A bionic ligament non-destructive auxiliary device based on microwave technology

Abstract

The present invention relates to the technical field related to bionic ligament medical devices, and in particular to a bionic ligament non-destructive auxiliary device based on microwave technology, comprising a shell, a guide plate is fixedly installed at one end of the shell, a filter screen is fixedly installed at one end of the guide plate, a feeding mechanism is arranged above one end of the guide plate, a spray mechanism is arranged at one end of the guide plate, a microwave heating mechanism is fixedly installed on one side surface of the shell, support columns are welded on both sides of the outer wall of the shell, and a dehumidification mechanism is arranged on the inner side of the shell. Based on the principle that microwaves can only heat polar molecules such as water and fat, but cannot directly heat insulators, the device sprays water mist on the surface of the bionic ligament through a unique spray mechanism. When microwaves act, only the water molecules on the surface are heated, thereby heating the surface of the bionic ligament. This device can release stress without damaging the material, thereby optimizing the performance of the bionic ligament.

Description

Technical Field

[0001] The present invention relates to the technical field related to bionic ligament medical devices, and in particular to a bionic ligament non-destructive auxiliary device based on microwave technology. Background Art

[0002] Synthetic bionic ligaments are mainly made of polyethylene fishing line and provide new solutions for a variety of medical and engineering applications. Especially in the field of medicine, the development of bionic ligaments has brought revolutionary progress in ligament repair and biomechanics research. As an economical and convenient alternative, the bionic ligament model provides an efficient research and training tool for laboratories and hospitals. Although bionic ligaments have shown excellent application potential in many fields, a key issue is often overlooked: stress. In the field of materials such as metal steel, stress is regarded as a crucial physical quantity because it directly affects the strength, plasticity, fatigue life and safety of the material. However, in the field of bionic materials and biomechanics, the importance of material stress is often not given enough attention.

[0003] Bionic ligaments are subjected to complex mechanical environments in their applications, especially when the human body is moving. Every time a joint moves, stretches or bears weight, the ligament is subjected to dynamic stress, which not only affects its immediate function, but also determines its durability and degradation rate in long-term use. If the bionic ligament cannot adapt to this complex stress distribution, it may lead to performance degradation or premature failure in long-term use. Through stress relief treatment, the flexibility and ductility of bionic ligaments in parts such as the wrist and ankle can be enhanced, so that they can stretch more naturally during activities, while reducing internal stress, improving the long-term stability of the material and its reliability in the body, and reducing the risk of fracture caused by stress concentration. Although traditional thermal effect methods can effectively reduce the stress in the material, direct heating often causes damage to the surface of the material, affecting its mechanical properties and service life. In addition, direct heating may not completely eliminate the stress inside the material, which may lead to the risk of failure in subsequent use. Therefore, it is particularly important to design a device that can not only effectively reduce the internal stress of the bionic ligament, but also keep its surface intact and other excellent properties unchanged. Summary of the invention

[0004] In view of the defects in the prior art, the present invention provides a bionic ligament non-destructive auxiliary device based on microwave technology, which is used to solve the many shortcomings of the traditional thermal effect method in the prior art when reducing the internal stress of the bionic ligament.

[0005] To achieve the above-mentioned objectives, the present invention provides the following technical solutions: a bionic ligament non-destructive auxiliary device based on microwave technology, comprising a shell, a guide plate is fixedly installed on one end of the shell, a filter screen is fixedly installed on one end of the guide plate, a feeding mechanism is arranged above one end of the guide plate, a spray mechanism is arranged on one end of the guide plate, a microwave heating mechanism is fixedly installed on one side surface of the shell, support columns are welded on both sides of the outer wall of the shell, a dehumidification mechanism is arranged on the inner side of the shell, an insulation shell is fixedly connected to one side of the outer wall of the shell, a third electric heating tube is fixedly installed at the interlayer position of the insulation shell, a second drive motor is fixedly installed on one side surface of the insulation shell, one end of the second drive motor is fixedly connected to a second connecting shaft, one end of the second connecting shaft is sleeved and fixed with a wire reel, and a pressure rod is fixedly installed on the inner surface of the shell.

[0006] The feeding mechanism includes a support plate, a roller, a wire feeding roller, a wire feeding drum and fixing bolts. Support plates are fixedly installed on both sides of the surface of the guide plate, one end of the support plate is rotatably connected to the roller, one end of the support plate is placed with a wire feeding roller, one end of the wire feeding roller is sleeved with a wire feeding drum, and both ends of the wire feeding drum are threadedly connected with fixing bolts.

