CN111375136B - Terahertz wave physiotherapy terminal and terahertz wave physiotherapy system for early and medium-term breast cancer - Google Patents
Terahertz wave physiotherapy terminal and terahertz wave physiotherapy system for early and medium-term breast cancer Download PDFInfo
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- CN111375136B CN111375136B CN201910808254.9A CN201910808254A CN111375136B CN 111375136 B CN111375136 B CN 111375136B CN 201910808254 A CN201910808254 A CN 201910808254A CN 111375136 B CN111375136 B CN 111375136B
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- A61B—DIAGNOSIS; SURGERY; IDENTIFICATION
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- A61B—DIAGNOSIS; SURGERY; IDENTIFICATION
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Abstract
The invention relates to a terahertz wave physiotherapy terminal which comprises a shell and an implantable part, wherein a cavity is arranged in the shell, a terahertz wave generator, a terahertz wave emitter and a disperser are arranged in the cavity, and the terahertz wave generator is used for generating terahertz waves; the terahertz wave emitter is positioned on the front side of the terahertz wave generator and matched with the terahertz wave generator, and the dispersion mechanism is arranged on the front side of the terahertz wave emitter; the implantable part is connected to the front end of the disperser through a connecting mechanism and is a plurality of implantable tubes, each implantable tube comprises a hose part at the rear end and a needle-shaped part at the front end, a plurality of optical fiber bundles encapsulated by optical fiber sleeves are arranged in each implantable tube, and the end part of each optical fiber bundle at the free end part of each hose part is provided with a micro antenna; the outer layer of the tail end of the needle-shaped part is wrapped by an insulating layer, and the diameter of the needle-shaped part is 0.01-0.1 mm. Also discloses a terahertz wave physical therapy system for early and medium-term breast cancer. This physiotherapy terminal and system have improved terahertz light wave energy now, and physiotherapy is effectual.
Description
Technical Field
The invention relates to the technical field of terahertz wave physiotherapy, in particular to a terahertz wave physiotherapy terminal and a terahertz wave physiotherapy system for early and medium-term breast cancer.
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 application prospect of the terahertz wave for cancer diagnosis and conditioning is described in the literature of terahertz wave absorption characteristics and diagnosis and treatment of cancer tissues (the book of 29 at the end of 10 months in 2013, and 5-6 periods), and the unique electromagnetic wave characteristics and the development of an excitation light source of the terahertz wave enable the terahertz wave to play the diagnosis and treatment effects on the cancer. The applicant finds that the terahertz wave has an excellent effect on conditioning early-and-middle-stage breast cancer in the category of cancer conditioning by the terahertz wave.
On the other hand, a conditioning instrument for conditioning a human body by using electromagnetic waves is developed at present, and the skin of the human body is irradiated with the electromagnetic waves to condition deep internal organs of the human body. For example, the prior art includes terahertz wave physiotherapy instruments, quantum generators, terahertz wave physiotherapy instruments and the like for conditioning and conditioning common diseases, such as a probe of the terahertz wave physiotherapy instrument 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 conditioning part of the human body through the sucking disc of the physiotherapy instrument. However, the existing electromagnetic wave physiotherapy instrument has weak light wave energy and low energy conversion efficiency, so that the actual physiotherapy course of treatment carried out by a patient using the instrument is too long, and the physiotherapy effect is poor.
Disclosure of Invention
The invention aims to provide a terahertz wave physiotherapy terminal and a terahertz wave physiotherapy system for early and medium-term breast cancer.
In order to achieve the above purpose, the technical scheme adopted by the invention is as follows:
a terahertz wave physiotherapy terminal comprises a shell and an implantable part, wherein a cavity is arranged in the shell, a terahertz wave generator, a terahertz wave emitter and a disperser are arranged in the cavity, and the terahertz wave generator is used for generating terahertz waves; the terahertz wave emitter is positioned on the front side of the terahertz wave generator and matched with the terahertz wave generator, and the disperser is arranged on the front side of the terahertz wave emitter;
the implantable part is connected to the front end of the disperser through a connecting mechanism, the implantable part is a plurality of implantation tubes, each implantation tube comprises a hose part at the rear end and a needle-shaped part at the front end, a plurality of optical fiber bundles encapsulated by optical fiber sleeves are arranged in each implantation tube, and the end part of each optical fiber bundle at the free end part of each hose part is provided with a micro antenna; the outer layer of the tail end of the needle-shaped part is wrapped by an insulating layer, and the diameter of the needle-shaped part is 0.01-0.1 mm.
