WO2022037058A1 - 一种光纤连接器组件、标签系统以及标签模块 - Google Patents

一种光纤连接器组件、标签系统以及标签模块 Download PDF

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Publication number
WO2022037058A1
WO2022037058A1 PCT/CN2021/082336 CN2021082336W WO2022037058A1 WO 2022037058 A1 WO2022037058 A1 WO 2022037058A1 CN 2021082336 W CN2021082336 W CN 2021082336W WO 2022037058 A1 WO2022037058 A1 WO 2022037058A1
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WO
WIPO (PCT)
Prior art keywords
label
module
label module
optical fiber
channel
Prior art date
Application number
PCT/CN2021/082336
Other languages
English (en)
French (fr)
Inventor
闻已达
胡健
匡立
Original Assignee
华为技术有限公司
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by 华为技术有限公司 filed Critical 华为技术有限公司
Priority to EP21857161.0A priority Critical patent/EP4187293A4/en
Publication of WO2022037058A1 publication Critical patent/WO2022037058A1/zh

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    • G—PHYSICS
    • G02—OPTICS
    • G02B—OPTICAL ELEMENTS, SYSTEMS OR APPARATUS
    • G02B6/00—Light guides; Structural details of arrangements comprising light guides and other optical elements, e.g. couplings
    • G02B6/24—Coupling light guides
    • G02B6/36—Mechanical coupling means
    • G02B6/38—Mechanical coupling means having fibre to fibre mating means
    • G02B6/3807—Dismountable connectors, i.e. comprising plugs
    • G02B6/3895—Dismountable connectors, i.e. comprising plugs identification of connection, e.g. right plug to the right socket or full engagement of the mating parts
    • G—PHYSICS
    • G02—OPTICS
    • G02B—OPTICAL ELEMENTS, SYSTEMS OR APPARATUS
    • G02B6/00—Light guides; Structural details of arrangements comprising light guides and other optical elements, e.g. couplings
    • G02B6/44—Mechanical structures for providing tensile strength and external protection for fibres, e.g. optical transmission cables
    • G02B6/4439—Auxiliary devices
    • G02B6/444—Systems or boxes with surplus lengths
    • G02B6/44528—Patch-cords; Connector arrangements in the system or in the box
    • G—PHYSICS
    • G02—OPTICS
    • G02B—OPTICAL ELEMENTS, SYSTEMS OR APPARATUS
    • G02B6/00—Light guides; Structural details of arrangements comprising light guides and other optical elements, e.g. couplings
    • G02B6/44—Mechanical structures for providing tensile strength and external protection for fibres, e.g. optical transmission cables
    • G02B6/4439—Auxiliary devices
    • G02B6/444—Systems or boxes with surplus lengths
    • G02B6/4452—Distribution frames
    • G02B6/44526—Panels or rackmounts covering a whole width of the frame or rack

Definitions

  • the present application relates to the field of optical fiber communications, and in particular, to an optical fiber connector assembly, a label system and a label module.
  • the optical network includes a network node, and the network node includes a plurality of adapters, and each adapter is used for inserting a fixed optical fiber connector assembly.
  • the number of adapters included in network nodes is increasing, and it is necessary to identify the fiber optic connector components inserted into the adapters.
  • a flag-shaped label generally identifies an optical fiber connector assembly inserted into each adapter of a network node. Specifically, a flag for identifying the optical fiber connector assembly is set on the flag-shaped label.
  • flag-shaped labels are relatively soft and occupies a large area, which causes the entanglement between the flag-shaped label and the flag-shaped label, and between the flag-shaped label and the optical fiber connector components, which increases the difficulty of maintaining network nodes. .
  • Flag-shaped tags are prone to mutual occlusion, resulting in low efficiency and poor accuracy in obtaining the identification set by the flag-shaped tags. It is impossible to digitally enter the flag-shaped label, and it is completely dependent on manual reading of the logo in the flag-shaped label, which is inefficient and inaccurate.
  • Embodiments of the present invention provide an optical fiber connector assembly, a labeling system and a labeling module, which are used to reduce the difficulty of maintaining network nodes and improve the efficiency and accuracy of identifying the optical fiber connector assembly.
  • a first aspect of the embodiments of the present invention provides an optical fiber connector assembly
  • the optical fiber connector assembly includes an optical fiber connector body and a first label module
  • the first label module is connected to an optical cable
  • the optical cable is connected to the optical fiber
  • the connector body is connected
  • the first label module has a first surface, and the first surface is used for setting label information, and the label information is used to identify the optical fiber connector body;
  • the first label module has a first surface.
  • a connection structure and a second connection structure the first connection structure is used for connecting the first label module with the second label module, and the second connection structure is used for the connection between the first label module and the third label module,
  • the first label module, the second label module and the third label module belong to three different fiber optic connector assemblies.
  • the label information of different label modules shown in this aspect will not block each other, and the optical fiber connector body will not block the label information, which effectively improves the efficiency and accuracy of acquiring the label information.
  • the label information of each optical fiber connector assembly inserted on the sled is located in the camera range, then the target image including each label information can be obtained by photographing the sled with a terminal device with a camera (such as a smartphone).
  • a camera such as a smartphone
  • each optical fiber connector body identified by each label information in the target image can be identified, which effectively reduces the cost and complexity of identifying the optical fiber connector body identified by the label information, and can effectively reduce the cost and complexity of identifying the optical fiber connector body identified by the label information.
  • Each optical fiber connector body identified by each included label information is identified, which improves the identification efficiency.
  • each label information included in the target image can be recognized by image recognition technology for the target image, and the automatic input of label information can be realized according to the label information, and the input and statistics of each optical fiber connector body inserted in the insert frame can be realized. , the efficiency of managing the resources of the optical fiber connector body of the network node is improved.
  • the adjacent different label modules are in a connected relationship, so that the position of the label array is effectively fixed, so that in the process of subsequent use of the network node, the The label information of the label array will not be shifted in position, which effectively ensures that the label information of the label module can always be located in the camera range or visible range, and improves the identification of the optical fiber connector body identified by the label information. accuracy.
  • the label module shown in this aspect is connected with the optical cable, so that the position of the label module can be adjusted at any time as required, and the degree of freedom in adjusting the position of the label module is improved.
  • the operation difficulty of adding label modules, reducing label modules and changing the position of label modules at any time as needed in the subsequent use process of the network node is improved, and the efficiency is improved.
  • the first label module has a channel, and the optical cable passes through the channel.
  • the first label module shown in this aspect is connected to the optical cable through the provided channel, so that the position of the first label module can be adjusted at any time as required, and the degree of freedom in adjusting the position of the label module is improved.
  • the first connection structure is a clamping protrusion, a clamping groove, a dovetail, a dovetail groove, a buckle, a clamping groove and/or a magnetic member
  • the first connection structure is a
  • the two connecting structures are a holding protrusion, a holding groove, a dovetail, a dovetail groove, a buckle, a holding groove and/or a magnetic piece.
  • the adjacent different label modules can be in a connected relationship, thereby effectively fixing the position of the label array and effectively ensuring the label of the label module.
  • the information can always be located in the camera range or the visible range, which improves the accuracy of identifying the optical fiber connector body identified by the label information.
  • a hanger is extended on the second surface of the first label module, and the channel is formed between the hanger and the second surface.
  • a rotation through hole is provided on the second surface, a rotation space is provided inside the first label module, and the rotation space communicates with the rotation through hole; so
  • the pendant includes a pendant body and a first rotating arm and a second rotating arm connected at both ends of the pendant body. Both the first rotating arm and the second rotating arm are provided with a rotating groove, and the rotating groove is far away from the pendant.
  • the end of the body forms a resisting protrusion;
  • the rotating through hole includes a first orifice and a second orifice that communicate with each other, and the rotating groove is inserted into the rotating through hole through the first orifice, and the abutting protrusion abuts against the outer periphery of the second hole, and the outer periphery of the second hole is located inside the rotation space, so that the rotation groove is in the rotation through hole rotate.
  • the channel is formed between the pendant body and the second surface.
  • the first surface and the second surface are located opposite to each other, or the first surface and the second surface are connected.
  • the first label module further includes a third surface and a fourth surface that are positioned opposite to each other, the third surface is provided with a first channel opening, and the fourth surface is provided with A second channel port, the channel is provided through the first label module, and the channel is communicated with the first channel port and the second channel port respectively.
  • the first surface is respectively connected to the third surface and the fourth surface, and the optical cable passes through the channel.
