CN110292714B - Terahertz wave physical therapy device for congenital deafness of children - Google Patents
Terahertz wave physical therapy device for congenital deafness of children Download PDFInfo
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- A61N5/00—Radiation therapy
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Abstract
The invention relates to a terahertz wave physical therapy device for congenital deafness of children, which comprises a processing end, a wave transmitting terminal connected with the processing end and a head hoop assembly provided with the wave transmitting terminal, wherein the processing end is used for transmitting signals, processing and controlling terahertz wave frequency signals and controlling and processing data of an integral system; a terahertz wave generator is arranged in the wave transmitting terminal, and the front side of the terahertz wave generator is a horn mouth for guiding wave transmission; the head hoop assembly comprises a hoop rod and two fixing parts which are arranged on the hoop rod and close to the end parts of the hoop rod, the end parts of the fixing parts are connected with annular positioning rings, the positioning rings are overlapped and fixed with the extending parts in shape, and when the positioning rings and the extending parts are overlapped, the front ends of the bell mouths penetrate through the positioning rings to extend out; the inner side of the fixing part extends inwards to form a positioning rod, and the end part of the positioning rod is connected with a hanging lug matched with the outer contour of the upper part of the ear. The device is novel in design, convenient to wear and capable of reducing operation steps of medical workers.
Description
Technical Field
The invention relates to the technical field of terahertz wave physiotherapy, in particular to a terahertz wave physiotherapy device for congenital deafness of children.
Background
Scientific research has found that electromagnetic waves have unexpected biological effects on organisms, such as affecting cell growth, gene expression, and the like. Usually, millimeter waves and submillimeter waves can only penetrate a living body to a depth of less than 1mm, and the millimeter waves and the submillimeter waves bring curative effects on diseases of organs in the deep part of a human body. With the development of terahertz technology, the limitation of millimeter wave treatment is gradually broken through, the terahertz wave treatment has less or no side effect on human bodies, and nowadays, the medical crisis caused by abuse of antibiotics is more and more emphasized by the medical field. Terahertz waves radiated by existing biological wave functional materials can generate a resonance effect on a human body, and the phenomenon that the human body generates a heat effect phenomenon and a water molecule resonance phenomenon is caused, so that the kinetic energy of cells of the human body is increased, and the state of micro-motion or micro-massage is kept. The material has the effects of promoting blood circulation and improving microcirculation; secondly, the blood viscosity can be reduced; thirdly, the cells can be activated; fourthly, the metabolism can be strengthened; fifthly, the paint can resist ultraviolet rays; sixthly, the growth of harmful bacteria can be prevented; seventhly, the balance of the channels and collaterals can be adjusted.
Therapeutic instruments for treating human body by using electromagnetic waves are developed at present, and the treatment of deep internal organs of human body is achieved by radiating electromagnetic waves to human epidermis. For example, the prior art includes terahertz wave physiotherapy instruments, quantum generators, terahertz wave physiotherapy instruments and the like for treating and curing common diseases, such as a terahertz wave physiotherapy instrument probe disclosed in patent CN 102895742A; the terahertz wave focusing device comprises a terahertz wave generator, a wave focusing lens and a sucker; the terahertz generator comprises a generator main body and a waveguide window, wherein the generator main body is used for generating terahertz waves, and the terahertz waves generated by the generator main body are transmitted through the waveguide window to be emitted; the wave-gathering lens is arranged on the waveguide window, covers the waveguide window and is used for gathering the terahertz waves; the physiotherapy instrument is adsorbed on the preset treatment position of the human body through the sucking disc. However, the existing electromagnetic wave physiotherapy instrument only has the treatment function, does not compare and diagnose the effects before and after treatment, can only judge the effects intuitively by patients, and inevitably brings certain disadvantages to the improvement of the treatment effect and the treatment method. The existing terahertz wave physiotherapy instrument mostly adopts a sucker structure, is adsorbed on a flesh body for fixation when in use, and aiming at the ear part, the existing sucker structure cannot adsorb, needs a hand to hold a sucker for operation, and is inconvenient to use; in addition, in the process of terahertz wave radiation, the change of wave frequency can cause tympanic membrane vibration, particularly ear tympanic membrane vibration caused by inflammatory diseases such as otitis media and the like, and how to monitor the influence of terahertz waves on ears or monitor the vibration change of the tympanic membrane of the ear with diseases has important significance for treating the diseases.