Furthermore, the disperser is composed of a front hemispherical lens and a rear collimating lens, the hemispherical lens extends out of the front end surface of the shell, and an external thread is arranged outside the front end of the shell; the rear end face of the connecting mechanism is an arc face matched with the arc face of the hemispherical lens, a joint part extending forwards is arranged by taking the arc face as a starting point, and the radial section of the joint part is in a fan shape; a plurality of guided wave channels are uniformly distributed on the joint part, a wave-gathering lens is arranged at the inner rear part of each guided wave channel, and the outer diameter of the hose part of the implantable part is equal to the inner diameter of the front end of each guided wave channel; the rear end face of the connecting mechanism extends backwards to form a sleeving part, and the sleeving part is provided with an internal thread matched with the external thread of the shell.
Further, the guided wave channel gradually reduces its inner diameter from the rear end to the front end.
Further, the number of the optical fiber bundles is 2-6, and the optical fiber bundles are spaced by 0.5-3 mm; the optical fiber bundle comprises 2-10 optical fibers with the core diameters of 100-.
Furthermore, the surface of the optical fiber sheath of the optical fiber bundle is plated with a silver film, and the part of the needle-shaped part, which is not wrapped by the insulating layer, is 8-25mm long.
Furthermore, the rear end of the hose part is provided with a hard connector, the outer end of the hard connector is provided with a cylindrical connecting sleeve, and the outer diameter of the connecting sleeve is equal to the diameter of the guided wave channel.
Further, a fixed connection part is arranged at the rear end of the shell and comprises a first joint sleeve with external threads, a male plug is arranged above the first joint sleeve, an electric wire is arranged in the male plug, and a connecting ring with internal threads is further arranged on the outer side of the first joint sleeve;
the terminal further comprises a rotating support, the rotating support is fixed in an accommodating groove formed in a socket plate on the wall of a bed head, the rotating support comprises a rotating shaft and a rotating head sleeved on the rotating shaft, a notch is formed in one side of the rotating head, a rotating rod extends outwards from the rotating head on the side edge of the notch, an extending seat is arranged on the bottom surface of the tail end of the rotating rod, a second joint sleeve with external threads is arranged at the bottom end of the extending seat, and a female plug matched with the male plug is arranged below the second joint sleeve; the internal thread of the connecting ring is matched with the external thread of the first joint sleeve and the external thread of the second joint sleeve; the rotating rod is internally provided with a cavity, and a circuit line connected with the physiotherapy terminal enters the cavity from the socket plate through a notch and is connected with the female plug.
The invention also provides a terahertz wave physical therapy system for early and medium-term breast cancer, the physical therapy system comprises a display end and a terahertz wave physical therapy terminal connected with the display end, the terahertz wave physical therapy terminal adopts the terahertz wave physical therapy terminal, the display end is used for displaying the working data of the terahertz wave physical therapy terminal, and the terahertz wave physical therapy terminal comprises a terahertz wave physical therapy terminal
The main control module is used for processing and controlling signals of the terminal, controlling transmitted signals and acquiring and processing the signals;
the terahertz wave generating module is used for receiving a preset terahertz frequency signal and generating terahertz waves with corresponding frequencies by each terahertz wave generating and transmitting device;
and the terahertz wave transmitting module is used for transmitting the generated terahertz waves.
Furthermore, the system also comprises a far infrared thermal imager fixed on the rotating rod, the display end comprises a thermal infrared image data processing and analyzing module which is used for acquiring the thermal infrared image energy information of the human mammary gland part acquired by the thermal infrared imager in real time, acquiring the thermal infrared image energy data of the human body measuring part through digital-to-analog conversion, generating a thermal distribution image through the thermal infrared image energy data and displaying the thermal distribution image, and analyzing and acquiring the inflammation part with high energy.