  • the first label module includes a first sub-module and a second sub-module that are connected to each other, the first sub-module is provided with a first groove, and the first The outer peripheral wall of the groove is provided with an elastic snap slot, and the outer peripheral wall of the second sub-module is provided with an elastic snap.
  • the module is connected to the second sub-module; the second sub-module is provided with a second groove, and the channel is formed between the first groove and the second groove.
  • an opening is provided on the fifth surface of the first label module, the opening extends along the axial direction of the channel, and the opening communicates with the channel, so The fifth surface is opposite to the first surface, and the optical cable is inserted into the channel through the opening.
  • the height of the opening is smaller than the outer diameter of the optical cable.
  • the first label module further includes an insertion cover, and the insertion cover is provided at the opening.
  • the insertion wall of the cover is provided with an elastic buckle
  • the inner side wall of the channel is provided with a slot
  • the elastic buckle is engaged with the card
  • the insertion cover is provided at the opening.
  • a second aspect of the embodiments of the present invention provides a labeling system, the labeling system includes a ferrule, a first optical fiber connector assembly, and a second optical fiber connector assembly, the first optical fiber connector assembly and the second optical fiber
  • the connector assembly is inserted on the insert frame;
  • the first optical fiber connector assembly includes a first optical fiber connector body and a first label module
  • the second optical fiber connector assembly includes a second optical fiber connector and a second Label module, first label information is provided on the first surface of the first label module, and the first label information is used to identify the first optical fiber connector body, and the first surface of the second label module is provided with second label information.
  • the second label information is used to identify the second optical fiber connector body; the first label module has a first connection structure, the second label module has a second connection structure, and the first label module has a first connection structure. In a state where the connection structure is connected to the second connection structure, the first label module is connected to the second label module.
  • the label system further includes a third optical fiber connector assembly, and the third optical fiber connector assembly includes a third optical fiber connector and a third label module, and the third optical fiber connector assembly includes a third optical fiber connector and a third label module.
  • the first surface of the three-label module is provided with third label information, and the third label information is used to identify the third optical fiber connector body;
  • the first label module also has a second connection structure, and the third label module It has a first connection structure, and the first label module is connected with the third label module in a state where the first connection structure is connected with the second connection structure.
  • the first connection structure of the first label module, the first connection structure of the second label module, and the first connection structure of the third label module are the same
  • the second connection structure of the first label module, the second connection structure of the second label module and the second connection structure of the third label module are the same.
  • the first connection structure is a clamping protrusion
  • the second connection structure is a clamping groove
  • the first connection structure is a clamp a holding groove
  • the second connecting structure is a holding protrusion
  • the first connecting structure is a dovetail
  • the second connecting structure is a dovetail groove
  • the first connecting structure is a dovetail slot
  • the second connecting structure is a dovetail
  • the first connecting structure is a snap
  • the second connecting piece is a snap slot
  • the first connecting structure is a snap slot
  • the second connection member is a buckle
  • the first connection structure is a first magnetic member
  • the second connection structure is a second magnetic member
  • the magnetic poles are different.
  • the first surface of the first label module, the first surface of the second label module, and the first surface of the third label are located on the same surface.
  • the identification of each label information on the surface can be facilitated, and the mutual occlusion of different label information is effectively avoided, or the optical fiber connector
  • the shielding of the label information by the body effectively improves the accuracy of identifying the body of the optical fiber connector through the label information.
  • the first label module has a channel, and the optical cable passes through the channel.
  • the first connection structure is a clamping protrusion, a clamping groove, a dovetail, a dovetail groove, a buckle, a clamping groove and/or a magnetic member
  • the first connection structure is a
  • the two connecting structures are a holding protrusion, a holding groove, a dovetail, a dovetail groove, a buckle, a holding groove and/or a magnetic piece.
  • a hanger is extended on the second surface of the first label module, and the channel is formed between the hanger and the second surface.
  • a rotation through hole is provided on the second surface, a rotation space is provided inside the first label module, and the rotation space communicates with the rotation through hole; so
  • the pendant includes a pendant body and a first rotating arm and a second rotating arm connected at both ends of the pendant body. Both the first rotating arm and the second rotating arm are provided with a rotating groove, and the rotating groove is far away from the pendant.
  • the end of the body forms a resisting protrusion;
  • the rotating through hole includes a first orifice and a second orifice that communicate with each other, and the rotating groove is inserted into the rotating through hole through the first orifice, and the abutting protrusion abuts against the outer periphery of the second hole, and the outer periphery of the second hole is located inside the rotation space, so that the rotation groove is in the rotation through hole rotate.
  • the channel is formed between the pendant body and the second surface.
  • the first label module further includes a third surface and a fourth surface that are positioned opposite to each other, the third surface is provided with a first channel opening, and the fourth surface is provided with A second channel port, the channel is provided through the first label module, and the channel is communicated with the first channel port and the second channel port respectively.
  • the first surface is respectively connected to the third surface and the fourth surface, and the optical cable passes through the channel.
  • the first label module includes a first sub-module and a second sub-module that are connected to each other, the first sub-module is provided with a first groove, and the first The outer peripheral wall of the groove is provided with an elastic snap slot, and the outer peripheral wall of the second sub-module is provided with an elastic snap.
  • the module is connected to the second sub-module; the second sub-module is provided with a second groove, and the channel is formed between the first groove and the second groove.
  • an opening is provided on the fifth surface of the first label module, the opening extends along the axial direction of the channel, and the opening communicates with the channel, so The fifth surface is opposite to the first surface, and the optical cable is inserted into the channel through the opening.
  • the height of the opening is smaller than the outer diameter of the optical cable.
  • the first label module further includes an insertion cover, and the insertion cover is provided at the opening.
  • the insertion wall of the insertion cover is provided with an elastic buckle
  • the inner side wall of the channel is provided with a slot
  • the elastic buckle is engaged with the card.
  • the insertion cover is provided at the opening.
  • a third aspect of the embodiments of the present invention provides a label module, the label module is a first label module, the first label module is applied to an optical fiber connector assembly, and the optical fiber connector assembly includes an optical fiber connector body and a first label module.
  • a label module the first label module is connected to an optical cable, the optical cable is connected to the optical fiber connector body, the first label module has a first surface, the first surface is provided with label information, the label information used to identify the optical fiber connector body;
  • the first label module has a first connection structure and a second connection structure, the first connection structure is used for connecting the first label module and the second label module, the The second connection structure is used for connecting the first label module and the third label module, and the first label module, the second label module and the third label module belong to three different optical fiber connector assemblies.
  • the first label module has a channel, and the optical cable passes through the channel.
  • the first connection structure is a clamping protrusion, a clamping groove, a dovetail, a dovetail groove, a buckle, a clamping groove and/or a magnetic member
  • the first connection structure is a
  • the two connecting structures are a holding protrusion, a holding groove, a dovetail, a dovetail groove, a buckle, a holding groove and/or a magnetic piece.
  • a hanger is extended on the second surface of the first label module, and the channel is formed between the hanger and the second surface.
  • a rotation through hole is provided on the second surface, a rotation space is provided inside the first label module, and the rotation space communicates with the rotation through hole;
  • the pendant includes a pendant body and a first rotating arm and a second rotating arm connected at both ends of the pendant body. Both the first rotating arm and the second rotating arm are provided with a rotating groove, and the rotating groove is far away from the pendant.
  • the end of the body forms a resisting protrusion;
  • the rotating through hole includes a first orifice and a second orifice that communicate with each other, and the rotating groove is inserted into the rotating through hole through the first orifice, and the abutting protrusion abuts against the outer periphery of the second hole, and the outer periphery of the second hole is located inside the rotation space, so that the rotation groove is in the rotation through hole rotate.
  • the channel is formed between the pendant body and the second surface.
  • the first surface and the second surface are located opposite to each other, or the first surface and the second surface are connected.
  • the first label module further includes a third surface and a fourth surface that are positioned opposite to each other, the third surface is provided with a first channel port, and the fourth surface is provided with A second channel port, the channel is provided through the first label module, and the channel is communicated with the first channel port and the second channel port respectively.
  • the first surface is respectively connected to the third surface and the fourth surface, and the optical cable passes through the channel.
  • the first label module includes a first sub-module and a second sub-module that are connected to each other, the first sub-module is provided with a first groove, and the first The outer peripheral wall of the groove is provided with an elastic snap slot, and the outer peripheral wall of the second sub-module is provided with an elastic snap.
