Photoelectric resonator with quantum multifunction

Abstract

The invention relates to the field of photoelectric resonators, and discloses a photoelectric resonator with a quantum multifunction, which comprises a photoelectric resonator carrier structure, in the photoelectric resonator, on one hand, current is converged into a plurality of light emitting diodes through wires, and light beams with wavelengths of 660nm, 700nm and 850nm are respectively emitted through a ceramic nanometer laser lamp and a wavelength double laser lamp in a red light resonator; when the red light resonator is triggered to work, the red light absorptivity is calculated through an algorithm configured in the central controller, the red light absorptivity is monitored in real time, heating is adjusted according to the red light absorptivity, it can be ensured that heating treatment is conducted in the optimal state, and therefore the treatment efficiency is improved; the liquid mercury between the electric heating sheet and the impermeable membrane expands after being heated, so that the heated liquid mercury in the impermeable membrane is more attached to a treatment area of a patient, the heating liquid mercury can be used for heating the treatment area and promoting blood circulation, on the other hand, the heating area and the attaching degree of the heating area can be increased, and absorption of the human body is further promoted.

Description

Technical Field

[0001] The invention relates to the field of photoelectric resonators, and in particular to a photoelectric resonator with quantum multifunctions. Background Art

[0002] In the medical field, a photoelectric resonator refers to a device that uses the principle of phototherapy. When used in treatment, a photoelectric resonator usually uses light of a specific wavelength to irradiate the human body. Different wavelengths of light can be absorbed by different molecules in human tissue. For example, infrared light can penetrate deep tissues and promote blood circulation and cell metabolism.

[0003] According to the Chinese authorized patent announcement number: CN107242904A, a beam homogenization treatment device is disclosed, including a laser adjustment part and an optical fiber connection part, the laser adjustment part and the optical fiber connection part are connected to each other, the optical fiber connection part is externally connected to a semiconductor laser source to transmit a laser beam, and the laser adjustment part adjusts the distribution of the laser beam and the spot size. The present invention adopts an external semiconductor laser source to couple the laser into the optical fiber for transmission, which greatly reduces the weight and volume of the treatment device on the one hand; on the other hand, it is also convenient for users to use. The laser adjustment part is arranged in the handheld part, and the beam homogenization mirror is arranged in the laser adjustment part, so that the output spot distribution is uniformly distributed. In addition, by adjusting the relative distance of the internal optical lens relative to other lenses to achieve the output of different spot sizes, the spot size and distribution can be controlled at the same time. However, the device still has shortcomings. The phototherapy equipment in the prior art often only provides a single wavelength beam, thereby limiting the comprehensiveness of the treatment effect, and usually does not combine the thermal therapy function, or the thermal therapy function is relatively simple, which is likely to cause the thermal therapy to fail to fit the patient's treatment area. Summary of the invention

[0004] In view of the shortcomings of the prior art, the present invention provides a quantum multifunctional photoelectric resonator, which solves the problem that the phototherapy equipment in the prior art often only provides a light beam of a single wavelength, thereby limiting the comprehensiveness of the treatment effect, and usually does not combine with the thermal therapy function, or the thermal therapy function is relatively simple, which may cause the problem that the thermal therapy cannot fit the patient's treatment area.

[0005] To achieve the above objectives, the present invention is implemented through the following technical solutions: a quantum multifunctional optoelectronic resonator, comprising an optoelectronic resonator carrier structure, wherein the optoelectronic resonator carrier structure comprises a Velcro layer, a fiber layer, a buffer layer, a filling layer, a flexible layer and a waterproof layer, wherein the waterproof layer and the Velcro layer are respectively located on the outside and inside of the optoelectronic resonator carrier structure, a filling layer is arranged on the inside of the waterproof layer, a plurality of red light resonators are embedded in the waterproof layer, and the plurality of red light resonators are equidistantly spaced, a light emitting diode is connected to the lower surface of each of the red light resonators, and wires are connected in series between the plurality of light emitting diodes.