Furthermore, the terahertz wave physical therapy terminal also comprises
The timing module is used for controlling the terahertz wave generation and the working time of the transmitter in each terahertz wave physiotherapy terminal;
and the temperature detection module is used for carrying out real-time temperature detection on the physical therapy mammary gland part through a temperature sensor arranged below the insulating layer and uploading detection data to the main control module.
The terahertz wave physiotherapy terminal is an improvement aiming at the technical problem that most of light wave radiation energy of the existing terahertz wave physiotherapy instrument stays on the surface of a human body, and the physiotherapy effect is poor due to low energy transmission. The invention sets a connecting mechanism capable of splitting waves at the front side of the terminal shell, the connecting mechanism is connected to the implantable part, and the implantable part transmits light waves to a specific physiotherapy part through optical fibers, thereby realizing high-efficiency physiotherapy with local pertinence; the physiotherapy terminal is more suitable for physiotherapy of local disease positions. The terahertz wave physiotherapy terminal is also arranged on the socket board at the bed head of the sickbed through the rotating rod, so that convenience and safety in use and storage are realized.
The physiotherapy instrument has novel design, has better physiotherapy effect when being used for treating the cancer diseases in the early and middle stages of the human body, has remarkable physiotherapy effect particularly aiming at the breast cancer diseases in the early and middle stages, and can greatly shorten the physiotherapy period of patients.
Drawings
FIG. 1 is a cross-sectional view of the overall structure of one embodiment of a terahertz wave physiotherapy terminal of the present invention;
FIG. 2 is a schematic structural view of one embodiment of an implantable portion of the present invention;
FIGS. 3a and 3b are sectional views of two embodiments of the connecting mechanism of the present invention;
FIG. 4 is a schematic structural diagram of a fastening portion of a terahertz wave physiotherapy terminal according to an embodiment of the present invention;
FIG. 5 is a schematic structural diagram of an embodiment of a mounting structure of a terahertz wave physiotherapy terminal according to the present invention;
fig. 6 is a schematic structural diagram of an embodiment of a terahertz wave physiotherapy system for early and medium-term breast cancer according to the invention.
Detailed Description
The following describes a specific implementation of a terahertz wave physiotherapy terminal and a terahertz wave physiotherapy system for early and medium breast cancer according to the present invention with reference to the following embodiments. 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.
Fig. 1 shows an embodiment of a terahertz wave physiotherapy terminal according to the present invention.
As shown in fig. 1, the terahertz wave physiotherapy terminal comprises a shell 200 and an implantable part 230, wherein a cavity 209 is arranged in the shell 200, a terahertz wave generator 201, a terahertz wave emitter 202 and a disperser 203 are arranged in the cavity 209, and the terahertz wave generator 201 is used for generating terahertz waves; the terahertz wave emitter 202 is located on the front side of the terahertz wave generator 201 and is matched with the terahertz wave generator 201, and the disperser 203 is located on the front side of the terahertz wave emitter 202.
As shown in fig. 2, the implantable portion 230 is connected to the front end of the spreader 203 through a connecting mechanism, the implantable portion 230 is a plurality of implantation tubes, the implantation tubes include a hose 231 at the rear end and a needle 232 at the front end, the implantation tubes are provided with a plurality of optical fiber bundles 234 enclosed by fiber optic sleeves 233, and the ends of the optical fiber bundles 234 at the free ends of the hose 231 are provided with micro antennas 260; the outer layer of the tail end of the needle-shaped part 232 is wrapped with an insulating layer 235 which is used for holding by hand, and the diameter of the needle-shaped part 232 is 0.01-0.1 mm.
