A system for preparing and fixing an infrared optical fiber image bundle

Abstract

The application discloses a kind of preparation fixing systems of infrared optical fiber image transmission beam, it is related to communication technology field, platform, its top is provided with a recess;Fixed assembly, fixed assembly includes the relative sliding in recess one card and second card, control component, connect in recess, and with one card and second card connection, to drive one card and second card in recess sliding towards or away from each other.This kind of preparation fixing system of infrared optical fiber image transmission beam of the application, since it is fixed in mould inside by adopting optical fiber silk to pass through honeycomb mould, optical fiber silk is fixed effect by passing through from mould inside simultaneously, by optical fiber silk to enter into fixed assembly and be gathered again, and material is tied.

Description

Technical Field

[0001] This invention relates to the field of communication technology, and in particular to a system for preparing and fixing an infrared fiber optic image bundle. Background Technology

[0002] Passive fiber optic image bundles are used as image transmission and light guiding elements to achieve the transmission and transformation of light energy in a two-dimensional spatial distribution. The fiber optic image bundle is an integrated optical device composed of a large number of optical fibers arranged according to certain rules, featuring light weight, high flexibility, and high degrees of freedom. Furthermore, compared with traditional imaging devices such as CCD and CMOS, fiber optic image bundles can transmit images passively and in real time, realize light conversion between points, loops, lines, or other forms, and are easily coupled with CCD detectors, enabling the transmitted image to be converted into digital video for observation. Currently, due to the maturity of visible light fiber optic image bundle fabrication technology, various types of visible light fiber optic image bundles have been widely used in medicine, industry, military, and communications. With the development of infrared fiber optic image bundle research and development, it also has excellent application prospects.

[0003] Currently, a Chinese patent with publication number CN106053026B discloses a method for testing the optical efficiency of an infrared fiber optic image bundle. This method calculates the optical efficiency of the fiber optic image bundle by obtaining stable infrared radiation energy I1 from a standard blackbody and infrared radiation energy I2 output after transmission through the fiber optic image bundle. Compared to the commonly used methods for testing fiber attenuation (in dB / m) or transmittance with parallel light, this method is more intuitive, targeted, and consistent with the light transmission characteristics of optical fibers, more accurately reflecting the light transmission performance of the fiber optic image bundle. This method solves the problem of the lack of specialized instruments and devices for testing the performance of infrared fiber optic image bundles. Furthermore, the device described in this method can also be used to test other key indicators such as the regularity of fiber optic image bundle arrangement and the breakage rate.

[0004] However, during the implementation of the above technical solution, at least the following technical problems were discovered:

[0005] Bundling and arranging fiber optic cables is difficult: Currently, bundling fiber optic cables requires manually placing the material into a mold of a fixed shape, applying adhesive to the fiber bundle, and waiting for the adhesive to cure before winding the fiber bundle. During the adhesive application process, the fixed mold can only produce fiber bundles of a fixed size. If fiber optic image bundles of different sizes need to be produced, the mold must be changed, and sometimes the production line may even need to be changed. After the adhesive has cured, the fiber bundle needs to be demolded before it can be wound up, which prolongs the production cycle and reduces the amount of material produced. To address this, we propose a preparation and fixing system for infrared fiber optic image bundles. Summary of the Invention

[0006] To address the shortcomings of existing technologies, this invention provides a system for preparing and fixing infrared fiber optic image bundles, solving the technical problems of difficulty in bundling and arranging them.

[0007] To achieve the above objectives, the present invention provides the following technical solution:

[0008] An infrared fiber optic image transmission bundle preparation and fixing system, comprising:

[0009] The table has a groove No. 1 on its top; a metal column is installed under the rectangular table to support the accessories above the table.

[0010] The fixing component is installed inside the first groove;

[0011] The fixing assembly includes a first card plate and a second card plate, which are installed opposite each other. Each of the first and second card plates has a second groove on its top, and a boss is fixedly installed inside the second groove. A buckle is movably connected to the top of the boss, and the first and second card plates can slide within the first groove. The first and second card plates in the fixing assembly are hexagonal, hollowed out from the inside, and can be separated in the middle. If fiber bundles of different sizes need to be made, the first and second card plates can be moved simultaneously to adjust the size of the hollowed-out portion. After adjusting to the appropriate size, the buckle on the top of the first and second card plates is adjusted to fix them in place. The rectangular boss can be inserted into the groove on the top of the first and second card plates.

