. The balancing accuracy levels range from the highest requirement of G0.4 to the lowest requirement of G4000. In one embodiment, the dynamic balancing bio-electric near-field sensing resonator 100 can achieve a dynamic balancing accuracy level, for example, but not limited to, between G1.6 and G1.9, such as G1.6, G1.7, G1.8, or G1.9.

[0040] Next, please refer to the following: Figure 3 This is a feedback schematic diagram of the dynamic balance bioelectric wave near-field sensing resonator 100 of the present invention, and please refer to it. Figures 1 to 2 As shown in the figure: When the rotating disk 20 of the dynamic balance bioelectric wave near-field sensing resonator 100 of the present invention is activated and moves close to the human body, the central resonant unit 31 located at the center of the rotating disk 20 receives the human body's micro-electromagnetic waves through its receiver and converts them into a first induced current. After being resonantly amplified by the high-frequency oscillator of the central resonant unit 31, it is output to the transmitter of the central resonant unit 31 to be converted into a central beam via a radiated electric field and transmitted to the receiver of the first converging resonant unit 32. Then, the receiver of the first converging resonant unit 32 receives the central beam and converts it into a first converging current. After being resonantly amplified by the high-frequency oscillator of the first converging resonant unit 32, it is output to the transmitter of the first converging resonant unit 32 to be converted into a first converging beam via a radiated electric field, thereby feeding back the resonantly amplified micro-electromagnetic waves to the human body at the center of the rotating disk 20.

[0041] While the central resonant unit 31 and the first converging resonant unit 32 are operating, the ring resonant unit 33 receives human body micro-electromagnetic waves through its receiver and converts them into a ring-shaped induced current. After resonant amplification by the high-frequency oscillator of the ring resonant unit 33, the current is output to the transmitter of the ring resonant unit 33, whereby it is converted into a ring beam via a radiated electric field and transmitted to the receiver of the extended resonant unit 34. Next, the receiver of the extended resonant unit 34 receives the ring beam and converts it into an extended induced current. After resonant amplification by the high-frequency oscillator of the extended resonant unit 34, the current is output to the transmitter of the extended resonant unit 34, whereby it is converted into an extended beam via a radiated electric field and transmitted to the receiver of the second converging resonant unit 35. Next, the receiver of the second converging resonant unit 35 receives the extended beam and converts it into a second converging current. After resonant amplification by the high-frequency oscillator of the second converging resonant unit 35, the current is output to the transmitter of the second converging resonant unit 35, whereby it is converted into a second converging beam via a radiated electric field. Thus, the amplified micro-electromagnetic waves are fed back to the human body at the periphery of the turntable 20.

[0042] This invention, through a configuration design that achieves dynamic balance in the rotation of the turntable 20, allows multiple resonant units to stably feed back the amplified micro-electromagnetic waves to the human body at the center and periphery of the turntable 20, promoting blood circulation. The "electromagnetic radiation / electromagnetic waves" mentioned in this invention refer to those generated by the interaction of in-phase oscillating electric and magnetic fields in space without the need for a medium, possessing energy and momentum transmitted in the form of waves. Generally speaking, all matter, except for absolute zero and dark matter, constantly emits electromagnetic waves. In the case of the human body, the electromagnetic waves emitted are usually called human micro-electromagnetic waves. The dynamic balance bioelectric wave near-field sensing resonator of this invention is used to oscillate and resonate at a certain distance from the human body, absorbing and amplifying the human micro-electromagnetic waves from the human body and surrounding space, and feeding them back to the human body. On the other hand, this invention can obtain human micro-electromagnetic waves and then absorb 8-14 micrometer waveform electromagnetic waves from the vast solar spectrum, amplifying them through the dynamic balance bioelectric wave near-field sensing resonator 100 and feeding them back to the human body.

[0043] In terms of field distribution, the annular resonant unit has a higher field strength in the direction of field formation, surrounding the annular resonant unit 33 (in the direction of extension of the plane where the annular resonant unit 33 is located). This allows the annular resonant unit 33 to have a better resonance effect with the central resonant unit 31 and the surrounding radiating extended resonant units 34. In addition to increasing dynamic balance, the radiating distribution of the extended resonant units 34 also provides a homogenization effect, so that the resonant electromagnetic waves act evenly on the acupoints. The first converging resonant unit 32 resonates with the central resonant unit 31, and the second converging resonant unit 35 resonates with the extended resonant unit 34. The first converging resonant unit 32 enhances the local resonance effect of the moxibustion point, and the annular distribution of the second converging resonant unit 35 and the first converging resonant unit 32 provide local stimulation to the periphery of the moxibustion point, further enhancing the circulation effect of the moxibustion point.

