Terminal communication equipment for network communication engineering

Abstract

The invention discloses terminal communication equipment for network communication engineering, and belongs to the field of terminal communication equipment.The terminal communication equipment comprises an equipment main body and a power plug, a fixing assembly is arranged on the equipment main body, an air injection assembly is arranged in the equipment main body, and the fixing assembly comprises a telescopic rod which penetrates through and is fixedly installed on the equipment main body; the number of the telescopic rods is two, a guide ring is jointly and fixedly installed between the two telescopic rods, and an elastic plugging cover is jointly and fixedly installed between the guide ring and the equipment body. The guide ring can guide the plugging and unplugging direction of the power plug, so that the damage to the equipment main body and the power plug caused by electrostatic discharge when the power plug is manually plugged and unplugged is reduced, and meanwhile, when the power plug is manually plugged and unplugged, uniform ionized gas is sprayed into the power interface, so that the equipment main body and the power plug are prevented from being damaged. The static electricity generated between the power plug and the plurality of electrode plates can be weakened in time, and the damage of the static electricity to the power plug and the equipment main body can be further reduced.

Description

Technical Field

[0001] The present invention relates to the field of terminal communication devices, and more specifically, to a terminal communication device for network communication engineering. Background Art

[0002] With the substantial increase in people's demand for information transmission and communication, as well as the continuous improvement of people's requirements for information transmission speed, stability, and security, various network devices have been rapidly developed and applied. Among them, the key role of various types of terminal devices (such as routers, switches, gateways, etc.) in network communication is becoming increasingly apparent;

[0003] When the terminal communication device needs to be used, it needs to be connected to a power supply device. When manually unplugging or plugging in the power plug, static electricity is easily generated due to the friction between the two. If the generated static electricity is large or accumulates to a certain extent, it is easy to cause electrostatic discharge, thereby causing certain damage to the terminal communication device and the power plug. Therefore, it is urgent to design a terminal communication device for network communication engineering to solve the above problems. Summary of the Invention

[0004] Aiming at the problems existing in the prior art, the purpose of the present invention is to provide a terminal communication device for network communication engineering.

[0005] To solve the above problems, the present invention adopts the following technical solutions.

[0006] A terminal communication device for network communication engineering includes a device main body and a power plug. A fixing component is arranged on the device main body, and a jet component is arranged inside the device main body;

[0007] The fixing component includes telescopic rods that penetrate and are fixedly installed on the device main body. There are two telescopic rods. A guiding ring is fixedly installed between the two telescopic rods. An elastic sealing cover is fixedly installed between the guiding ring and the device main body. A clamping mechanism is installed on the guiding ring, and an extrusion component is arranged on the guiding ring;

[0008] The jet component includes fixing grooves opened inside the device main body. There are two fixing grooves. Rubber membranes are fixedly installed on both of the two fixing grooves. Spray pipes are hermetically penetrated and fixedly installed on both of the two rubber membranes. A driving mechanism is commonly installed between the two spray pipes and the guiding ring.

[0009] Furthermore, the clamping mechanism includes an elastic pad fixedly installed on the guiding ring. A plurality of square openings are opened on the guiding ring. Clamping plates are slidably installed on the square openings, and the clamping plates penetrate and are slidably installed on the elastic pad. Sliding members are fixedly installed on the clamping plates, and a push-pull component is commonly installed between the square openings.

[0010] Further, the pushing and pulling component includes a plurality of pressing blocks fixedly installed on the device main body. Limit blocks are fixedly installed on the square openings. Fixing plates are respectively installed through and slidably on the limit blocks. A first pushing plate is fixedly installed between the fixing plates.

[0011] Chute grooves are respectively formed on the fixing plates. Sliding blocks are respectively installed slidably on the chute grooves. Limit rods matched with the corresponding sliding parts are fixedly installed on the sliding blocks. The limit rods are respectively installed through and slidably on the corresponding limit blocks. A second pushing plate is fixedly installed between the limit rods.

[0012] Further, the extrusion component includes a first placement groove formed in the guide ring. A vacuum ultraviolet lamp is fixedly installed on the first placement groove. A second placement groove is formed in the guide ring. A reflecting mirror is fixedly installed on the second placement groove. There are two reflecting mirrors. A pushing mechanism is installed on the guide ring. An air suction component is installed on the guide ring.

[0013] Further, the pushing mechanism includes a round rod fixedly installed on the device main body. There are two round rods. The two round rods are respectively installed through and slidably on the guide ring in a sealed manner. A sealing disk is installed slidably on the inner wall of the guide ring in a sealed manner. The sealing disk is respectively installed through and slidably on the two round rods. Push disks are respectively fixedly installed on the two round rods. There are two push disks. An exhaust component is installed on the guide ring.

[0014] Further, the exhaust component includes a first one-way exhaust pipe fixedly communicated with the guide ring. There are two first one-way exhaust pipes. Rubber hoses are respectively fixedly communicated between the two first one-way exhaust pipes and the corresponding jet pipes.