Disclosure of Invention
The invention aims to provide a terahertz wave physiotherapy device for congenital deafness diseases of children, which is also suitable for physiotherapy aiming at ear inflammation diseases (such as otitis media), and provides a wearable terahertz wave physiotherapy mode, which is novel in design and convenient and fast to wear, and reduces the operation steps of medical workers; the treatment equipment focuses the focused terahertz waves on the human body side, so that the energy of the terahertz waves is more concentrated, and the treatment effect on deafness, otitis media and the like is improved.
In order to achieve the above purpose, the technical scheme adopted by the invention is as follows:
a terahertz wave physical therapy device for congenital deafness of children comprises a processing end, a wave transmitting terminal connected with the processing end and a head band assembly provided with the wave transmitting terminal, wherein the processing end is used for signal transmission, terahertz wave frequency signal processing and control, and overall system control and data processing;
the wave transmitting terminal comprises a shell and a bell mouth arranged on the front side of the shell, a terahertz wave generator is arranged in the terminal installation cavity and used for receiving an electromagnetic signal sent by the processing end to amplify and frequency-multiply, generating a terahertz wave frequency spectrum in a specific frequency range and radiating the terahertz wave frequency spectrum; a waveguide window is arranged on the front side of the terahertz wave generator, a wave-collecting lens covering the waveguide window is arranged on the waveguide window, a wiring through hole is formed in the side edge of the shell, an extending portion extends outwards from the side wall close to the opening end of the horn mouth, and a plurality of silica gel plugs are arranged on the extending portion towards the front end;
the head hoop assembly comprises a hoop rod and two fixing parts which are arranged on the hoop rod and close to the end parts of the hoop rod, the fixing parts are of a hook-back type structure, the end parts of the hooks are connected with annular positioning rings, the positioning rings are provided with a plurality of holes for placing the silica gel plug columns, the positioning rings are overlapped with the extending parts in shape, and when the positioning rings and the extending parts are overlapped, the front ends of the horn mouths penetrate through the positioning rings and extend out of the positioning rings; the fixing part is internally provided with a positioning rod in an inward extending mode, and the end portion of the positioning rod is connected with a hanging lug matched with the outer contour of the upper portion of the ear.
Further, the inner diameter of the opening of the bell mouth is 3-5cm, and the distance between the extension part and the opening end of the bell mouth is 0.8-2 cm; the length of the positioning rod is 2-5 cm.
Furthermore, the hoop pole is of a telescopic structure, specifically, the hoop pole comprises a left double pole, a right single pole and a connector for connecting the double pole and the single pole, the two sides of the connector are provided with openings, the double pole extends into one side of the connector and is fixedly connected with the opening, the other side of the connector extends into the single pole, the single pole is inserted into the middle of the double pole, the end part of the single pole is provided with a stopper, the height of the stopper is larger than that of the opening, the opening end of the connector is also provided with an inward convex clamping strip, and the upper surface of one part of the single pole close to the connector is provided with a convex edge.
Furthermore, the extension part on the bell mouth is of a detachable structure, the inner side of the extension part is provided with an internal thread, and the outer side surface of the bell mouth close to the opening end is provided with an external thread;
the positioning rod is fixed on the fixing part in an inserting mode, penetrates through the fixing part and is exposed out of the fixing part, and the length of the positioning rod can be adjusted through stretching.
In another preferred technical scheme, a channel is arranged in the side wall of the bell mouth; the passage mouth end is equipped with vibration sensor, vibration sensor's wire passes through the passageway is worn out to the wiring opening is connected to the end of handling.
Further, vibration sensor's chip parcel is in bar silica gel cover, its probe expose with bar silica gel cover, bar silica gel cover is the sickle type structure that matches with the cymba concha structure of ear, and its rear end still is equipped with flexible helical coil, the probe sets up towards the ear hole.
On the basis of the technical scheme, the processing end of the device comprises
The signal source generator is used for generating a signal source of the low-frequency terahertz wave signal;
the terahertz wave signal modulation module is used for modulating the amplitude of a low-frequency terahertz wave signal of a signal source in different pulse and sine modes by controlling the electrical frequency and inputting the modulated terahertz electromagnetic wave signal to a wave transmitting terminal;
and the main control module is used for processing and controlling signals of the processing end, controlling the transmitting signals of the wave transmitting terminal and acquiring and processing the signals.