The disperser 203 is composed of a front hemispherical lens 204 and a rear collimating lens 205, the hemispherical lens 204 extends out of the front end surface of the housing 200, the collimating lens uniformly transmits the light waves to the hemispherical lens, and the light waves are uniformly dispersed by the hemispherical lens. The shell 200 is provided with external threads 206 outside the front end; the rear end surface of the connecting mechanism is an arc surface 236 matched with the arc surface of the hemispherical lens 204, a joint part 237 extending forwards is arranged from the arc surface 236 as a starting point, and the radial section of the joint part 237 is fan-shaped; a plurality of guided wave channels 238 are uniformly distributed on the joint part 237, and a wave-focusing lens 250 is arranged at the rear part in the guided wave channels 238 and used for focusing and transmitting the dispersed light waves again; the outer diameter of the flexible tube portion 231 of the implantable portion is equal to the inner diameter of the leading end of the guided wave channel 238; the rear end face of the connecting mechanism extends backwards to form a sleeve joint part 239, the sleeve joint part 239 is provided with an internal thread matched with the external thread 206 of the shell 200, and when the connecting mechanism is used, the internal thread of the connecting mechanism and the external thread of the shell are screwed and assembled.
In some examples, to allow the implantable portion to better extract the energy of the light waves, the guided wave channel 238 tapers in its inner diameter from the back end to the front end to achieve wave focusing.
It should be further noted that the connecting mechanism is detachable through the above technical solution, and a user can access the implantable portions with a required number through a requirement, and when a small number of implantable portions are accessed, the unused interface can leak the light waves of the implantable portions, so that the energy transmission efficiency is low, for this reason, according to the principle of the present invention, a plurality of connecting mechanisms can be configured, different connecting mechanisms are provided with different numbers of guided wave channels, as shown in fig. 3a and 3b, and a user can select different connecting mechanisms according to a requirement, so as to ensure effective transmission of terahertz waves.
In some examples, the number of the optical fiber bundles 234 is 2-6, the optical fiber bundles 234 having a spacing of 0.5-3mm therebetween; the optical fiber bundle 234 includes 2-10 optical fibers with core diameters of 100-400 μm, and the optical fiber ferrule 233 is a tube made of stainless steel material. In still other examples, the fiber bundle 234 is coated with silver film on the surface of the fiber sheath, and the needle 232 is 8-25mm long without the insulation layer 235.
In order to better connect the hose to the connection mechanism, as shown in fig. 2, a hard connector 240 is disposed at the rear end of the hose portion 231, a cylindrical connection sleeve 241 is disposed at the outer end of the hard connector 240, and the outer diameter of the connection sleeve 241 is equal to the diameter of the guided wave channel 238.
The terahertz wave physiotherapy terminal is generally arranged above a physiotherapy part to work, and in order to improve the convenience of use, as shown in fig. 4-5, a fixed connection part 300 is arranged at the rear end of the shell 200, the fixed connection part 300 comprises a first joint sleeve 301 with external threads, a male plug 302 is arranged above the first joint sleeve 301, an electric wire is arranged in the male plug 302, and a connecting ring 303 with internal threads is further arranged on the outer side of the first joint sleeve 301.
The terminal further comprises a rotating bracket 50, the rotating bracket 50 is fixed in a containing groove 57 arranged on a socket board on the wall of a bed head, the socket board is a socket board which is commonly used by the existing medical institution, the rotating bracket 50 comprises a rotating shaft 51 and a rotating head 52 sleeved on the rotating shaft 51, a notch 53 is arranged on one side of the rotating head 52, a rotating rod 54 is arranged by extending outwards from the rotating head 52 part on the side of the notch 53, an extending seat 55 is arranged on the bottom surface of the tail end of the rotating rod 54, a second joint sleeve 56 with external threads is arranged at the bottom end of the extending seat 55, and a female plug 58 matched with the male plug 302 is arranged below the second joint sleeve 56; the internal thread of the connecting ring 303 is matched with the external thread of the first joint sleeve 301 and the external thread of the second joint sleeve 56; a cavity is formed in the rotation rod 54, and circuit lines connected to the physiotherapy terminal enter the cavity from the socket plate through the notch 53 and are connected to the female plug 58. Correspond at the socket the position of dwang 54 still transversely is equipped with and holds chamber 280, when not using terahertz wave physiotherapy terminal, demolish the back with it, can accomodate dwang 54 rotation to holding chamber 280.