  • the module is connected to the second sub-module; the second sub-module is provided with a second groove, and the channel is formed between the first groove and the second groove.
  • an opening is provided on the fifth surface of the first label module, the opening extends along the axial direction of the channel, and the opening communicates with the channel, so The fifth surface is opposite to the first surface, and the optical cable is inserted into the channel through the opening.
  • the height of the opening is smaller than the outer diameter of the optical cable.
  • the first label module further includes an insertion cover, and the insertion cover is provided at the opening.
  • the insertion wall of the cover is provided with an elastic buckle
  • the inner side wall of the channel is provided with a slot
  • the elastic buckle is engaged with the card In the state in the groove, the insertion cover is provided at the opening.
  • FIG. 1 is a schematic structural diagram of an embodiment of an optical network provided by the application.
  • FIG. 2 is an exemplary structural diagram of an embodiment of a network node provided by the application in Embodiment 1;
  • FIG. 3 is a schematic structural diagram of another embodiment of the network node provided by the application in Embodiment 1;
  • FIG. 4 is an exemplary structural diagram of an embodiment of a network node provided with an optical fiber connector assembly in Embodiment 1 provided by the application;
  • FIG. 5 is an exemplary structural diagram of an embodiment of the optical fiber connector assembly provided by the application in Embodiment 1;
  • FIG. 6A is a schematic structural diagram of another embodiment of the first label module provided by the present application in Embodiment 1;
  • FIG. 6B is a schematic structural diagram of another embodiment of the first label module provided by the present application in Embodiment 1;
  • FIG. 7 is a structural example diagram of another embodiment of the network node provided with the optical fiber connector assembly in Embodiment 1 provided by the application;
  • FIG. 8 is an example diagram of an application scenario of the network node provided by the application in Embodiment 1;
  • FIG. 9 is an example diagram of another application scenario of the network node provided by the application in Embodiment 1;
  • FIG. 10 is a schematic structural diagram of another embodiment of the network node provided by the application with the optical fiber connector assembly inserted therein in Embodiment 1;
  • FIG. 11A is an exemplary structural diagram of an embodiment of a network node provided with an optical fiber connector assembly in Embodiment 2 provided by the application;
  • Fig. 11B is another example structure diagram of the second embodiment of the network node provided with the optical fiber connector assembly inserted in the application;
  • FIG. 11C is another exemplary structural diagram of the second embodiment of the network node provided with the optical fiber connector assembly inserted therein;
  • FIG. 12 is an exemplary structural diagram of an embodiment of the optical fiber connector assembly provided by the application in Embodiment 3;
  • FIG. 13 is a structural example diagram of another embodiment of the optical fiber connector assembly provided by the application in Embodiment 3;
  • FIG. 14 is a structural example diagram of another embodiment of the optical fiber connector assembly provided by the application in Embodiment 3;
  • FIG. 15 is a structural example diagram of another embodiment of the optical fiber connector assembly provided by the application in Embodiment 3;
  • FIG. 16 is an exemplary structural diagram of an embodiment of the optical fiber connector assembly provided by the application in Embodiment 4.
  • FIG. 17 is a schematic structural diagram of an embodiment of the first label module provided by the application in Embodiment 4.
  • FIG. 18 is an exemplary structural diagram of an embodiment of the optical fiber connector assembly provided by the application in Embodiment 5;
  • FIG. 19 is a structural example diagram of another embodiment of the optical fiber connector assembly provided by the application in Embodiment 5;
  • FIG. 20 is a structural example diagram of another embodiment of the optical fiber connector assembly provided by the application in the fifth embodiment.
  • the application provides an optical fiber connector assembly.
  • the following first describes the optical network system to which the optical fiber connector assembly is applied:
  • FIG. 1 is a structural example diagram of an embodiment of an optical network provided by the present application.
  • the present application takes the application of the optical fiber connector assembly in the passive optical network (passive optical network, PON) system as an example to illustrate:
  • the PON system includes an optical line terminal (OLT) 101, and the OLT 101 is used to provide a network-side interface for an optical access network (OAN).
  • OLT 101 is connected to upper-layer network-side devices (such as switches, routers, etc.), and the lower layer is connected to one or more optical distribution networks (ODNs) 102 .
  • ODNs optical distribution networks
  • the ODN102 includes a passive optical splitter for optical power distribution, a trunk optical cable connected between the passive optical splitter and the OLT101, and the trunk optical cable is used to realize the transmission of optical signals between the OLT101 and the ODN102 , the ODN102 also includes a branch optical cable connected between the passive optical splitter and the optical network unit (optical network unit, ONU) 103, and the branch optical cable is used to realize the optical signal between the ODN102 and the ONU103. transmission.
  • ONU optical network unit
  • the ODN102 transmits the downlink optical signal from the OLT101 to each ONU through the passive optical splitter.
  • the ODN aggregates the upstream optical signal from the ONU103 and transmits it to the OLT101.
  • ONU103 provides a user-side interface for OAN and is connected to ODN102 at the same time. If the ONU103 provides user port functions at the same time, for example, the ONU provides an Ethernet (Ethernet) user port or a traditional telephone service (plain old telephone service, POTS) user port, it is called an optical network termination (optical network termination, ONT). In this application, ONUs or ONTs are collectively referred to as optical network units ONUs.
  • Ethernet Ethernet
  • POTS plain old telephone service
  • ONT optical network termination
  • the optical cable output from the OLT101 is connected to an optical distribution frame (optical distribution frame, ODF) unit 104 included in the ODN 102, and the ODF unit 104 may include one or more ODFs.
  • ODF optical distribution frame
  • the output optical cable is connected to an optical fiber distribution terminal (fiber distribution terminal, FDT) unit 105, and the FDT unit 105 may include one or more FDTs.
  • FDT optical fiber distribution terminal
  • the FDT unit 105 is used to redistribute optical cables.
  • the management scope of an FDT unit 105 may be a cell or a street, and the optical fiber connection to which the FDT unit 105 is connected can be selected according to the number of users that the FDT unit 105 needs to manage. the number of device components.
  • the FDT unit 105 is connected to an optical fiber access terminal (fiber access terminal, FAT) unit 106 through an optical cable, and the FAT unit 106 includes one or more FATs.
  • FAT optical fiber access terminal
  • the FAT unit 106 is connected to the ONU 103, wherein the FAT unit 106 is a user access point for connecting a home optical cable, and the home segment optical cable refers to the section of the optical cable from the FAT unit 106 to the user's home.
  • the optical fiber connector assembly provided in this application is applied to a fiber jumper or pigtail.
  • the application of an optical fiber connector assembly to a fiber jumper is used as an example for illustration, that is, two optical fibers are respectively connected at both ends of a fiber jumper.
  • the connector assembly, the fiber jumper can be applied to the ODF unit 104, the FDT unit 105 or the FAT unit 106, which is not specifically limited.
  • the fiber jumper is connected in any of the following scenarios:
  • ODF unit 104 It is connected between two interconnected ODFs included in the ODF unit 104, between different adapters of the same ODF, between the OLT 101 and the ODF, and between the FDT unit 105. Between two interconnected FDTs, between different adapters of the same FDT, between two interconnected FATs included in the FAT unit 106, between the FAT unit 106 and an access terminal box (access terminal box, ATB) or connected between the FAT unit 106 and the ONU 103.
  • ATB access terminal box
  • the two ends of the fiber jumper are respectively connected with a first optical fiber connector assembly and a second optical fiber connector assembly. It can be seen that the first optical fiber connector assembly and the second optical fiber connector assembly are connected to different adapters of the same FDT. , such as Adapter A and Adapter B.
  • the fiber jumper cannot realize the optical signal transmission. transmission.
  • optical fiber connector assembly provided in the present application has various implementation embodiments. For better understanding, each embodiment will be described one by one below.
  • FIG. 2 to FIG. 4 the network nodes shown in FIG. 2, FIG. 3 and FIG. 4 are the network nodes in different View of the structure diagram.
  • the network node includes a subrack 200 on which a plurality of adapters are fixed.
  • the optical fiber connector assembly 500 includes an optical fiber connector body and a first label module 503. Specifically, the first label module 503 and the optical fiber connector body shown in this embodiment are two independent components. When the first label module 503 identifies the optical fiber connector assembly 500, the first label module 503 can be connected to the optical fiber connector body.
  • the adapter 201 shown in this embodiment has a plug-in port, and the plug-in port is used for inserting and fixing the optical fiber connector body.
  • the optical signal interaction can be performed between the optical fiber connector body and the network node.