Further, the processing end also comprises
The vibration data acquisition module is used for acquiring whether the human eardrum part acquired by the vibration sensor in real time vibrates to obtain a specific vibration value;
and the comparison and alarm module is used for comparing the vibration value obtained by the vibration data processing module with a preset ear drum vibration standard value, judging whether the vibration is normal vibration or not, and if not, sending an alarm prompt.
Furthermore, the wave processing transmitting terminal also comprises a power detection module connected with the terahertz wave generation module and used for detecting actual terahertz wave output power data of the terahertz wave generation module and sending the data to a processing end;
the processing end also comprises
The power data processing module is used for receiving actual terahertz wave output power data detected by the power detection module, comparing the actual terahertz wave output power data with preset terahertz wave output data and judging an actual difference value of the actual terahertz wave output power data and the preset terahertz wave output power data;
and the power data correction module is used for carrying out initialization correction on the output terahertz wave frequency data according to the comparison result of the power data processing module.
Furthermore, the processing end further comprises a timing module connected with the main control module, and the timing module is used for controlling the working time of the terahertz wave generator in each wave transmitting terminal.
The terahertz wave physical therapy device for congenital deafness of children is provided with the fixing device for symptomatic diseases, manual operation of a doctor is reduced, and physical therapy efficiency is improved. The terahertz wave simulation physical therapy device adjusts the bandwidth of the transmitted terahertz wave through the modulator, and adjusts the wavelength of the terahertz wave to realize physical therapy on the ear part of a patient under a specific condition with high power and/or specific terahertz frequency; in the physiotherapy process, through the change of vibration sensor monitoring ear tympanic membrane vibration, can the change of the sick condition of visual observation on the one hand, on the other hand then can observe the influence of terahertz wave radiation to disease position, avoid the harm that the wave frequency error change caused for terahertz wave physiotherapy effect is better, equipment operation is more reliable.
The physical therapy instrument has novel design, is used for carrying out physical therapy on diseases such as congenital deafness and otitis media of children by terahertz waves, has obvious physical therapy effect, and can greatly shorten the physical therapy period of patients. Compared with the traditional medicine and operation physical therapy effect, the terahertz wave simulation physical therapy instrument has no side effect and has better effect.
Drawings
The drawings of the present invention are not necessarily to scale, and in the drawings, like numerals may depict like parts throughout the different views. The drawings are by way of example, and not by way of limitation, and generally illustrate various embodiments discussed herein.
FIG. 1 is a schematic structural diagram of an embodiment of an entire terahertz wave physical therapy device for congenital deafness of children according to the present invention;
FIG. 2 is a schematic structural diagram of a wave transmitting terminal of a terahertz wave physiotherapy apparatus for congenital deafness of children according to an embodiment of the present invention;
FIG. 3 is a schematic structural diagram illustrating an assembled embodiment of a wave transmitting terminal and a head band assembly of the terahertz wave physical therapy apparatus for congenital deafness of children according to the present invention;
FIG. 4 is a schematic structural diagram of a wave transmitting terminal of a terahertz wave physiotherapy apparatus for congenital deafness of children according to still another embodiment of the present invention;
fig. 5 is a schematic structural view of an embodiment of a vibration sensor in the wave transmitting terminal of the present invention;
fig. 6 is a schematic structural diagram of another embodiment of the terahertz wave physical therapy device for congenital deafness of children according to the invention.
Detailed Description
The following describes a specific embodiment of a schematic structural diagram of an embodiment of a terahertz wave physical therapy apparatus for congenital deafness of children according to the present invention with reference to examples. The following examples are only used to illustrate the technical solutions of the present invention more clearly, and the protection scope of the present invention is not limited thereby; various changes and modifications can be made by one skilled in the art without departing from the spirit and scope of the invention, and all equivalent technical solutions also fall within the scope of the invention, which is defined by the claims.
The invention relates to a terahertz wave physical therapy device for congenital deafness of children, which comprises a processing end 1, a wave transmitting terminal 2 connected with the processing end 1 and a head band component 3 provided with the wave transmitting terminal 2, wherein the processing end 1 is used for signal transmission, terahertz wave frequency signal processing and control, and overall system control and data processing. Fig. 1 is a schematic structural diagram of a processing terminal and a wave transmitting terminal system, and fig. 3 is a schematic structural diagram of a head band assembly and a wave transmitting terminal assembly.
