Visual optical cable connector box based on intelligent monitoring

Abstract

The invention discloses a visual optical cable joint box based on intelligent monitoring, and relates to the field of optical cable protection boxes, and the visual optical cable joint box comprises a joint box, a visual window frame, a control door, a visual door, and a linkage assembly. The visual window frame is arranged on the connector box; the control door and the visual door are arranged on the visual window frame in a sliding manner and are used for opening or closing the connector box; the linkage assembly is arranged on the visual window frame and connected with the control door and the visual door, and the linkage assembly is used for enabling the control door and the visual door to move synchronously. By using the optical cable connector box, the internal connector can be observed through the visual door, so that the fault positioning efficiency is improved, and meanwhile, a worker can conveniently check and maintain the internal optical cable connector.

Description

Technical Field

[0001] The invention relates to the field of optical cable protection boxes, in particular to a visualized optical cable joint box based on intelligent monitoring. Background Art

[0002] Wire and cable splice box is a key component used to connect and protect optical cables, and is widely used in the fields of communication, power and data transmission. As a medium for transmitting optical signals, optical cables play a vital role in modern communication systems. Due to the advantages of extremely high transmission rate and low signal attenuation of optical cables themselves, they are widely used in long-distance and high-bandwidth communication networks. However, optical cables will inevitably encounter situations where they need to be branched, spliced ​​or repaired in practical applications. At this time, the optical cable splice box plays an important role. It not only provides a safe and reliable connection environment for optical cables, but also protects the optical cable joints from the influence of the external environment, such as moisture, dust, etc. through a sealing structure, thereby ensuring the stable operation and signal quality of the optical cable system.

[0003] However, in the prior art, the optical cable junction box is usually fastened with screws, which makes it impossible to directly observe the internal situation when a fault occurs. The optical cable junction box needs to be disassembled and inspected one by one to locate the fault problem, resulting in a waste of maintenance time and high difficulty in maintenance.

[0004] In view of the above problems, the present invention provides a visualized optical cable junction box based on intelligent monitoring to solve the above problems. Summary of the invention

[0005] To achieve the above object, the present invention provides the following technical solutions: A visualized optical cable joint box based on intelligent monitoring, comprising: a joint box, a visual window frame, a control door, a visual door, and a linkage component;

[0006] The visual window frame is provided on the joint box; the control door and the visual door are slidably provided on the visual window frame to open or close the joint box;

[0007] The linkage component is arranged on the visual window frame and connected with the control door and the visual door, and the linkage component is used to keep the control door and the visual door moving synchronously;

[0008] Wherein, the control door comprises: a door body, a control compartment, a buckle assembly, a linkage rack, and an adjustment assembly;

[0009] The door body is slidably arranged on the visible window frame, and an empty compartment is opened in the door body, two control compartments are arranged in the empty compartment, a buckle assembly is arranged in the control compartment, and the two buckle assemblies are connected through the linkage rack;

[0010] The adjusting assembly is arranged on the door body and connected with the linkage rack, and is used for releasing the locking state of the two buckle assemblies.

[0011] Further, preferably, the control door further comprises: two first slides and a mounting groove;

[0012] The two first slides are symmetrically arranged at two ends of the door body, and a mounting groove is arranged inside the first slide near one end of the adjustment component.

[0013] Further, preferably, the buckle assembly comprises:

[0014] One end of the first card interface and the second card interface are slidably disposed in the control compartment through a limiting slide groove;

[0015] A card holder is fixed in the visual door corresponding to the relative positions of the first card interface and the second card interface.

[0016] Further, preferably, the control compartment comprises:

[0017] A compartment is fixed on the door body, and a limit slide rail is fixedly arranged in the compartment, and the first card interface and the second card interface are slidably arranged on the limit slide rail;

[0018] An L-shaped rod, one end of which is fixed to the second card interface and the other end of which is connected to the linkage rack;

[0019] A first gear, rotatably disposed on the compartment and meshing with the linkage rack; and

[0020] The first rack is slidably arranged on the compartment and connected to the first card interface, and the first rack is also meshed with the first gear.

[0021] Further, preferably, the adjustment component comprises:

[0022] A slideway is provided on the door body, a push rod is slidably arranged in the slideway, and a compression spring is arranged between the push rod and the slideway;

[0023] A second gear, rotatably disposed on the door body and meshing with the linkage rack;

[0024] A second rack is slidably disposed in the door body and meshes with the second gear.

[0025] Further, preferably, the linkage assembly includes: a third rack, a third gear, a sliding bin; a fourth rack;

[0026] The sliding bin is provided on the visual window frame, and the visual door and the control door are slidably arranged in the sliding bin; a third gear is rotatably arranged in the middle of the sliding bin near one end of the adjustment component;

[0027] The third rack is arranged in the mounting groove and meshed with the third gear; the fourth rack is fixedly arranged on the visual door and meshed with the third gear.