  • the optical fiber connector body has a plug 504 and a tail sleeve 505 , and the tail sleeve 505 is connected to the optical cable 506 .
  • the plug 504 is used to be inserted into the adapter to realize the connection between the optical fiber connector assembly 500 and the adapter.
  • the type of the optical fiber connector body described in this embodiment is not limited.
  • the type of the optical fiber connector body shown in this embodiment is any one of the following:
  • FC metal connector
  • client connector subscriber connector, SC
  • small head lucent connector
  • LC small head
  • straight tip straight tip
  • ST straight tip
  • FDDI fiber distributed data interface
  • the first label module 503 shown in this embodiment will be described below:
  • the first label module 503 shown in this embodiment is connected to the optical cable 506 , and this embodiment shows the positional relationship between the first label module 503 connected to the optical cable 506 and the optical fiber connector assembly 500 It is not limited, as long as the first label module 503 is connected to the optical cable 506 .
  • the first label module 503 is connected at a position close to the tail cover 505 .
  • the first label module 503 is connected at a position away from the optical fiber connector assembly 500 .
  • the first label module 503 shown in this embodiment is used to indicate the optical fiber connector body. Specifically, the first label module 503 has a first surface 601, and the first surface 601 is used for setting label information , the label information is used to identify the optical fiber connector body.
  • the label information for identifying the optical fiber connector body is provided on the first surface 601.
  • This embodiment does not limit the label information, as long as the label information can play a role in identifying the optical fiber connector body.
  • a unique identification can be used. That is, different label information can be used to identify different optical fiber connector bodies.
  • the label information may be a two-dimensional code, a unique identifier, a barcode, or digital text information for uniquely identifying the optical fiber connector body.
  • the position of the first surface 601 shown in this embodiment will be described below. It should be clearly stated that the description of the position of the first surface 601 in this embodiment is an optional example, and is not limited, as long as the first The surface 601 only needs to be located within the visible range or the imaging range.
  • the sub-frame 200 shown in this embodiment may be a high-density sub-frame, wherein the high-density sub-frame refers to a unit area of the sub-frame panel where multiple optical fiber connections are inserted. connector assemblies, and the gap between adjacent fiber optic connector assemblies is small.
  • the plurality of adapters included in the sub-frame 200 form an adapter array, and the adapter array includes N rows of adapters arranged along the lateral direction 204 of the sub-frame 200 , and the adapter array also includes a vertical direction of the sub-frame 200 . 205 array of M-column adapters.
  • the horizontal direction 204 and the vertical direction 205 are perpendicular to each other, and the specific values of M and N are not limited in this embodiment.
  • the first surface 601 is opposite to the surface of the subframe 200 .
  • the first label module 503 shown in this embodiment has a second surface 602 , and the second surface 602 is disposed opposite to the surface of the sub-frame 200 , that is, the second surface 602 is disposed facing the surface of the sub-frame 200 , the first surface 601 and the second surface 602 are two side surfaces of the first label module 503 that are opposite to each other. From the perspective of orientation, it can be seen that the second surface 602 faces inward relative to the surface of the sub-frame 200 ; the first surface 601 faces outward relative to the surface of the sub-frame 200 .
  • the outward facing first surface 601 is the surface visible to the human eye 901 , and the inward facing second surface 602 , It is a surface invisible to the human eye 901 .
  • the first surface 601 is opposite to the surface of the sub-frame 200 .
  • the first surfaces of the optical fiber connector assemblies inserted into the sub-frame 200 are all located within the visible range of the human eye 901 .
  • the first surface 601 is located within the line of sight of the human eye 901 , and the first surface 601 shown in this embodiment is also located within the imaging range of the camera.
  • the camera 1000 takes a picture of the surface of the sub-frame 200, so the The acquired target image includes each adapter included in the subframe 200 .
  • the camera 1000 takes a picture of the surface of the sub-frame 200, and the obtained target image can completely and clearly capture the labels set on each first surface 601 information.
  • the first surface 601 shown in this embodiment is located within the visible range of the human eye and/or within the imaging range of the camera.
  • the first surface 601 shown in this embodiment is located within the range of the camera as: example to illustrate.
  • the first surface 601 is parallel to the surface of the sub-frame 200 (as shown in FIG. 7 ).
  • the angle between the first surface 601 and the surface of the sub-frame 200 may also be an obtuse angle. This embodiment does not limit the specific angle, as long as the first surface 601 is located within the imaging range. .
  • this embodiment takes the first surface 601 as a plane structure as an example for illustrative description.
  • the first surface 601 may also be a curved surface or any other shape, as long as the first surface 601 has a flat structure.
  • the set label information can be located within the camera range.
  • the first label module 503 is connected to the optical cable 506.
  • the label information needs to be always within the camera range, that is, the first label information is required.
  • the position of a label module 503 is fixed, and the fixed position of the first label module 503 can effectively ensure that the label information on the first surface 601 of the first label module 503 can always be located within the camera range. How to The position of the first label module 503 is fixed and explained:
  • any adjacent three label modules in the plurality of label modules fixed in the sub-frame 200 are used as an example for illustrative description, wherein, in this example, any adjacent three label modules are used as an example.
  • the labeling modules are the first labeling module 1102, the second labeling module 1103, and the third labeling module 1104 as an example to illustrate:
  • the label information of the first label module 1102 , the label information of the second label module 1103 and the The third label module 1104 is always fixed within the camera range.
  • the first label module 1102 is located between the second label module 1103 and the third label module 1104 as an example for illustrative description:
  • the first label module 1102 has a first connection structure.
  • the second label module 1103 is located above the first label module 1102 .
  • the first connection structure is provided on the surface. It should be clear that the specific position of the first connection structure is not limited in this embodiment, as long as the first connection structure is located on the first label module 1102 and faces the first connection structure.
  • the second label module 1103 can be on the surface.
  • the first label module 1102 has a second connection structure.
  • the third label module 1104 is located below the first label module 1102 .
  • the second connection structure is provided on the surface. It should be clearly stated that the specific position of the second connection structure is not limited in this embodiment, as long as the second connection structure is located on the first label module 1102 and faces the first label module 1102. The surface of the three-tag module 1104 is sufficient.
  • first label module 1102 The connection between the first label module 1102 and the second label module 1103 is described below:
  • the second label module 1103 has a second connection structure.
  • the first label module 1102 is located below the second label module 1103 .
  • the second connection structure is provided on the surface. It should be clearly stated that the specific position of the second connection structure of the second label module 1103 is not limited in this embodiment, as long as the second connection structure of the second label module 1103 is not limited. It may be located on the surface of the second label module 1103 facing the first label module 1102 .
  • the first connection structure of the first label module 1102 and the second connection structure of the second label module 1103 shown in this embodiment are matched and connected to each other. In the state where the second connection structure of the second label module 1103 is connected, the connection between the first label module 1102 and the second label module 1103 is realized.
  • first connection structure and the second connection structure are one or more of the following connection modes:
  • the first connecting structure is a holding protrusion
  • the second connecting structure is a holding groove.
  • the first connecting structure is a holding groove
  • the second connecting structure is a holding protrusion.
  • the first connection structure is a dovetail
  • the second connection structure is a dovetail groove. In the state where the dovetail is inserted into the dovetail groove, the first connection structure and the second connection structure are realized. connection between.
  • the first connection structure is a dovetail groove
  • the second connection structure is a dovetail.
  • the first connection structure is a buckle
  • the second connection piece is a slot.
  • the first connection structure is a card slot
  • the second connection piece is a buckle
  • the first connection structure and the second connection are realized when the buckle is snapped and fixed in the card slot. Connections between connected structures.
  • the first connection structure is a first magnetic member
  • the second connection structure is a second magnetic member
  • the first magnetic member and the second magnetic member have different magnetic poles
  • the first magnetic member and the second magnetic member have different magnetic poles.
  • the connection between the first connection structure and the second connection structure is realized in a state in which the second magnetic members attract each other and are fixed.
  • the first connection structure and the second connection structure can be integrally formed.
  • the optical fiber connector is pre-assembled.
  • the optical cable connected by the assembly is passed through the hole between the first connection structure and the second connection structure.
  • the first connection structure can be a cable tie, an adhesive tape, etc., and the first connection structure connects the optical cable with the second connection structure.
  • the first connection structure is a cable tie
  • the The optical cable is tightly connected with the second connection structure.
  • the first connection structure is an adhesive tape
  • the optical fiber cable and the second connection structure can be bonded by an adhesive tape.