In another aspect of the present invention, a terahertz wave physiotherapy system for early and medium breast cancer is further provided, as shown in fig. 6, the physiotherapy system includes a display terminal 10 and a terahertz wave physiotherapy terminal connected to the display terminal 10, the terahertz wave physiotherapy terminal employs the terahertz wave physiotherapy terminal, the display terminal 10 is configured to display working data of the terahertz wave physiotherapy terminal, and the terahertz wave physiotherapy terminal includes the terahertz wave physiotherapy terminal
The main control module 20 is used for processing and controlling signals of the terminal, controlling transmitted signals and acquiring and processing the signals;
the terahertz wave generation module 21 is provided with a terahertz wave generation and emission device for receiving a preset terahertz frequency signal and generating a terahertz wave with a corresponding frequency;
a terahertz wave emitting module 22 for emitting the generated terahertz waves;
the timing module 23 is used for controlling the working time of the terahertz wave generation and emitter in each terahertz wave physiotherapy terminal;
and the temperature detection module 24 is used for carrying out real-time temperature detection on the physiotherapy breast part through a temperature sensor arranged below the insulating layer 235 and uploading detection data to the main control module 20.
The system further comprises a far infrared thermal imager 5 fixed on the rotating rod 54, the display end 10 comprises a thermal infrared image data processing and analyzing module 11 for acquiring thermal infrared image energy information of the mammary gland of the human body acquired by the thermal infrared imager 5 in real time, acquiring thermal infrared image energy data of the measuring part of the human body through digital-to-analog conversion, generating a thermal distribution image through the thermal infrared image energy data and displaying the thermal distribution image, and analyzing and acquiring the inflammation part with high energy. The cancer part is judged by observing the inflammation part, the diseased part can be better positioned when the needle head of the implantable part is pricked, and the disease (temperature) change of the diseased part can be observed when the terahertz wave physiotherapy is carried out.
It should be noted that, as will be understood by those skilled in the art, the display terminal according to the present invention has functions of data acquisition and analysis, 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 display end comprises application programs used for storing modules to execute the functions of the modules 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 of the terahertz wave physical therapy terminal is a programmable gate array chip or an application specific integrated circuit chip, which includes an application program for storing the application program corresponding to each module to execute the functions of the module of the present invention.
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 (9)
1. The terahertz wave physiotherapy terminal is characterized by comprising a shell (200) and an implantable part (230), wherein a cavity (209) is arranged in the shell (200), a terahertz wave generator (201), a terahertz wave emitter (202) and a disperser (203) are arranged in the cavity (209), and the terahertz wave generator (201) is used for generating terahertz waves; the terahertz wave emitter (202) is positioned on the front side of the terahertz wave generator (201) and is matched with the terahertz wave generator (201), and the disperser (203) is arranged on the front side of the terahertz wave emitter (202);
the implantable part (230) is connected to the front end of the disperser (203) through a connecting mechanism, the implantable part (230) is a plurality of implantable tubes, each implantable tube comprises a hose part (231) at the rear end and a needle-shaped part (232) at the front end, a plurality of optical fiber bundles (234) enclosed by optical fiber sleeves (233) are arranged in each implantable tube, and a micro antenna (260) is arranged at the end part of each optical fiber bundle (234) at the free end part of each hose part (231); the outer layer of the tail end of the needle-shaped part (232) is wrapped with an insulating layer (235), and the diameter of the needle-shaped part (232) is 0.01-0.1 mm;
the disperser (203) is composed of a front hemispherical lens (204) and a rear collimating lens (205), the hemispherical lens (204) extends out of the front end surface of the shell (200), and an external thread (206) is arranged outside the front end of the shell (200); the rear end face of the connecting mechanism is an arc face (236) matched with the arc face of the hemispherical lens (204), a joint part (237) extending forwards is arranged from the arc face (236) as a starting point, and the radial section of the joint part (237) is in a fan shape; a plurality of guided wave channels (238) are uniformly distributed on the joint part (237), a wave-focusing lens (250) is arranged at the inner rear part of each guided wave channel (238), and the outer diameter of the hose part (231) of the implantable part is equal to the inner diameter of the front end of each guided wave channel (238); the rear end face of the connecting mechanism extends backwards to form a sleeving part (239), and the sleeving part (239) is provided with an internal thread matched with the external thread (206) of the shell (200).
2. The terahertz wave physical therapy terminal according to claim 1, wherein the guided wave channel (238) is tapered in its inner diameter from a rear end toward a front end.