[0012] Preferably, a telescopic plate is movably installed inside the buckle, and the telescopic plate can be stretched to drive the buckle to open and close. The telescopic plate is composed of two plates, one large and one small, installed inside the buckle and connecting the two buckle sections. When not in use, it can be retracted into the buckle, and when in use, it can be extended simply by pulling it out.

[0013] Preferably, a pad is fixedly installed on one side of the top of the platform, and a honeycomb board is fixedly installed on the top of the pad. The surface of the honeycomb board has a honeycomb-shaped through hole No. 1, through which the optical fiber can pass. The honeycomb board is hexagonal with grooves of uniform size on its surface, which appear as a honeycomb when viewed from a distance. The optical fiber can pass through the grooves, which facilitates the stacking and bundling of the optical fiber.

[0014] Preferably, a third groove is provided on one side of the honeycomb plate, and slides are installed on the inner walls of both sides of the third groove. The slides are rectangular and have a fourth groove on both sides of the inner wall. The accessories and the fourth groove interlock with each other and can slide back and forth inside the groove.

[0015] Preferably, a pushing component is installed opposite to the rear of the honeycomb plate, and a slide is installed on both sides of the bottom of the pushing component. The slide is connected to the slide rail, and the slide can drive the pushing component to slide inside the slide rail. The surface of the slide is coated with lubricating oil to prevent uneven sliding or jamming during sliding.

[0016] Preferably, the surface of the pushing component has a honeycomb-shaped second through hole, and the second through hole is tapered. Because the second through hole is tapered, the optical fiber can only pass through the small hole. When the optical fiber is pulled back, it can only be stuck in the small hole to achieve the pushing effect. Because the optical fiber is made of glass through firing and drawing, it is smoother during transportation.

[0017] Preferably, a rubber ring is fixedly installed on one side of the fixing component, and a rubber tube is movably installed on one side of the rubber ring. The rubber tube can retract inside the rubber ring. When the bundled optical fiber bundle is pushed into the rubber ring, it will be pushed into the rubber tube at the same time. Because the rubber tube is larger than the bundled optical fiber bundle, it can smoothly enter the rubber tube.

[0018] Preferably, a heating device is installed on one side of the rubber ring, and a through groove of the same size as the rubber tube is opened on the surface of the heating device. The rubber tube can pass through the through groove. When the rubber tube passes through the heating device, the heating component inside the heating device will heat the rubber tube. The rubber tube will shrink when heated, thereby covering the optical fiber bundle.

[0019] Preferably, the heating machine is equipped with a heating component inside, and the tube is heated when it passes through the heating machine. The tube is hexagonal, so that the material produced can transmit images better, and the cross-section of the fiber bundle is honeycomb-shaped.

[0020] Preferably, the end of the rubber tube is wound around the surface of the roller, and a rotating shaft is installed on one side of the roller. When the rotating shaft rotates, it will drive the roller to rotate and wind up the rubber tube. The roller is equipped with a brush head, which presses the filaments one by one to ensure accuracy. After the optical fiber bundle is made, the rotating shaft will rotate and drive the roller to rotate through inertia to wind up the made optical fiber bundle, which is then stacked by a forklift.

[0021] Preferably, the honeycomb board is provided with a feeding device at the front end, and the feeding device speed controller can control the feeding speed of the optical fiber.

[0022] The beneficial effects of this invention are as follows:

[0023] 1. Because optical fibers are used to pass through the honeycomb mold and be fixed inside the mold, and the optical fibers also pass through the mold to achieve the fixing effect, and then enter the fixing component to gather the material, the technical problem of difficult binding in the existing technology is effectively solved, thus achieving the technical effect of convenient binding.

[0024] 2. Because a pushing component is used to push the material into the inside of the tube, and a temperature controller and speed controller are installed inside, the tube passes through the heating machine from inside the heating machine to heat the tube, so that the tube wraps the optical fiber bundle and then winds up the optical fiber image bundle. Therefore, the technical problem of inconvenient encasing in the existing technology is effectively solved, and the technical effect of making it more convenient to encase the optical fiber bundle is achieved. Attached Figure Description

[0025] The above description is merely an overview of the technical solution of the present invention. In order to better understand the technical means of the present invention and to implement it in accordance with the contents of the specification, the preferred embodiments of the present invention are described in detail below with reference to the accompanying drawings.