As shown in fig. 2, the wave transmitting terminal 2 includes a housing 20 and a bell mouth 22 disposed at the front side of the housing 20, a terahertz wave generator 23 is disposed in the terminal installation cavity 28, and the terahertz wave generator 23 is configured to receive an electromagnetic signal sent by the processing terminal 1, amplify and frequency-multiply the electromagnetic signal, generate a terahertz wave spectrum in a specific frequency range, and radiate the terahertz wave spectrum; the front side of the terahertz wave generator 23 is provided with a waveguide window 203, the waveguide window 203 is provided with a wave-collecting lens 208 covering the waveguide window, the side of the shell 20 is provided with a wiring port 202, the side wall close to the opening end of the bell mouth 22 extends outwards to form an extension part 204, and the extension part 204 is provided with a plurality of silica gel plugs 205 towards the front end.
As shown in fig. 3, the head band assembly 3 includes a band rod 30 and two fixing portions 31 disposed on the band rod 30 and close to the end portions thereof, the fixing portions 31 are of a hook-back type structure, the end portions of the hooks are connected with an annular positioning ring 35, a plurality of holes 32 for placing the silicone plug 205 are disposed on the positioning ring 35, the positioning ring 35 and the extension portion 204 are overlapped in shape, and when the positioning ring 35 and the extension portion 204 are overlapped, the front end of the bell mouth 22 passes through the positioning ring 35 and extends out of the positioning ring; a positioning rod 33 extends inwards from the inner side of the fixing part 31, and a hanging lug 34 matched with the outer contour of the upper part of the ear is connected to the end part of the positioning rod 33. When the positioning ring is used, the horn mouth of the wave transmitting terminal is inserted into the positioning ring, and the silica gel plug is placed into the hole, so that the positioning ring and the extension part are overlapped and fixed; when the ear-hook is worn on the head, the ear-hook is hung on the upper part of the ear, and the bell mouth is placed opposite to the ear.
In some embodiments, the internal diameter of the opening of the bell mouth 22 is 3-5cm, and the distance between the extension 204 and the opening end of the bell mouth 22 is 0.8-2 cm; the length of the positioning rod 33 is 2-5 cm.
In still other embodiments, the hoop rod 30 is a telescopic structure, as shown in fig. 3, specifically, the hoop rod 30 includes a left double rod 301, a right single rod 302, and a connector 303 connecting the double rod 301 and the single rod 302, two sides of the connector 303 are open, the double rod 301 extends into one side of the connector and is fixedly connected, the other side of the connector extends into the single rod 302, the single rod 302 is inserted into the middle of the double rod 301, a stopper 304 is disposed at an end of the single rod 302, a height of the stopper 304 is greater than that of the opening, an inward protruding snap strip is further disposed at an open end of the connector 303, and a rib 305 is disposed on an upper surface of a portion of the single rod 302 close to the connector. The length of the staggered position between the single rod and the double rods is adjusted through the connecting head, so that the head band is stably clamped on the head.
In other examples, the extension 204 of the bell mouth 22 is detachable, the extension 204 has an inner thread (not shown), and the outer side of the bell mouth 22 near the open end has an outer thread (not shown).
The positioning rod 33 is fixed to the fixing portion 31 in an insertion manner, the positioning rod 33 is inserted into the fixing portion 31 and exposed to the outside, and the positioning rod 33 is adjustable in length by being pulled.
As shown in fig. 4, a channel 220 is provided in the sidewall of the bell mouth 22; a vibration sensor 221 is arranged at the opening end of the channel 220, and a lead of the vibration sensor 221 passes through the channel 220 and penetrates out to the wiring through port 202 to be connected to the processing end 1.
As shown in fig. 5, the chip of the vibration sensor 221 is wrapped in a strip-shaped silica gel sleeve 222, a probe 223 of the vibration sensor is exposed out of the strip-shaped silica gel sleeve 222, the strip-shaped silica gel sleeve 222 is of a sickle-shaped structure matched with a cymba concha structure of an ear, a telescopic spiral coil 224 is further arranged at the rear end of the strip-shaped silica gel sleeve, and the probe 223 is arranged towards an ear hole.