[0028] Compared with the prior art, the present invention provides a visual optical cable splice box based on intelligent monitoring, which has the following beneficial effects:

[0029] 1. The control door and the visual door are in a locked state under the action of the buckle assembly. When maintenance is required, first push the adjustment assembly upward to move the linkage rack upward. During the upward movement of the linkage rack, the buckle assembly will release the locking state of the control door and the visual door. After the locking state is released, pull the adjustment assembly outward to first slide the door body outward. At the same time, under the action of the linkage assembly, the visual door will slide outward in a relatively distant direction, that is, the door body and the visual door are opened, which is convenient for the staff to check the internal optical cable connector.

[0030] 2. After completing the inspection of the optical cable connector, push the adjustment component inward. At the same time, under the action of the linkage component, the visual door and the door body slide relatively close to each other until the buckle component completes the locking between the visual door and the control door, thus completing the closure of the optical cable connector box, protecting the internal optical fiber connector components and increasing their service life. BRIEF DESCRIPTION OF THE DRAWINGS

[0031] Figure 1 It is an overall schematic diagram of a visual optical cable joint box based on intelligent monitoring;

[0032] Figure 2 This is a structure diagram of a visual optical cable joint box tensile stress detection mechanism based on intelligent monitoring;

[0033] Figure 3 A structural diagram of a unidirectional drivable mechanism of a visualized optical cable junction box based on intelligent monitoring;

[0034] Figure 4 It is a structure diagram of a visual optical cable joint box conversion mechanism based on intelligent monitoring;

[0035] Figure 5 It is a structural diagram of a visual optical cable joint box bending stress detection mechanism based on intelligent monitoring;

[0036] Figure 6 The figure is a structural diagram of a specific implementation of the linkage component.

[0037] In the figure: 1. connector box; 2. visible window frame; 3. control door; 31. door body; 32. control compartment; 321. partition compartment; 323. L-shaped rod; 322. limit slide rail; 324. first gear; 33. buckle assembly; 331. first card interface; 332. second card interface; 333. card seat; 334. limit slide groove; 34. linkage rack; 35. adjustment assembly; 351. second gear; 352. second rack; 353. push rod; 354. compression spring; 36. first slide; 37. mounting slot; 4. visible door; 6. linkage assembly; 61. third rack; 62. third gear; 63. slide compartment. DETAILED DESCRIPTION

[0038] Reference Figures 1 to 5 , the present invention provides a technical solution: a visual optical cable joint box based on intelligent monitoring, comprising: a joint box 1, a visual window frame 2, a control door 3, a visual door 4, and a linkage component 6;

[0039] The visual window frame 2 is provided on the joint box 1; the control door 3 and the visual door 4 are slidably provided on the visual window frame 2 to open or close the joint box 1;

[0040] The linkage component 6 is arranged on the visual window frame 2 and connected with the control door 3 and the visual door 4. The linkage component 6 is used to keep the control door 3 and the visual door 4 moving synchronously.

[0041] The control door 3 includes: a door body 31, a control compartment 32, a buckle assembly 33, a linkage rack 34, and an adjustment assembly 35;

[0042] The door body 31 is slidably arranged on the visible window frame 2, and an empty compartment is opened in the door body 31, two control compartments 32 are arranged in the empty compartment, a buckle assembly 33 is arranged in the control compartment 32, and the two buckle assemblies 33 are connected by the linkage rack 34;

[0043] The adjusting assembly 35 is disposed on the door body 31 and connected to the linkage rack 34 , and is used to release the locking state of the two buckle assemblies 33 .

[0044] The control door 3 and the visual door 4 are in a locked state under the action of the buckle assembly 33. When maintenance is required, the adjustment assembly 35 is first pushed upward to move the linkage rack 34 upward. During the upward movement of the linkage rack 34, the buckle assembly 33 will release the locking state of the control door 3 and the visual door 4. After the locking state is released, the adjustment assembly 35 is pulled outward to first slide the door body 31 outward. At the same time, under the action of the linkage assembly 6, the visual door 4 slides outward in a relatively distant direction, that is, the door body 31 and the visual door 4 are opened, which is convenient for the staff to check the internal optical cable connector.

[0045] After completing the inspection of the optical cable connector, push the adjustment component 35 inward, and at the same time, under the action of the linkage component 6, the visual door 4 and the door body 31 slide in a relatively close trend until the buckle component 33 completes the locking between the visual door 4 and the control door 3, that is, the optical cable connector box is closed, the internal optical fiber connector components are protected, and their service life is increased.