  • connection structure of the first label module 1102 is connected to the first connection structure of the third label module 1104, and the second connection structure of the first label module 1102 and the third label module 1104 are connected.
  • connection mode of a connection structure please refer to the description of the connection mode of the first connection structure of the first label module 1102 and the second connection structure of the second label module 1103 shown above, and details are not repeated.
  • connection modes of the first label module 1102 , the second label module 1103 and the third label module 1104 it can be known that the plurality of label modules inserted and fixed on the insert frame 200 have been inserted and fixed.
  • the structures of the first connection structures of different label modules are all the same, for example, the first connection structures of the plurality of label modules inserted and fixed on the insert frame 200 are all dovetails.
  • the structure of the second connection structure of different label modules is the same.
  • the plurality of label modules that have been inserted and fixed on the sub-frame 200 The second connection structures of the 2 are all dovetail grooves.
  • the first label module is the first label module 1105 shown in FIG. 10
  • the first label module 1105 is located at the edge of the label array, wherein the label array is inserted in the label array.
  • the first label module at the edge of the label array shown in this embodiment may be at the bottom edge (eg, the last label module in a column of label modules), the top edge (eg, the first label module in a column of label modules), the top edge (eg, the first label module in a column of label modules) label modules), right edge (as in the rightmost label module in a row label module), or left edge (as in the leftmost label module in a row label module).
  • the first label module 1105 is located at the bottom edge of the label array as an example to illustrate:
  • the subframe 200 is extended to form a fixing plate 1106.
  • the fixing plate 1106 and the first label module 1102 are positioned opposite to each other, and the fixing plate 1106 faces the first label module 1102.
  • the surface of the label module 1102 is provided with a first connection structure, and the first connection structure of the fixing plate 1106 is connected with the second connection structure of the first label module 1102 to realize the first connection structure located at the edge of the label array.
  • the description of the first connection structure and the second connection structure can be found in the above description, and will not be repeated.
  • this embodiment can realize the connection between any two adjacent label modules in the label array, and can also realize the connection between the label array and the insert frame, so that the overall position of the label array can be fixed, and the label array can be fixed in the label array.
  • the overall position of the array is fixed, the position of the label information of each label module is also fixed, thereby effectively ensuring that each label information on the label array is located within the camera range.
  • a plurality of label modules are vertically adjacent to each other, the first connection structure is provided on the upper surface of the first label module 1102 , and the first connection structure is provided on the lower surface of the first label module 1102 .
  • the second connection structure as an example, if a plurality of label modules are adjacent in a horizontal position, the left side wall of the first label module is provided with a first connection structure, and the right side wall of the first label module is provided with a second connection structure structure.
  • This embodiment does not limit the specific positions of the first surfaces of each label module included in the label array, as long as the label information on the first surface is located within the camera range.
  • the information has a unified orientation as an example to illustrate:
  • different label information in the label array has a uniform orientation, which means that in the scenario of the high-density sub-frame shown in FIG. It is parallel to the surface of the sub-frame 200, and each first surface 601 is located on the same surface, so as to facilitate the camera to shoot. It is effectively ensured that the photos taken by the camera on the plug-in frame 200 can capture clear and complete label information.
  • the included angles between the first surfaces 601 of different label modules and the surface of the sub-frame 200 may also be unequal, as long as each of the first surfaces 601 is located within the imaging range.
  • each of the first surfaces 601 has a uniform orientation, and it can also mean that the first surfaces 601 of the plurality of label modules that have been inserted into the insert frame 200 are located on the same surface , the same surface can be a plane structure, a curved surface structure, a concave-convex structure, etc., which is not specifically limited, as long as the multiple label information located on the same surface is located within the visible range or the camera range.
  • the label information of a plurality of label modules connected to each other may be located in the label area 1140 , and the plurality of label information located in the label area 1140 have the same orientation, so that the label information located in the label area 1140 has the same orientation.
  • a plurality of tag information in 1140 are located in the camera range or line of sight.
  • the label information shown in this embodiment can be set on the first surface 601 when the optical fiber connector assembly leaves the factory. Label information is provided on the first surface 601 .
  • each optical fiber connector body identified by each label information can be determined based on the label information. It can be seen that the optical fiber connector body is identified by the label information shown in this embodiment. , effectively improving the efficiency of identifying the optical fiber connector body.
  • connection method between the first label module 503 and the optical cable 506 shown in this embodiment will be described below:
  • the first label module 503 is applied to the high-density sub-frame as an example for description:
  • the first label module 503 shown in this embodiment includes an interconnected hanger 610 and a label body 612 , and the label body 612 has the first surface 601 and the second surface 602 .
  • a channel 611 is formed between the pendant 610 and the second surface 602 .
  • the optical cable 506 passes through the channel 611 to realize the connection between the first label module 503 and the optical cable 506 .
  • the second surface 602 is provided with a rotation through hole 613 , and the inside of the label body 612 is provided with a rotation space 614 , and the rotation space 614 communicates with the rotation through hole 613 .
  • the pendant 610 includes a pendant body 615 and a first rotating arm 616 and a second rotating arm 617 connected to both ends of the pendant body 615. Both the first rotating arm 616 and the second rotating arm 617 are provided with a rotating groove 618, The end of the rotation groove 618 away from the hanger body 615 forms a resisting protrusion 619 .
  • the rotation through hole 613 includes a first hole 620 and a second hole 621, the first hole 620 and the second hole 621 are opposite to each other along the axial position of the rotation through hole 613, and the first hole Both the orifice 620 and the second orifice 621 communicate with the rotation through hole 613 .
  • the rotation groove 618 is inserted into the rotation through hole 613 through the first hole 620 , and the abutting protrusion 619 abuts against the outer periphery of the second hole 621 .
  • the outer peripheral edges of the two holes 621 are located inside the rotating space 614 , so that the rotating groove 618 can rotate in the rotating through hole 613 .
  • the channel 611 is formed between the pendant body 615 and the second surface 602, and the optical cable 506 passes through the channel 611 to realize the first label module 503 and the Connections between fiber optic cables 506 .
  • connection method between the pendant 610 and the label body 612 shown in this embodiment is an optional example and not limited.
  • connection between the pendant 610 and the label body 612 is not limited. Any method such as magnetic connection, elastic connection or bonding can also be used.
  • the magnetic connection may be as follows: when the pendant 610 is a metal part, and the label body 612 is a magnet, so that in the state where the pendant 610 and the label body 612 attract each other for connection, The connection between the pendant 610 and the label body 612 is realized.
  • the elastic connection can be as follows: the first rotating arm 616 and the second rotating arm 617 of the hanger 610 are made of elastic materials, and the second surface of the label body 612 is connected to the first rotating arm 617 .
  • a first socket is provided at a position corresponding to a rotating arm 616
  • a second socket is provided at a position corresponding to the second surface of the label body 612 and the second rotating arm 617 , and is inserted into the first rotating arm 616
  • the first rotating arm 616 and the first socket are tightly fitted, and when the second rotating arm 617 is inserted into the second socket,
  • the second rotating arm 617 is tightly fitted with the second socket to realize the connection between the hanger 610 and the label body 612 .
  • the bonding method can be as follows: an adhesive layer is provided between the first rotating arm 616 and the second surface, and an adhesive layer is also provided between the second rotating arm 617 and the second surface , the connection between the hanger 610 and the label body 612 is realized through the adhesive layer.
  • the optical fiber connector body is marked by the fixed position label module, and the first surfaces of the different label modules are all within the visual range or the camera range, thereby effectively avoiding the problem of The mutual interference and entanglement between different label modules and between the label modules and the optical fiber connector body reduce the difficulty of maintaining network nodes.
  • the label information of different label modules shown in this embodiment will not be shielded from each other, and the optical fiber connector body will not be shielded from the label information, which effectively improves the efficiency and accuracy of obtaining label information. .
  • the label information of each optical fiber connector assembly inserted on the sled is located in the camera range, then the target image including each label information can be obtained by photographing the sled with a terminal device with a camera (such as a smartphone).
  • a terminal device such as a smartphone
  • each optical fiber connector body identified by each label information in the target image can be identified, and no special device is required for identification, which effectively reduces the cost and cost of identifying the optical fiber connector body identified by the label information.
  • the recognition efficiency is improved by recognizing each optical fiber connector body identified by each label information included in the target image.