[0015] A second one-way exhaust pipe is fixedly communicated with the guide ring. There are two second one-way exhaust pipes. The two second one-way exhaust pipes are respectively fixedly communicated with the corresponding first one-way exhaust pipes. The two second one-way exhaust pipes and the two first one-way exhaust pipes are respectively installed through and fixedly on the device main body. Filters are respectively fixedly installed on one ends of the two first one-way exhaust pipes and the two second one-way exhaust pipes.

[0016] Further, the air suction component includes a first one-way air suction pipe fixedly communicated with the guide ring. There are two first one-way air suction pipes. A second one-way air suction pipe is fixedly communicated with the guide ring. There are two second one-way air suction pipes.

[0017] Further, the driving mechanism includes rotating shafts respectively and fixedly installed on two fixing slots. Torque springs are fixedly installed between the two rotating shafts and the corresponding fixing slots. Rotating gears are fixedly installed on the two rotating shafts. A rack bar is fixedly installed on the guiding ring. There are two rack bars, and both rack bars cooperate with the corresponding rotating gears. Both rack bars penetrate and are slidably installed on the device main body. A connecting component is jointly installed between the two rotating shafts.

[0018] Further, the connecting component includes discs respectively and fixedly installed on the two rotating shafts. Connecting blocks are fixedly installed at the lower ends of the two discs, and both connecting blocks are fixedly connected to the corresponding air jet pipes.

[0019] Further, a power supply interface is opened on the device main body, and the power supply interface communicates with the two fixing slots. A plurality of electrode plates are fixedly installed on the power supply interface. A conduit is fixedly and communicatively connected to the power supply interface. There are two conduits.

[0020] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0021] (1) In this solution, through the cooperation of the guiding ring and multiple clamping plates to guide the movement of the power plug, it is convenient for the power plug to be accurately and smoothly inserted into or unplugged from the power supply interface. This can help reduce the phenomenon of electrostatic discharge caused by excessive local friction between the power plug and the multiple electrode plates when the power plug is manually plugged and unplugged. It helps to improve the service life of the device main body and the power plug when the power plug is repeatedly plugged and unplugged manually. At the same time, through the cooperation of the fixing component and multiple clamping plates, the connection stability between the power plug and the power supply interface can be effectively improved, and it helps to reduce the situation where the power plug falls off from the power supply interface due to external force factors, resulting in electrostatic discharge.

[0022] (2) In this solution, when the power plug is manually plugged and unplugged, through the cooperation of the extrusion component and the air jet component, ionized gas can be sprayed into the power supply interface to weaken the static charges generated when the power plug is manually plugged and unplugged. This can help improve the safety when the power plug is manually plugged and unplugged, and further improve the service life of the power plug and the device main body. At the same time, through the cooperation of the air jet component and the rack bar, the uniformity of spraying ionized gas into the power supply interface by the two air jet pipes can be improved, which helps to ensure the weakening effect of the ionized gas on the static charges accumulated inside the power supply interface. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 is a schematic structural diagram of the present invention;

[0024] Figure 2 is Figure 1 exploded view of;

[0025] Figure 3 The structural schematic diagram of part A in Figure 2 ;

[0026] Figure 4 The structural schematic diagram of the component on the guide ring in Figure 2 ;

[0027] Figure 5 The sectional view schematic diagram of the guide ring in Figure 4 ;

[0028] Figure 6 The structural schematic diagram of the fixing component in Figure 5 ;

[0029] Figure 7 The structural schematic diagram of the clamping mechanism in Figure 6 ;

[0030] Figure 8 The front view schematic diagram after the sectional view of the guide ring and the elastic sealing cover in Figure 4 ;

[0031] Figure 9 The three-dimensional schematic diagram of Figure 8 ;

[0032] Figure 10 The structural schematic diagram of the pushing mechanism in Figure 9 ;

[0033] Figure 11 The partial sectional view schematic diagram of the equipment main body in Figure 2 ;

[0034] Figure 12 The structural schematic diagram of the jet component in Figure 11 ;

[0035] Figure 13 The structural schematic diagram of the driving mechanism in Figure 12 ;

[0036] Description of the reference numerals in the figure:

[0037] 1. Equipment main body; 2. Power interface; 3. Electrode plate;

[0038] 4. Fixing component; 41. Telescopic rod; 42. Pressing block; 43. Guide ring; 44. Elastic sealing cover; 45. Square opening; 46. Elastic pad; 47. Limit block; 48. Fixed plate; 49. Limiting rod; 410. Clamping plate; 411. Sliding part; 412. Chute; 413. Slide block; 414. Push plate 1; 415. Push plate 2;

[0039] 5. Extrusion assembly; 51. Round rod; 52. Sealing disc; 53. Vacuum ultraviolet lamp; 54. Reflector; 55. Pushing disc; 56. One-way exhaust pipe 1; 57. One-way exhaust pipe 2; 58. Filter; 59. One-way suction pipe 1; 510. One-way suction pipe 2;

[0040] 6. Conduit;

[0041] 7. Jet assembly; 71. Fixed groove; 72. Rubber membrane; 73. Jet pipe; 74. Rack bar; 75. Rotating shaft; 76. Disc; 77. Rotating gear; 78. Torsion spring; 79. Rubber hose;

[0042] 8. Power plug. Specific implementation mode

[0043] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention; obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0044] Please refer to Figures 1 to 13 , a terminal communication device for network communication engineering, including a device main body 1 and a power plug 8. A fixing component 4 is arranged on the device main body 1, and a jet assembly 7 is arranged inside the device main body 1.

