A terahertz physiotherapy device

DE202024107584U1Active Publication Date: 2025-03-06BEIJING WANYOU TECHNOLOGY CO LTD +2
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Patent Information

Application Number
DE202024107584
Authority / Receiving Office
DE · DE
Patent Type
Utility models
Current Assignee / Owner
Filing Date
2024-12-26
Publication Date
2025-03-06
Estimated Expiration
2034-12-31

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Abstract

A terahertz physiotherapy device, characterized in that it comprises a main machine housing, a functional box part and a functional bed part; The functional bed part comprises a first drive mechanism and a bed body, and the first drive mechanism can drive the bed body to move along its longitudinal direction; The main machine housing is provided with a pillar hole, and the axial direction of the pillar hole corresponds to the longitudinal direction of the bed; the pillar hole can be used for the passage of the bed body; the described functional box part is located in the upper part of the pillar hole; The functional box section comprises a horizontal first terahertz heating element and a rotating magnetic field mechanism; the rotating magnetic field mechanism comprises a longitudinally magnetized strong magnet and a second drive mechanism; the second drive mechanism drives the strong magnet to rotate; The bed frame includes a second terahertz radiator.
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Description

Technical area

[0001] The utility model relates to the technical field of physiotherapy devices and in particular to a terahertz physiotherapy device. Background technology

[0002] Terahertz waves are spectra generated from biological information fields and emitted by living organisms. Based on the identification of scientific instruments, terahertz waves are divided into two types: one is the "human terahertz wave," emitted by the human body, with a band ranging from 3 to 45 micrometers. The other is the terahertz wave emitted by "functional materials of the biological wave," with a band concentrated in the 4 to 20 micrometer range, exhibiting some overlap with the terahertz wave emitted by the human body. Currently, the terahertz waves emitted by functional materials of the biological wave also have a resonant effect on the human body, attributed to the phenomenon of thermal effects and the resonance of water molecules within the human body.The kinetic energy of muscle cells increases, as if maintaining a state of micro-movement or micro-massage. The material's effect on the human body is twofold: first, it can promote blood flow and improve microcirculation; second, it can lower blood viscosity; third, it can activate cells; fourth, it can enhance metabolism; fifth, it can resist ultraviolet radiation; sixth, it can inhibit the growth of harmful bacteria; and seventh, it can adjust the balance of the meridians. Existing literature reveals the potential applications of terahertz waves for disease diagnosis and conditioning, such as the absorption properties of terahertz waves and the diagnosis and treatment of cancerous tissue (see "Journal of Microwaves," late October 2013, Volume 29, Issue 5-6, Terahertz "Wave Absorption Properties and Diagnosis and Treatment").The unique electromagnetic wave properties of terahertz waves and the development of excitation light sources enable terahertz waves to play a diagnostic and therapeutic role in diseases.

[0003] The application of terahertz technology in human physiotherapy has been a subject of concern and research in recent years. Several terahertz physiotherapy products are already available on the market, such as the "Terahertz Treatment Instrument and its Probe," published under Chinese patent number CN102895742A. This treatment instrument is attached to the designated treatment area of ​​the human body via its suction cup. However, the suction cup's use is limited, and the adsorption fixation effect is not ideal. Not only does clothing made of various materials hinder adsorption, but the irregular curvature of the human body also impairs adsorption, thus compromising the treatment's effectiveness.And general physiotherapy takes time, and the probe of the physiotherapy instrument is adsorbed and attached to the human body for extended periods, exerting pressure, causing discomfort, and damaging the skin. Application number 201720334045.1 discloses "a terahertz physiotherapy device," although it doesn't need to be adsorbed at the treatment site. However, it is handheld and must be held continuously to keep it in place during use, leading to inconvenience. Holding it in the hand for extended periods can also cause discomfort. Furthermore, the invention patent "a terahertz physiotherapy booth" has application number 201921422000.Model 5 is a seated terahertz physiotherapy booth. The quantum light wave generated by the terahertz transmitter can be used to perform targeted physiotherapy on key parts of the human body. However, its terahertz emitter is configured to align with the buttocks and foot physiotherapy points, ensuring that the quantum light wave generated by the terahertz energy irradiation head precisely reaches the relevant area. Specifically, the physiotherapy targets are limited to the buttocks, calves, and feet. Targeted physiotherapy for other areas is not possible, thus limiting its use. Content of the utility model

[0004] Therefore, based on the above background, the present invention improves upon the prior art, offering a terahertz physiotherapy device that is easy to use and highly comfortable; the patient only needs to lie down, on their side, or on the bed. The terahertz heating generated by the terahertz wave physiotherapy can be localized up and down, and in combination with hydrogen medicine and spin magnetism, it can further enhance the physiotherapeutic effect.