  • the target image can be identified by image recognition technology to identify each label information included in the target image, and the label information can be automatically entered according to the label information, and the entry and statistics of each optical fiber connector body inserted in the insert frame can be realized. , the efficiency of managing the resources of the optical fiber connector body of the network node is improved.
  • the position of the label array is effectively fixed, so that in the process of subsequent use of the network node, all The label information of the label array will not be shifted in position, thus effectively ensuring that the label information of the label module can always be located in the camera range or visible range, and improving the accuracy of the optical fiber connector body identified by the label information. recognition accuracy.
  • the label module shown in this embodiment is connected with the optical cable, so that the position of the label module can be adjusted at any time as required, and the degree of freedom in adjusting the position of the label module is improved.
  • the operation difficulty of adding label modules, reducing label modules and changing the position of label modules at any time as needed in the subsequent use process of the network node is improved, and the efficiency is improved.
  • the case where the optical fiber connector assembly is applied to the high-density sub-frame is taken as an example, and the present embodiment takes the application of the optical fiber connector assembly in the non-high-density scenario as shown in FIG. 11A as an example.
  • the optical fiber connector assembly shown in this embodiment can also be applied to the scenario of a high-density subrack, and this embodiment is only an example.
  • the subrack 1010 included in the network node is a non-high-density scenario.
  • the subrack 1010 shown in this embodiment only includes one row of adapters 1011 .
  • the description of the structure of the subrack 1010 in this embodiment is an optional example, which is not limited.
  • the optical fiber connector assembly shown in this embodiment includes an optical fiber connector body and a first label module 503.
  • a first label module 503. For the description of the specific structure of the optical fiber connector body, please refer to Embodiment 1, and details are not repeated.
  • the first label module 503 shown in this embodiment has a first surface 1012, and the first surface 1012 is used to set label information.
  • the label information please refer to the first embodiment, which is described in this chapter for details. It is not repeated in the embodiment.
  • the first surface 1012 shown in this embodiment is located within the visible range or the imaging range.
  • the visible range and the imaging range please refer to Embodiment 1, and details are not repeated.
  • the first surface 1012 can be positioned at the bottom surface 1020 of the sub-frame 1010 In contrast, so that the label information set on the first surface 1012 can be located within the imaging range of the camera when the camera is above the insert frame 1010 .
  • the first surface 1012 may be opposite to the top surface of the sub-frame 1010 , so that when the camera is under the sub-frame 1010 , the first surface is disposed on the first surface.
  • the tag information of is located within the imaging range of the camera.
  • the label information of all the optical fiber connector assemblies inserted in the sub-frame 1010 may have a uniform orientation, which specifically refers to the respective first surfaces of different label modules that have been inserted in the sub-frame 1010
  • Each of the first surfaces 1012 is perpendicular to the surface of the sub-frame 200, and each of the first surfaces 1012 is located on the same surface, so as to facilitate the camera to shoot. It is effectively ensured that the photos taken by the camera on the insert frame 1010 can capture clear and complete label information.
  • the included angles between the first surfaces 1012 of different tag modules and the surface of the sub-frame 1010 may also be unequal, as long as each of the first surfaces 1012 is located within the camera range.
  • the respective first surfaces 1012 of the different label modules that have been inserted on the sub-frame 1010 may be located on the same surface, and the same surface may be a plane structure or a curved structure, so that a plurality of labels located on the same surface
  • the label information is located in the visible range or the camera range.
  • orientations of the respective first surfaces 1012 of the different label modules that have been inserted into the sub-frame 1010 are opposite to the positions of the surfaces of the sub-frame, so that each first surface 1012 is located in the visible range or the camera. within the range.
  • the first surfaces 1012 of each of the first label modules 503 are located within the camera range, and the target image obtained by photographing the label array with the camera can be obtained through the target image, including those that have been inserted into the frame.
  • the label information of each optical fiber connector assembly on 1010, the optical fiber connector body identified by each label information can be determined based on the label information. It can be seen that the optical fiber connector body is identified by the label information shown in this embodiment, The efficiency of identifying the optical fiber connector body is effectively improved.
  • FIG. 11A is an optional example of a frame in a non-high-density scenario, which is not limited.
  • the network node is FAT as an example. Exemplary description:
  • the sub-frame 1010 includes a row of adapters, and the optical cables 506 connected to the plurality of optical fiber connector assemblies inserted in the adapter are connected to the label modules located in the same row. It can be seen that, as shown in FIG. 11A , both the adapter and label arrays are arranged in a single row.
  • the sub-frame 1030 includes a plurality of adapters 1031 arranged in multiple rows and columns, so that the label module can insert the optical fiber connectors into any of the adapters arranged in multiple rows and columns. If the main body is used for identification, each tag information included in the tag array needs to be located in the camera range or the line of sight.
  • the arrangement of the tag array in Figures 11B and 11C is the same as that of the tag array shown in Figure 11A.
  • the multiple label modules included in the label array are arranged in the same row, so as to effectively ensure that each label information in the label array is located within the camera range or line of sight.
  • Figure 11A shown please refer to Figure 11A shown, and details are not repeated.
  • the optical cables connected to the optical fiber connector assemblies inserted in different adapters are connected to different label modules 1040 arranged in the same row.
  • the plurality of label modules 1040 included in the label array are arranged along the same row as an example for illustrative description.
  • the plurality of label modules 1040 included in the label array may also be Arrange along the same column, as long as the label information of each label module included in the label array is located within the camera range or the visible range.
  • connection method between the first label module 503 and the optical cable 506 shown in this embodiment will be described below:
  • the first label module 503 further includes a third surface 1013 and a fourth surface 1014 located opposite to each other, the third surface 1013 is provided with a first channel opening, and the fourth surface 1014 is provided with a second channel
  • the port 1021 is provided with a channel through the first label module 503 .
  • the passages communicate with the first passage opening and the second passage opening, respectively.
  • first channel opening is disposed facing the optical fiber connector body
  • second channel opening is disposed facing away from the optical fiber connector body
  • the first surface 1012 shown in this embodiment is connected to the third surface 1013 and the fourth surface 1014 respectively, and the optical cable 506 passes through the channel.
  • different adjacent label modules in the label array have a connection relationship.
  • the label module 1022 and the label module 1023 shown in FIG. 10 are used as an example, that is, the label module 1022 and the label module 1023 is inserted into two adapters in the same row and adjacent to each other on the sub-frame 1010 .
  • the side of the label module 1022 facing the label module 1023 is provided with a first connection structure, and the side of the label module 1023 facing the label module 1022 is provided with a first connection structure.
  • the connection of the second connection structure realizes the connection between the label module 1022 and the label module 1023.
  • the first connection structure and the second connection structure please refer to Embodiment 1 for details. Details are not described in this embodiment.
  • This embodiment continues to take the scenario in which the optical fiber connector assembly is applied to the non-high-density subrack as an example.
  • the non-high-density scenario please refer to the second embodiment. The details will not be repeated. It should be clearly stated that this embodiment The illustrated optical fiber connector assembly can also be applied to the scenario of a high-density subrack, and this embodiment is only an example.
  • the optical fiber connector assembly shown in this embodiment includes an optical fiber connector body and a first label module 503.
  • a first label module 503. For the description of the specific structure of the optical fiber connector body, please refer to Embodiment 1, and details are not repeated.
  • the first label module 503 shown in this embodiment has a first surface 1012, and the first surface 1012 is used for setting label information.
  • first surface 1012 and the label information please refer to the second embodiment for details. It is not described in detail in this embodiment.
  • the first surface 1012 shown in this embodiment is located within the visible range or the camera range.
  • Details please refer to Embodiment 2, and details are not repeated.
  • connection method between the first label module 503 and the optical cable 506 shown in this embodiment will be described below:
  • the first label module 503 shown in this connection mode further includes a connection surface 1014 .
  • the first surface 1012 and the connection surface 1014 are located opposite to each other.
  • the first label module 503 shown in this connection mode includes a pendant 1015 and a label body 1016 that are connected to each other.
  • a pendant 1015 and a label body 1016 that are connected to each other.
  • the specific structure of the pendant 1015 refer to Embodiment 1, and details are not repeated.
  • a channel 1017 is formed between the pendant 1015 and the connecting surface 1014 .
  • the optical cable 506 passes through the channel 1017 to realize the connection between the first label module 503 and the optical cable 506 .
  • the connecting surface 1014 is provided with a rotating through hole.
  • the rotating through hole provided on the connecting surface 1014 please refer to the description of the rotating through hole 613 shown in the first embodiment, and details are not repeated.
  • the label body 1016 is also provided with a rotation space.