[0045] As Figure 1 - Figure 3 shown, a power interface 2 is opened on the device main body 1, and the power interface 2 is communicated with two fixed grooves 71. A plurality of electrode plates 3 are fixedly installed on the power interface 2, and a conduit 6 is fixedly communicated with the power interface 2. There are two conduits 6.

[0046] Set the other end of the power plug 8 to be connected to an existing power supply device. When power supply to the device main body 1 is required, by inserting the power plug 8 into the power interface 2 and starting the existing power supply device, the current can be introduced into the circuit system inside the device main body 1 through the cooperation of the power plug 8 and a plurality of electrode plates 3 to realize power supply to the device main body 1.

[0047] As Figure 2 - Figure 7 shown, the fixing component 4 includes telescopic rods 41 that penetrate and are fixedly installed on the device main body 1. There are two telescopic rods 41. A guide ring 43 is fixedly installed between the two telescopic rods 41. An elastic sealing cover 44 is fixedly installed between the guide ring 43 and the device main body 1. A clamping mechanism is installed on the guide ring 43, and an extrusion assembly 5 is arranged on the guide ring 43.

[0048] The clamping mechanism includes an elastic pad 46 fixedly installed on the guide ring 43. A plurality of square openings 45 are formed in the guide ring 43. Clamping plates 410 are slidably installed on the square openings 45, and the clamping plates 410 all penetrate and are slidably installed on the elastic pad 46. Sliding members 411 are fixedly installed on the clamping plates 410, and a pushing and pulling component is commonly installed between the square openings 45.

[0049] The pushing and pulling component includes a plurality of pressing blocks 42 fixedly installed on the device main body 1. Limit blocks 47 are fixedly installed on the square openings 45. Fixing plates 48 penetrate and are slidably installed on the limit blocks 47. A first push plate 414 is commonly fixedly installed between the fixing plates 48;

[0050] Chute grooves 412 are formed in the fixing plates 48. Sliding blocks 413 are slidably installed on the chute grooves 412. Limit rods 49 that cooperate with the corresponding sliding members 411 are fixedly installed on the sliding blocks 413, and the limit rods 49 all penetrate and are slidably installed on the corresponding limit blocks 47. A second push plate 415 is commonly fixedly installed between the limit rods 49.

[0051] When the power plug 8 is inserted into the power interface 2, first manually insert the front end of the power plug 8 horizontally into the inside of the guide ring 43 (in the direction shown), and then push the power plug 8 towards the power interface 2. At the same time, since the frictional force between the plurality of clamping plates 410 and the power plug 8 is relatively large at this time, the movement of the power plug 8 will drive the guide ring 43 to approach the power interface 2 together through the plurality of clamping plates 410. Figure 2 During the process of manually inserting and unplugging the power plug 8, it is easily affected by human factors, resulting in misinsertion or incorrect insertion and extraction angles, causing poor contact between the power plug 8 and the plurality of electrode plates 3 inside the power interface 2, or causing damage to both. Moreover, if the insertion and extraction angle is significantly inclined with respect to the plurality of electrode plates 3 during the process of manually inserting and unplugging the power plug 8, it is easy to increase the local friction of the contact area between the two;

[0052] The friction generated during the contact or separation of the power plug 8 and the plurality of electrode plates 3 will generate static electricity. And as the contact area between the power plug 8 and the plurality of electrode plates 3 gradually increases or gradually separates, the static charge generated between the two will gradually increase. When the static charge accumulates to a certain extent, it is easy to trigger a static discharge phenomenon, causing damage to the power plug 8, the plurality of electrode plates 3, and the internal electronic components of the device main body 1;

[0053]

[0054] ​If the local frictional force between the power plug 8 and the multiple electrode plates 3 is too large when the power plug 8 is manually plugged in or unplugged, it is likely to cause an increase in the local electrostatic field intensity, further increasing the risk of electrostatic discharge damage to the device main body 1 and the power plug 8. By guiding the moving direction of the power plug 8 through the guiding ring 43, it is convenient for the power plug 8 to be accurately and smoothly inserted into or pulled out of the power interface 2 subsequently. In this way, it can effectively improve the uniformity of the contact area and the distribution of the frictional force generated by contact between the power plug 8 and the multiple electrode plates 3 during the manual plugging in or unplugging of the power plug 8, thereby helping to reduce the damage caused by electrostatic discharge to the device main body 1 and the power plug 8 when the power plug 8 is manually plugged in or unplugged.

[0055] When the power plug 8 is manually pushed closer to the power interface 2 with the guiding ring 43, and all the multiple pressing blocks 42 enter the corresponding square openings 45 and apply a backward thrust to the corresponding fixing plates 48 (as Figure 6 shown in the direction), the multiple fixing plates 48 will be forced to drive the first push plate 414, the multiple position-limiting rods 49, and the second push plate 415 to move backward together. That is, at this time, the pressing force applied by the multiple position-limiting rods 49 to the power plug 8 through the corresponding sliding members 411 and the clamping plates 410 gradually decreases;

[0056] When the side wall of the guiding ring 43 contacts the surface of the device main body 1 and the pressing force of the multiple clamping plates 410 on the power plug 8 weakens, at this time, by increasing the manual pushing force on the power plug 8 (as Figure 6 shown in the direction), the power plug 8 can be made to pass through the guiding ring 43 until it is accurately inserted into the power interface 2.

