A gateway device with built-in E-sim chip for wireless network

Abstract

The present invention discloses a gateway device with a built-in E‑sim chip for a wireless network, which relates to the technical field of gateway devices, including a gateway box body, a docking component and an anti-pull component. A receiving plate is provided at the inner middle end of the gateway box body, and an exhaust fan is provided on the outer side of the top of the receiving plate. An exhaust port is provided at the top middle end of the gateway box body, and an electrically controlled one-way exhaust valve is provided at the bottom end of the exhaust port. When the present invention is vacuuming, the piston sleeve will be pushed by the air pressure difference to move toward the depth of the docking chamber, and the docking plug will be connected with the docking interface. The negative pressure suction force of the air pressure difference can improve the connection stability between the docking plug and the docking interface, thereby reducing the occurrence of poor contact between the two due to loose connection. In addition, because the exhaust groove is located at the flush position of the docking interface, dust and foreign matter attached to the docking interface can be effectively sucked away during the vacuuming process, which can avoid the poor contact in the interface caused by foreign matter.

Description

Technical Field

[0001] The present invention relates to the technical field of gateway equipment, in particular to a gateway equipment with a built-in E-sim chip for a wireless network. Background Art

[0002] A gateway usually refers to a device or software that connects two different network systems. It can be used for data transmission, protocol conversion, routing selection, etc. between networks. Common types of gateways on the market include: network gateways, application gateways, API gateways, hardware gateways, and enterprise gateways. The key function of a gateway is to enable communication between different networks, and it usually needs to perform operations such as protocol conversion, data encapsulation / decapsulation, etc.

[0003] With the rapid development of Internet of Things technology, wireless networks are increasingly used in various fields, from smart home systems to industrial automation control, from smart city facility management to remote monitoring of medical equipment. The stability, convenience and efficiency of wireless networks have become key factors. In this context, gateway devices are important hubs connecting different networks and devices. The optimization of their performance and functions plays a vital role in the operation of the entire wireless network.

[0004] When connecting signal cables, common gateway devices on the market are prone to poor contact due to loose interface connections, foreign matter inside the interfaces, and other reasons. In addition, since the gateway connects a large number of signal cables, it is very easy to pull the signal cables during installation and maintenance, causing the connection to become loose.

[0005] Therefore, in view of this, the existing structure and defects are studied and improved, and a gateway device with a built-in E-sim chip for a wireless network is proposed. Summary of the invention

[0006] The object of the present invention is to provide a gateway device with a built-in E-sim chip for a wireless network to solve the problems raised in the above background technology.

[0007] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a gateway device with a built-in E-sim chip for a wireless network, comprising a gateway box body, a docking component and an anti-pull component, wherein a receiving plate is arranged at the inner middle end of the gateway box body, and an exhaust fan is arranged on the outer side of the top of the receiving plate, an exhaust port is arranged at the top middle end of the gateway box body, and an electrically controlled one-way exhaust valve is arranged at the bottom end of the exhaust port, partitions are arranged on both sides of the interior of the gateway box body, and a docking component is arranged on the top of the partition, the docking component comprises a docking plate, a docking chamber, an exhaust groove, a docking interface, a reset spring and a piston sleeve, a docking chamber is arranged at the outer end of the docking plate, and an exhaust groove is arranged on the inner side of the docking chamber, a docking interface is arranged at the innermost part of the docking chamber, a reset spring is arranged between the docking plate and the gateway box body, a piston sleeve is arranged inside the docking chamber, the piston sleeve is sleeved on the outer end of the docking plug, and a signal line is connected to the tail end of the docking plug, and an E-sim chip module is arranged at the inner bottom end of the gateway box body.

[0008] Furthermore, the outer contour of the docking plate is completely in contact with the inner contour of the gateway box body and the partition, and the docking plate is elastically connected to the return spring.

