A communication connector

Abstract

The present invention relates to the field of connector technology, specifically a communication connector, including an air cooling mechanism and a pressure-resistant component, wherein the air cooling mechanism is arranged on the pressure-resistant component, a connector mechanism is arranged inside the pressure-resistant component, a conductive pole mechanism and a temperature-controlled pole mechanism are arranged inside the connector mechanism; the pressure-resistant component is used to provide anti-falling protection for the connector mechanism; the air cooling mechanism is used to provide temperature-controlled airflow for the internal passage of the connector mechanism; the connector mechanism includes an output connector and an input connector. By arranging a pole sleeve and a heat dissipation sleeve for slowing down micro-movement, and arranging a pole inside the pole sleeve, when the pole and the pole sleeve are in docking, once the input terminal and the output terminal form a passage, the pole sleeve will slow down the impact caused by micro-movement inside the heat dissipation sleeve, and at the same time, the pole and the pole sleeve are in a suspended state, thereby effectively improving the anti-micro-movement strength of the new communication connector.

Description

Technical Field

[0001] The present invention relates to the technical field of connectors, in particular to a communication connector. Background Art

[0002] A communication connector is a commonly used connection device for communication lines in the field of electronic engineering. It builds a bridge of communication between blocked or isolated circuits within a circuit, thereby allowing current to flow and the circuit to achieve its intended function.

[0003] At present, communication connectors have certain shortcomings in actual use. When the connector connects the two wires, the connector will be affected by the current and bear sudden acceleration and impact load at the moment of power-on. At the same time, under the interference of the high damping coefficient of the pole, the pole will easily rise. Once the environment is harsh, the pole that is impacted will micro-move, which will cause the pole contact to wear due to micro-movement. In severe cases, the pole will become loose or fall off.

[0004] In view of this, a communication connector is designed to solve the above problems. Summary of the invention

[0005] The present invention aims to solve one of the technical problems existing in the prior art or related technology.

[0006] To this end, the technical solution adopted in the present invention is: A communication connector, comprising an air cooling mechanism and a pressure-resistant component, wherein the air cooling mechanism is arranged on the pressure-resistant component, a connector mechanism is arranged inside the pressure-resistant component, and a conductive pole mechanism and a temperature-controlled pole mechanism are arranged inside the connector mechanism; the pressure-resistant component is used to provide anti-falling protection for the connector mechanism; the air cooling mechanism is used to provide temperature-controlled airflow for the internal passage of the connector mechanism; the connector mechanism comprises an output connector and an input connector, the output connector is provided with an output terminal, and the input connector is provided with an input terminal; the inner wall of the output connector is provided with uniformly distributed Four groups of temperature-controlled pole mechanisms; the inner wall of the input connector is provided with four groups of evenly distributed conductive pole mechanisms; the conductive pole mechanism includes a second base, a first neck sleeve is provided inside the second base, a transverse first guide rod is provided inside the second base and the first neck sleeve, and a pole is installed on the first guide rod; the temperature-controlled pole mechanism includes a second base, a heat dissipation sleeve is provided on the second base, a second neck sleeve is provided inside the heat dissipation sleeve, a transverse pole sleeve is provided inside the heat dissipation sleeve, and a second guide rod is provided on the pole sleeve.

[0007] In a preferred example, the present invention can be further configured as follows: the holes on the inner walls of the output connector and the input connector are both provided with exhaust bins and moisture-proof pads, and a hollow cavity is provided inside the exhaust bins; The exhaust bin is provided with an air pipe; A moisture-proof medium is arranged inside the moisture-proof pad; The temperature control pole mechanism also includes a second flow tube; The conductive electrode column mechanism also includes a first flow tube; The pipelines of the second flow pipe and the first flow pipe penetrate into the moisture-proof medium and penetrate into the interiors of the two exhaust bins.

[0008] In a preferred example, the present invention can be further configured as follows: the pressure-resistant assembly includes a first reinforcement sleeve and a second reinforcement sleeve, the bottoms of the first reinforcement sleeve and the second reinforcement sleeve are both provided with air ducts, and the interior of the air duct is provided with an inner pad; The air cooling mechanism comprises a hood arranged in the air duct, a top filter is arranged at the top of the hood, and a bottom filter is arranged at the bottom of the hood; A fresh air component for continuously inputting temperature-controlled airflow is arranged inside the hood.