[0005] The technical scheme provided by the present invention is: A terahertz physiotherapy device comprising a main machine housing, a functional box part, and a functional bed part.

[0006] The functional bed part comprises a first drive mechanism and a bed body, and the first drive mechanism can drive the bed body to move along its longitudinal direction.

[0007] The main machine housing is provided with a pillar hole, and the axial direction of the pillar hole coincides with the longitudinal direction of the bed. The pillar hole allows passage of the bed body. The described functional box component is located in the upper part of the pillar hole. The functional bed component is located below the functional box component.

[0008] The functional unit comprises a horizontal first terahertz heating element and a rotating magnetic field mechanism. The rotating magnetic field mechanism includes a longitudinally magnetized strong magnet and a second drive mechanism. The second drive mechanism causes the strong magnet to rotate.

[0009] The bed frame includes a second terahertz radiator.

[0010] In addition, a hydrogen and oxygen device is provided in the main machine housing, and a first control panel is provided on the main machine housing, which is used to control the hydrogen and oxygen device, and the second control panel of the functional box part and the functional bed part.

[0011] Furthermore, the functional box part includes a third drive mechanism, and the third drive mechanism can drive the first terahertz radiator to move up and down.

[0012] Furthermore, the functional box section includes a first layer of thermal insulation and a first temperature sensor. The first temperature sensor is used to measure the temperature of the first terahertz radiator. The powerful magnet is embedded in the first terahertz radiator.

[0013] The first layer of thermal insulation is located below the first terahertz radiator.

[0014] Furthermore, the functional box section includes a first cover. This first cover contains the first layer of thermal insulation, the first temperature sensor, the first terahertz heater, and the powerful magnet.

[0015] The first cover has an indicator light, and the indicator light is electrically connected to the first temperature sensor.

[0016] Furthermore, the functional bed component includes a support column and a support body adapted to the bed frame, and the bed frame can be moved along the support body.

[0017] Furthermore, the bed frame includes a second layer of thermal insulation and a second temperature sensor. The second layer of thermal insulation is located on top of the second terahertz radiator. The temperature sensor measures the temperature of the second terahertz radiator.

[0018] Furthermore, the bed frame also contains a powerful permanent magnet. This powerful permanent magnet is located beneath the second terahertz heating element.

[0019] Furthermore, the bed frame also includes a second cover. The second layer of thermal insulation and the second terahertz radiator are located within this second cover.

[0020] In addition, a pillow is provided on the side of the bed body closest to the main machine housing.

[0021] The adoption of the above-mentioned technical solution has the following positive effects: The utility model has a sensible design, is easy to use, and offers a high level of comfort. The patient simply lies on their side or stomach on the bed, and the terahertz wave generated by the terahertz heater, positioned above and below the body, can provide physiotherapy. The movable bed frame allows for physiotherapy of various parts of the body. The utility model combines terahertz with hydrogen therapy and a rotating magnetic field, further enhancing the physiotherapeutic effect. Description with drawings Fig. This is the first schematic representation of the structure of the utility model. Fig. This is the second schematic representation of the utility model. Fig. This is a schematic diagram of the structure of the functional box part of the utility model. Fig. This is a schematic representation of the structure of the gyromagnetic mechanism of the utility model. Fig. This is a schematic representation of the cross-sectional structure of the functional box part of the utility model. Fig. This is the first schematic representation of the structure of the functional bed part of the utility model. Fig. This is a schematic representation of the cross-sectional structure of the bed body of the utility model. Fig. This is the second schematic representation of one of the structures of the functional bed part of the utility model. Fig. This is the third schematic representation of the structure of the functional bed part of the utility model. The specific embodiment

[0022] The utility model is described in more detail below in conjunction with the attached drawings.