In one embodiment of the overall architecture of the apparatus of the present invention, as shown in fig. 6, the processing terminal 1 comprises
A signal source generator 10 for generating a signal source of a low-frequency terahertz wave signal;
the terahertz wave signal modulation module 11 is used for modulating the amplitude of a low-frequency terahertz wave signal of a signal source in different pulse and sine modes by controlling the electrical frequency and inputting the modulated terahertz electromagnetic wave signal to the wave transmitting terminal 2;
the main control module 12 is used for processing and controlling signals of the processing terminal 1, controlling transmission signals of the wave transmitting terminal 2 and acquiring and processing the signals;
the vibration data acquisition module 13 is used for acquiring whether the ear drum part of the human body acquired by the vibration sensor in real time vibrates to obtain a specific vibration value;
and the comparison and alarm module 14 is used for comparing the vibration value obtained by the vibration data processing module with a preset ear drum vibration standard value to judge whether the vibration is normal vibration or not, and if not, sending an alarm prompt.
The wave processing and transmitting terminal further comprises a power detection module 15 connected with the terahertz wave generation module 200, and is used for detecting actual terahertz wave output power data of the terahertz wave generation module 200 and sending the data to the processing terminal 1;
the improvement of the processing end is to add a power data processing module 16 and a power data correction module 17. The power data processing module 16 is configured to receive actual terahertz wave output power data detected by the power detection module 13, compare the actual terahertz wave output power data with preset terahertz wave output data, and determine an actual difference between the actual terahertz wave output power data and the preset terahertz wave output power data; and the power data correction module 17 is configured to perform initialization correction on the output terahertz wave frequency data according to the comparison result of the power data processing module 14. The safety of the wave frequency to the radiation inside the ear is further ensured by power data monitoring and adjustment.
The processing terminal 1 further comprises a timing module 19 connected to the main control module 12, wherein the timing module 19 is configured to control the operating time of the terahertz wave generator 23 in each of the wave transmitting terminals 2.
It should be noted that, as will be understood by those skilled in the art, the processing end according to the present invention has functions of implementing data acquisition, wavelength modulation, and timing according to the present invention, and the functions may be implemented by hardware, or may be implemented by hardware executing corresponding software. The hardware or software includes one or more modules corresponding to the above-described functions. The processing terminal comprises an application program used for storing each module to execute the module function of the invention. The functions can be realized by hardware, and the functions can also be realized by executing corresponding software by hardware. In some examples, the main control unit may be a programmable gate array chip or an application specific integrated circuit chip.
Through the above description of the embodiments, those skilled in the art will clearly understand that each embodiment can be implemented by software plus a necessary general hardware platform, and certainly can also be implemented by hardware.
The above examples only show some embodiments of the present invention, and the description thereof is more specific and detailed, but not construed as limiting the scope of the present invention. It should be noted that, for a person skilled in the art, several variations and modifications can be made without departing from the inventive concept, which falls within the scope of the present invention. Therefore, the protection scope of the present patent shall be subject to the appended claims.
Claims (8)
1. The terahertz wave physical therapy device for congenital deafness of children is characterized by comprising a processing end (1), a wave transmitting terminal (2) connected with the processing end (1) and a head band assembly (3) provided with the wave transmitting terminal (2), wherein the processing end (1) is used for signal transmission, terahertz wave frequency signal processing, control and overall system control and data processing;
the wave transmitting terminal (2) comprises a shell (20) and a bell mouth (22) arranged on the front side of the shell (20), a terahertz wave generator (23) is arranged in the terminal installation cavity (28), and the terahertz wave generator (23) is used for receiving electromagnetic signals sent by the processing end (1) to amplify and frequency-multiply, generating terahertz wave frequency spectrum in a specific frequency range and radiating the terahertz wave frequency spectrum; a waveguide window (203) is arranged on the front side of the terahertz wave generator (23), a wave-collecting lens (208) covering the waveguide window is arranged on the waveguide window (203), a wiring through hole (202) is formed in the side edge of the shell (20), an extending part (204) extends outwards from the side wall close to the opening end of the bell mouth (22), and a plurality of silica gel plug columns (205) are arranged on the extending part (204) towards the front end;
the head hoop component (3) comprises a hoop rod (30) and two fixing parts (31) which are arranged on the hoop rod (30) and are close to the end parts of the hoop rod (30), the fixing parts (31) are of a back-hook type structure, the end parts of the back hooks of the fixing parts (31) are connected with an annular positioning ring (35), a plurality of holes (32) for placing the silica gel plug columns (205) are formed in the positioning ring (35), the positioning ring (35) is overlapped with the extending parts (204), and when the positioning ring (35) and the extending parts are overlapped, the front ends of the horn mouths (22) penetrate through the positioning ring (35) and extend out of the positioning ring; a positioning rod (33) extends inwards from the inner side of the fixing part (31), and the end part of the positioning rod (33) is connected with a hanging lug (34) matched with the outer contour of the upper part of the ear;
a channel (220) is arranged in the side wall of the bell mouth (22); a vibration sensor (221) is arranged at the opening end of the channel (220), and a lead of the vibration sensor (221) penetrates out of the channel (220) to the wiring through opening (202) and is connected to the processing end (1); the chip of vibration sensor (221) wraps up in bar silica gel cover (222), probe (223) of vibration sensor (221) expose in bar silica gel cover (222), bar silica gel cover (222) are the sickle type structure of the structure matching with the cymba concha of ear, bar silica gel cover (222) rear end still is equipped with flexible spiral coil (224), probe (223) set up towards the ear hole.