[0026] Figure 1 This is an overall structural diagram of the infrared fiber optic image transmission bundle preparation and fixing system of the present invention;

[0027] Figure 2 This is a structural diagram of the pushing component in the preparation and fixing system of an infrared fiber optic image bundle according to the present invention.

[0028] Figure 3 This is a diagram of the mounting structure of the card plate in the preparation and fixing system of an infrared fiber optic image bundle according to the present invention.

[0029] Figure 4 This is a schematic diagram of the pushing component in the preparation and fixing system of an infrared fiber optic image bundle according to the present invention.

[0030] Figure 5 This is a schematic diagram of a rubber tube passing through a heater in a system for preparing and fixing an infrared fiber optic image bundle according to the present invention.

[0031] Figure 6 This is a schematic diagram of the winding mechanism in the preparation and fixing system of an infrared fiber optic image bundle according to the present invention.

[0032] Figure 7 This is a schematic diagram of the support assembly and top pressure cylinder in the preparation and fixing system of an infrared fiber optic image bundle according to the present invention.

[0033] Figure 8 This is a schematic diagram of a movable support plate in a fixed system for preparing an infrared fiber optic image bundle according to the present invention.

[0034] Figure 9This is a schematic diagram of the snap-fit ​​support in the preparation and fixing system of an infrared fiber optic image bundle according to the present invention.

[0035] Figure 10 This is a schematic diagram of a limiting mechanism in a fabrication and fixing system for an infrared fiber optic image bundle according to the present invention.

[0036] Figure 11 This is a schematic diagram of the top pressure cylinder in the preparation and fixing system of an infrared fiber optic image bundle according to the present invention. Detailed Implementation

[0037] This application provides a system for preparing and fixing infrared fiber optic image bundles, solving the problem of difficult bundling in the prior art. By using a system where fiber optic threads pass through a honeycomb mold for fixing inside the mold, and simultaneously pass through the mold to achieve a fixing effect, the fiber optic threads are then gathered into a fixing component before the material is bundled, thus achieving convenient bundling. Furthermore, by using a pushing component to push the material into a tubing, and then having the tubing pass through a heating machine to heat it, the tubing wraps around the fiber optic bundle, and the fiber optic image bundle is then wound up, thus making the encasing and bundling of the fiber optic bundle more convenient.

[0038] Example 1

[0039] like Figure 1-11 As shown, an infrared fiber optic image transmission bundle fabrication and fixing system includes:

[0040] Table 1, with a groove No. 1 provided on its top;

[0041] The fixing assembly includes a first retaining plate 51 and a second retaining plate 52 that slide relative to each other within a first groove.

[0042] The control component is connected in the first groove and is connected to the first card plate 51 and the second card plate 52 to drive the first card plate 51 and the second card plate 52 to slide towards each other or away from each other in the first groove.

[0043] The control component includes a first bidirectional screw, which rotates in a first groove. The left-hand thread of the first bidirectional screw is threaded to a first clamping plate 51, and the right-hand thread of the first bidirectional screw is threaded to a second clamping plate 52.

[0044] A pad 2 is fixed to one side of the top of the platform 1, and a honeycomb board 3 is fixed to the top of the pad 2. The surface of the honeycomb board 3 has a honeycomb-shaped through hole No. 1 for inserting optical fibers.

[0045] The platform 1 has a third groove that communicates with the first groove. The inner walls on both sides of the third groove are provided with slides 4. The third groove and the two slides 4 form a slide, and the slide is slidably engaged with the push component 9.

[0046] The pushing component 9 is configured to cooperate with the honeycomb plate 3. The pushing component 9 is located between the honeycomb plate 3 and the fixing component. The pushing component 9 slides in the third groove. The sliding tables 10 on both sides of the pushing component 9 slide in cooperation with the two slides 4 one by one.

[0047] The surface of the pushing component 9 is provided with honeycomb-shaped No. 2 through holes, and multiple No. 2 through holes are arranged opposite to multiple No. 1 through holes. The No. 2 through holes are configured as tapered holes.