3. The terahertz wave physiotherapy terminal according to claim 1, wherein the number of the optical fiber bundles (234) is 2-6, and the optical fiber bundles (234) have a spacing of 0.5-3mm therebetween; the optical fiber bundle (234) comprises 2-10 optical fibers with the core diameters of 100 and 400 mu m, and the optical fiber sleeve (233) is a tube body made of stainless steel material.
4. The terahertz wave physical therapy terminal according to claim 3, wherein the fiber bundle (234) has a fiber skin surface coated with a silver film, and the needle (232) has a length of 8-25mm at a portion not covered by the insulating layer (235).
5. The terahertz wave physical therapy terminal according to claim 1, wherein a hard connector (240) is disposed at the rear end of the hose portion (231), a cylindrical connection sleeve (241) is disposed at the outer end of the hard connector (240), and the outer diameter of the connection sleeve (241) is equal to the diameter of the guided wave channel (238).
6. The terahertz wave physiotherapy terminal according to claim 1, wherein the housing (200) is provided with a fastening portion (300) at the rear end, the fastening portion (300) comprises a first connector sleeve (301) with external threads, a male plug (302) is arranged above the first connector sleeve (301), the male plug (302) is internally provided with electric wires, and a connecting ring (303) with internal threads is further arranged on the outer side of the first connector sleeve (301);
the terminal further comprises a rotating support (50), the rotating support (50) is arranged in a containing groove (57) formed in a socket board fixed on a wall of a bed head, the rotating support (50) comprises a rotating shaft (51) and a rotating head (52) sleeved on the rotating shaft (51), a notch (53) is formed in one side of the rotating head (52), a rotating rod (54) extends outwards from the rotating head (52) on the side of the notch (53), an extending seat (55) is arranged on the bottom surface of the tail end of the rotating rod (54), a second connector sleeve (56) with external threads is arranged at the bottom end of the extending seat (55), and a female plug (58) matched with the male plug (302) is arranged below the second connector sleeve (56); the internal thread of the connecting ring (303) is matched with the external thread of the first joint sleeve (301) and the external thread of the second joint sleeve (56); a cavity is arranged in the rotating rod (54), and a circuit line connected with the physiotherapy terminal enters the cavity from the socket plate through a notch (53) and is connected with the female plug (58).
7. A terahertz wave physical therapy system for early and medium breast cancer, which is characterized in that the physical therapy system comprises a display end (10) and a terahertz wave physical therapy terminal connected with the display end (10), the terahertz wave physical therapy terminal adopts the terahertz wave physical therapy terminal of claim 6, the display end (10) is used for displaying the working data of the terahertz wave physical therapy terminal, and the terahertz wave physical therapy terminal comprises
The main control module (20) is used for processing and controlling signals of the terminal, controlling transmitted signals and acquiring and processing the signals;
the terahertz wave generating module (21) is used for receiving a preset terahertz frequency signal and generating terahertz waves with corresponding frequencies by each terahertz wave generating and transmitting device;
and the terahertz wave transmitting module (22) is used for transmitting the generated terahertz waves.
8. The terahertz wave physical therapy system for early and medium breast cancer according to claim 7, further comprising a thermal infrared imager (5) fixed on the rotating rod (54), wherein the display end (10) comprises a thermal infrared imager data processing and analyzing module (11) for acquiring thermal infrared imaging energy information of a human breast part acquired by the thermal infrared imager (5) in real time, acquiring thermal infrared imaging energy data of a human body measurement part through digital-to-analog conversion, generating and displaying a thermal distribution image through the thermal infrared imaging energy data, and analyzing and acquiring an inflammation part with high energy.
9. The terahertz wave physiotherapy system for early and medium breast cancer of claim 7, wherein the terahertz wave physiotherapy terminal further comprises
The timing module (23) is used for controlling the working time of the terahertz wave generation and emitter in each terahertz wave physiotherapy terminal;
and the temperature detection module (24) is used for carrying out real-time temperature detection on the physical therapy mammary gland part through a temperature sensor arranged below the insulating layer (235) and uploading detection data to the main control module (20).
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