[0046] As a preferred embodiment, the control door 3 further includes: two first slides 36 and a mounting groove 37;

[0047] The two first slides 36 are symmetrically arranged at two ends of the door body 31 , and a mounting groove 37 is arranged inside the first slide 36 near one end of the adjustment component 35 .

[0048] As a preferred embodiment, the buckle assembly 33 includes:

[0049] The first card interface 331 and the second card interface 332 are both slidably disposed in the control compartment 32 through a limiting slide groove 334 at one end;

[0050] The card holder 333 is fixed in the visual door 4 at a relative position corresponding to the first card interface 331 and the second card interface 332 .

[0051] It should be explained that, in the locked state, the first card interface 331 and the second card interface 332 engage with the card seat 333 to maintain the locking effect between the visual door 4 and the door body 31 .

[0052] When the locked state is released, the upward sliding of the adjustment component 35 causes the control compartment 32 to adjust the first card interface 331 and the second card interface 332 through the linkage rack 34, that is, the first card interface 331 and the second card interface 332 slide away from each other, thereby releasing the engagement of the first card interface 331 and the second card interface 332 with the card seat 333, thereby achieving the effect of releasing the locked state.

[0053] As a preferred embodiment, the control compartment 32 includes:

[0054] The compartment 321 is fixed on the door body 31, and a limit slide rail 322 is fixedly arranged in the compartment 321, and the first card interface 331 and the second card interface 332 are slidably arranged on the limit slide rail 322;

[0055] An L-shaped rod 323, one end of which is fixed to the second card interface 332, and the other end of which is connected to the linkage rack 34;

[0056] A first gear 324 is rotatably disposed on the compartment 321 and meshes with the linkage rack 34; and

[0057] The first rack is slidably disposed on the compartment 321 and connected to the first card interface 331 . The first rack is also meshed with the first gear 324 .

[0058] It should be noted that, the linkage rack 34 is made to slide relative to the door body 31 through the adjustment component 35, and the sliding of the linkage rack 34 drives the first gear 324 to rotate, and the rotation of the first gear 324 causes the first rack to slide relative to the door body 31, so that the first card interface 331 slides; at the same time, during the sliding process of the linkage rack 34, the second card interface 332 is caused to slide relative to the first card interface 331 through the L-shaped rod 323.

[0059] When the linkage rack 34 slides upward, the first card interface 331 and the second card interface 332 will slide in a direction relatively away from each other, thereby releasing the engagement with the card seat 333, that is, the locked state is released; when the linkage rack 34 slides downward relative to the door body 31, the first card interface 331 and the second card interface 332 will move in a direction relatively close to each other, thereby achieving engagement with the card seat 333, that is, the locked state.

[0060] As a preferred embodiment, the adjustment component 35 includes:

[0061] A slideway is provided on the door body 31, and a push rod 353 is slidably arranged in the slideway, and a compression spring 354 is arranged between the push rod 353 and the slideway;

[0062] A second gear 351 is rotatably disposed on the door body 31 and meshes with the linkage rack 34;

[0063] The second rack 352 is slidably disposed in the door body 31 and meshes with the second gear 351 .

[0064] It should be noted that pushing the push rod 353 upward relative to the door body 31 causes the second rack 352 to slide up synchronously, thereby causing the linkage rack 34 to slide under the action of the second gear 351, i.e., controlling the first card interface 331 and the second card interface 332 to release the engagement with the card seat 333; after the upward pushing force on the push rod 353 is released, the push rod 353 slides down under the action of the compression spring 354, and the linkage rack 34 moves up under the action of the second gear 351, causing the first card interface 331 and the second card interface 332 to return to their initial state.

[0065] As a preferred embodiment, the linkage assembly 6 includes: a third rack 61, a third gear 62, a slide bin 63; a fourth rack;

[0066] The sliding bin 63 is provided on the visual window frame 2, and the visual door 4 and the control door 3 are slidably arranged in the sliding bin 63; a third gear 62 is rotatably arranged in the middle of the sliding bin 63 near one end of the adjustment assembly 35;

[0067] The third rack 61 is disposed in the mounting groove 37 and meshes with the third gear 62 ; the fourth rack is fixedly disposed on the visual door 4 and meshes with the third gear 62 .

[0068] It should be noted that after releasing the locking state of the buckle assembly 33, the push rod 353 is pushed outward to slide the door body 31, and the sliding of the door body 31 causes the third rack 61 to slide along, so that under the action of the third gear 62, the visual door 4 is synchronously moved outward through the fourth rack, that is, the visual door 4 and the control door 3 are synchronously opened. Conversely, pushing the push rod 353 to the opposite side will cause the control door 3 and the visual door 4 to be synchronously closed, and they are locked under the action of the buckle assembly 33.