[0006] Preferably, a plurality of shunt wires are connected to the upper surface of the conductive wire, and the upper end of each shunt wire is connected to the lower surface of an electric heater. The electric heater is embedded in the waterproof layer, and an impermeable membrane is arranged above the waterproof layer. Liquid mercury is filled between the impermeable membrane and the electric heater. It should be noted that the volume expansion coefficient of mercury is 180×10^-6 / K, which means that the volume of mercury will increase by about 0.18% for every increase of 1 degree Celsius. Therefore, when the mercury is heated, its volume will increase, and when it cools down, the volume will decrease accordingly and return to the state before heating. When the electric heater is heated, the heat is transferred to the liquid mercury through conduction, causing the temperature of the mercury to increase. The liquid mercury between the electric heater and the impermeable membrane expands after being heated, so that the heated liquid mercury inside the impermeable membrane is more closely fitted to the patient's treatment area. On the one hand, it can be used to heat the treatment area and promote blood circulation. On the other hand, it can increase the heated area and fit of the heated area. degree, thereby further promoting human absorption, the outer side of the impermeable membrane is covered with a protective film, the outer side of the Velcro layer is covered with a fiber layer, the outer side of the fiber layer is covered with a buffer layer, and the outer side of the buffer layer is covered with a filling layer. The red light resonator is composed of a ceramic nano laser lamp with a wavelength of 660nm, and two wavelength dual laser lamps of 700nm and 850nm. The 660nm red light can be better absorbed by hemoglobin, thereby increasing blood flow and improving the oxygenation and nutrient supply of local tissues. The 700nm light beam can penetrate deeper and act on deep tissues, which has a better relief effect on muscle and joint pain. The 850nm wavelength has stronger penetration, wherein the 660nm wavelength and 700nm wavelength light beams are visible infrared light, and the 850nm wavelength light beam is invisible infrared light, which can penetrate into deeper muscle and tissue layers, and is more effective in treating deep tissues. The radiation depth of the red light resonator 2 is 20-30 mm.

[0007] Preferably, the optoelectronic resonator carrier structure is cross-shaped, a plurality of high-frequency resonators are arranged in the middle of the optoelectronic resonator carrier structure, each of the high-frequency resonators is embedded in the optoelectronic resonator carrier structure, and a high-frequency passive chip is arranged below each of the high-frequency resonators.

[0008] Preferably, a circuit interface is provided on the back side of the optoelectronic resonator carrier structure, and a connecting wire is connected to one side of the circuit interface.

[0009] Preferably, one end of the connecting line away from the circuit interface is connected to the central controller, the other side of the central controller is connected to a power cord, one end of the power cord away from the central controller is connected to an adapter, the output end of the central controller is electrically connected to a photoelectric sensor, and the photoelectric sensor is arranged on the outside of the red light resonator.

[0010] Preferably, a zipper tape is fixedly connected to the right side and front side edges of the optoelectronic resonator carrier structure, and the outer surface of the zipper tape is provided with fastener teeth.

[0011] Preferably, the zipper tape on the right side is slidably connected to a zipper head through chain teeth, and the zipper tape on the front side is slidably connected to a zipper tail through chain teeth. The center of the cross-shaped photoelectric resonator carrier structure is fitted to the patient treatment area, and then the cross areas are folded together and stabilized with a Velcro layer. If you want to wear the photoelectric resonator on your head, hands or feet, you only need to zip up and fix them with Velcro layers. The position and tightness can be adjusted at will to meet different needs.

[0012] Preferably, the fiber layer is made of cotton fiber, and the buffer layer is made of polyethylene. Polyethylene material has good buffering properties and can reduce the impact of external force on the body.

[0013] Preferably, the filling layer is made of polyester fiber, and the flexible layer is made of silicone. The polyester fiber material is durable and not easily damaged, and the silicone material has excellent elasticity and can adapt to changes in different shapes and sizes.

[0014] Preferably, the waterproof layer is made of chloroprene rubber, which has good waterproof properties and can protect the optoelectronic resonator structure from being damaged by moisture.