[0048] A rubber ring 6 is connected to the platform 1. The rubber ring 6 is detachably connected to a rubber tube 7, which can be retracted into the rubber ring 6.

[0049] A heating machine 8 is installed on the platform 1. The heating machine 8 has a through groove for inserting the hose 7. The heating machine 8 is equipped with a heating component to heat the hose 7 when it passes through the through groove of the heating machine 8.

[0050] The heating assembly is electrically connected to a temperature controller for adjusting the temperature at which the hose 7 is heated.

[0051] The end of the hose 7 is wound around a winding mechanism; the winding mechanism includes a roller 12, which is connected to a rotating shaft 11. The rotating shaft 11 is connected to the output end of a power motor so that it rotates under the drive of the power motor and drives the roller 12 to rotate, thereby winding the hose 7.

[0052] Example 2

[0053] like Figure 1-11 As shown, the winding mechanism further includes a support assembly 13; the support assembly 13 includes a fixed support plate 14, a movable support plate 15, a limiting mechanism 16, and a base plate 17; the fixed support plate 14 and the movable support plate 15 are fixedly fixed at both ends of the top surface of the base plate 17, and the two ends of the rotating shaft 11 are rotatably connected to the fixed support plate 14 and the movable support plate 15 respectively, and one end of the rotating shaft 11 is connected to a power motor mounted on the fixed support plate 14; the rotating shaft 11 is provided with a guide groove, and the protrusion fixed on the inner side of the roller 12 slides in the guide groove; the upper end of the limiting mechanism 16 is engaged with the outer ends of the retaining rings on both sides of the roller 12, and the two sides of the lower end of the limiting mechanism 16 are connected to the fixed support plate 14 and the movable support plate 15 respectively.

[0054] When the winding mechanism is in use, the power motor starts and drives the rotating shaft 11 to rotate. This, in turn, drives the roller 12 to rotate through the cooperation of the guide groove on the rotating shaft 11 and the protrusion on the inner side of the roller 12. When the roller 12 rotates, it winds up the rubber tube 7. The protrusion fixed on the inner side of the roller 12 slides in the guide groove, so that the relative position of the roller 12 and the rotating shaft 11 can be adjusted. This allows the position of the roller 12 to be adjusted according to the winding position during winding, preventing the rubber tube 7 from getting tangled together and improving the uniformity of winding. A limiting mechanism 16 is also provided. The upper end of the limiting mechanism 16 is engaged with the outer end of the retaining rings on both sides of the roller 12, which can limit the position of the roller 12 and can be adjusted according to the actual situation.

[0055] The movable support plate 15 includes a support plate body 151. A second bidirectional screw 152 is rotatably connected in the transverse slide at the top of the support plate body 151. Two snap-fit ​​supports 153 that slide relative to each other in the transverse slide are threaded onto the second bidirectional screw 152. Each of the two snap-fit ​​supports 153 is provided with a semi-circular snap-fit ​​groove. The two semi-circular snap-fit ​​grooves are joined together to form a circular snap-fit ​​groove, which is snapped onto the rotating shaft 11.

[0056] The structure of the movable support plate 15 allows the roller 12 mounted on the rotating shaft 11 to be easily removed, and effectively supports and limits the rotating shaft 11, resulting in good support stability; Figure 7 As shown, this is the state for supporting the rotating shaft 11. The two semi-circular slots are joined together to form a circular locking groove, which can be locked onto the rotating shaft 11. When it is necessary to remove or reinstall the roller 12, the second bidirectional screw 152 is controlled to rotate. One end of the second bidirectional screw 152 is a left-hand thread, and the other end is a right-hand thread. When the second bidirectional screw 152 rotates, it can drive the two locking supports 153 that slide relative to each other in the transverse slide to slide towards each other or away from each other, thereby controlling the two locking supports 153 to be joined or separated. When the two locking supports 153 are separated, the restriction on the rotating shaft 11 is released, and the roller 12 is easily removed from the rotating shaft 11.