[0009] Furthermore, the docking bins and the docking plate are an integrated structure, and the docking bins are distributed in an array at the outer end of the docking plate.

[0010] Furthermore, the electrical connection line extending from the docking interface through the docking compartment to the partition is a flexible wire, and the docking interface is electrically connected to the docking plug.

[0011] Furthermore, the docking compartment is connected to the interior of the gateway box body through the exhaust groove, and the gateway box body is connected to the outside world through the exhaust port.

[0012] Furthermore, when the electrically controlled one-way exhaust valve is energized, the airflow direction is from the inside of the gateway box to the outside, and when the electrically controlled one-way exhaust valve is not energized, the airflow direction is that the gateway box is freely connected to the outside.

[0013] Furthermore, anti-pull components are arranged on both sides of the interior of the gateway box body, and the anti-pull components include a micro electric push rod, a card plate, a wire groove, a bonding roller, a rotating shaft, a ratchet and a ratchet. The output end of the micro electric push rod is provided with a card plate, and a wire groove is opened on the inner side of the card plate. A bonding roller is arranged inside the wire groove, and a rotating shaft is provided at both ends of the bonding roller, and a ratchet and a ratchet are provided inside the rotating shaft.

[0014] Furthermore, the card plates are symmetrically distributed on both sides of the interior of the gateway box body along the mid-vertical line of the docking compartment, and the card plates are raised and lowered along with the micro electric push rod.

[0015] Furthermore, the wire-through grooves are distributed in an array on the inner side of the card plate, and the number of the wire-through grooves is consistent with the number of the docking compartments.

[0016] Furthermore, the rotation direction of the laminating roller is the moving direction of the signal line from the gateway box body to the docking bin, and the laminating roller is in contact with the signal line.

[0017] The present invention provides a gateway device with a built-in E-sim chip for a wireless network, which has the following beneficial effects:

[0018] 1. The staff of the present invention sleeves a piston sleeve on the outer end of the docking plug that needs to be connected with the gateway device, and then inserts the docking plug into the docking chamber, so that the piston sleeve can fit with the inner wall of the docking chamber. At this time, the electrically controlled one-way exhaust valve and the exhaust fan are energized to work. When the electrically controlled one-way exhaust valve is energized, the air flow direction is from the inside of the gateway box body to the outside, which enables the exhaust fan to exhaust the air in the gateway box body to the outside, and a vacuum state will gradually be formed inside the gateway box body. The docking chamber is connected to the inside of the gateway box body through the exhaust groove, so that when vacuuming, the piston sleeve will be pushed by the air pressure difference to move toward the depth of the docking chamber, and the docking plug will be connected with the docking interface. The negative pressure suction force of the air pressure difference can improve the connection stability between the docking plug and the docking interface, thereby reducing the occurrence of poor contact between the two due to loose connection. In addition, because the exhaust groove is opened at the flush position of the docking interface, dust and foreign matter attached to the docking interface can be effectively sucked away during the vacuuming process, which can avoid the poor contact in the interface caused by foreign matter.

[0019] 2. Thanks to the vacuum operation of the exhaust fan, the present invention can keep the interior of the gateway box in a vacuum sealed state for a long time, which can reduce the interference of external factors on the normal use of the gateway device. When the temperature inside the gateway box rises, the electric one-way exhaust valve is powered off to connect the outside world with the inside of the gateway box again, so that the low-temperature gas from the outside can quickly flow into the inside of the gateway box for cooling. After the outside gas flows in, the electric one-way exhaust valve and the exhaust fan work again to empty the gas in the gateway box again. Through this operation, the gateway box can be in a vacuum state again, and the air can also take away the residual heat in the gateway box. Through the above vacuum siphon combined with the emptying operation, the device can quickly dissipate heat when the temperature is too high, which can effectively improve the stability of the device.