[0015] Beneficial Effects

[0016] The present invention provides a quantum multifunctional optoelectronic resonator. Compared with the prior art, it has the following beneficial effects:

[0017] 1. In the present invention, after the adapter is connected to the power supply through the set red light resonator, the current is merged into multiple light-emitting diodes through the wires and passes through the ceramic nano laser lamp and the wavelength dual laser lamp in the red light resonator to emit light beams of 660nm, 700nm and 850nm wavelengths respectively. The 660nm red light can be better absorbed by hemoglobin, thereby increasing blood flow, improving the oxygenation and nutrient supply of local tissues, the 700nm light beam can penetrate deeper and act on deep tissues, and has a better relief effect on muscle and joint pain. The 850nm wavelength has stronger penetration and can penetrate deeper into the muscle and tissue layers, which is more effective for the treatment of deep tissues. While triggering the red light resonator 2 to work, the red light absorption is calculated by the algorithm configured inside the central controller 7. Yield, according to the change of red light absorption rate over time, dynamically adjust the absorption rate threshold, if the actual absorption rate is less than the absorption rate threshold, the heating plate 104 stops heating, if the actual absorption rate is greater than or equal to the absorption rate threshold, the heating plate 104 starts heating, by real-time monitoring of the red light absorption rate and adjusting the heating accordingly, it can ensure that the heating treatment is carried out in the best state, thereby improving the efficiency of the treatment, when the electric heater is heated, the heat is transferred to the liquid mercury by conduction, causing the temperature of the mercury to rise, the liquid mercury between the electric heater and the impermeable membrane expands in volume after being heated, so that the heated liquid mercury inside the impermeable membrane is more closely fitted to the patient's treatment area, on the one hand, it can be used to heat the treatment area and promote blood circulation, on the other hand, it can increase the heated area and fit degree of the heated area, thereby further promoting human body absorption;

[0018] 2. In the present invention, by providing the Velcro layer and the zipper tape, when in use, the center of the cross-shaped photoelectric resonator carrier structure is attached to the patient's treatment area, and then the cross areas are folded together and stabilized with the Velcro layer. If you want to wear the photoelectric resonator on your head, hands or feet, you only need to zip up and use the Velcro layers to adhere to each other for fixation. The position and tightness can be adjusted at will to meet different needs. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 A schematic diagram of the front side three-dimensional structure of a quantum multifunctional optoelectronic resonator proposed by the present invention;

[0020] Figure 2 A schematic diagram of the rear three-dimensional structure of a quantum multifunctional optoelectronic resonator proposed by the present invention;

[0021] Figure 3 A schematic diagram of the back structure of a quantum multifunctional optoelectronic resonator proposed by the present invention;

[0022] Figure 4 A top view of a quantum multifunctional optoelectronic resonator proposed by the present invention;

[0023] Figure 5 A schematic cross-sectional structure diagram of a part of an optoelectronic resonator carrier structure in an optoelectronic resonator with quantum multifunctions proposed by the present invention;

[0024] Figure 6 A photoelectric resonator with quantum multifunctionality proposed by the present invention Figure 5 A magnified view of middle;

[0025] Figure 7 A photoelectric resonator with quantum multifunctionality proposed by the present invention Figure 5 Enlarged view of B.

[0026] Legend:

[0027] 1. Photoelectric resonator carrier structure; 101. Light-emitting diode; 102. Wire; 103. Shunt line; 104. Electric heater; 105. Temperature controller; 106. Impermeable membrane; 107. Liquid mercury; 108. Protective film; 109. Velcro layer; 110. Fiber layer; 111. Buffer layer; 112. Filling layer; 113. Flexible layer; 114. Waterproof layer; 2. Red light resonator; 3. High-frequency resonator; 4. High-frequency passive chip; 5. Circuit interface; 6. Connecting wire; 7. Central controller; 8. Power cord; 9. Adapter; 10. Zipper tape; 11. Zipper head; 12. Zipper tail. DETAILED DESCRIPTION

[0028] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0029] See also Figure 1-Figure 7 The present invention provides two technical solutions, which specifically include the following embodiments:

[0030] Embodiment 1:

[0031] A photoelectric resonator with quantum multifunctions, comprising a photoelectric resonator carrier structure 1, the photoelectric resonator carrier structure 1 comprising a Velcro layer 109, a fiber layer 110, a buffer layer 111, a filling layer 112, a flexible layer 113 and a waterproof layer 114, the waterproof layer 114 and the Velcro layer 109 are respectively located on the outside and inside of the photoelectric resonator carrier structure 1, the filling layer 112 is arranged on the inside of the waterproof layer 114, and a plurality of red light resonators 2 are embedded in the waterproof layer 114, wherein the red light resonator 2 is composed of a ceramic nano laser lamp with a wavelength of 660nm, and two wavelength dual laser lamps of 700nm and 850nm, wherein the 660nm m red light can be better absorbed by hemoglobin, thereby increasing blood flow and improving oxygenation and nutrient supply of local tissues. The 700nm beam can penetrate deeper and act on deep tissues, which has a better effect on relieving muscle and joint pain. The 850nm wavelength has stronger penetration. Among them, the 660nm wavelength and 700nm wavelength beams are visible infrared light, and the 850nm wavelength beam is invisible infrared light, which can penetrate deeper into muscle and tissue layers and is more effective in treating deep tissues. The radiation depth of the red light resonator 2 is 20-30 mm, and multiple red light resonators 2 are evenly spaced, and each red light resonator 2 has a wavelength of 100 nm. The surfaces are all connected with light-emitting diodes 101, and wires 102 are connected in series between the multiple light-emitting diodes 101. The upper surface of the wires 102 is connected with multiple shunt wires 103, and the upper end of each shunt wire 103 is connected to the lower surface of an electric heater 104. The electric heater 104 is embedded in the waterproof layer 114, and an anti-seepage membrane 106 is arranged above the electric heater 104 just opposite to the waterproof layer 114. Liquid mercury 107 is filled between the anti-seepage membrane 106 and the electric heater 104. An isolation layer is arranged on the outer surface of the electric heater 104 to prevent direct contact with the liquid mercury 107. It should be noted that the volume expansion coefficient of mercury is 180×10^-6 / K. The volume of mercury will increase by about 0.18% for every increase of 1 degree Celsius. Therefore, when mercury is heated, its volume will increase, and when it cools down, the volume will decrease accordingly and return to the state before heating. The anti-seepage membrane 106 is made of silicone. The outer side of the anti-seepage membrane 106 is covered with a protective film 108. The material of the protective film 108 is polyurethane. Polyurethane has excellent elasticity and wear resistance, and provides good physical protection. The anti-seepage membrane 106 and the protective film 108 are both elastic. The outer side of the Velcro layer 109 is covered with a fiber layer 110, the outer side of the fiber layer 110 is covered with a buffer layer 111, and the outer side of the buffer layer 111 is covered with a filling layer 112.

[0032] During operation, after the adapter 9 is connected to the power source, the current is collected into the multiple light emitting diodes 101 through the wire 102, and then passes through the ceramic nano laser lamp and the wavelength dual laser lamp in the red light resonator 2 to emit light beams of 660nm, 700nm and 850nm wavelengths respectively. The 660nm red light can be better absorbed by hemoglobin, thereby increasing blood flow, improving the oxygenation and nutrient supply of local tissues, the 700nm light beam can penetrate deeper, act on deep tissues, and have a better effect on relieving muscle and joint pain, and the 850nm wavelength has stronger penetration, can penetrate deeper into the muscle and tissue layers, and is more effective in treating deep tissues. In addition, when the red light resonator 2 is triggered to work, the central controller 7 is used to control the red light resonator 2 to work. The algorithm configured in the part calculates the red light absorption rate, and dynamically adjusts the absorption rate threshold according to the change of the red light absorption rate over time. If the actual absorption rate is less than the absorption rate threshold, the heating plate 104 stops heating. If the actual absorption rate is greater than or equal to the absorption rate threshold, the heating plate 104 starts heating. When the electric heating plate 104 is heated, the heat is transferred to the liquid mercury 107 through conduction, causing the temperature of the mercury to rise. The liquid mercury 107 between the electric heating plate 104 and the impermeable membrane 106 expands in volume after being heated, so that the heated liquid mercury 107 inside the impermeable membrane 106 is more closely fitted to the patient's treatment area. On the one hand, it can be used to heat the treatment area and promote blood circulation. On the other hand, it can increase the heated area and fit degree of the heated area, thereby further promoting human absorption.