[0057] At the same time, to further improve the connection stability between the power plug 8 and the power interface 2 during the operation of the device main body 1 and reduce the risk of the power plug 8 falling off from the power interface 2 due to the vibration force generated during the operation of the device main body 1 or external factors, the second push plate 415 can be manually pushed upward to drive the multiple position-limiting rods 49 to move back to their original positions (as Figure 7 shown in the direction, and the frictional force between the multiple limiting blocks 47 and the corresponding fixing plates 48 and position-limiting rods 49 is set to be relatively large, aiming to prevent the vibration force generated during the operation of the device main body 1 from driving the fixing plates 48 or the position-limiting rods 49 to shift relative to the corresponding limiting blocks 47), so that the upper ends of the multiple position-limiting rods 49 re-cooperate with the corresponding sliding members 411 and the clamping plates 410 to generate a uniform pressing force on the periphery of the power plug 8, thereby effectively improving the connection stability between the two after the power plug 8 is inserted into the power interface 2.

[0058] When the power plug 8 is detached from the power interface 2 due to external factors, it is easy for the uneven separation of the contact areas between the power plug 8 and multiple electrode plates 3 to cause the rapid growth of static charges generated locally, triggering an electrostatic discharge phenomenon. Therefore, by increasing the connection stability between the power plug 8 and the power interface 2, the equipment main body 1 and the power plug 8 can be protected to a certain extent, which helps to improve the service life of both.

[0059] At the same time, it is necessary to pull out the power plug 8 from the power interface 2. When the power plug 8 is manually removed from the power interface 2, at this time, due to the frictional resistance of the multiple clamping plates 410 to the movement of the power plug 8, the power plug 8 will drive the guide ring 43 to move backward together (as Figure 1 shown in the direction). When the guide ring 43 moves to the initial position, the push plate two 415 can be manually pulled downward first, so that the multiple limit rods 49 move downward (as Figure 7 shown in the direction), reducing the pressing force exerted by the limit rods 49 on the power plug 8 through the cooperation of the corresponding sliding parts 411 and the clamping plates 410. Then, by increasing the manual pulling force on the power plug 8, the power plug 8 can be removed from the inside of the guide ring 43. And then, by manually applying an upward thrust to the push plate one 414 and the push plate two 415, it is convenient for the multiple fixing plates 48 and the limit rods 49 to move back to their original positions, so as to facilitate the subsequent guiding of the movement direction of the power plug 8 by the equipment through the cooperation of the guide ring 43 and the multiple clamping plates 410.

[0060] As Figure 8 、 Figure 9 shown, the extrusion assembly 5 includes a first placement groove opened in the guide ring 43, and a vacuum ultraviolet lamp 53 is fixedly installed on the first placement groove. A second placement groove is opened in the guide ring 43, and a reflector 54 is fixedly installed on the second placement groove. There are two reflectors 54. A pushing mechanism is installed on the guide ring 43, and a suction component is installed on the guide ring 43.

[0061] When the ultraviolet light beam emitted by the operation of the vacuum ultraviolet lamp 53 irradiates the gas stored inside the guide ring 43, the ultraviolet photons can provide sufficient energy to promote the ionization reaction of the molecules (such as oxygen and nitrogen) in the gas. At the same time, the component parts inside the vacuum ultraviolet lamp 53 and the specific working principle are all existing mature technologies, and will not be further elaborated here.

[0062] At the same time, since the ultraviolet light beam emitted by the operation of the vacuum ultraviolet lamp 53 propagates in a straight line, the area inside the guide ring 43 close to the vacuum ultraviolet lamp 53 will receive more ultraviolet photons, that is, the ionization effect of this part of the gas is better, while the area far from the vacuum ultraviolet lamp 53, such as the upper and lower ends of the guide ring 43 (as Figure 8In the direction shown, fewer ultraviolet photons are received, which easily leads to a poor ionization effect of this part of the gas, and it is easy to make the ionization degree of the gas inside the guiding ring 43 uneven.

[0063] At this time, through the reflection of the ultraviolet light beam by two inclined and symmetrically arranged mirrors 54, part of the light beam emitted by the vacuum ultraviolet lamp 53 can be emitted to the upper and lower positions inside the guiding ring 43, thereby effectively improving the uniformity of the ionization of the gas stored inside the guiding ring 43 and the ionization effect of the overall gas, which helps to improve the weakening effect of the static charge intensity generated by the subsequent manual plugging and unplugging of the power plug 8 using this part of the ionized gas.