2. The terahertz wave physical therapy apparatus for congenital deafness of children according to claim 1, wherein the internal diameter of the opening of said bell mouth (22) is 3-5cm, said extension (204) is 0.8-2cm away from the opening end of said bell mouth (22); the length of the positioning rod (33) is 2-5 cm.
3. The terahertz wave physical therapy apparatus for a child congenital deafness disease as claimed in claim 1, it is characterized in that the hoop pole (30) is of a telescopic structure, specifically, the hoop pole (30) comprises a double pole (301) at the left side, a single pole (302) at the right side and a connector (303) connecting the double pole (301) and the single pole (302), the two sides of the connector (303) are provided with openings, the double rods (301) extend into the openings at one side and are fixedly connected, the other side of the double rods (301) extends into the single rod (302), the single rod (302) is inserted into the middle of the double rod (301), a stopper (304) is arranged at the end part of the single rod (302), the height of the stopper (304) is larger than that of the opening, the opening end of the connector (303) is also provided with an inward convex clamping strip, the upper surface of one part of the single rod (302) close to the connector is provided with a rib (305).
4. The terahertz wave physical therapy device for congenital deafness of children as claimed in claim 1, wherein the extension portion (204) on the bell mouth (22) is of a detachable structure, an inner thread is arranged on the inner side of the extension portion (204), and an outer thread is arranged on the outer side of the bell mouth (22) close to the open end;
the positioning rod (33) is fixed to the fixing portion (31) in an insertion manner, the positioning rod (33) penetrates through the fixing portion (31) and is exposed to the outside, and the length of the positioning rod (33) can be adjusted by stretching.
5. The terahertz wave physical therapy apparatus for congenital deafness disease of children as claimed in claim 1, wherein said processing terminal (1) comprises
A signal source generator (10) for generating a signal source of a low-frequency terahertz wave signal;
the terahertz wave signal modulation module (11) is used for modulating the amplitude of a low-frequency terahertz wave signal of a signal source in different pulse and sine modes by controlling the electrical frequency and inputting the modulated terahertz electromagnetic wave signal to the wave transmitting terminal (2);
and the main control module (12) is used for processing and controlling the signals of the processing end (1) and controlling the transmitting signals of the wave transmitting terminal (2) and acquiring and processing the signals.
6. The terahertz wave physical therapy device for congenital deafness of children as claimed in claim 5, wherein said processing end further comprises
The vibration data acquisition module (13) is used for acquiring whether the human eardrum part acquired by the vibration sensor in real time vibrates to obtain a specific vibration numerical value;
and the comparison and alarm module (14) is used for comparing the vibration value obtained by the vibration data acquisition module (13) with a preset ear drum vibration standard value to judge whether the vibration is normal or not, and if not, giving an alarm prompt.
7. The terahertz wave physical therapy apparatus for congenital deafness of children as claimed in claim 5, wherein said wave transmitting terminal further comprises a power detecting module (15) connected to said terahertz wave generating module (200) for detecting actual terahertz wave output power data of the terahertz wave generating module (200) and transmitting the data to the processing terminal (1);
the processing terminal (1) also comprises
The power data processing module (16) is used for receiving actual terahertz wave output power data detected by the power detection module (15), comparing the data with preset terahertz wave output data and judging an actual difference value of the data and the preset terahertz wave output data;
and the power data correction module (17) is used for carrying out initialization correction on the output terahertz wave frequency data according to the comparison result of the power data processing module (16).
8. The terahertz wave physical therapy apparatus for congenital deafness of children according to claim 6, wherein the processing terminal (1) further comprises a timing module (19) connected with the main control module (12), the timing module (19) being used for controlling the working time of the terahertz wave generator (23) in each of the wave emitting terminals (2).
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