[0033] In one embodiment of the present invention, the heating plate 104 starts heating, including: constructing a heat conduction differential equation of the liquid mercury 107 when the heat is transferred to the liquid mercury 107 by conduction using the following formula:

[0034]

[0035] in, represents the heat conduction differential equation, x represents the x direction of liquid mercury 107, y represents the y direction of liquid mercury 107, z represents the z direction of liquid mercury 107, T represents the temperature field, k x represents the thermal conductivity in the x direction, k y represents the thermal conductivity in the y direction, k z represents the thermal conductivity in the z direction, Q represents the internal heat source power;

[0036] The temperature cloud map of the liquid mercury 107 is obtained by performing finite element analysis on the thermal conduction differential equation; the temperature value of the liquid mercury 107 is queried in the temperature cloud map; the heating current of the heating plate 104 is queried; and the current-temperature relationship between the heating current and the temperature value is constructed using the following formula:

[0037]

[0038] in, represents the current-temperature relationship, y represents the heating current, β0, β1, β2, ..., β n represents the regression coefficient, ε represents the residual, x i represents the temperature value at the i-th coordinate point of the liquid mercury 107, and n represents the number of coordinate points of the liquid mercury 107;

[0039] Based on the temperature value and the volume expansion coefficient of the mercury, the expansion volume of the liquid mercury 107 after heating is calculated using the following formula:

[0040]

[0041] Among them, V x represents the expansion volume, x i represents the temperature value at the i-th coordinate point of the liquid mercury 107, γ represents the volume expansion coefficient of mercury, n represents the number of coordinate points of the liquid mercury 107, and V0 represents the initial volume at the i-th coordinate point;

[0042] According to the expansion volume, the squeezing force of the liquid mercury 107 on the treatment area is calculated using the following formula:

[0043]

[0044] Where, F represents the extrusion force, S represents the area of ​​the treatment area, m represents the amount of liquid mercury, r represents the ideal liquid constant, and x i represents the temperature value at the i-th coordinate point of the liquid mercury 107, and n represents the number of coordinate points of the liquid mercury 107;

[0045] According to the current-temperature relationship, the current-force relationship between the extrusion force and the heating current is constructed using the following formula:

[0046] F1≤F(x i (y))≤F2

[0047] Among them, F1≤F(x i (y))≤F2 represents the current-force relationship, F represents the squeezing force, F1 represents the squeezing force threshold for ensuring the fit between the heated liquid mercury 107 inside the impermeable membrane 106 and the patient's treatment area, F2 represents the maximum squeezing force that the patient's treatment area can accept, x i represents the temperature value of the i-th coordinate point of liquid mercury 107, y represents the heating current, and x represents the i (y) represents the inverse function of the current-temperature relationship;

[0048] The magnitude of the heating current is controlled by the current-force relationship.

[0049] Optionally, the process of controlling the magnitude of the heating current through the current-force relationship refers to: determining a value of F on the basis of ensuring that F is not less than F1 and not greater than F2, and the value is determined by x i Calculated, therefore, the determined value x can be calculated based on the determined value F i , and in the inverse function of the current-temperature relationship, the value x can be determined based on i To determine the value y, thereby controlling the size of y.

[0050] Further, optionally, the process of obtaining the temperature cloud map of the liquid mercury 107 by performing finite element analysis on the thermal conduction differential equation refers to: first obtaining the thermal conduction differential equation, using the variational method to obtain the weak form equivalent integral equation corresponding to the thermal conduction differential equation, obtaining the functional integral equation corresponding to the weak form equivalent integral equation through transformation, discretizing the functional integral equation, and finally minimizing the discretized functional integral equation to obtain the finite element equation, and finally using finite element analysis software to determine the temperature distribution cloud map corresponding to the finite element equation.