[0020] 3. After the docking plug of the present invention is arranged, the micro electric push rod drives the card plate to return to its position, so that the laminating roller can be laminated with the signal line. During the exhaust process of the gateway box body, the docking plate will also squeeze the reset spring due to the influence of internal and external air pressure to move in the direction of the vertical center line of the gateway box body. During the displacement process, the docking plate can pull a section of the signal line into the inside of the gateway box body. When the device is dissipating heat, the docking plate will be rebounded by the reset spring due to the pressure balance. Because the ratchet and ratchet are arranged inside the rotating shaft, the rotation direction of the laminating roller is the moving direction of the signal line from the gateway box body to the docking bin, which makes the docking plate retreat. A section of signal line pulled into the gateway box will remain inside the gateway box because the bonding roller does not rotate. When the signal line outside is affected by external pulling force, the contact area between the columns is small, so that the signal line locked by the bonding roller will be pulled out by the pulling force. At this time, a small section of signal line stored inside the gateway box can act as a buffer and be pulled out together with the pulling force, which can effectively avoid the probability of the pulling force being transmitted to the docking plug and causing the docking plug to loosen. The low friction between the bonding roller and the signal line can also reduce the probability of the signal line being damaged by pulling, which further improves the stability of equipment use. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 This is a schematic diagram of the overall three-dimensional structure of a gateway device with a built-in E-sim chip for a wireless network of the present invention;

[0022] Figure 2 This is a schematic diagram of the internal structure of a gateway device with a built-in E-sim chip for a wireless network of the present invention;

[0023] Figure 3 This is a schematic diagram of the overall cross-sectional structure of a gateway device with a built-in E-sim chip for a wireless network of the present invention;

[0024] Figure 4 This is a schematic diagram of the card board structure of a gateway device with a built-in E-sim chip for a wireless network of the present invention;

[0025] Figure 5 This is a schematic diagram of the structure of an anti-pull component of a gateway device with a built-in E-sim chip for a wireless network of the present invention;

[0026] Figure 6 A gateway device with a built-in E-sim chip for a wireless network of the present invention Figure 5 The enlarged structural diagram at A in the middle;

[0027] Figure 7 The present invention is a schematic diagram of the rotating shaft structure of a gateway device with a built-in E-sim chip for a wireless network.

[0028] In the figure: 1. Gateway box; 2. Adapter plate; 3. Exhaust fan; 4. Exhaust port; 5. Electric one-way exhaust valve; 6. Partition; 7. Docking assembly; 701. Docking plate; 702. Docking compartment; 703. Exhaust slot; 704. Docking interface; 705. Reset spring; 706. Piston sleeve; 8. Docking plug; 9. Signal line; 10. Anti-pull assembly; 1001. Micro electric push rod; 1002. Card plate; 1003. Wire slot; 1004. Laminating roller; 1005. Rotating shaft; 1006. Ratchet; 1007. Ratchet. DETAILED DESCRIPTION

[0029] See also Figures 1 to 7 The present invention provides a technical solution: a gateway device with a built-in E-sim chip for a wireless network, comprising a gateway box body 1, a docking component 7 and an anti-pull component 10, a receiving plate 2 is arranged at the inner middle end of the gateway box body 1, and an exhaust fan 3 is arranged on the outer side of the top of the receiving plate 2, an exhaust port 4 is opened at the top middle end of the gateway box body 1, and an electric-controlled one-way exhaust valve 5 is arranged at the bottom end of the exhaust port 4, partitions 6 are arranged on both sides of the interior of the gateway box body 1, and a docking component 7 is arranged on the top of the partition 6, and the docking component 7 includes a docking plate 701, a docking compartment 702, and an exhaust groove 703. , a docking interface 704, a return spring 705 and a piston sleeve 706. A docking chamber 702 is provided at the outer end of the docking plate 701, and an exhaust groove 703 is opened on the inner side of the docking chamber 702. The docking interface 704 is arranged at the innermost part of the docking chamber 702. A return spring 705 is arranged between the docking plate 701 and the gateway box body 1. A piston sleeve 706 is arranged inside the docking chamber 702. The piston sleeve 706 is sleeved on the outer end of the docking plug 8, and the tail end of the docking plug 8 is connected to the signal line 9. An E-sim chip module 11 is arranged at the inner bottom end of the gateway box body 1.