  • a rotation space For the specific description of the rotation space, please refer to the description of the rotation space 614 inside the label body 612 shown in the first embodiment, and details are not repeated.
  • the adjacent different tag modules in the tag array have a connection relationship.
  • Embodiment 2 which will not be repeated.
  • the optical fiber connector assembly is applied to the high-density subrack.
  • the high-density subrack please refer to Embodiment 1, which is not repeated in this embodiment. It should be clear that the optical fiber connector assembly shown in this embodiment can also be applied to scenarios such as non-high-density subracks, and details are not described in this embodiment.
  • the optical fiber connector assembly shown in this embodiment includes an optical fiber connector body and a first label module 503 .
  • a first label module 503 For the description of the specific structure of the optical fiber connector body, please refer to the first embodiment, specifically in this embodiment. The example is not repeated.
  • the first label module 503 shown in this embodiment has a first surface 601, and the first surface 601 is used for setting label information.
  • the first surface 601 and the label information please refer to the embodiment for details. As shown in Fig. 1, details are not described in this embodiment.
  • the first surface 601 shown in this embodiment is located within the visible range or the imaging range.
  • the visible range and the imaging range please refer to Embodiment 1, and details are not repeated.
  • connection method of the first label module 503 and the optical cable 506 shown in this embodiment will be described below with reference to FIGS. 16 and 17 :
  • the fifth surface 530 of the first label module 503 is provided with an opening 531.
  • the description of the specific position of the fifth surface 530 in this embodiment please refer to the description of the position of the second surface shown in the first embodiment. It is not repeated in the embodiment.
  • a channel 532 is provided through the first label module 503 , the opening 531 extends along the axial direction of the channel 532 , and the opening 531 communicates with the channel 532 , and the optical cable 506 passes through the channel 532 .
  • the opening passes through the channel 532 to realize the connection between the fiber optic cable 506 and the fiber optic connector assembly.
  • the height of the opening 531 is smaller than the height of the optical cable 506 in the direction perpendicular to the axial direction of the channel 532 .
  • the optical cable 506 can be squeezed into the channel 532 through the opening 531, so that the optical cable 506 is subjected to It is deformed under the action of the squeezing force until the optical cable 506 enters the channel 532. It can be seen that the optical cable 506 can be inserted into the channel 532 through the opening 531, so as to realize the first label module 503 and the optical cable. 506 connections between.
  • the first label module further includes an insertion cover, the insertion cover is provided at the opening 531 , optionally, the insertion frame and the opening 531 can be fixed by snapping , the specific connection method is as follows:
  • the insertion wall of the cover is provided with elastic buckles, and the inner side wall of the channel 532 is provided with a slot.
  • the elastic buckle is engaged in the slot, the insertion cover is installed in the slot. the opening 531.
  • connection method between the insertion cover and the opening 531 in this embodiment is an optional example and is not limited.
  • connection between the opening 531 and the insertion frame may also be The connection is made by any method such as magnetic connection, elastic connection or bonding.
  • magnetic connection, elastic connection or bonding please refer to the first embodiment. It is not repeated in the embodiment.
  • the adjacent different tag modules in the tag array have a connection relationship.
  • the optical fiber connector assembly is applied to the high-density subrack.
  • the high-density subrack please refer to Embodiment 1.
  • the details are not repeated in this embodiment. It should be clearly stated that:
  • the optical fiber connector assembly shown in this embodiment can also be applied to scenarios of non-high-density subracks, and this embodiment is only an example.
  • the optical fiber connector assembly shown in this embodiment includes an optical fiber connector body and a first label module 503 .
  • a first label module 503 For the description of the specific structure of the optical fiber connector body, please refer to the first embodiment, specifically in this embodiment. The example is not repeated.
  • the first label module 503 shown in this embodiment has a first surface, and the first surface is used for setting label information.
  • the first surface and the label information please refer to the first embodiment. , and details are not described in this embodiment.
  • the first surface shown in this embodiment is located within the visible range or the imaging range.
  • the visible range and the imaging range please refer to Embodiment 1, and details are not repeated.
  • connection method of the first label module 503 and the optical cable 506 shown in this embodiment will be described below with reference to FIGS. 18 to 19 :
  • the first label module 503 includes a first sub-module 1801 and a second sub-module 1802 connected to each other, the first sub-module 1801 is provided with a first groove 1803, and the outer peripheral wall of the first groove 1803 is provided with elastic A card slot 1805, the outer peripheral wall of the second sub-module 1802 is provided with an elastic buckle 1806. When the elastic buckle 1806 is engaged in the elastic card slot 1805, the first sub-module 1801 and the The second sub-module 1802 is connected;
  • the second sub-module is provided with a second groove 1804.
  • a gap is formed between the first groove 1803 and the second groove 1804. aisle.
  • the optical cable 506 passes through the channel to realize the connection between the first label module and the optical cable 506 .
  • connection mode between the first sub-module 1801 and the second sub-module 1802 in this embodiment is an optional example, and is not limited, as long as the connection is described in the first sub-module 1801 In the state of being connected to the second sub-module 1802, a channel may be formed between the first groove 1803 and the second groove 1804, for example, between the first sub-module 1801 and the second sub-module 1802 Any method such as snap connection, magnetic connection, elastic connection, or bonding can be used.
  • connection method please refer to Embodiment 1, which will not be described in detail in this embodiment.
  • the second sub-module 1802 is provided with an accommodating space 1807, and the accommodating space 1807 communicates with the second groove 1804. Specifically, the second groove 1804 is hollowed out at the bottom.
  • the label module further includes a magnet 1808, the magnet 1808 is inserted in the receiving space 1807, and the magnet 1808 is exposed from the bottom of the second groove 1804 through the hollowed out area at the bottom of the second groove 1804 .
  • the adjacent different tag modules in the tag array have a connection relationship.
  • This embodiment provides a labeling system.
  • the labeling system shown in this embodiment includes a sub-frame and an optical fiber connector assembly inserted on the sub-frame.
  • the specific description of the sub-frame and the optical fiber connector assembly is as follows: Please refer to any one of Embodiment 1 to Embodiment 5 above, which will not be described in detail.
  • the optical cables drawn from each optical fiber connector assembly shown in this embodiment can be extended in the sub-frame 200 in the same direction.
  • the optical cable connected to each of the optical fiber connector assemblies is drawn out from the label module of each optical fiber connector assembly along the direction 204, the direction 204 is the lateral direction of the sub-frame 200, and the direction 204 is specifically the connection of each of the optical fibers the left side of the device assembly.
  • the optical cables drawn from the label modules of the respective fiber optic connector assemblies are drawn out of the sub-frame 200 along the direction 205 , which is the vertical direction of the sub-frame 200 .
  • extension paths of the optical cables connected to the respective optical fiber connector assemblies in the sub-rack 200 in this embodiment is an optional example, and is not limited, as long as different optical fiber connector assemblies It is sufficient that the connected optical cables are not entangled with each other so as to facilitate the carding of the optical cables.