[0044] In summary, the dynamic balance bioelectric wave near-field sensing resonator of the present invention reduces swaying, vibration or unbalanced forces caused by rotation by evenly distributing the weight of multiple resonant units on the turntable. By achieving dynamic balance, it reduces mechanical wear and extends service life. Furthermore, it can smoothly feed back the resonant amplified micro-electro waves to the human body, promoting blood circulation and thus maintaining health.

[0045] The present invention has been described in detail above. The above description is only a preferred embodiment of the present invention and should not be construed as limiting the scope of the present invention. All equivalent changes and modifications made in accordance with the scope of the patent application of the present invention should still fall within the patent coverage of the present invention.

Claims

1. A dynamically balanced bioelectric wave near-field sensing resonator, characterized in that, Including: A housing, including a drive unit; A turntable is disposed within the housing, the center of which is connected to the output of the drive unit. The turntable may have the following features on any side or inner side: At least one central resonant unit is located at the center of the turntable; Multiple first convergent resonant units are arranged on the central resonant unit; A ring-shaped resonant unit includes a central hollow area for the central resonant unit to be configured such that the ring-shaped resonant unit surrounds the outer periphery of the central resonant unit; Multiple extended resonant units are arranged radially around the outer periphery of the annular resonant unit; as well as Multiple second converging resonant units are symmetrically arranged around the center position on the periphery of the turntable, with each second converging resonant unit overlapping one end of the multiple extended resonant units; Each of the extended resonant units contacts a single second converging resonant unit, and the weight of the multiple resonant units is evenly distributed to the turntable so that the drive unit drives the turntable to rotate and achieve dynamic balance.

2. The dynamically balanced bioelectric wave near-field sensing resonator according to claim 1, characterized in that, The extended resonant unit is in contact with or partially covered by the outer periphery of the annular resonant unit at one end facing the annular resonant unit.

3. The dynamic equilibrium bioelectric wave near-field sensing resonator according to claim 1, characterized in that, The number of the first converging resonant units is between 1 and 3, the number of the extended resonant units is between 44 and 46, and the number of the second converging resonant units is between 7 and 9.

4. The dynamic equilibrium bioelectric wave near-field sensing resonator according to claim 3, characterized in that, The number of the central resonant unit and the ring resonant unit is one, the number of the first converging resonant units is two, the number of the extended resonant units is 45, and the number of the second converging resonant units is five.

5. The dynamic equilibrium bioelectric wave near-field sensing resonator according to claim 1, characterized in that, The outer diameter of the central resonant unit is between 14.9 mm and 15.1 mm, the width of the first converging resonant unit is between 3.9 mm and 4.1 mm, and the length is between 9.9 mm and 10.1 mm, the outer diameter of the annular resonant unit is between 38.9 mm and 39.1 mm, and the inner diameter is greater than or equal to the outer diameter of the central resonant unit, the width of the extended resonant unit is between 2.9 mm and 3.1 mm, and the length is between 29.9 mm and 30.1 mm, and the width of the second converging resonant unit is between 8.9 mm and 9.1 mm, and the length is between 29.9 mm and 30.1 mm.

6. The dynamically balanced bioelectric wave near-field sensing resonator according to claim 5, characterized in that, The outer diameter of the central resonant unit is 15mm, the width of the first converging resonant unit is 4mm and the length is 10mm, the outer diameter of the annular resonant unit is 39mm and the inner diameter is greater than or equal to the outer diameter of the central resonant unit, the width of the extended resonant unit is 3mm and the length is 30mm, and the width of the second converging resonant unit is 9mm and the length is 30mm.

7. The dynamically balanced bioelectric wave near-field sensing resonator according to claim 1, characterized in that, The central resonant unit is shaped like a disc, the annular resonant unit is shaped like a hollow disc, and the first converging resonant unit, the extended resonant unit, and the second converging resonant unit are all shaped like long strips.

8. The dynamic equilibrium bioelectric wave near-field sensing resonator according to claim 1, characterized in that, Each of these resonant units is a microchip integrated circuit.

9. The dynamic equilibrium bioelectric wave near-field sensing resonator according to claim 8, characterized in that, Each of the microchip integrated circuits includes a receiver for receiving radio wave signals, a high-frequency oscillator connected to the receiver and resonantly amplifying the radio wave signals, and a transmitter connected to the high-frequency oscillator and outputting the resonantly amplified radio wave signals.

10. The dynamic equilibrium bioelectric wave near-field sensing resonator according to claim 9, characterized in that, The individual transmitters of the first and second convergent resonant units are pointed towards the human body.

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