[0057] The limiting mechanism 16 includes a horizontal support plate 161. Both ends of the horizontal support plate 161 are connected to the fixed support plate 14 and the support plate body 151, respectively. The middle part of the horizontal support plate 161 slides in the transverse slide of the displacement slide block 162. One end of the electric push rod 163 is fixed on the horizontal support plate 161, and the other end of the electric push rod 163 is fixed on the displacement slide block 162 to drive the displacement slide block 162 to slide on the horizontal support plate 161. A third bidirectional screw 164 is rotatably connected to the displacement slide block 162. Two opposing longitudinal clamps 165 are threadedly connected to the third bidirectional screw 164. Both longitudinal clamps 165 slide with the guide transverse shaft on the displacement slide block 162. The slots at the upper ends of the two longitudinal clamps 165 engage with the roller 12, and the two longitudinal clamps 165 block the outer side of the retaining rings on both sides of the roller 12.

[0058] In use, the limiting mechanism 16 can be engaged with the roller 12 by two longitudinal clamps 165. The two longitudinal clamps 165 block the outer sides of the retaining rings on both sides of the roller 12, thereby limiting the roller 12. After the electric push rod 163 is started, the electric push rod 163 can drive the displacement slide 162 to slide on the horizontal support plate 161, thereby controlling the two longitudinal clamps 165 to drive the roller 12 to move in the left and right directions, so that the hose 7 can be wound around different positions on the roller 12, improving the uniformity of winding and preventing knotting; the displacement A third bidirectional screw 164 is rotatably connected to the slide 162. Two opposing longitudinal clamps 165 are threaded onto the third bidirectional screw 164. Rotating the third bidirectional screw 164 can change its contact position with the two longitudinal clamps 165, thereby causing the two longitudinal clamps 165 to slide towards each other or away from each other on the guide horizontal axis on the displacement slide 162. The distance between the two longitudinal clamps 165 can be adjusted to clamp the sides of rollers 12 of different lengths, or to adjust the tightness of the clamping of the rollers 12, so as to meet the usage requirements of different situations.

[0059] One end of the horizontal support plate 161 slides within the longitudinal slide rail of the fixed support plate 14 and is slidably connected to the guide vertical shaft within the longitudinal slide rail of the fixed support plate 14; the other end of the horizontal support plate 161 slides within the guide vertical groove of the support plate body 151. A vertical connecting rod 166 is fixed on the horizontal support plate 161. The left and right sides of the top of the vertical connecting rod 166 are rotatably connected to the upper ends of two oblique connecting rods 167, and the lower ends of the two oblique connecting rods 167 are rotatably connected to two linkage sliding columns. The two linkage sliding columns slide relative to each other within two transverse guide grooves on the inner side of the support plate body 151. The two linkage sliding columns are connected to two locking supports 153, so that when the two locking supports 153 separate, the horizontal support plate 161 moves downward through the cooperation of the two oblique connecting rods 167 and the vertical connecting rod 166, thereby releasing the two longitudinal clamps 165 from locking and limiting the roller 12.

[0060] When the two snap-fit ​​supports 153 separate, they move away from each other in the transverse slide rail at the top of the support plate body 151. This causes the lower ends of the two inclined connecting rods 167 to move away from each other outwards via the two linkage sliding pins. The upper ends of the two inclined connecting rods 167 drive the vertical connecting rod 166 to move downwards, which in turn drives the horizontal support plate 161 to move downwards. When the horizontal support plate 161 moves downwards, it drives the two longitudinal clamps 165 to move downwards via the third bidirectional screw 164 and the guide horizontal shaft. At this time, the two longitudinal clamps 165 release their snap-fit ​​limit on the roller 12, making it easier to disassemble or install the roller 12. Conversely, when the snap-fit ​​supports 153 are connected, the two longitudinal clamps 165 can be simultaneously connected to both ends of the roller 12, making the operation convenient and highly practical.

[0061] Each of the longitudinal clamps 165 is slidably fitted with a supporting crossbar 168 in the middle. The outer end of the supporting crossbar 168 is fixed with a first side stop. A tension spring is fixed between the first side stop and the longitudinal clamp 165. The inner end of the supporting crossbar 168 is slidably fitted with a supporting vertical bar 169. The lower end of the supporting vertical bar 169 is fixed with a second side stop. A tension spring is fixed between the second side stop and the supporting crossbar 168. A limiting ring 1610 is fixed at the upper end of the supporting crossbar 168. The limiting ring 1610 is sleeved in the annular groove 185 of the top pressure cylinder 18. The outer annular surface of the limiting ring 1610 is coplanar with the outer cylindrical surface of the top pressure cylinder 18. The top pressure cylinder 18 presses against the cylinder body of the roller 12 located between the two side stop rings.