[0009] In a preferred example, the present invention can be further configured as follows: the pressure-resistant component further includes four clamps; Four symmetrically distributed card slots are provided in the rectangular plate surfaces of the first reinforcement sleeve and the second reinforcement sleeve, and the card adapter is snapped into the card slots of the two rectangular plate surfaces to further improve the anti-detachment protection of the connector mechanism.

[0010] In a preferred example, the present invention can be further configured as follows: the air cooling mechanism further includes two clamps arranged on the first reinforcement sleeve and the second reinforcement sleeve, a chassis is arranged inside the two clamps, a micro motor is arranged inside the chassis, and two sets of symmetrically distributed cross frames are installed outside the chassis; The micro motor is connected with a transmission belt.

[0011] In a preferred example, the present invention can be further configured as follows: the fresh air component is installed in a sleeve inside the top filter, a bearing is installed inside the sleeve, a shaft rod is arranged inside the bearing, and an impeller is arranged on the shaft rod; The outer end of the transmission belt is transmission-connected to the shaft rod.

[0012] In a preferred example, the present invention can be further configured as follows: the connector mechanism further includes two built-in terminals, one of which is arranged in the output connector, and the other is arranged in the input connector; Four first guide rods are connected to one of the built-in terminals; The four second guide rods are connected to another built-in terminal.

[0013] In a preferred example, the present invention can be further configured as follows: the conductive electrode column mechanism further includes a first base; The temperature control pole mechanism also includes a second base; The first base and the second base are both made of thickened stainless steel material. The first base is fixedly mounted on the inner wall of the input connector, and the second base is fixedly mounted on the inner wall of the output connector.

[0014] In a preferred example, the present invention can be further configured as follows: fins are provided inside the first neck sleeve and the second neck sleeve, and the first neck sleeve is used to quickly dissipate heat for the first guide rod, while the second neck sleeve is used to quickly dissipate heat for the second guide rod.

[0015] In a preferred example, the present invention can be further configured as follows: the inner wall of the outer end of the pole ferrule is provided with symmetrically distributed protrusions, and the inner end of the pole is provided with grooves adapted to the two protrusions.

[0016] By adopting the above technical solution, the beneficial effects achieved by the present invention are: 1. The present invention provides a pole sleeve and a heat dissipation sleeve for slowing down micro-motion, and a pole is provided inside the pole sleeve. When the pole and the pole sleeve are butted, once a passage is formed between the input terminal and the output terminal, the pole sleeve will slow down the impact caused by micro-motion inside the heat dissipation sleeve. At the same time, the pole and the pole sleeve are in a suspended state, thereby effectively improving the anti-micro-motion strength of the novel communication connector.

[0017] 2. The present invention respectively arranges a first reinforcement sleeve and a second reinforcement sleeve on the output connector and the input connector to enhance the pressure protection, and arranges an air duct at the bottom of the reinforcement sleeve. At this time, the inner pad arranged in the air duct can cooperate with the two filters to remove impurities and dehumidify the input air. Finally, the two dry airflows inside the input and output connectors and the input connector can perform temperature control protection on the pole and the pole ferrule, thereby reducing the impact of external humid airflow on the connector, thereby improving the protection of high output lines.

[0018] 3. The present invention arranges moisture-proof pads on the inner walls of the output terminal and the input terminal. When the outside temperature is extreme, as the pole and the pole sleeve change from a heated state to a suddenly cooled state, the water mist condensed on the pole or the pole sleeve can be treated by moisture absorption by the moisture-proof pad under the action of the temperature. According to the requirements of use, the moisture-proof pad can also be set as a heating pad. The heating pad is heated by lowering the temperature in a suddenly cooled environment. At this time, quick-connect protection can be provided for the connector to avoid the influence of the plug-in force and the card force between the pole and the pole sleeve due to the low temperature. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a front schematic diagram of the present invention; Figure 2 It is a three-dimensional schematic diagram of the present invention; Figure 3It is a local dispersion schematic diagram of the present invention; Figure 4 It is a schematic diagram of the explosion of the pressure-resistant component of the present invention; Figure 5 It is an exploded schematic diagram of the air cooling mechanism of the present invention; Figure 6 It is an enlarged schematic diagram of the fresh air component of the present invention; Figure 7 is a schematic diagram of the connector mechanism of the present invention; Figure 8 is a cross-sectional schematic diagram of the output connector of the present invention; Fig. 9 It is a schematic diagram of the temperature control pole mechanism of the present invention; Fig.10 For the present invention Fig. 9 The enlarged schematic diagram of point A in the middle; Fig.11 For the present invention Fig. 9 The enlarged schematic diagram of point B in the middle; Fig.12 A schematic diagram of a cross section of an input joint of the present invention; Fig.13 It is a schematic diagram of the conductive electrode column mechanism of the present invention.