[0051] Embodiment 2:

[0052] On the basis of the first embodiment, the photoelectric resonator carrier structure 1 is cross-shaped, and a plurality of high-frequency resonators 3 are arranged in the middle of the photoelectric resonator carrier structure 1. The bottom of each high-frequency resonator 3 is embedded in the photoelectric resonator carrier structure 1, and a high-frequency passive chip 4 is arranged under each high-frequency resonator 3. The high-frequency resonator 3 emits ultra-high frequency electromagnetic waves, with a radiation radius of 70 cm and 60 nuclei, a radiation radius of 100 cm and 50 nuclei, and a radiation radius of 150 cm and 30 nuclei. A circuit interface 5 is arranged on the back of the photoelectric resonator carrier structure 1, and a connecting line 6 is connected to one side of the circuit interface 5. The end of the connecting line 6 away from the circuit interface 5 is connected to the central controller 7, and the other side of the central controller 7 is connected to a power line 8. The end of the power line 8 away from the central controller 7 is connected to an adapter 9. The output end of the central controller 7 is electrically connected to a photoelectric sensor, which is arranged on the outside of the red light resonator 2. The photoelectric sensor is used to measure the intensity of the incident red light and the intensity of the transmitted red light, and calculate the red light absorption rate through the algorithm configured inside the central controller. The red light absorption rate calculation method is specifically as follows: Among them, I in Represents the incident red light intensity, I out represents the intensity of transmitted red light, and A represents the actual absorption rate. When the actual absorption rate A reaches or exceeds this threshold, the heating plate will be turned on for heating. After that, the data at different time points will be weighted to calculate the change of absorption rate over time. The calculation method is: Among them, A t represents the actual absorption rate at time t, A t-1It represents the actual absorption rate at time t-1, α(t) represents the change in absorption rate. According to the change in red light absorption rate over time, the absorption rate threshold is adjusted dynamically to set the basic threshold. The specific formula for dynamically adjusting the absorption rate threshold is: θ(t)=θ0+k·α(t), where θ0 is the basic threshold and k is the adjustment coefficient. Afterwards, if the actual absorption rate is less than the absorption rate threshold, the heating plate stops heating; if the actual absorption rate is greater than or equal to the absorption rate threshold, the heating plate starts heating. By real-time monitoring of the red light absorption rate and adjusting the heating accordingly, it can be ensured that the heating treatment is performed in the best state, thereby improving the efficiency of the treatment.

[0053] The right side and front side edges of the photoelectric resonator carrier structure 1 are fixedly connected with a zipper tape 10, and the outer surface of the zipper tape 10 is provided with chain teeth. The right side zipper tape 10 is slidably connected with a zipper head 11 through the chain teeth, and the front side zipper tape 10 is slidably connected with a zipper tail 12 through the chain teeth. The center of the cross-shaped photoelectric resonator carrier structure 1 is attached to the patient's treatment area, and then the cross areas are folded together and stabilized with a Velcro layer 109. If you want to wear the photoelectric resonator on your head, hands or feet, you only need to zip up and use the Velcro layers 109 to adhere to each other for fixation. The position and tightness can be adjusted at will to meet different needs. The fiber layer 110 is made of cotton fiber. The buffer layer 111 is made of polyethylene, which has good buffering properties and can reduce the impact of external forces on the body. The filling layer 112 is made of polyester fiber, which is durable and not easy to be damaged. The flexible layer 113 is made of silicone, which has excellent elasticity and can adapt to changes in different shapes and sizes. The waterproof layer 114 is made of chloroprene rubber, which has good waterproof properties and can protect the optoelectronic resonator structure from moisture damage. A temperature controller 105 is arranged between each shunt line 103 and the corresponding electric heater 104, and the temperature controller 105 controls the heating temperature of the electric heater 104 to be 45 degrees Celsius.