[0007] The spray mechanism includes a water tank, a first electric heating tube, a water pump, a water pipe, a shunt pipe, a fixing ring, a round pipe and an atomizing nozzle. The water tank is placed at one end of the guide plate, and the first electric heating tube is arranged inside the water tank. A pipe on one side of the water tank is connected to the water pump, and a flange at one end of the water pump is connected to the water pipe, and one end of the water pipe is connected to the shunt pipe. A fixing ring passes through one end of the shunt pipe, and the inner ring of the fixing ring is fixedly connected to the round pipe, and the surface of the round pipe is connected to the atomizing nozzle.

[0008] The microwave heating mechanism includes a box, a magnetron, a waveguide, a first driving motor, a first connecting shaft and a metal plate. The box is fixedly installed on the inner surface of the shell, the magnetron is fixedly installed in the inner compartment of the box, one end of the magnetron is connected to the waveguide, the first driving motor is fixedly installed on the upper surface of the box, one end of the first driving motor is fixedly connected to the first connecting shaft, and the outer ring of the first connecting shaft is fixedly installed with a metal plate.

[0009] The dehumidification mechanism includes an outer shell, a top cover, an inlet fan, a partition, a second electric heating tube, an air supply pipe and an air outlet slot. The inner surface of the shell is fixedly mounted with the outer shell, the upper surface of the shell is fixedly mounted with the top cover, the inlet fan is fixedly mounted at one end of the top cover, partitions are fixedly mounted on both sides of the inner wall of the top cover, the second electric heating tube is fixedly mounted on the surface of the partition, one side of the shell is fixedly connected with the air supply pipe, and one end of the air supply pipe is connected to the air outlet slot.

[0010] Preferably, both ends of the wire feeding drum are locked with the wire feeding roller by fixing bolts, and the wire feeding roller and the roller rotate.

[0011] Preferably, the fixing ring is fixedly mounted on one end of the guide plate, and the atomizing nozzles are distributed at equal intervals on the inner circle of the circular tube.

[0012] Preferably, the diverter pipe is connected to the circular pipe, and the fixing ring and the wire feeding drum are distributed in parallel.

[0013] Preferably, the metal plate is arranged obliquely on the outer ring of the first connecting shaft, and the position of the metal plate corresponds to that of the waveguide tube.

[0014] Preferably, a water collecting trough is placed at one end of the support column, and the water collecting trough is located below the guide plate.

[0015] Preferably, both upper and lower sides of the air outlet slot are openings of a conical structure, and the pressure rods are irregularly distributed on the inner side of the shell.

[0016] Preferably, the inner circle of the thermal insulation shell is made of a heat-conducting plate material, and the outer surface is made of a heat-insulating plate material, and a pressure rod is also provided on one side of the thermal insulation shell.

[0017] Compared with the prior art, the present invention has the following beneficial effects:

[0018] 1. The device pre-sprays the surface of the bionic ligament with warm water so that the water mist can play a cleaning role. At the same time, spraying with heated water can make microwave heating faster, and the spray can also make the heating more uniform.

[0019] 2. Based on the principle that microwaves can only heat polar molecules such as water and fat, but cannot directly heat insulators, the device sprays water mist on the surface of the bionic ligament through a unique spray mechanism. When microwaves act, only the water molecules on the surface are heated, thereby heating the surface of the bionic ligament. This heating method can release stress without damaging the material, thereby optimizing the performance of the bionic ligament.

[0020] 3. The dehumidification mechanism can be used to dry the surface of the ligament, and the heated wind can prevent the ligament from suddenly lowering and adding new stress.

[0021] 4. By heating the third electric heating tube in the heat preservation shell, the rolled-up bionic ligament can be placed in a temperature-controllable and suitable environment, and no new stress will be generated by slowly lowering the temperature. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 It is a schematic diagram of the overall appearance structure of the present invention;

[0023] Figure 2It is a schematic diagram of the structure of the wire feeding mechanism and the spray mechanism cooperating with each other in the present invention;

[0024] Figure 3 This is a schematic diagram of the guide plate structure of the present invention;

[0025] Figure 4 It is a structural schematic diagram of the wire feeding mechanism of the present invention;

[0026] Figure 5 It is a schematic diagram of the spray mechanism structure of the present invention;

[0027] Figure 6 This is a schematic diagram of the structure of the water tank and the first electric heating tube cooperating with each other in the present invention;

[0028] Figure 7 This is a schematic diagram of the structure of the microwave heating mechanism of the present invention;

[0029] Figure 8 It is a schematic diagram of the structure of the dehumidification mechanism of the present invention;

[0030] Fig. 9 This is a schematic diagram of the structure of the heat preservation shell and the third electric heating tube cooperating with each other in the present invention;

[0031] Fig.10 This is a schematic diagram of the bionic ligament transmission path of the present invention.