[0020] Reference numerals: 100, compression-resistant assembly; 110, first reinforcement sleeve; 120, second reinforcement sleeve; 130, clamp; 140, air duct; 150, inner pad; 200, air cooling mechanism; 210, fixture; 220, chassis; 230, micro motor; 240, cross frame; 250, hood; 260, top filter; 270, bottom filter; 280, fresh air assembly; 281, bushing; 282, bearing; 283, shaft; 284, impeller; 290, transmission belt; 300, connector mechanism; 310, output connector; 320, output terminal; 330, input connector; 340, input terminal; 350, built-in terminal; 360, exhaust chamber; 370, moisture-proof pad; 380, air pipe; 400, conductive pole mechanism; 410, first base; 420, second base; 430, first neck sleeve; 440, first guide rod; 450, pole; 460, first flow tube; 500, temperature control pole mechanism; 510, second base; 520, second pedestal; 530, heat dissipation sleeve; 540, second neck sleeve; 550, pole clamping sleeve; 560, second guide rod; 570, second flow tube. DETAILED DESCRIPTION

[0021] To make the purpose, technical solution and advantages of the present invention more clear, the present invention is further described in detail below in combination with specific implementations and with reference to the accompanying drawings. It should be noted that the embodiments of the present invention and the features in the embodiments can be combined with each other without conflict.

[0022] It is to be understood that these descriptions are exemplary only and are not intended to limit the scope of the invention.

[0023] A communication connector provided by some embodiments of the present invention will be described below in conjunction with the accompanying drawings. Embodiment 1:

[0024] Combination Figure 1-Figure 13 As shown, a communication connector provided by the present invention includes an air cooling mechanism 200 and a pressure-resistant component 100, the air cooling mechanism 200 is arranged on the pressure-resistant component 100, a connector mechanism 300 is arranged in the pressure-resistant component 100, a conductive pole mechanism 400 and a temperature-controlled pole mechanism 500 are arranged in the connector mechanism 300, the pressure-resistant component 100 is used to provide anti-falling protection for the connector mechanism 300, the air cooling mechanism 200 is used to provide a temperature-controlled airflow for the internal passage of the connector mechanism 300, the connector mechanism 300 is used to provide a connection carrier for the communication line, and the conductive pole mechanism 400 and the temperature-controlled pole mechanism 500 are used to form a passage for two lines.

[0025] The pressure-resistant assembly 100 includes a first reinforcement sleeve 110, a second reinforcement sleeve 120 and four clamps 130. The bottoms of the first reinforcement sleeve 110 and the second reinforcement sleeve 120 are both provided with an air duct 140, and the interior of the air duct 140 is provided with an inner pad 150. Four symmetrically distributed card slots are provided in the rectangular plate surface of the first reinforcement sleeve 110 and the second reinforcement sleeve 120, and the card member 130 is adapted to be carded in the card slots of the two rectangular plate surfaces, so as to further improve the anti-drop protection of the connector mechanism 300; The air cooling mechanism 200 includes a hood 250 disposed in the air duct 140, a top filter 260 is disposed at the top of the hood 250, and a bottom filter 270 is disposed at the bottom of the hood 250; A fresh air assembly 280 for continuously inputting temperature-controlled airflow is disposed inside the hood 250; The connector mechanism 300 includes an output connector 310 and an input connector 330 . The output connector 310 is provided with an output terminal 320 , and the input connector 330 is provided with an input terminal 340 . The inner wall of the output connector 310 is provided with four sets of temperature control pole mechanisms 500 which are evenly distributed; The inner wall of the input connector 330 is provided with four groups of conductive electrode column mechanisms 400 which are evenly distributed; The conductive pole mechanism 400 includes a second base 420, a first neck sleeve 430 is disposed inside the second base 420, a horizontal first guide rod 440 is disposed inside the second base 420 and the first neck sleeve 430, and a pole 450 is mounted on the first guide rod 440; The temperature control pole mechanism 500 includes a second base 520, a heat dissipation sleeve 530 is arranged on the second base 520, a second neck sleeve 540 is arranged inside the heat dissipation sleeve 530, a horizontal pole sleeve 550 is arranged inside the heat dissipation sleeve 530, and a second guide rod 560 is arranged on the pole sleeve 550; The inner wall of the outer end of the pole sleeve 550 is provided with symmetrically distributed protrusions, and the inner end of the pole 450 is provided with grooves adapted to the two protrusions.