[0064] As Figure 8 - Figure 12 As shown in the figure, the pushing mechanism includes round rods 51 fixedly installed on the device main body 1. There are two round rods 51, and both of the two round rods 51 are hermetically penetrated and slidably installed on the guiding ring 43. A sealing disk 52 is hermetically slidably installed on the inner wall of the guiding ring 43, and the sealing disk 52 is hermetically penetrated and slidably installed on the two round rods 51. Pushing disks 55 are fixedly installed on both of the two round rods 51, and there are two pushing disks 55. An exhaust component is installed on the guiding ring 43.

[0065] The exhaust component includes one-way exhaust pipes one 56 fixedly communicated with the guiding ring 43. There are two one-way exhaust pipes one 56, and rubber hoses 79 are fixedly communicated between the two one-way exhaust pipes one 56 and the corresponding jet pipes 73.

[0066] One-way exhaust pipes two 57 are fixedly communicated with the guiding ring 43. There are two one-way exhaust pipes two 57, and both of the two one-way exhaust pipes two 57 are fixedly communicated with the corresponding one-way exhaust pipes one 56. The two one-way exhaust pipes two 57 and the two one-way exhaust pipes one 56 both penetrate and are fixedly installed on the device main body 1. Filters 58 are fixedly installed on one ends of the two one-way exhaust pipes one 56 and the two one-way exhaust pipes two 57.

[0067] The air suction component includes one-way air suction pipes one 59 fixedly communicated with the guiding ring 43. There are two one-way air suction pipes one 59, and one-way air suction pipes two 510 are fixedly communicated with the guiding ring 43. There are two one-way air suction pipes two 510.

[0068] From Figure 9 it can be seen that by placing the vacuum ultraviolet lamp 53 and the two mirrors 54 respectively through the placement grooves one and two opened on the guiding ring 43, it is possible to avoid the obstruction caused by the vacuum ultraviolet lamp 53 and the two mirrors 54 to the movement when the subsequent sealing disk 52 moves relative to the guiding ring 43 and squeezes the gas inside it or sucks the external gas into the guiding ring 43.

[0069] When the human hand pushes the power plug 8 and the guiding ring 43 closer to the device main body 1, that is, when the guiding ring 43 is forced to move upward (as shown in the direction in Figure 9 ), at this time, the resistance exerted by the two upper pushing disks 55 on the sealing disk 52 will cause the sealing disk 52 to squeeze the ionized gas inside the guiding ring 43 into the two one-way exhaust pipes 56 (when set to the initial state, the guiding ring 43 contains gas, and this part of the gas has been ionized by the vacuum ultraviolet lamp 53). The gas that enters the two one-way exhaust pipes 56 will ultimately be sprayed into the power interface 2 through the corresponding rubber hoses 79 and the corresponding jet pipes 73.

[0070] Meanwhile, when the power plug 8 is inserted into the guiding ring 43, through the cooperation of the guiding ring 43 and the elastic sealing cover 44, the open end of the power interface 2 can be sealed (as shown in the state in Figure 1 ). This can effectively ensure that when the two jet pipes 73 continuously spray ionized gas into the power interface 2, this part of the gas will accumulate inside the power interface 2 (the diameters of the two conduits 6 are set to be small, and the ionized gas that enters the power interface 2 enters the two conduits 6 and is discharged from the two conduits 6 at a relatively slow speed due to its own fluidity, aiming to ensure the subsequent weakening effect of the ionized gas entering the power interface 2 on the static electricity generated inside).

[0071] The elastic sealing cover 44 is specifically made of polycarbonate material. Through the high strength and toughness of polycarbonate itself, it can help improve the performance of the elastic deformation when the guiding ring 43 is forced to approach or move away from the device main body 1 and reciprocally compress and stretch the elastic sealing cover 44.

[0072] When the human hand continuously pushes the power plug 8 into the power interface 2, the contact area between the power plug 8 and the multiple electrode plates 3 gradually increases. If static electricity is generated due to friction and this part of the static charge gradually accumulates, at this time, the positive and negative ions released by the ionized gas collected inside the power interface 2 can quickly neutralize the static charges accumulated on the power plug 8 and the multiple electrode plates 3. This can achieve reducing the gradual accumulation of static electricity generated by friction when the contact area between the power plug 8 and the multiple electrode plates 3 gradually increases or decreases, and ultimately preventing the damage to the power plug 8, the multiple electrode plates 3, and the internal electronic components of the device main body 1 caused by electrostatic discharge. This helps to a certain extent to improve the service life of the device main body 1 and the power plug 8 when the human hand repeatedly plugs and unpluggs the power plug 8.

[0073] For example, when a person plugs or unpluggs the power plug 8, the power plug 8 and the surfaces of multiple electrode plates 3 carry positive static charges. At this time, the negative ions in the ionized gas gathered in the power interface 2 will be attracted by them and neutralize the positive static charges in this part, so as to reduce the static charges generated by plugging or unplugging the power plug 8 and lower the risk of electrostatic discharge. On the contrary, when the power plug 8 and the surfaces of multiple electrode plates 3 carry negative static charges, the positive ions in the ionized gas will neutralize with them.

[0074] And when a person continuously pushes the power plug 8 deeper into the power interface 2, at this time, the power plug 8 will squeeze the ionized gas inside the power interface 2 and finally squeeze this part of the gas into two conduits 6, which will be discharged through the two conduits 6, so as to extrude the excess gas contained inside the power interface 2.