[0032] In the figure: 1, shell; 2, guide plate; 3, filter screen; 4, feeding mechanism; 401, support plate; 402, roller; 403, wire feeding roller; 404, wire feeding drum; 405, fixing bolt; 5, spray mechanism; 501, water tank; 502, first electric heating tube; 503, water pump; 504, water pipe; 505, diverter pipe; 506, fixing ring; 507, round pipe; 508, atomizing nozzle; 6, microwave heating mechanism; 601, box; 602, magnetron Tube; 603, waveguide tube; 604, first drive motor; 605, first connecting shaft; 606, metal plate; 7, support column; 8, water collecting tank; 9, dehumidification mechanism; 901, outer shell; 902, top cover; 903, inlet fan; 904, partition; 905, second electric heating tube; 906, air supply pipe; 907, air outlet slot; 10, insulation shell; 11, third electric heating tube; 12, second drive motor; 13, second connecting shaft; 14, take-up drum; 15, pressure rod. DETAILED DESCRIPTION

[0033] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments in the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention. In the examples, in order to avoid confusing the present invention, the well-known circuits, power supplies, software or methods are not specifically described.

[0034] This embodiment discloses a bionic ligament non-destructive auxiliary device based on microwave technology, such as Figure 1-10 , comprising a shell 1, a guide plate 2 is fixedly installed at one end of the shell 1, a filter screen 3 is fixedly installed at one end of the guide plate 2, a feeding mechanism 4 is arranged above one end of the guide plate 2, a spray mechanism 5 is arranged at one end of the guide plate 2, a microwave heating mechanism 6 is fixedly installed on one side surface of the shell 1, support columns 7 are welded on both sides of the outer wall of the shell 1, a dehumidification mechanism 9 is arranged on the inner side of the shell 1, a heat preservation shell 10 is fixedly connected to one side of the outer wall of the shell 1, a third electric heating tube 11 is fixedly installed at the interlayer position of the heat preservation shell 10, a second driving motor 12 is fixedly installed on one side surface of the heat preservation shell 10, one end of the second driving motor 12 is fixedly connected to a second connecting shaft 13, one end of the second connecting shaft 13 is sleeved and fixed with a wire reel 14, and a pressure rod 15 is fixedly installed on the inner surface of the shell 1.

[0035] The feeding mechanism 4 includes a support plate 401, a roller 402, a wire feeding roller 403, a wire feeding drum 404 and a fixing bolt 405. The support plates 401 are fixedly installed on both sides of the surface of the guide plate 2. The roller 402 is rotatably connected to one end of the support plate 401. The wire feeding roller 403 is placed on one end of the support plate 401. The wire feeding drum 404 is sleeved on one end of the wire feeding roller 403. The two ends of the wire feeding drum 404 are threadedly connected with fixing bolts 405. The arrangement of the wire feeding drum 404 and the fixing bolt 405 is such that, when in use, the wire feeding drum 404 is sleeved on one end of the wire feeding roller 403, and then the wire feeding roller 403 is placed on one end of the roller 402, and then the position of the wire feeding drum 404 is adjusted, and then the fixing bolt 405 is locked to fix the wire feeding drum 404 at one end of the wire feeding roller 403, and the wire feeding roller 403 can be rotated at one end of the roller 402 to complete the wire releasing operation, and the wire feeding roller 403 can be fixed at any position by locking the fixing bolt 405.