[0026] Since the connector is easily disturbed during actual use, many of which are caused by improper operation and harsh environment. When the connector forms a docking path, the moment the line is energized, the poles will suddenly relax or fall off due to the sudden acceleration and impact load. At the same time, as the pole damping increases, the pole temperature rises due to continuous operation, and micro-motion occurs due to the above problems and environmental factors. As the micro-motion increases, the poles will be over-worn and loose, which will cause micro-motion corrosion on the contacts, and in severe cases, damage to the poles.

[0027] When the connector is in use, the output terminal 320 is pre-connected with the output connector 310, and the input terminal 340 is pre-connected with the input connector 330, and then the four groups of conductive electrode mechanisms 400 evenly distributed on the inner wall of the input connector 330 are inserted into the four groups of temperature-controlled electrode mechanisms 500. At this time, the pole 450 and the pole clamp 550 can be quickly clamped, and the protrusion on the inner wall of the outer end of the pole clamp 550 can clamp the groove at the inner end of the pole 450. When the output terminal 320 and the input terminal 340 are energized and a passage is formed through the pole 450 and the pole clamp 550, the moment when the micro-motion between the pole 450 and the pole clamp 550 is generated can be slowed down in the inner cavity of the heat dissipation sleeve 530 until it is offset; As the micro motor 230 is started, its internal transmission shaft will drive the transmission belt 290 until the two shafts 283 are driven. At this time, the two impellers 284 installed on the two shafts 283 will continue to suck the outside air into the air duct 140. After being filtered by the top filter 260 and the bottom filter 270, the two dry air flows that have been treated by the moisture absorption of the inner pad 150 can be transferred to the cavity formed by the output connector 310 and the input connector 330. Finally, the four sets of temperature control pole mechanisms 500 and the four sets of conductive pole mechanisms 400 that are evenly distributed can obtain continuous temperature control protection. Therefore, the device can improve the anti-detachment strength of the novel connector while preventing the pole 450 and the pole ferrule 550 from fretting corrosion. Embodiment 2:

[0028] Combination Figure 4-Figure 6 As shown, based on Example 1, the air cooling mechanism 200 also includes two clamps 210 arranged on the first reinforcement sleeve 110 and the second reinforcement sleeve 120, a chassis 220 is arranged in the two clamps 210, a micro motor 230 is arranged inside the chassis 220, and two sets of symmetrically distributed cross frames 240 are installed on the outside of the chassis 220.

[0029] Preferably, a heat dissipation slot is provided inside the chassis 220 , the chassis 220 and the two sets of cross frames 240 are made of insulating plastic, and the clamp 210 can be fixed to two rectangular panels in the first reinforcement sleeve 110 and the second reinforcement sleeve 120 by bolts.

[0030] The micro motor 230 is connected to a transmission belt 290; The fresh air assembly 280 is installed in a sleeve 281 inside the top filter 260, a bearing 282 is installed inside the sleeve 281, a shaft 283 is arranged inside the bearing 282, and an impeller 284 is arranged on the shaft 283; The outer end of the transmission belt 290 is drivingly connected to the shaft 283 .

[0031] Preferably, the bottom end of the transmission shaft in the micro motor 230 and the bottom end of the shaft 283 are both provided with an auxiliary wheel; When the micro motor 230 is started, the driven transmission belt 290 can transmit the two tightened shafts 283. At this time, the two impellers 284 can deliver air at the same speed and constant pressure in the inner cavities of the two machine covers 250 to ensure that the heat generated by the pole 450 and the pole sleeve 550 can be discharged in time after the two air flows are convected. Embodiment three:

[0032] Combination Figure 7-Figure 13 As shown, based on the embodiment 1, the connector mechanism 300 further includes two built-in terminals 350, wherein one built-in terminal 350 is disposed in the output connector 310, and the other built-in terminal 350 is disposed in the input connector 330; Four first guide rods 440 are connected to one of the built-in terminals 350; The four second guide rods 560 are connected to another built-in terminal 350 .