[0075] At the same time, the guiding ring 43 is forced to move upward (as Figure 9 shown in the direction), and the sealing disc 52 moves downward inside the guiding ring 43. When squeezing the ionized gas at the lower end of the sealing disc 52 into the power interface 2, the suction force generated by the downward movement of the sealing disc 52 at this time can suck the outside gas into the inside of the guiding ring 43 for buffering through two one-way suction pipes II 510.

[0076] Airflow sensors are installed at both the front and rear ends inside the guiding ring 43 (not shown in the figure, and the airflow sensors are existing products and will not be elaborated further here). When the sealing disc 52 moves to suck the outside gas into the two guiding rings 43 through two one-way suction pipes I 59 or two one-way suction pipes II 510, the airflow sensors will operate to drive the vacuum ultraviolet lamp 53 to operate for a period of time until the newly entered gas inside the guiding ring 43 is all ionized.

[0077] At the same time, when a person pulls out the power plug 8 from the power interface 2 and drives the guiding ring 43 to start moving back to its original position, at this time, the obstruction of the two lower push plates 55 to the movement of the sealing disc 52 (as Figure 9 shown in the direction) will cause the sealing disc 52 to squeeze the ionized gas gathered above it into two one-way exhaust pipes II 57. This part of the gas will flow along the two one-way exhaust pipes II 57, two one-way exhaust pipes I 56 and two rubber hoses 79, and finally enter the power interface 2 through two jet pipes 73. In this way, during the gradual separation of the power plug 8 and multiple electrode plates 3, the ionized gas can be used to neutralize the static charges generated by them and reduce the intensity of static electricity generated by friction.

[0078] And when the sealing disc 52 moves upward to squeeze the gas at its upper end (as Figure 9In the shown direction), the suction force generated at its lower end can suck external gas into the guide ring 43 through two one-way suction pipes 59. After that, through the above operations, it is convenient for people to spray ionized gas into the power interface 2 in time during the process of unplugging and plugging the power plug 8, reducing the occurrence of electrostatic discharge caused by unplugging and plugging the power plug 8 and damaging the device main body 1 and the power plug 8.

[0079] At the same time, the purpose of installing filters 58 at the intake ends of the two one-way exhaust pipes 56 and the two one-way exhaust pipes 57 (that is, the ends where they are connected to the guide ring 43) is that when the vacuum ultraviolet lamp 53 irradiates air, especially ultraviolet rays with shorter wavelengths, it is easy to cause the photolysis reaction of oxygen molecules in the air to generate ozone, and ozone has certain toxicity. Therefore, through the setting of multiple filters 58, it is convenient to improve the safety of the ionized gas ejected from the guide ring 43 and reduce the damage to the bodies of surrounding operators caused by the ionized gas discharged from the subsequent two conduits 6.

[0080] Moreover, if the gas inhaled into the guide ring 43 through the one-way suction pipe 59 or the one-way suction pipe 510 contains impurities such as dust, the filter 58 can also effectively improve the cleanliness of the gas discharged from the two one-way exhaust pipes 56 and the two one-way exhaust pipes 57 into the power interface 2 (the two one-way exhaust pipes 56 and the two one-way exhaust pipes 57 are specifically elastic at the position between the guide ring 43 and the device main body 1, aiming to facilitate the movement of the guide ring 43), reducing the pollution of the dust contained in the gas to the inside of the power interface 2 and the electrode plate 3.

[0081] As Figure 11 - Figure 13 As shown, the jet assembly 7 includes fixed slots 71 opened in the device main body 1. There are two fixed slots 71, and rubber membranes 72 are fixedly installed on both of the two fixed slots 71. Jet pipes 73 are hermetically penetrated and fixedly installed on both of the two rubber membranes 72. A driving mechanism is commonly installed between the two jet pipes 73 and the guide ring 43.

[0082] The driving mechanism includes rotating shafts 75 respectively fixedly installed on the two fixed slots 71. Torsion springs 78 are fixedly installed between the two rotating shafts 75 and the corresponding fixed slots 71. Rotating gears 77 are fixedly installed on both of the two rotating shafts 75. Rack bars 74 are fixedly installed on the guide ring 43. There are two rack bars 74, and both of the two rack bars 74 cooperate with the corresponding rotating gears 77. Both of the two rack bars 74 penetrate and are slidably installed on the device main body 1. A connecting component is commonly installed between the two rotating shafts 75.

[0083] The connecting component includes discs 76 respectively and fixedly installed on two rotating shafts 75. Connecting blocks are fixedly installed at the lower ends of the two discs 76, and both connecting blocks are fixedly connected to the corresponding jet pipes 73.