[0069] During the specific implementation, when maintenance is needed, the push rod 353 is first pushed upward to move the linkage rack 34 upward. During the upward movement of the linkage rack 34, the first card interface 331 and the second card interface 332 will be released from the engagement with the card seat 333, thereby releasing the locking state of the control door 3 and the visual door 4. After the locking state is released, the push rod 353 is pulled outward to first slide the door body 31 outward. Under the action of the linkage assembly 6, the visual door 4 is synchronously slid outward in a relatively distant direction, that is, the door body 31 and the visual door 4 are opened, so that the staff can check the internal optical cable connector.

[0070] After completing the inspection of the optical cable joint, push the push rod 353 inward, and at the same time, under the action of the linkage assembly 6, the visual door 4 and the door body 31 slide in a relatively close trend until the buckle assembly 33 completes the locking between the visual door 4 and the control door 3, that is, the optical cable joint box is closed, the internal optical fiber joint components are protected, and their service life is increased.

[0071] What is described above is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical scheme and inventive concept of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A visual optical cable splice box based on intelligent monitoring, characterized in that: include: A junction box (1), a visual window frame (2), a control door (3), a visual door (4), and a linkage assembly (6); The visual window frame (2) is provided on the joint box (1); the control door (3) and the visual door (4) are slidably arranged on the visual window frame (2) to open or close the joint box (1); The linkage component (6) is arranged on the visual window frame (2) and is connected to the control door (3) and the visual door (4); the linkage component (6) is used to enable the control door (3) and the visual door (4) to maintain synchronous movement; Wherein, the control door (3) comprises: a door body (31), a control compartment (32), a buckle assembly (33), a linkage rack (34), and an adjustment assembly (35); The door body (31) is slidably arranged on the visible window frame (2), and an empty compartment is provided in the door body (31), two control compartments (32) are provided in the empty compartment, a buckle assembly (33) is provided in the control compartment (32), and the two buckle assemblies (33) are connected via the linkage rack (34); The adjustment assembly (35) is arranged on the door body (31) and is connected to the linkage rack (34) and is used to release the locking state of the two buckle assemblies (33).

2. According to claim 1, a visualized optical cable splice box based on intelligent monitoring is characterized in that: The control door (3) further comprises: two first slides (36) and a mounting groove (37); The two first slides (36) are symmetrically arranged at two ends of the door body (31), and a mounting groove (37) is arranged inside the first slide (36) near one end of the adjustment component (35).

3. According to claim 2, a visualized optical cable splice box based on intelligent monitoring is characterized in that: The buckle assembly (33) comprises: The first card interface (331) and the second card interface (332) are both slidably disposed in the control compartment (32) via a limiting sliding groove (334) at one end; The card seat (333) is fixed in the visual door (4) at a relative position corresponding to the first card interface (331) and the second card interface (332).

4. The visual optical cable splice box based on intelligent monitoring according to claim 3 is characterized in that: The control chamber (32) comprises: A partition (321) is fixed on the door body (31), and a limit slide rail (322) is fixedly arranged in the partition (321), and the first card interface (331) and the second card interface (332) are slidably arranged on the limit slide rail (322); An L-shaped rod (323), one end of which is fixed on the second card interface (332), and the other end of which is connected to the linkage rack (34); A first gear (324) is rotatably disposed on the compartment (321) and meshes with the linkage rack (34); and The first rack is slidably disposed on the compartment (321) and connected to the first card interface (331); the first rack is also meshed with the first gear (324).

5. The visual optical cable splice box based on intelligent monitoring according to claim 4 is characterized in that: The adjustment component (35) comprises: A slideway is provided on the door body (31), a push rod (353) is slidably arranged in the slideway, and a compression spring (354) is arranged between the push rod (353) and the slideway; A second gear (351) is rotatably disposed on the door body (31) and meshes with the linkage rack (34); The second rack (352) is slidably disposed in the door body (31) and meshes with the second gear (351).

6. The visual optical cable splice box based on intelligent monitoring according to claim 2, characterized in that: The linkage assembly (6) comprises: a third rack (61), a third gear (62), and a sliding bin (63); fourth rack; The sliding bin (63) is provided on the visual window frame (2), and the visual door (4) and the control door (3) are slidably arranged in the sliding bin (63); a third gear (62) is rotatably arranged in the middle of the sliding bin (63) near one end of the adjustment component (35); The third rack (61) is arranged in the mounting groove (37) and meshes with the third gear (62); the fourth rack is fixedly arranged on the visual door (4) and meshes with the third gear (62).

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