[0033] Preferably, the four first guide rods 440 are connected to the wire in the input terminal 340 through a built-in terminal 350, and the four second guide rods 560 are connected to the wire in the output terminal 320 through another built-in terminal 350. When the pole 450 and the pole sleeve 550 are plugged in, the above-mentioned components can form a passage, thereby improving the anti-pull strength of the pole 450 and the pole sleeve 550 while increasing the heat exchange range of the pole 450 and the pole sleeve 550.

[0034] The holes on the inner walls of the output connector 310 and the input connector 330 are both provided with an exhaust bin 360 and a moisture-proof pad 370 , and a hollow cavity is provided inside the exhaust bin 360 ; The exhaust bin 360 is provided with an air pipe 380; The moisture-proof pad 370 is provided with a moisture-proof medium inside; The temperature control pole mechanism 500 also includes a second flow tube 570; The conductive electrode column mechanism 400 further includes a first flow tube 460; The pipes of the second flow pipe 570 and the first flow pipe 460 penetrate into the moisture-proof medium and penetrate into the interiors of the two exhaust bins 360 .

[0035] Preferably, according to actual use requirements, the moisture-proof pad 370 can also be replaced by a semiconductor cooling sheet or a heating pad; When the semiconductor cooling sheet is used instead of the moisture-proof pad 370, the connector can be used under extremely high temperature conditions; When a heating pad is used instead of the moisture-proof pad 370, the connector can be used at extremely low temperatures. Embodiment 4:

[0036] Combination Figure 8-Figure 13 As shown, in the above embodiment, the conductive electrode column mechanism 400 further includes a first base 410; The temperature control pole mechanism 500 also includes a second base 510; The first base 410 and the second base 510 are both made of thickened stainless steel material. The first base 410 is fixedly mounted on the inner wall of the input connector 330 , and the second base 510 is fixedly mounted on the inner wall of the output connector 310 .

[0037] Preferably, the four first bases 410 and the four second bases 510 are directly fixedly mounted on the inner walls of the input connector 330 and the output connector 310, respectively. When the pole 450 and the pole ferrule 550 are plugged in, the anti-pull and anti-detachment strength of the first base 410 and the second base 510 can be improved.

[0038] Fins are disposed inside the first neck sleeve 430 and the second neck sleeve 540 . The first neck sleeve 430 is used to quickly dissipate heat for the first guide rod 440 , while the second neck sleeve 540 is used to quickly dissipate heat for the second guide rod 560 .

[0039] Preferably, the second guide rod 560 is fixed by the second neck sleeve 540, and the first guide rod 440 is fixed by the first neck sleeve 430. At this time, the second guide rod 560 and the first guide rod 440 that are suspended and clamped can provide an orderly temperature control path for the connected pole 450 and the pole sleeve 550. The two dried air flows can be accompanied by the heat exchange of the second guide rod 560 and the inner wall fins of the first neck sleeve 430, thereby ensuring that the pole 450 and the pole sleeve 550 can offset the micro-motion corrosion while reducing the high temperature corrosion caused by high temperature to their contact parts.