[0084] When the power plug 8 is manually plugged or unplugged, the driving guide ring 43 is moved closer to or farther away from the device main body 1, and when jetting air inside the power interface 2 by cooperating with the two jet pipes 73 through the extrusion assembly 5, at this time, through the cooperation of the two rack bars 74 with the corresponding rotating gears 77 and torsion springs 78, the two rotating shafts 75 can drive the corresponding discs 76 to rotate reciprocally (as Figure 13 can be seen, the tooth blocks distributed on the rack bar 74 are spaced. Through the intermittent meshing of the tooth blocks on the rack bar 74 with the corresponding rotating gears 77, the corresponding rotating shafts 75 can be driven to rotate intermittently. When the driving force disappears, at this time, through the self-elastic force of the corresponding torsion spring 78, the rotating shaft 75 can be driven to rotate back to its original position), and during the reciprocating rotation of the two discs 76, through the driving force applied to the corresponding jet pipes 73 by the corresponding connecting blocks, the two jet pipes 73 can be driven to reciprocally rotate together to spray ionized gas inside the power interface 2;

[0085] And as Figure 12 can be seen, the two rack bars 74 and the two jet pipes 73 are symmetrically arranged. Therefore, the rotation directions of the two rotating shafts 75 driving the corresponding jet pipes 73 are opposite, so as to further improve the uniformity of the two jet pipes 73 cooperating to spray ionized gas inside the power interface 2, which helps to further improve the effect of weakening the static electricity generated by the manual plugging and unplugging of the power plug 8 by using the ionized gas gathered inside the power interface 2, and helps to further improve the service life of the device to a certain extent.

[0086] At the same time, the purpose of setting rubber hoses 79 between the two one-way exhaust pipes 56 and the corresponding jet pipes 73 is that when the two jet pipes 73 are forced to rotate reciprocally, the corresponding one-way exhaust pipes 56 can normally supply gas to the corresponding jet pipes 73 through the rubber hoses 79 that are elastically deformed by the force.

[0087] At the same time, by blocking the corresponding fixed slots 71 with the two rubber membranes 72, it is convenient for the two jet pipes 73 to spray ionized gas into the power interface 2 and gather inside the power interface 2, that is, to ensure the subsequent neutralization and weakening treatment effect of the static electricity generated by the plugging and unplugging of the power plug 8 using this part of the gas, and through the elastic characteristics of the two rubber membranes 72 themselves, it is convenient for the two jet pipes 73 to compress or stretch the corresponding rubber membranes 72 when forced to rotate reciprocally.

[0088] Usage method: When the device main body 1 needs to be powered on for use, first manually insert the front end of the power plug 8 into the inside of the guide ring 43 (as Figure 2in the shown direction), and then push the power plug 8 towards the power interface 2. At this time, due to the friction force between the multiple clamping plates 410 and the power plug 8, the power plug 8 can drive the guiding ring 43 to move together. At this time, through the cooperation between the guiding ring 43 and the multiple clamping plates 410, the subsequent precise docking and smooth insertion or extraction of the power plug 8 into or from the power interface 2 can be guided, thereby effectively reducing the damage to the power plug 8, the multiple electrode plates 3, and the internal electronic components of the device body 1 caused by the uneven contact between the power plug 8 and the multiple electrode plates 3 during the manual insertion and extraction of the power plug 8, resulting in excessive friction in local areas and thus causing electrostatic discharge. At the same time, after the power plug 8 is inserted into the power interface 2, through the cooperation between the fixing component 4 and the multiple clamping plates 410, the connection stability between the power plug 8 and the power interface 2 can be effectively improved.

[0089] At the same time, when manually inserting and extracting the power plug 8 and driving the guiding ring 43 to move together, through the extrusion component 5, the ionized gas stored inside the guiding ring 43 can be sprayed into the power interface 2 through the two spray pipes 73. Through the mutual neutralization of the electrostatic charge generated during the insertion and extraction of the power plug 8 by this part of the ionized gas, the damage to the device caused by static electricity generated by friction during the insertion and extraction of the power plug 8 can be effectively reduced. At the same time, through the driving mechanism, the two spray pipes 73 can reciprocate and rotate relative to each other to spray the ionized gas into the power interface 2, thereby helping to improve the uniformity of the ionized gas sprayed into the power interface 2 by the device and helping to ensure the effect of weakening the static charge intensity generated during the insertion and extraction of the power plug 8 by the device.

[0090] And when the guiding ring 43 moves forward and backward under force (such as Figure 2 in the shown direction), at this time, through the air suction component, it is convenient to timely supplement the gas inside the guiding ring 43. At the same time, through the cooperation between the vacuum ultraviolet lamp 53 and the two reflectors 54, the gas can be ionized in a timely manner, thereby ensuring the timeliness of spraying the ionized gas into the power interface 2 when the device subsequently inserts and extracts the power plug 8.

[0091] The above is only a preferred specific embodiment of the present invention; however, the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution of the present invention and its improved concept, makes equivalent substitutions or changes, and should be covered by the protection scope of the present invention.

Claims

1. A terminal communication device for network communication engineering, comprising a device main body (1) and a power plug (8). A fixing component (4) is arranged on the device main body (1), and a jet component (7) is arranged inside the device main body (1). It is characterized in that: The fixing component (4) includes a telescopic rod (41) that penetrates and is fixedly installed on the device main body (1). There are two telescopic rods (41). A guiding ring (43) is fixedly installed between the two telescopic rods (41). An elastic sealing cover (44) is fixedly installed between the guiding ring (43) and the device main body (1). A clamping mechanism is installed on the guiding ring (43), and an extrusion component (5) is arranged on the guiding ring (43). The jet component (7) includes fixing grooves (71) opened inside the device main body (1). There are two fixing grooves (71). Rubber membranes (72) are fixedly installed on both of the two fixing grooves (71). Jet pipes (73) are hermetically penetrated and fixedly installed on both of the two rubber membranes (72). A driving mechanism is installed between the two jet pipes (73) and the guiding ring (43).