[0062] The top pressure cylinder 18 is used to press against the rubber tube 7 wound on the roller 12, making the winding of the rubber tube 7 tighter and preventing the rubber tube 7 from loosening during the winding process. The top pressure cylinder 18 is connected to the limiting ring 1610 of the two longitudinal clamps 165 and can rotate within the limiting ring 1610. It can rotate when winding the rubber tube 7, and the frictional resistance between it and the rubber tube 7 is small, which does not affect the winding of the rubber tube 7 and reduces frictional damage to the outer surface of the rubber tube 7. The lower end of the supporting vertical rod 169 is fixed with a second side stop, and a tension spring is fixed between the second side stop and the supporting horizontal rod 168. When more and more rubber tube 7 is wound on the roller 12, the limiting ring 1610 can drive the supporting vertical rod 169 to move away from the roller 12 on the supporting horizontal rod 168 and stretch the tension spring. The tension spring keeps the top pressure cylinder 18 in close contact with the rubber tube 7 on the roller 12.

[0063] The top-pressure cylinder 18 includes a left cylinder 181, a right cylinder 182, a multi-faceted slide rod, a guide tube, and a tension spring; multiple left arc-shaped inserts 183 of the left cylinder 181 slide within multiple right arc-shaped slots of the right cylinder 182; multiple right arc-shaped inserts 184 at the left end of the right cylinder 182 slide within multiple left arc-shaped slots of the left cylinder 181; both the left arc-shaped inserts 183 and the right arc-shaped inserts 184 are provided with diversion holes; the multi-faceted slide rod fixed at the center of the left cylinder 181 is inserted into the right cylinder 182. Inside the fixed guide tube, a tension spring is fixed between the inner side of the guide tube and the multi-faceted slide rod; multiple air guide holes 186 that communicate with the interior of the left cylinder 181 are evenly arranged around the annular groove 185 of the left cylinder 181. The air guide holes 186 communicate with the air supply holes on the inner annular surface of the limiting ring 1610. The air supply holes communicate with the air supply chamber inside the limiting ring 1610. The air supply chamber communicates with the air inlet chamber at the center of the supporting crossbar 168. The bottom of the air inlet chamber of the supporting crossbar 168 is connected to the cooling gas inlet pipe.

[0064] The outer end of the supporting crossbar 168 is fixed with a first side stop. A tension spring is fixed between the first side stop and the longitudinal clamp 165, making the lateral position of the limiting ring 1610 adjustable. This allows the left cylinder 181 and the right cylinder 182 to slide towards each other or away from each other via the two limiting rings 1610. When the left cylinder 181 and the right cylinder 182 slide towards each other, the size of the top pressure cylinder 18 decreases; when the left cylinder 181 and the right cylinder 182 slide away from each other, the size of the top pressure cylinder 18 increases, making it suitable for use with rollers 12 of different sizes to meet different needs. Furthermore, it maintains a relatively stable state under the elastic force of the tension spring, and supports... The bottom of the air inlet chamber of the crossbar 168 is connected to a cooling gas inlet pipe. Cooling gas can be injected into the air inlet chamber supporting the crossbar 168 through the cooling gas inlet pipe. The cooling gas can enter the air delivery chamber in the limiting ring 1610 through the air delivery chamber in the limiting ring 1610, enter the air delivery hole through the air delivery hole, enter the air guide hole 186 through the air delivery hole, and finally enter the top pressure cylinder 18. The cooling gas is then sprayed onto the surface of the hose 7 being wound through the diversion holes on the right arc-shaped slot, left arc-shaped slot, left arc-shaped insert plate 183, and right arc-shaped insert plate 184 to cool the heated hose 7 and improve the quality of the processed product.

[0065] Finally, it should be noted that the above embodiments are merely examples for clearly illustrating the present invention and are not intended to limit the implementation. Those skilled in the art will recognize that other variations or modifications can be made based on the above description. It is neither necessary nor possible to exhaustively list all possible implementations. However, obvious variations or modifications derived therefrom are still within the scope of protection of this invention.