[0023] Implementation 1: A terahertz physiotherapy device according to the Fig. , comprising a main machine housing 1, a functional box part 5 and a functional bed part 6.

[0024] The functional bed part 6 comprises a first drive mechanism and a bed body 63, and the first drive mechanism can drive the bed body 63 to move along its longitudinal direction.

[0025] The main machine housing 1 is provided with a column hole 11, and the axial direction of the column hole 11 corresponds to the longitudinal direction of the bed. The column hole 11 can be used for the passage of the bed body 63. The described functional box part 5 is located in the upper part of the column hole 11.

[0026] The functional box section 5 comprises a horizontal first terahertz heating element 562 and a rotating magnetic field mechanism. The rotating magnetic field mechanism includes a longitudinally magnetized strong magnet 54 and a second drive mechanism. The second drive mechanism causes the strong magnet 54 to rotate.

[0027] The bed frame 53 includes a second terahertz radiator 632.

[0028] The first terahertz radiator and the second terahertz radiator consist of epoxy resin sheets, modified superconducting graphene, and insulating films. This is not an improvement on the utility model and is an existing technology; therefore, it is not repeated here.

[0029] The main machine housing 1 contains a hydrogen and oxygen generator, and the main machine housing 1 is equipped with a first control panel 4 for controlling the hydrogen and oxygen generator, and a second control panel for the functional box section 5 and the functional bed section 6. In a specific implementation, the main machine housing 1 is provided with a through-opening for the passage of hydrogen and oxygen generated by the hydrogen and oxygen generator. In this specific implementation, the hydrogen and oxygen generator model HO---1500 can be used.

[0030] The functional box section includes a third drive mechanism, which drives the first terahertz radiator 562 up and down. The functional box section 5 further includes a first thermal insulation layer 561 and a first temperature sensor 563. The first temperature sensor 563 is used to detect the temperature of the first terahertz radiator 562. The powerful magnet 54 is embedded in the first terahertz radiator. The first thermal insulation layer 561 is located below the first terahertz radiator 562. The functional box section 5 further includes a first cover 55. The first cover contains the first thermal insulation layer 561, the first temperature sensor 563, the first terahertz radiator 562, and the powerful magnet 54. An indicator light is provided on the first cover 55 and is electrically connected to the first temperature sensor 563.The first thermal insulation layer and the second thermal insulation layer can consist of polyurethane composite insulation panels or aluminum foil thermal insulation panels.

[0031] In the second specific embodiment, as in Fig. As shown, the second thermal insulation layer 561 is located close to the bed. As shown in the Fig. As shown, the third drive mechanism is an electric push rod 52, which is connected to the first cover via a rod 53. The electric push rod drives the first terahertz heater up and down through the first cover to adjust its height. The portion of the rod body near the first cover is hollow. The second drive mechanism comprises a second motor 57. The second motor 57 is equipped with a rotating shaft 571. The end of the rotating shaft 571 is encased in a longitudinal magnet. The strong magnet 54, the second motor, drives the rotation of the strong magnet 54 to generate a rotating magnetic field, with the NS pole continuously changing to achieve a good gyromagnetic treatment effect.

[0032] As in the Fig. As shown, in the first embodiment, the functional bed component 6 comprises a support column 61 and a support body 62 adapted to the bed body 63. Specifically, the support column can be hollow and used as the functional bed. The cables required for the electrical components of the bed are routed inside the bed, and the bed body 63 can move along the support body 62. The bed body 63 also comprises a second thermal insulation layer 631 and a second temperature sensor 633. The second thermal insulation layer 631 is located above the second terahertz heater 632; that is, the second thermal insulation layer is located near the functional unit. The second temperature sensor 633 serves to detect the temperature of the second terahertz heater 632. The bed body 63 also includes a strong permanent magnet 64, which is located below the second terahertz heater 632.The bed 63 also includes a second cover 65, which contains the second thermal insulation layer 631 and the second terahertz radiator 632. Eight powerful permanent magnets are arranged in two rows and four columns on the ridge of the bed. Of course, the method is not limited to the top.