2. The terminal communication device for network communication engineering according to claim 1, wherein: The clamping mechanism includes an elastic pad (46) fixedly installed on the guiding ring (43). A plurality of square openings (45) are opened on the guiding ring (43). Clamping plates (410) are slidably installed on the square openings (45), and the clamping plates (410) penetrate and are slidably installed on the elastic pad (46). Sliding members (411) are fixedly installed on the clamping plates (410). A pushing and pulling component is installed between the square openings (45).

3. The terminal communication device for network communication engineering according to claim 2, characterized in that: The pushing and pulling component includes a plurality of pressing blocks (42) fixedly installed on the device main body (1). Limit blocks (47) are fixedly installed on the square openings (45). Fixing plates (48) penetrate and are slidably installed on the limit blocks (47). A first pushing plate (414) is fixedly installed between the fixing plates (48). Chute grooves (412) are opened on the fixing plates (48). Sliding blocks (413) are slidably installed on the chute grooves (412). Limit rods (49) that cooperate with the corresponding sliding members (411) are fixedly installed on the sliding blocks (413), and the limit rods (49) penetrate and are slidably installed on the corresponding limit blocks (47). A second pushing plate (415) is fixedly installed between the limit rods (49).

4. A terminal communication device for network communication engineering according to claim 1, characterized in that: The extrusion component (5) includes a first placement groove opened inside the guiding ring (43). A vacuum ultraviolet lamp (53) is fixedly installed on the first placement groove. A second placement groove is opened inside the guiding ring (43). Reflective mirrors (54) are fixedly installed on the second placement groove. There are two reflective mirrors (54). A pushing mechanism is installed on the guiding ring (43), and a suction component is installed on the guiding ring (43).

5. A terminal communication device for network communication engineering according to claim 4, characterized in that: The pushing mechanism includes a round rod (51) fixedly installed on the equipment main body (1). There are two round rods (51), and both of the two round rods (51) are hermetically penetrated and slidably installed on the guiding ring (43). A sealing disc (52) is slidably installed on the inner wall of the guiding ring (43) in a sealed manner, and the sealing disc (52) is hermetically penetrated and slidably installed on the two round rods (51). Push discs (55) are fixedly installed on both of the two round rods (51), and there are two push discs (55). An exhaust component is installed on the guiding ring (43).

6. The terminal communication device for network communication engineering according to claim 5, characterized in that: The exhaust component includes one-way exhaust pipes one (56) fixedly communicated with the guiding ring (43). There are two one-way exhaust pipes one (56). Rubber hoses (79) are fixedly communicated between the two one-way exhaust pipes one (56) and the corresponding jet pipes (73). One-way exhaust pipes two (57) are fixedly communicated with the guiding ring (43). There are two one-way exhaust pipes two (57). The two one-way exhaust pipes two (57) are fixedly communicated with the corresponding one-way exhaust pipes one (56). The two one-way exhaust pipes two (57) and the two one-way exhaust pipes one (56) penetrate and are fixedly installed on the equipment main body (1). Filters (58) are fixedly installed on one ends of the two one-way exhaust pipes one (56) and the two one-way exhaust pipes two (57).

7. A terminal communication device for network communication engineering according to claim 4, characterized in that: The air suction component includes one-way suction pipes one (59) fixedly communicated with the guiding ring (43). There are two one-way suction pipes one (59). One-way suction pipes two (510) are fixedly communicated with the guiding ring (43). There are two one-way suction pipes two (510).

8. A terminal communication device for network communication engineering according to claim 1, characterized in that: The driving mechanism includes rotating shafts (75) respectively fixedly installed on the two fixed slots (71). Torsion springs (78) are fixedly installed between the two rotating shafts (75) and the corresponding fixed slots (71). Rotating gears (77) are fixedly installed on the two rotating shafts (75). Rack bars (74) are fixedly installed on the guiding ring (43). There are two rack bars (74), and both of the two rack bars (74) cooperate with the corresponding rotating gears (77). The two rack bars (74) penetrate and are slidably installed on the equipment main body (1). A connecting component is installed between the two rotating shafts (75).

9. A terminal communication device for network communication engineering according to claim 8, characterized in that: The connecting component includes discs (76) respectively fixedly installed on the two rotating shafts (75). Connecting blocks are fixedly installed at the lower ends of the two discs (76), and both of the two connecting blocks are fixedly connected with the corresponding jet pipes (73).

10. A terminal communication device for network communication engineering according to claim 9, characterized in that: A power supply interface (2) is opened on the equipment main body (1), and the power supply interface (2) is communicated with the two fixed slots (71). A plurality of electrode plates (3) are fixedly installed on the power supply interface (2). A conduit (6) is fixedly communicated with the power supply interface (2). There are two conduits (6).

Images