[0030] See also Figures 1 to 7The outer contour of the docking plate 701 is completely in line with the inner contour of the gateway box body 1 and the partition 6, and the docking plate 701 is elastically connected to the return spring 705, the docking chamber 702 and the docking plate 701 are an integrated structure, and the docking chamber 702 is arranged in an array at the outer end of the docking plate 701, the docking interface 704 passes through the docking chamber 702 and extends to the electrical connection line on the partition 6 is a flexible wire, and the docking interface 704 is electrically connected to the docking plug 8, the docking chamber 702 is connected to the inside of the gateway box body 1 through the exhaust groove 703, and the gateway box body 1 is connected to the outside world through the exhaust port 4, the airflow direction of the electric-controlled one-way exhaust valve 5 when it is energized is from the inside of the gateway box body 1 to the outside world, and the airflow direction of the electric-controlled one-way exhaust valve 5 when it is not energized is that the gateway box body 1 is freely connected to the outside world, and anti-pull components 10 are arranged on both sides of the inside of the gateway box body 1, and the anti-pull components 10 include a micro electric push rod 1001, a card plate 1002, and a wire groove 1003, laminating roller 1004, rotating shaft 1005, ratchet 1006 and ratchet 1007, the output end of the micro electric push rod 1001 is provided with a card plate 1002, and the inner side of the card plate 1002 is provided with a wire groove 1003, the laminating roller 1004 is arranged inside the wire groove 1003, and the two ends of the laminating roller 1004 are provided with a rotating shaft 1005, and the inside of the rotating shaft 1005 is provided with a ratchet 1006 and ratchet 1007, the card plate 1 002 are symmetrically distributed on both sides of the inside of the gateway box body 1 along the mid-vertical line of the docking bin 702, and the card plate 1002 is lifted and lowered with the micro electric push rod 1001, the wire grooves 1003 are distributed in an array on the inner side of the card plate 1002, and the number of the wire grooves 1003 is consistent with the number of the docking bins 702, the rotation direction of the bonding roller 1004 is the moving direction of the signal line 9 from the gateway box body 1 to the docking bin 702, and the bonding roller 1004 is bonded with the signal line 9;