[0033] The described bed body 63 is equipped with a pillow body 66 near the described side of the main machine housing 1; more precisely, the described pillow body is provided with a rubber pad to improve its comfort. During the specific implementation, the described first panel is equipped with a control key that can control the opening of the hydrogen and oxygen machine, and the control key that sets the opening time is set; this is a conventional technology that is not repeated here.

[0034] The second control panel is a liquid crystal touchscreen and is electrically connected to the first drive mechanism, the second drive mechanism, the third drive mechanism, the first terahertz heater, the second terahertz heater, the first temperature sensor, and the second temperature sensor. The first control panel can control the heating start-up time, as well as the heating start and stop of the first and second terahertz heaters. It can also control the movement of the bed by controlling the first drive mechanism. The rotation of the rotating magnetic field mechanism, the height of the functional box section by controlling the third rotating mechanism, and the control of the electrical devices via the liquid crystal touchscreen are all standard technologies, and their specific implementation is not described here.

[0035] As in the Fig.In the third specific embodiment shown, the bed body moves along its longitudinal direction, which can be achieved by a slide rail mechanism, specifically illustrated in the figure. The bed body has an intermediate groove for embedding the second thermal insulation layer 631 and the second terahertz radiator 632. Both ends of the intermediate groove are penetrated longitudinally. A slide is provided at the bottom of the intermediate groove, and a first slide is provided. In the drive mechanism, the first drive mechanism is the first motor 7, which drives the screw slide rail 71 to rotate. The screw slide rail 71 is covered with a slide block 72, and the slide block 72 is attached to the underside of the second cover; more precisely, the intermediate groove is provided with guide grooves on both sides of the slide groove 731.The underside of the second cover body is provided with a guide block 731 which fits the guide groove 731.

[0036] In the implementation of the utility model, a person lies on the second thermal insulation layer 631 and controls the first drive mechanism so that the bed body 63 moves forwards and backwards along the axis of the column hole 11. The part of the human body to be treated is located in the column hole 11, specifically directly below the functional box part 5. The third drive mechanism is controlled to adjust the height of the functional box part 5 and then of the first terahertz heater 562, and the second terahertz heater 632 is switched on so that it is energized and heated. The heating time of the first terahertz heater 562 and the second terahertz heater 632 is controlled via the second control panel. The second drive mechanism is controlled so that it is energized, causing the powerful magnet 54 to rotate.During the physiotherapy process, the start and stop of the hydrogen and oxygen machine, as well as the amount of hydrogen and oxygen in the physiotherapy environment, are controlled.

[0037] The utility model reveals a human body positioned between the first terahertz radiator and the second terahertz radiator, with the affected area of ​​the body being encircled by the radiator. Upon activation, the second terahertz radiator and the second terahertz radiator emit terahertz waves, utilizing terahertz waves with strong penetration and excitation activity to provide physiotherapy for specific body parts. Simultaneously, the hydrogen and oxygen released by the hydrogen and oxygen machine enhance its physiotherapeutic effect. During physiotherapy, hydrogen inhalation has a calming effect, promotes metabolism, and strengthens resistance and immunity. Hydrogen is a powerful antioxidant.It can inhibit the synthesis of cholesterol and triglycerides in the plasma, and its anti-aging function, including antioxidant protection of various organs, is beneficial to human health and can enhance the effects of physiotherapy. The utility model discloses a rotating magnetic field mechanism and the strong permanent magnet with which it is simultaneously equipped in the bed frame. The combination of the permanent magnet and the rotating magnet achieves the effect of magnetic field therapy, which has anti-inflammatory and analgesic effects, promotes metabolism, and, in conjunction with terahertz, can further enhance the effects of physiotherapy.

[0038] For specific applications, it can also be combined with topical physiotherapy medications to improve drug penetration.

[0039] For example, physiotherapy for patients with cancer or benign tumors or nodules can be combined with topical medications as follows (a dose of the drug is given below): 30g Cornus, 30g Chinese yam root, 20g raw Astragalus, 10g Atractylodis root, 20g Radix ginseng, 20g raw Rehmannia, 20g each of Chinese asparagus root and snake's beard root, 20g Trichosanthes, 30g Dendrobium and 20g Adenophora, 30g Ligustrum lucidum, 30g mineral gypsum, 30g Anemarrhena, 20g Chinese rose hips, 30g powdered Euryales seeds, 10g gall nuts, 30g Goji and 20g angelica root.