[0040] Working principle and use process of the present invention: The communication connector is also called a connector, a plug and a socket, which is mainly a component for connecting communication lines to transmit current or signals; At present, the performance of communication connectors is not only affected by their own quality, but also by a series of failures caused by improper operation and interference from environmental factors; In order to improve the hardness and strength of electric shock, conventional communication connectors increase the damping coefficient of the connector joint. When the poles are connected, the interference of environmental factors will cause high temperature between the poles, which will affect the normal operation of the communication line. In this state, thermal expansion will occur between the poles, and the strength and hardness of the contacts will decrease. In severe cases, micro-motion corrosion will occur on the connection surface of the poles in the connector. When the locking strength of the connector is not enough, the interference of micro-motion will cause the connector to loosen or detach. The output terminal 320 is pre-connected with the threaded section outside the output connector 310, and the input terminal 340 is pre-connected with the threaded section outside the input connector 330, and then four evenly distributed poles 450 are inserted into the inner cavities of the four pole sleeves 550, at which time the poles 450 and the pole sleeves 550 are in a connected state, and the first guide rod 440, the pole 450, the pole sleeve 550 and the second guide rod 560 form a passage; The first reinforcement sleeve 110 and the second reinforcement sleeve 120 provided on the output connector 310 and the input connector 330 are clamped together by four clamps 130. At this time, the combined first reinforcement sleeve 110, the second reinforcement sleeve 120 and the four clamps 130 can fix the output connector 310 and the input connector 330 after docking. At this time, the pressure-resistant assembly 100 as a whole can fix and lock the output connector 310 and the input connector 330 after docking. Next, the two clamps 210 need to be assembled on the first reinforcement sleeve 110 and the second reinforcement sleeve 120. At this time, the chassis 220 set in the two clamps 210 will be located in the gap between the first reinforcement sleeve 110 and the second reinforcement sleeve 120, and the top ends of the two covers 250 will be respectively clamped in the inside of the two air ducts 140. At this time, the inner cavities of the two covers 250 will be connected with the inner cavities of the air ducts 140. When the output terminal 320 and the input terminal 340 are powered on and the chassis 220 is in operation, the micro motor 230, its internal transmission shaft and the rotating wheel at the bottom thereof will be The transmission belt 290 is driven, and the two ends of the transmission belt 290 drive the two shafts 283. At this time, the two 384 set on the two shafts 283 will suck the outside air into the inner cavity of the hood 250. At this time, the outside air can be filtered by the bottom filter 270 and the top filter 260 in turn. The impurity-free air will be filtered by the inner pad 150 to be input into the air pipe 380 and the exhaust bin 360. Finally, the two air flows entering from the two air pipes 140 will be transferred from the four second flow pipes 570 and the four first flow pipes 460. One of the airflows will pass through the second base 520 and the second neck sleeve 540 and be input into the inner cavity of the pole sleeve 550 and the heat dissipation sleeve 530, while the other airflow will pass through the second base 420 and the first neck sleeve 430 and finally blow toward the pole 450. At this time, the two airflows forming convection can perform large-area temperature control protection on the surface other than the contact between the pole 450 and the pole sleeve 550, and the heat flow generated by the pole 450 and the pole sleeve 550 will be released outward from the notches inside the output connector 310 and the input connector 330 under the blowing of the two convection gases. At this time, the pole 450 and the pole sleeve 550 in the docking state can avoid micro-movement caused by heat energy generated by the passage, and at the same time avoid the problem of loosening and separation of the pole 450 and the pole 450 under sudden acceleration and impact load. In addition, a certain gap is arranged between the pole ferrule 550 and the heat dissipation sleeve 530. When the pole 450 and the pole ferrule 550 are docked and micro-movement occurs under the action of temperature rise, sudden acceleration or impact load, the pole ferrule 550 can be cushioned in the inner cavity of the heat dissipation sleeve 530. At the same time, the two protrusions arranged on the inner wall of the outer end of the pole ferrule 550 are clamped with the two grooves at the root of the pole 450, thereby reducing the amplitude of the micro-movement, thereby effectively avoiding the influence of environmental factors due to temperature, sudden acceleration and impact load, and then causing micro-movement corrosion and separation of the pole 450 and the pole ferrule 550.

[0041] Although the embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the claims and their equivalents.

Claims

1. A communication connector, comprising an air cooling mechanism (200), characterized in that: It also comprises a pressure-resistant component (100), the air cooling mechanism (200) being arranged on the pressure-resistant component (100), a connector mechanism (300) being arranged in the pressure-resistant component (100), and a conductive pole mechanism (400) and a temperature-controlled pole mechanism (500) being arranged in the connector mechanism (300); The pressure-resistant component (100) is used to provide anti-falling protection for the connector mechanism (300); The air cooling mechanism (200) is used to provide a temperature-controlled airflow for an internal passage of the connector mechanism (300); The connector mechanism (300) comprises an output connector (310) and an input connector (330); the output connector (310) is provided with an output terminal (320), and the input connector (330) is provided with an input terminal (340); The inner wall of the output connector (310) is provided with four sets of temperature control pole mechanisms (500) evenly distributed; The inner wall of the input connector (330) is provided with four groups of conductive electrode column mechanisms (400) that are evenly distributed; The conductive electrode column mechanism (400) comprises a second base (420), a first neck sleeve (430) is arranged inside the second base (420), a first horizontal guide rod (440) is arranged inside the second base (420) and the first neck sleeve (430), and a pole (450) is mounted on the first guide rod (440); The temperature-controlled pole mechanism (500) comprises a second base (520), a heat dissipation sleeve (530) is arranged on the second base (520), a second neck sleeve (540) is arranged inside the heat dissipation sleeve (530), a horizontal pole clamping sleeve (550) is arranged inside the heat dissipation sleeve (530), and a second guide rod (560) is arranged on the pole clamping sleeve (550).