[0031] The specific operation is as follows: through the E-sim chip module 11, the device can be connected to the cellular network to provide a wireless wide area network (WAN) connection; through the operation of the micro electric push rod 1001, the card plates 1002 on both sides of the inside of the gateway box body 1 can be separated from each other, so that the docking chamber 702 inside the docking plate 701 can be exposed. At this time, the staff puts the piston sleeve 706 on the outer end of the docking plug 8 that needs to be connected to the gateway device, and then inserts the docking plug 8 into the docking chamber 702, so that the piston sleeve 706 can fit the inner wall of the docking chamber 702. At this time, the electrically controlled one-way exhaust valve 5 and the exhaust fan 3 are powered on. When the electrically controlled one-way exhaust valve 5 is powered on, the airflow direction is from the inside of the gateway box body 1 to the outside, which enables the exhaust fan 3 to exhaust the air in the gateway box body 1 to the outside, and a vacuum state will gradually be formed inside the gateway box body 1, and the docking The chamber 702 is connected to the inside of the gateway box body 1 through the exhaust groove 703, so that when vacuuming, the piston sleeve 706 will be pushed by the air pressure difference to move deeper into the docking chamber 702, and the docking plug 8 will be connected with the docking interface 704. The negative pressure suction force of the air pressure difference can improve the connection stability between the docking plug 8 and the docking interface 704, thereby reducing the occurrence of poor contact between the two due to loose connection. In addition, because the exhaust groove 703 is located at the flush position of the docking interface 704, dust and foreign matter attached to the docking interface 704 can be effectively sucked away during the vacuuming process, which can avoid the poor contact in the interface caused by foreign matter. In addition, thanks to the vacuuming operation of the exhaust fan 3, The inside of the gateway box body 1 can be kept in a vacuum sealed state for a long time, which can reduce the interference of external factors on the normal use of the gateway device. When the temperature inside the gateway box body 1 rises, the outside world can be connected to the inside of the gateway box body 1 again by cutting off the power to the electrically controlled one-way exhaust valve 5, so that the low-temperature gas from the outside can quickly flow into the inside of the gateway box body 1 for cooling. After the outside gas flows in, the electrically controlled one-way exhaust valve 5 and the exhaust fan 3 work again to exhaust the gas in the gateway box body 1 again. Through this operation, the gateway box body 1 can be put into a vacuum state again, and the air can also take away the residual heat in the gateway box body 1. Through the above vacuum siphon combined with the emptying operation, the device can quickly dissipate heat when the temperature is too high. This can effectively improve the stability of the device. A sealing plug is installed at the outer end of the unused docking compartment 702 on the docking plate 701, which can prevent the docking interface 704 from being exposed to the outside world. After the docking plug 8 is laid out, the micro electric push rod 1001 drives the card plate 1002 to return to its position, so that the laminating roller 1004 can be laminated with the signal line 9. During the exhaust process of the gateway box body 1, the docking plate 701 will also squeeze the reset spring 705 to move toward the vertical center line of the gateway box body 1 due to the influence of internal and external air pressure. During the displacement process, the docking plate 701 can pull a section of the signal line 9 into the interior of the gateway box body 1. When the device is dissipating heat, the docking plate 701 will be rebounded by the reset spring 705 due to the pressure balance.Since ratchet 1006 and ratchet 1007 are arranged inside rotating shaft 1005, the rotation direction of laminating roller 1004 is the moving direction of signal line 9 from gateway box body 1 to docking chamber 702. Therefore, during the retraction process of docking plate 701, a section of signal line 9 pulled into gateway box body 1 will remain inside gateway box body 1 because laminating roller 1004 does not rotate. When signal line 9 in the outside is affected by external pulling force (external personnel accidentally trip or pull unintentionally), due to the small contact area between the columns, signal line 9 locked by laminating roller 1004 will be pulled out by pulling force. At this time, a small section of signal line 9 stored inside gateway box body 1 can play a buffering role and be pulled out together with the pulling force. This can effectively avoid the probability of pulling force being transmitted to docking plug 8 and causing docking plug 8 to loosen. The low friction between laminating roller 1004 and signal line 9 can also reduce the probability of signal line 9 being pulled and damaged, which further improves the stability of the device.

[0032] In summary, when the gateway device with a built-in E-sim chip for a wireless network is used, the micro electric push rod 1001 is first used to separate the card plates 1002 on both sides of the gateway box body 1 from each other, so that the docking chamber 702 inside the docking plate 701 can be exposed. At this time, the staff puts the piston sleeve 706 on the outer end of the docking plug 8 that needs to be connected with the gateway device, and then inserts the docking plug 8 into the docking chamber 702, so that the piston sleeve 706 can fit the inner wall of the docking chamber 702. At this time, the electric-controlled one-way exhaust valve 5 and the exhaust fan 3 are powered on. When the electric-controlled one-way exhaust valve 5 is powered on, the airflow direction is from the inside of the gateway box body 1 to the outside, which enables the exhaust fan 3 to exhaust the air in the gateway box body 1 to the outside, and a vacuum state is gradually formed inside the gateway box body 1.