[0036] The spray mechanism 5 includes a water tank 501, a first electric heating tube 502, a water pump 503, a water pipe 504, a shunt pipe 505, a fixing ring 506, a round pipe 507 and an atomizing nozzle 508. The water tank 501 is placed at one end of the guide plate 2, and the first electric heating tube 502 is arranged inside the water tank 501. A pipe on one side of the water tank 501 is connected to the water pump 503. A flange at one end of the water pump 503 is connected to the water pipe 504. One end of the water pipe 504 is connected to the shunt pipe 505. A fixing ring 506 is passed through one end of the shunt pipe 505. The inner ring of the fixing ring 506 is fixedly connected to the round pipe 507. The surface of the round pipe 507 is connected to the atomizing nozzle 508. 501, the first electric heating tube 502, the water pump 503, the water pipe 504, the shunt pipe 505, the fixing ring 506, the circular tube 507 and the atomizing nozzle 508 are arranged. When in use, the water in the water tank 501 is first heated by the first electric heating tube 502 to keep the water temperature at 50-70°C, and then the water pump 503 conveys the warm water to the circular tube 507 through the water pipe 504 and the shunt pipe 505, and then the atomizing nozzle 508 is used to evenly spray the surface of the bionic ligament. The use of warm water to spray the surface of the bionic ligament can not only clean the surface of the bionic ligament, but also preheat it in advance, which is convenient for rapid heating with microwaves.

[0037] The microwave heating mechanism 6 includes a box 601, a magnetron 602, a waveguide 603, a first drive motor 604, a first connecting shaft 605 and a metal plate 606. The box 601 is fixedly installed on the inner surface of the shell 1, the magnetron 602 is fixedly installed in the inner compartment of the box 601, one end of the magnetron 602 is connected to the waveguide 603, the first drive motor 604 is fixedly installed on the upper surface of the box 601, one end of the first drive motor 604 is fixedly connected to the first connecting shaft 605, and the outer ring of the first connecting shaft 605 is fixedly installed. There is a metal plate 606, which is arranged through a box 601, a magnetron 602, a waveguide tube 603, a first driving motor 604, a first connecting shaft 605 and a metal plate 606. When in use, microwaves are transmitted to the metal plate 606 through the magnetron 602 and the waveguide tube 603, and then refracted by the metal plate 606, so that the microwaves can be repeatedly refracted on the inner side of the box 601, and at the same time, polarity reaction occurs to the water on the surface of the bionic ligament to generate heat, so that heat is generated on the surface of the bionic ligament, thereby achieving the effect of lossless stress release and optimization of the performance of the bionic ligament.

[0038] The dehumidification mechanism 9 includes a shell 901, a top cover 902, an inlet fan 903, a partition 904, a second electric heating pipe 905, an air supply pipe 906 and an air outlet slot 907. The shell 901 is fixedly installed on the inner surface of the shell 1, the top cover 902 is fixedly installed on the upper surface of the shell 1, the inlet fan 903 is fixedly installed on one end of the top cover 902, the partition 904 is fixedly installed on both sides of the inner wall of the top cover 902, the second electric heating pipe 905 is fixedly installed on the surface of the partition 904, and the air supply pipe 906 is fixedly connected to one side of the shell 901. One end of the air supply pipe 906 is connected to an air outlet slot 907. Through the arrangement of the outer shell 901, the top cover 902, the fan inlet 903, the partition 904, the second electric heating pipe 905, the air supply pipe 906 and the air outlet slot 907, when in use, the hot air is transported to the air supply pipe 906 through the fan inlet 903 and the second electric heating pipe 905, and then the hot air is blown on the surface of the bionic ligament through the air outlet slot 907 to perform a dehumidification operation, while keeping the bionic ligament at a relative temperature so as to prevent sudden cooling and generate new stress.

[0039] Furthermore, both ends of the wire feeding drum 404 are locked with the wire feeding roller 403 by fixing bolts 405, and the wire feeding roller 403 and the roller 402 rotate. Through the setting of the wire feeding drum 404, the wire feeding drum 404 can be placed on one end of the roller 402 through the wire feeding roller 403, and then in the process of the bionic ligament being pulled and transmitted, the wire feeding drum 404 can be rotated by the wire feeding roller 403 to release the bionic ligament.

[0040] Furthermore, the fixing ring 506 is fixedly installed at one end of the guide plate 2, and the atomizing nozzles 508 are evenly spaced on the inner circle of the circular tube 507. Through the setting of the fixing ring 506, the fixing ring 506 can fix the circular tube 507 at one end of the guide plate 2, so that the bionic ligament can pass through the middle position of the fixing ring 506 under the action of the pressure rod 15.

[0041] Furthermore, the shunt pipe 505 is connected with the circular pipe 507 , and the fixing ring 506 and the wire feeding drum 404 are arranged in parallel. Through the arrangement of the shunt pipe 505 , the shunt pipe 505 can supply water to two groups of circular pipes 507 at the same time.