Claims

1. A system for preparing and fixing an infrared fiber optic image bundle, characterized in that, include: The tabletop (1) has a groove No. 1 on its top; The fixing component includes a first locking plate (51) and a second locking plate (52) that slide relative to each other in a first groove. The control component is connected in the first groove and connected to the first card plate (51) and the second card plate (52) to drive the first card plate (51) and the second card plate (52) to slide towards each other or away from each other in the first groove; The control assembly includes a first bidirectional screw, which rotates in a first groove. The left-hand thread of the first bidirectional screw is threaded to a first clamping plate (51), and the right-hand thread of the first bidirectional screw is threaded to a second clamping plate (52). A pad (2) is fixed on one side of the top of the platform (1), and a honeycomb board (3) is fixed on the top of the pad (2). A honeycomb-shaped through hole No. 1 is opened on the surface of the honeycomb board (3) for inserting optical fiber wires. A rubber ring (6) is connected to the table (1). The rubber ring (6) can be detachably connected to the rubber tube (7). The rubber tube (7) can be retracted into the rubber ring (6). The end of the hose (7) is wound around the winding mechanism; the winding mechanism includes a roller (12), which is connected to a rotating shaft (11). The rotating shaft (11) is connected to the output end of a power motor so that it can rotate under the drive of the power motor and drive the roller (12) to rotate so as to wind up the hose (7). The winding mechanism also includes a support assembly (13); the support assembly (13) includes a fixed support plate (14), a movable support plate (15), a limiting mechanism (16), and a base plate (17); the upper end of the limiting mechanism (16) is engaged with the outer end of the retaining rings on both sides of the roller (12), and the two sides of the lower end of the limiting mechanism (16) are connected to the fixed support plate (14) and the movable support plate (15) respectively; the limiting mechanism (16) includes a horizontal support plate (161), the two ends of the horizontal support plate (161) are connected to the fixed support plate (14) and the support plate body (151) respectively, and the middle part of the horizontal support plate (161) slides in the transverse slide of the displacement slide (162); a third bidirectional screw (164) is rotatably connected to the displacement slide (162), and two opposing longitudinal clamps (165) are threadedly connected to the third bidirectional screw (164). Each longitudinal clamp (165) is slidably fitted with a supporting crossbar (168) in the middle. The outer end of the supporting crossbar (168) is fixed with a first side stop. A tension spring is fixed between the first side stop and the longitudinal clamp (165). The inner end of the supporting crossbar (168) is slidably fitted with a supporting vertical bar (169). The lower end of the supporting vertical bar (169) is fixed with a second side stop. A tension spring is fixed between the second side stop and the supporting crossbar (168). The upper end of the supporting crossbar (168) is fixed with a limiting ring (1610). The limiting ring (1610) is sleeved in the annular groove (185) of the top pressure cylinder (18). The outer annular surface of the limiting ring (1610) is coplanar with the outer cylindrical surface of the top pressure cylinder (18). The top pressure cylinder (18) is press-fitted onto the cylinder body of the roller (12) located between the two side stop rings. The top pressure cylinder (18) includes a left cylinder (181), a right cylinder (182), a multi-faceted slide rod, a guide tube, and a tension spring; multiple left arc-shaped inserts (183) of the left cylinder (181) slide within multiple right arc-shaped slots of the right cylinder (182); multiple right arc-shaped inserts (184) at the left end of the right cylinder (182) slide within multiple left arc-shaped slots of the left cylinder (181); both the left arc-shaped inserts (183) and the right arc-shaped inserts (184) are provided with diversion holes; the multi-faceted slide rod fixed at the center of the left cylinder (181) is inserted into the right cylinder (182)... 2) Inside the centrally fixed guide tube, a tension spring is fixed between the inner side of the guide tube and the multi-faceted slide rod; multiple air guide holes (186) that communicate with the interior of the left cylinder (181) are evenly arranged around the annular groove (185) of the left cylinder (181). The air guide holes (186) are connected to the air supply holes on the inner annular surface of the limiting ring (1610). The air supply holes are connected to the air supply chamber in the limiting ring (1610). The air supply chamber is connected to the air inlet chamber at the center of the supporting crossbar (168). The bottom of the air inlet chamber of the supporting crossbar (168) is connected to the cooling gas inlet pipe.