[0033] Then, because the docking chamber 702 is connected to the inside of the gateway box body 1 through the exhaust groove 703, when vacuuming, the piston sleeve 706 will be pushed by the air pressure difference to move deeper into the docking chamber 702, and the docking plug 8 will be connected to the docking interface 704. The negative pressure suction force of the air pressure difference can improve the connection stability between the docking plug 8 and the docking interface 704, thereby reducing the occurrence of poor contact between the two due to loose connection. In addition, because the exhaust groove 703 is located at the flush position of the docking interface 704, dust and foreign matter attached to the docking interface 704 can be effectively sucked away during the vacuuming process, which can avoid the poor contact in the interface caused by foreign matter. In addition, thanks to the vacuuming operation of the exhaust fan 3, the inside of the gateway box body 1 can be kept in a vacuum sealed state for a long time, which can reduce the interference of external factors on the normal use of the gateway device;

[0034] Then, when the temperature inside the gateway box body 1 rises, the outside world can be connected to the inside of the gateway box body 1 again by cutting off the power of the electrically controlled one-way exhaust valve 5, so that the low-temperature gas from the outside can quickly flow into the inside of the gateway box body 1 to cool it down. After the outside gas flows in, the electrically controlled one-way exhaust valve 5 and the exhaust fan 3 work again to exhaust the gas in the gateway box body 1 again. Through this operation, the gateway box body 1 can be in a vacuum state again, and the air can also take away the residual heat in the gateway box body 1. Through the above vacuum siphon and emptying operation, the device can quickly dissipate heat when the temperature is too high, which can effectively improve the stability of the device. The outer end of the unused docking compartment 702 on the docking plate 701 is equipped with a sealing plug, which can prevent the docking interface 704 from being exposed to the outside.

[0035] After the docking plug 8 is arranged, the micro electric push rod 1001 drives the card plate 1002 to return to its position, so that the laminating roller 1004 can be laminated with the signal line 9. During the exhaust process of the gateway box body 1, the docking plate 701 will also squeeze the reset spring 705 due to the influence of the internal and external air pressure to move in the direction of the vertical center line of the gateway box body 1. During the displacement process, the docking plate 701 can pull a section of the signal line 9 into the inside of the gateway box body 1. When the device is dissipating heat, the docking plate 701 will be rebounded by the reset spring 705 due to the pressure balance. Because the ratchet 1006 and the ratchet 1007 are arranged inside the rotating shaft 1005, the rotation direction of the laminating roller 1004 is the moving direction of the signal line 9 from the gateway box body 1 to the docking chamber 702. This makes the section of the signal line 9 pulled into the gateway box body 1 during the retreat of the docking plate 701 still located inside the gateway box body 1 because the laminating roller 1004 does not rotate;

[0036] Finally, when the signal line 9 in the outside world is affected by the external pulling force, due to the small contact area between the columns, the signal line 9 locked by the bonding roller 1004 will be pulled out by the pulling force. At this time, a small section of the signal line 9 stored in the gateway box body 1 can play a buffering role and be pulled out together with the pulling force, which can effectively avoid the pulling force being transmitted to the docking plug 8 and causing the probability of the docking plug 8 loosening. The low friction between the bonding roller 1004 and the signal line 9 can also reduce the probability of the signal line 9 being damaged by pulling, which further improves the stability of the equipment.

[0037] The embodiments of the present invention are given for the purpose of illustration and description, and are not intended to be exhaustive or to limit the invention to the disclosed forms. Many modifications and variations will be apparent to those of ordinary skill in the art. The embodiments are selected and described in order to better illustrate the principles and practical applications of the present invention and to enable those of ordinary skill in the art to understand the present invention and thereby design various embodiments with various modifications suitable for specific uses.