[0042] Furthermore, the metal plate 606 is tilted on the outer ring of the first connecting shaft 605, and the position of the metal plate 606 corresponds to the waveguide tube 603. Through the setting of the metal plate 606, the tilted metal plate 606 can refract the electromagnetic waves obliquely downward, and cooperate with the metal structure of the inner ring of the box 601 to refract the electromagnetic waves.

[0043] Furthermore, a water collecting trough 8 is placed at one end of the support column 7, and the water collecting trough 8 is located below the guide plate 2. Through the setting of the water collecting trough 8, the water collecting trough 8 can cooperate with the guide plate 2 and the filter screen 3 to recycle the water generated by the spray.

[0044] Furthermore, both the upper and lower sides of the air outlet slot 907 are openings of a conical structure, and the pressure rod 15 is irregularly distributed on the inner side of the shell 1. Through the setting of the air outlet slot 907, the conical opening of the air outlet slot 907 can expand the blowing area, and the pressure rod 15 can control the path of the bionic ligament.

[0045] Furthermore, the inner circle of the insulation shell 10 is made of a heat conduction plate material, and the outer surface is made of an insulation plate material. A pressure rod 15 is also provided on one side of the insulation shell 10. Through the setting of the insulation shell 10, the heat generated by the third electric heating tube 11 in the insulation layer of the insulation shell 10 will not suddenly cool down after the bionic ligament is rolled up.

[0046] Working principle: First, the wire feeding drum 404 is sleeved on one end of the wire feeding roller 403, and then the wire feeding roller 403 is placed on one end of the roller 402, and then the position of the wire feeding drum 404 is adjusted, and then the fixing bolt 405 is locked to fix the position of the wire feeding drum 404 on one end of the wire feeding roller 403, and then the bionic ligament is passed through multiple pressure rods 15 for transportation, and then the water in the water tank 501 is heated by the first electric heating tube 502 to keep the water temperature at 50-70°C, and then the water pump 503 transports the warm water to the round tube 507 through the water pipe 504 and the shunt pipe 505, and then the surface of the bionic ligament is evenly sprayed by the atomizing nozzle 508. The microwaves are evenly sprayed, and then transmitted to the metal plate 606 through the magnetron 602 and the waveguide 603. After being refracted by the metal plate 606, the microwaves can be repeatedly refracted on the inner side of the box body 601, and at the same time, polarity reaction occurs on the water on the surface of the bionic ligament to generate heat, so that the surface of the bionic ligament generates heat to release stress, and then the hot air is transported to the air supply pipe 906 through the fan inlet 903 and the second electric heating pipe 905, and then the hot air is blown on the surface of the bionic ligament through the air outlet slot 907 to perform a dehumidification operation, and finally the wire take-up drum 14 at one end of the second connecting shaft 13 is driven to rotate by the second drive motor 12 to take up the wire.

[0047] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit it. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or replace some or all of the technical features therein by equivalents. These modifications or replacements do not make the essence of the corresponding technical solutions deviate from the scope of the technical solutions of the embodiments of the present invention, and they should all be included in the scope of the claims and specification of the present invention.