2. The infrared fiber optic image transmission bundle fabrication and fixing system as described in claim 1, characterized in that, The platform (1) has a third groove that communicates with the first groove. The inner walls on both sides of the third groove are provided with slides (4). The third groove and the two slides (4) form a cross-shaped slide, and the push assembly (9) slides in the cross-shaped slide.

3. The infrared fiber optic image transmission bundle fabrication and fixing system as described in claim 2, characterized in that, The pushing component (9) is configured to cooperate with the honeycomb plate (3). The pushing component (9) is located between the honeycomb plate (3) and the fixing component. The pushing component (9) slides in the third groove. The sliding tables (10) on both sides of the pushing component (9) slide in cooperation with the two slides (4).

4. The infrared fiber optic image transmission bundle fabrication and fixing system as described in claim 3, characterized in that, The surface of the pushing component (9) is provided with honeycomb-shaped No. 2 through holes, and multiple No. 2 through holes are arranged opposite to multiple No. 1 through holes. The No. 2 through holes are configured as tapered holes.

5. The infrared fiber optic image transmission bundle fabrication and fixing system as described in claim 1, characterized in that, A heating machine (8) is installed on the platform (1). The heating machine (8) has a through groove for inserting the hose (7). The heating machine (8) is equipped with a heating component to heat the hose (7) when it passes through the through groove of the heating machine (8).

6. The infrared fiber optic image transmission bundle preparation and fixing system as described in claim 5, characterized in that, The heating assembly is electrically connected to a temperature controller for adjusting the temperature at which the hose (7) is heated.

7. The infrared fiber optic image transmission bundle fabrication and fixing system as described in claim 1, characterized in that, The fixed support plate (14) and the movable support plate (15) are fixed at both ends of the top surface of the base plate (17). The two ends of the rotating shaft (11) are rotatably connected to the fixed support plate (14) and the movable support plate (15) respectively. One end of the rotating shaft (11) is connected to the power motor installed on the fixed support plate (14). The rotating shaft (11) is provided with a guide groove, and the protrusion fixed on the inner side of the roller (12) slides in the guide groove.

8. The infrared fiber optic image transmission bundle fabrication and fixing system as described in claim 7, characterized in that, The movable support plate (15) includes a support plate body (151). A second bidirectional screw (152) is rotatably connected in the transverse slide at the top of the support plate body (151). Two snap-fit ​​supports (153) that slide relative to each other in the transverse slide are threaded onto the second bidirectional screw (152). Both snap-fit ​​supports (153) are provided with semi-circular slots. The two semi-circular slots are joined together to form a circular snap-fit ​​groove, which is snapped onto the rotating shaft (11).

9. The infrared fiber optic image transmission bundle fabrication and fixing system as described in claim 8, characterized in that, One end of an electric push rod (163) is fixed on a horizontal support plate (161), and the other end of the electric push rod (163) is fixed on a displacement slide (162) to drive the displacement slide (162) to slide on the horizontal support plate (161); two longitudinal clamps (165) are slidably engaged with the guide horizontal shaft on the displacement slide (162); the slots at the upper ends of the two longitudinal clamps (165) are engaged on the roller (12), and the two longitudinal clamps (165) are blocked on the outside of the retaining rings on both sides of the roller (12).

10. The infrared fiber optic image transmission bundle preparation and fixing system as described in claim 9, characterized in that, One end of the horizontal support plate (161) slides within the longitudinal slide of the fixed support plate (14) and is slidably connected to the guide vertical shaft within the longitudinal slide of the fixed support plate (14); the other end of the horizontal support plate (161) slides within the guide vertical groove of the support plate body (151), and a vertical connecting rod (166) is fixed on the horizontal support plate (161). The left and right sides of the top of the vertical connecting rod (166) are rotatably connected to the upper ends of two diagonal connecting rods (167), and the two diagonal connecting rods (167) are... The lower end is rotatably connected to two linkage sliding columns. The two linkage sliding columns slide relative to each other in two horizontal guide grooves on the inner side of the support plate body (151). The two linkage sliding columns are connected to two snap-fit ​​supports (153) one by one. When the two snap-fit ​​supports (153) are separated, the horizontal support plate (161) is driven to move downward through the cooperation of two inclined connecting rods (167) and vertical connecting rods (166), so that the two longitudinal clamps (165) release the snap-fit ​​limit on the roller (12).

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