Claims

1. A gateway device with a built-in E-sim chip for a wireless network, characterized in that: The invention comprises a gateway box body (1), a docking assembly (7) and an anti-pull assembly (10), wherein a receiving plate (2) is arranged at the middle end of the interior of the gateway box body (1), and an exhaust fan (3) is arranged on the outer side of the top of the receiving plate (2), an exhaust port (4) is opened at the middle end of the top of the gateway box body (1), and an electric-controlled one-way exhaust valve (5) is arranged at the bottom end of the exhaust port (4), partitions (6) are arranged on both sides of the interior of the gateway box body (1), and a docking assembly (7) is arranged on the top of the partition (6), and the docking assembly (7) comprises a docking plate (701), a docking chamber (702), an exhaust groove (703), a docking interface (704), a return spring (705) and a plurality of other components. ) and a piston sleeve (706); a docking chamber (702) is arranged at the outer end of the docking plate (701), and an exhaust groove (703) is opened on the inner side of the docking chamber (702); a docking interface (704) is arranged at the innermost part of the docking chamber (702); a return spring (705) is arranged between the docking plate (701) and the gateway box body (1); a piston sleeve (706) is arranged inside the docking chamber (702), the piston sleeve (706) is sleeved on the outer end of the docking plug (8), and the tail end of the docking plug (8) is connected to a signal line (9); anti-pull components (10) are arranged on both sides of the interior of the gateway box body (1); the anti-pull components (10) are arranged on both sides of the interior of the gateway box body (1); The pulling assembly (10) comprises a micro electric push rod (1001), a card plate (1002), a wire groove (1003), a laminating roller (1004), a rotating shaft (1005), a ratchet (1006) and ratchet teeth (1007); the output end of the micro electric push rod (1001) is provided with a card plate (1002), and the inner side of the card plate (1002) is provided with a wire groove (1003); the laminating roller (1004) is arranged inside the wire groove (1003), and the two ends of the laminating roller (1004) are provided with a rotating shaft (1005); the inner side of the rotating shaft (1005) is provided with a ratchet (1006) and a ratchet tooth (1007); The card plate (1002) is symmetrically distributed on both sides of the inside of the gateway box body (1) along the mid-vertical line of the docking chamber (702), and the card plate (1002) is raised and lowered along with the micro electric push rod (1001). The wire grooves (1003) are distributed in an array shape on the inside of the card plate (1002), and the number of the wire grooves (1003) is consistent with the number of the docking chamber (702). The rotation direction of the bonding roller (1004) is the moving direction of the signal line (9) from the gateway box body (1) to the docking chamber (702), and the bonding roller (1004) is bonded to the signal line (9). The bottom end of the inside of the gateway box body (1) is provided with an E-sim chip module (11).

2. A gateway device with a built-in E-sim chip for a wireless network according to claim 1, characterized in that: The outer contour of the docking plate (701) is completely in contact with the inner contour of the gateway box body (1) and the partition plate (6), and the docking plate (701) is elastically connected to the return spring (705).

3. A gateway device with a built-in E-sim chip for a wireless network according to claim 1, characterized in that: The docking chamber (702) and the docking plate (701) are an integrated structure, and the docking chambers (702) are distributed in an array at the outer end of the docking plate (701).

4. A gateway device with a built-in E-sim chip for a wireless network according to claim 1, characterized in that: The electrical connection line extending from the docking interface (704) through the docking compartment (702) to the partition (6) is a flexible wire, and the docking interface (704) is electrically connected to the docking plug (8).

5. A gateway device with a built-in E-sim chip for a wireless network according to claim 3, characterized in that: The docking chamber (702) is connected to the interior of the gateway box body (1) via the exhaust slot (703), and the gateway box body (1) is connected to the outside world via the exhaust port (4).

6. A gateway device with a built-in E-sim chip for a wireless network according to claim 5, characterized in that: When the electrically controlled one-way exhaust valve (5) is energized, the airflow direction is from the inside of the gateway box body (1) to the outside, and when the electrically controlled one-way exhaust valve (5) is not energized, the airflow direction is such that the gateway box body (1) is freely connected to the outside.

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