[0054] The above description is only a preferred embodiment of the present application and is not intended to limit the present application. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the application should be included in the protection scope of the present application.

Claims

1. A quantum multifunctional optoelectronic resonator, comprising an optoelectronic resonator carrier structure (1), characterized in that: The photoelectric resonator carrier structure (1) comprises a Velcro layer (109), a fiber layer (110), a buffer layer (111), a filling layer (112), a flexible layer (113) and a waterproof layer (114); the waterproof layer (114) and the Velcro layer (109) are respectively located on the outside and inside of the photoelectric resonator carrier structure (1); a filling layer (112) is arranged inside the waterproof layer (114); a plurality of red light resonators (2) are embedded inside the waterproof layer (114); the plurality of red light resonators (2) are evenly spaced; a light emitting diode (101) is connected to the lower surface of each of the red light resonators (2); and a wire (102) is connected in series between the plurality of light emitting diodes (101).

2. The photoelectric resonator with quantum multifunction according to claim 1, characterized in that: The upper surface of the conductor (102) is connected to a plurality of shunt wires (103), the upper end of each shunt wire (103) is connected to the lower surface of an electric heater (104), the electric heater (104) is embedded in the waterproof layer (114), an impermeable membrane (106) is arranged above the electric heater (104) directly opposite to the waterproof layer (114), and liquid mercury (106) is filled between the impermeable membrane (106) and the electric heater (104). 7), the outer side of the anti-seepage membrane (106) is covered with a protective film (108), the outer side of the Velcro layer (109) is covered with a fiber layer (110), the outer side of the fiber layer (110) is covered with a buffer layer (111), the outer side of the buffer layer (111) is covered with a filling layer (112), and the red light resonator (2) is composed of a ceramic nano laser lamp with a wavelength of 660nm and two dual laser lamps with wavelengths of 700nm and 850nm.

3. The photoelectric resonator with quantum multifunction according to claim 2, characterized in that: The optoelectronic resonator carrier structure (1) is in a cross shape, a plurality of high-frequency resonators (3) are arranged in the middle of the optoelectronic resonator carrier structure (1), each of the high-frequency resonators (3) is embedded in the optoelectronic resonator carrier structure (1), and a high-frequency passive chip (4) is arranged below each of the high-frequency resonators (3).

4. The photoelectric resonator with quantum multifunction according to claim 2, characterized in that: A circuit interface (5) is provided on the back of the optoelectronic resonator carrier structure (1), and a connecting line (6) is connected to one side of the circuit interface (5).

5. The photoelectric resonator with quantum multifunction according to claim 4, characterized in that: One end of the connecting line (6) away from the circuit interface (5) is connected to a central controller (7), the other side of the central controller (7) is connected to a power line (8), one end of the power line (8) away from the central controller (7) is connected to an adapter (9), and the output end of the central controller (7) is electrically connected to a photoelectric sensor, and the photoelectric sensor is arranged outside the red light resonator (2).

6. The photoelectric resonator with quantum multifunction according to claim 2, characterized in that: The right side and front side edges of the optoelectronic resonator carrier structure (1) are fixedly connected to a zipper tape (10), and the outer surface of the zipper tape (10) is provided with fastener teeth.

7. The photoelectric resonator with quantum multifunction according to claim 6, characterized in that: The right side zipper tape (10) is slidably connected to a zipper head (11) via chain teeth, and the front side zipper tape (10) is slidably connected to a zipper tail (12) via chain teeth.

8. The photoelectric resonator with quantum multifunction according to claim 2, characterized in that: The fiber layer (110) is made of cotton fiber, and the buffer layer (111) is made of polyethylene.

9. The photoelectric resonator with quantum multifunction according to claim 2, characterized in that: The filling layer (112) is made of polyester fiber, and the flexible layer (113) is made of silica gel.

10. The photoelectric resonator with quantum multifunction according to claim 2, characterized in that: The waterproof layer (114) is made of chloroprene rubber.

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