[0040] When used, it can be applied externally to the area to be treated.

[0041] Applications of the physiotherapeutic effect of this utility model: Case 1: Chen, 42 years old, was diagnosed with lymphadenopathy in 2022. She used this usage pattern for physiotherapy. After more than 20 days of continuous physiotherapy, her lesions were reduced from 9×7 mm to 6×5 mm. Case 2: Su, male, was diagnosed with lung nodules during a physical examination at Xiyuan Hospital in 2022. He was unwilling to undergo surgical resection. Later, he used this practice of continuous physical therapy, and the nodules shrank. Case 3: Wang was diagnosed with a stroke at Hospital 301 and experienced complete blockage of his blood vessels while waiting for surgery. He then underwent continuous physical therapy and an MRI to check if the blood vessels were unblocked and the capillaries were filled with blood. His symptoms completely normalized. QUOTES INCLUDED IN THE DESCRIPTION

[0000] This list of documents cited by the applicant was automatically generated and is included solely for the reader's convenience. The list is not part of the German patent or utility model application. The DPMA accepts no liability for any errors or omissions. Cited patent literature

[0000] CN 102895742A

[0003] Cited non-patent literature

[0000] Journal of Microwaves, end of October 2013, Volume 29, Issue 5-6

[0002]

Claims

[1] A terahertz physiotherapy device, characterized by that comprises a main engine housing, a functional box part and a functional bed part; The functional bed part includes a first drive mechanism and a bed body, and the first drive mechanism can drive the bed body to move along its longitudinal direction; The main machine body is provided with a column hole, and the axial direction of the column hole is consistent with the longitudinal direction of the bed; the column hole can be used for the passage of the bed body; the described function box part is located in the upper part of the column hole; The functional box part includes a horizontal first terahertz heater and a rotating magnetic field mechanism; the rotating magnetic field mechanism includes a longitudinally magnetized strong magnet and a second drive mechanism; the second drive mechanism drives the strong magnet to rotate; The bed body includes a second terahertz radiator. [2] A terahertz physiotherapy device according to claim 1, characterized by that a hydrogen and oxygen device is provided in the main engine body, and a first control panel is provided on the main engine body, which is used to control the hydrogen and oxygen device, and the second control panel controls the function box part and the function bed part. [3] A terahertz physiotherapy device according to claim 1, characterized bythat the functional box part comprises a third drive mechanism and the third drive mechanism can drive the first terahertz heater to move up and down. [4] A terahertz physiotherapy device according to claim 1, characterized by that the functional box part further comprises a first thermal insulation layer and a first temperature sensor; the first temperature sensor is used to detect the temperature of the first terahertz heater; the strong magnet is embedded in the first terahertz heater; the first thermal insulation layer is located below the first terahertz heater. [5] A terahertz physiotherapy device according to claim 4, characterized by that the functional box part further comprises a first cover; in the first cover are the first thermal insulation layer, the first temperature sensor, the first terahertz heater and the strong magnet. [6] A terahertz physiotherapy device according to claim 1, characterized by that the functional bed part comprises a support column and a support body adapted to the bed body and the bed body is movable along the support body. [7] A terahertz physiotherapy device according to claim 6, characterized by that the bed body further comprises a second thermal insulation layer and a second temperature sensor; the second thermal insulation layer is arranged on the second terahertz heater; the temperature sensor serves to detect the temperature of the second terahertz heater. [8] A terahertz physiotherapy device according to claim 6, characterized by that the bed body also contains a strong permanent magnet and the strong permanent magnet is located below the second terahertz heater. [9] A terahertz physiotherapy device according to claim 6, characterized bythat the bed body further comprises a second cover; the second thermal insulation layer and the second terahertz heater are arranged in the second cover. [10] A terahertz physiotherapy device according to claim 6, characterized by that a pillow is provided on the side of the bed body closest to the main engine housing.

Citation Information

Patent Citations

  • Terahertz treatment instrument and probe thereof

    CN102895742A