Claims

1. A bionic ligament non-destructive auxiliary device based on microwave technology, comprising a housing (1), characterized in that: A guide plate (2) is fixedly mounted on one end of the shell (1), a filter screen (3) is fixedly mounted on one end of the guide plate (2), a feeding mechanism (4) is arranged above one end of the guide plate (2), a spray mechanism (5) is arranged on one end of the guide plate (2), a microwave heating mechanism (6) is fixedly mounted on one side surface of the shell (1), support columns (7) are welded on both sides of the outer wall of the shell (1), a dehumidification mechanism (9) is arranged on the inner side of the shell (1), a heat preservation shell (10) is fixedly connected to one side of the outer wall of the shell (1), a third electric heating pipe (11) is fixedly mounted at the interlayer position of the heat preservation shell (10), a second drive motor (12) is fixedly mounted on one side surface of the heat preservation shell (10), one end of the second drive motor (12) is fixedly connected to a second connecting shaft (13), one end of the second connecting shaft (13) is sleeved and fixed with a wire take-up drum (14), and a pressure rod (15) is fixedly mounted on the inner side surface of the shell (1); The feeding mechanism (4) comprises a support plate (401), a roller (402), a wire feeding roller (403), a wire feeding drum (404) and fixing bolts (405); the support plates (401) are fixedly mounted on both sides of the surface of the guide plate (2); one end of the support plate (401) is rotatably connected to the roller (402); one end of the support plate (401) is provided with a wire feeding roller (403); one end of the wire feeding roller (403) is sleeved with a wire feeding drum (404); and both ends of the wire feeding drum (404) are threadedly connected to fixing bolts (405); The spray mechanism (5) comprises a water tank (501), a first electric heating tube (502), a water pump (503), a water pipe (504), a diverter pipe (505), a fixing ring (506), a round pipe (507) and an atomizing nozzle (508); the water tank (501) is placed at one end of the guide plate (2); the first electric heating tube (502) is arranged inside the water tank (501); a pipe on one side of the water tank (501) is connected to the water pump (503); one end of the water pump (503) is flange-connected to the water pipe (504); one end of the water pipe (504) is connected to the diverter pipe (505); one end of the diverter pipe (505) is penetrated by a fixing ring (506); the inner ring of the fixing ring (506) is fixedly connected to the round pipe (507); and the surface of the round pipe (507) is connected to the atomizing nozzle (508); The microwave heating mechanism (6) comprises a box (601), a magnetron (602), a waveguide (603), a first driving motor (604), a first connecting shaft (605) and a metal plate (606); the box (601) is fixedly mounted on the inner surface of the shell (1); the magnetron (602) is fixedly mounted in the inner compartment of the box (601); one end of the magnetron (602) is connected to the waveguide (603); the first driving motor (604) is fixedly mounted on the upper surface of the box (601); one end of the first driving motor (604) is fixedly connected to the first connecting shaft (605); and the metal plate (606) is fixedly mounted on the outer ring of the first connecting shaft (605); The dehumidification mechanism (9) comprises an outer shell (901), a top cover (902), an inlet fan (903), a partition (904), a second electric heating pipe (905), an air supply pipe (906) and an air outlet slot (907); the inner surface of the outer shell (901) is fixedly mounted with the outer shell (901); the upper surface of the outer shell (1) is fixedly mounted with the top cover (902); one end of the top cover (902) is fixedly mounted with the inlet fan (903); both sides of the inner wall of the top cover (902) are fixedly mounted with the partition (904); the surface of the partition (904) is fixedly mounted with the second electric heating pipe (905); one side of the outer shell (901) is fixedly connected with the air supply pipe (906); one end of the air supply pipe (906) is connected with the air outlet slot (907).

2. According to claim 1, a bionic ligament non-destructive auxiliary device based on microwave technology is characterized in that: Both ends of the wire feeding drum (404) are locked with the wire feeding roller (403) via fixing bolts (405), and the wire feeding roller (403) and the roller (402) are configured to rotate.

3. The bionic ligament non-destructive auxiliary device based on microwave technology according to claim 1 is characterized in that: The fixing ring (506) is fixedly mounted on one end of the guide plate (2), and the atomizing nozzles (508) are distributed at equal intervals on the inner circle of the circular tube (507).

4. The bionic ligament non-destructive auxiliary device based on microwave technology according to claim 1 is characterized in that: The shunt pipe (505) is connected to the circular pipe (507), and the fixing ring (506) and the wire feeding barrel (404) are arranged in parallel.

5. The bionic ligament non-destructive auxiliary device based on microwave technology according to claim 1 is characterized in that: The metal plate (606) is arranged obliquely on the outer ring of the first connecting shaft (605), and the position of the metal plate (606) corresponds to that of the waveguide tube (603).

6. The bionic ligament non-destructive auxiliary device based on microwave technology according to claim 1 is characterized in that: A water collecting trough (8) is placed at one end of the support column (7), and the water collecting trough (8) is located below the guide plate (2).

7. The bionic ligament non-destructive auxiliary device based on microwave technology according to claim 1 is characterized by: The upper and lower sides of the air outlet slot (907) are both openings of a conical structure, and the pressure rods (15) are irregularly distributed on the inner side of the shell (1).

8. The bionic ligament non-destructive auxiliary device based on microwave technology according to claim 1 is characterized by: The inner circle of the heat-insulating shell (10) is made of a heat-conducting plate material, and the outer surface is made of a heat-insulating plate material. A pressure rod (15) is also provided on one side of the heat-insulating shell (10).

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