2. A communication connector according to claim 1, characterized in that: Holes on the inner walls of the output connector (310) and the input connector (330) are provided with an exhaust bin (360) and a moisture-proof pad (370), and a hollow cavity is provided inside the exhaust bin (360); The exhaust bin (360) is provided with an air pipe (380); A moisture-proof medium is arranged inside the moisture-proof pad (370); The temperature-controlled pole mechanism (500) further includes a second flow tube (570); The conductive electrode column mechanism (400) further includes a first flow tube (460); The pipes of the second flow pipe (570) and the first flow pipe (460) penetrate into the moisture-proof medium and penetrate into the interiors of the two exhaust bins (360).

3. A communication connector according to claim 1, characterized in that: The pressure-resistant assembly (100) comprises a first reinforcement sleeve (110) and a second reinforcement sleeve (120); the bottoms of the first reinforcement sleeve (110) and the second reinforcement sleeve (120) are both provided with air ducts (140); and the interior of the air ducts (140) is provided with inner pads (150); The air cooling mechanism (200) comprises a hood (250) arranged in the air duct (140), a top filter (260) being arranged at the top of the hood (250), and a bottom filter (270) being arranged at the bottom of the hood (250); A fresh air component (280) for continuously inputting temperature-controlled airflow is arranged inside the hood (250).

4. A communication connector according to claim 3, characterized in that: The pressure-resistant assembly (100) further comprises four clamping members (130); Four symmetrically distributed slots are provided in the rectangular plate surfaces of the first reinforcement sleeve (110) and the second reinforcement sleeve (120), and the clamping member (130) is adapted to be clamped in the two rectangular plate surface slots, so as to further improve the anti-detachment protection of the connector mechanism (300).

5. A communication connector according to claim 1, characterized in that: The air cooling mechanism (200) further comprises two clamps (210) arranged on the first reinforcement sleeve (110) and the second reinforcement sleeve (120), a chassis (220) being arranged inside the two clamps (210), a micro motor (230) being arranged inside the chassis (220), and two sets of symmetrically distributed cross frames (240) being installed outside the chassis (220); The micro motor (230) is transmission-connected with a transmission belt (290).

6. A communication connector according to claim 3, characterized in that: The fresh air component (280) is installed on a shaft sleeve (281) inside the top filter (260); a bearing (282) is installed inside the shaft sleeve (281); a shaft rod (283) is arranged inside the bearing (282); and an impeller (284) is arranged on the shaft rod (283); The outer end of the transmission belt (290) is drivingly connected to the shaft rod (283).

7. A communication connector according to claim 1, characterized in that: The connector mechanism (300) further comprises two built-in terminals (350), wherein one built-in terminal (350) is arranged in the output connector (310), and the other built-in terminal (350) is arranged in the input connector (330); Four first guide rods (440) are connected to one of the built-in terminals (350); Four second guide rods (560) are connected to another built-in terminal (350).

8. A communication connector according to claim 1, characterized in that: The conductive electrode column mechanism (400) further comprises a first base (410); The temperature-control pole mechanism (500) further includes a second base (510); The first base (410) and the second base (510) are both made of thickened stainless steel material; the first base (410) is fixedly mounted on the inner wall of the input connector (330), and the second base (510) is fixedly mounted on the inner wall of the output connector (310).

9. A communication connector according to claim 1, characterized in that: The first neck sleeve (430) and the second neck sleeve (540) are provided with fins inside, and the first neck sleeve (430) is used to quickly dissipate heat for the first guide rod (440), while the second neck sleeve (540) is used to quickly dissipate heat for the second guide rod (560).

10. A communication connector according to claim 1, characterized in that: The inner wall of the outer end of the pole ferrule (550) is provided with symmetrically distributed protrusions, and the inner end of the pole (450) is provided with grooves adapted to the two protrusions.

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