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Abstract

一种光纤连接器组件(500)、标签系统以及标签模块(503,1022,1023,1102,1103,1104,1105,1040)，其用于提高对光纤连接器组件(500)进行识别的效率和准确性。光纤连接器组件(500)包括光纤连接器本体和第一标签模块(503,1102,1105)，第一标签模块(503,1102,1105)与光缆(506)连接，光缆(506)与光纤连接器本体连接，第一标签模块(503,1102,1105)具有第一表面(601,1012)，第一表面(601,1012)用于设置标签信息，标签信息用于标识光纤连接器本体；第一标签模块(503,1102,1105)具有第一连接结构和第二连接结构，第一连接结构用于第一标签模块(503,1102,1105)与第二标签模块(1103)连接，第二连接结构用于第一标签模块(503,1102,1105)与第三标签模块(1104)连接，第一标签模块(503,1102,1105)、第二标签模块(1103)和第三标签模块(1104)属于三个不同的光纤连接器组件(500)。

Description

一种光纤连接器组件、标签系统以及标签模块
本申请要求于2020年8月21日提交中国国家知识产权局、申请号为202010852604.4、申请名称为“一种光纤连接器组件、标签系统以及标签模块”的中国专利申请的优先权，其全部内容通过引用结合在本申请中。
技术领域
本申请涉及光纤通信领域，尤其涉及一种光纤连接器组件、标签系统以及标签模块。
背景技术
光网络中包括网络节点，该网络节点包括多个适配器，每个适配器用于插设固定光纤连接器组件。网络节点所包括的适配器的数量越来越多，需要对适配器所插设的光纤连接器组件进行标识。
现有技术一般旗形标签对网络节点的各个适配器所插设的光纤连接器组件进行标识，具体地，旗形标签上会设置用于标识光纤连接器组件的标识。
但是，旗形标签的材质较软，而且占用面积较大，造成旗形标签和旗形标签之间，旗形标签和光纤连接器组件之间的相互缠绕，提高了对网络节点进行维护的难度。旗形标签之间容易出现相互遮挡的情况，导致获取旗形标签所设置的标识的效率低，准确性差。无法对旗形标签进行数字化的录入，完全依赖人工对旗形标签中的标识进行读取，效率低，准确性差。
发明内容
本发明实施例提供了一种光纤连接器组件、标签系统以及标签模块，其用于降低对网络节点进行维护的难度，提高对光纤连接器组件进行识别的效率和准确性。
本发明实施例第一方面提供了一种光纤连接器组件，所述光纤连接器组件包括光纤连接器本体和第一标签模块，所述第一标签模块与光缆连接，所述光缆与所述光纤连接器本体连接，所述第一标签模块具有第一表面，所述第一表面用于设置标签信息，所述标签信息用于标识所述光纤连接器本体；所述第一标签模块具有第一连接结构和第二连接结构，所述第一连接结构用于所述第一标签模块与第二标签模块连接，所述第二连接结构用于所述第一标签模块与第三标签模块连接，所述第一标签模块、所述第二标签模块和所述第三标签模块属于三个不同的光纤连接器组件。
本方面所示的不同的标签模块的标签信息之间不会出现相互的遮挡，光纤连接器本体也不会对标签信息造成遮挡，有效地提高了对标签信息进行获取的效率和准确性。插设在插框上的各个光纤连接器组件的标签信息均位于摄像范围内，则在带有摄像头的终端设备(如智能手机)对插框进行拍摄即可获取包括各个标签信息的目标图像，通过该目标图像即可识别目标图像中的各个标签信息所标识的各个光纤连接器本体，有效地降低了对标签信息所标识的光纤连接器本体进行识别的成本和复杂度，而且对目标图像所包括的各个标签信息所标识的各个光纤连接器本体进行识别，提高了识别的效率。
而且对目标图像可通过图像识别技术识别出目标图像所包括的各个标签信息，根据标签信息即可实现对标签信息的自动化录入，实现对插框所插设的各个光纤连接器本体的录入和统计，提高了对网络节点的光纤连接器本体的资源进行管理的效率。
因本方面所示的标签阵列中，位置相邻的不同的标签模块之间处于连接的关系，从而有效地对标签阵列的位置进行了固定，从而使得在网络节点后续使用的过程中，所述标签阵列的标签信息不会出现位置的偏移的情况，从而有效地保证了标签模块的标签信息能够始终位于摄像范围或可视范围内，提高了对标签信息所标识的光纤连接器本体进行识别的准确性。
本方面所示的标签模块与光缆进行连接，则使得标签模块的位置可根据需要随时的进行调整，提高了对标签模块的位置进行调整的自由度。提高了在网络节点后续使用过程中，根据需要随时增加标签模块、减少标签模块以及对标签模块的位置进行改变的操作难度，提高了效率。
基于第一方面，一种可选地实现方式中，所述第一标签模块具有通道，所述光缆穿过所述通道。
本方面所示的第一标签模块通过所具有的通道与光缆进行连接，则使得第一标签模块的位置可根据需要随时的进行调整，提高了对标签模块的位置进行调整的自由度。
基于第一方面，一种可选地实现方式中，所述第一连接结构为卡持凸起、卡持凹槽、燕尾、燕尾槽、卡扣、卡槽和/或磁性件，所述第二连接结构为卡持凸起、卡持凹槽、燕尾、燕尾槽、卡扣、卡槽和/或磁性件。
可见，通过第一连接结构和第二连接结构，能够使得位置相邻的不同的标签模块之间处于连接的关系，从而有效地对标签阵列的位置进行了固定，有效地保证了标签模块的标签信息能够始终位于摄像范围或可视范围内，提高了对标签信息所标识的光纤连接器本体进行识别的准确性。
基于第一方面，一种可选地实现方式中，所述第一标签模块的第二表面延伸设置有挂件，所述挂件和所述第二表面之间形成有所述通道。
基于第一方面，一种可选地实现方式中，所述第二表面设置旋转通孔，所述第一标签模块的内部设置有旋转空间，所述旋转空间与所述旋转通孔连通；所述挂件包括挂件本体以及连接在挂件本体两端的第一旋转臂和第二旋转臂，所述第一旋转臂和所述第二旋转臂均设置旋转凹槽，所述旋转凹槽远离所述挂件本体的端部形成抵持凸起；所述旋转通孔包括连通的第一孔口和第二孔口，所述旋转凹槽经由所述第一孔口插设入所述旋转通孔内，且所述抵持凸起与所述第二孔口的外周缘抵持，所述第二孔口的外周缘位于所述旋转空间内部，以便于所述旋转凹槽在所述旋转通孔内旋转。
基于第一方面，一种可选地实现方式中，所述挂件本体和所述第二表面之间形成所述通道。
基于第一方面，一种可选地实现方式中，所述第一表面和所述第二表面位置相背，或，所述第一表面与所述第二表面之间连接。
基于第一方面，一种可选地实现方式中，所述第一标签模块还包括位置相对的第三表面和第四表面，所述第三表面设置第一通道口，所述第四表面设置第二通道口，贯穿所述第一标签模块设置所述通道，且所述通道分别与所述第一通道口和所述第二通道口连通。
基于第一方面，一种可选地实现方式中，所述第一表面分别与所述第三表面和所述第 四表面连接，所述光缆穿过所述通道。
基于第一方面，一种可选地实现方式中，所述第一标签模块包括相互连接的第一子模块和第二子模块，所述第一子模块设置第一凹槽，所述第一凹槽的外周壁设置有弹性卡槽，所述第二子模块的外周壁设置有弹性卡扣，在所述弹性卡扣卡合于所述弹性卡槽内部的状态下，所述第一子模块和所述第二子模块连接；所述第二子模块设置第二凹槽，所述第一凹槽和所述第二凹槽之间形成所述通道。
基于第一方面，一种可选地实现方式中，所述第一标签模块的第五表面设置开口，所述开口沿所述通道的轴向延伸，且所述开口与所述通道连通，所述第五表面与所述第一表面位置相背，所述光缆经由所述开口穿设入所述通道。
基于第一方面，一种可选地实现方式中，沿所述通道的轴向垂直的方向，所述开口的高度小于所述光缆的外径。
基于第一方面，一种可选地实现方式中，所述第一标签模块还包括插盖，所述插盖盖设于所述开口处。
基于第一方面，一种可选地实现方式中，所述插盖的插壁设置有弹性卡扣，所述通道的内侧壁设置有卡槽，在所述弹性卡扣卡合于所述卡槽内的状态下，所述插盖设于所述开口处。
本发明实施例第二方面提供了一种标签系统，所述标签系统包括插框、第一光纤连接器组件和第二光纤连接器组件，所述第一光纤连接器组件和所述第二光纤连接器组件插设于所述插框上；所述第一光纤连接器组件包括第一光纤连接器本体和第一标签模块，所述第二光纤连接器组件包括第二光纤连接器和第二标签模块，所述第一标签模块的第一表面设置第一标签信息，所述第一标签信息用于标识所述第一光纤连接器本体，所述第二标签模块的第一表面设置第二标签信息，所述第二标签信息用于标识所述第二光纤连接器本体；所述第一标签模块具有第一连接结构，所述第二标签模块具有第二连接结构，在所述第一连接结构与所述第二连接结构连接的状态下，所述第一标签模块与所述第二标签模块连接。
本方面所示的有益效果的说明，请详见上述第一方面所示，不做赘述。
基于第二方面，一种可选地实现方式中，所述标签系统还包括第三光纤连接器组件，所述第三光纤连接器组件包括第三光纤连接器和第三标签模块，所述第三标签模块的第一表面设置第三标签信息，所述第三标签信息用于标识所述第三光纤连接器本体；所述第一标签模块还具有第二连接结构，所述第三标签模块具有第一连接结构，在所述第一连接结构与所述第二连接结构连接的状态下，所述第一标签模块与所述第三标签模块连接。
基于第二方面，一种可选地实现方式中，所述第一标签模块的第一连接结构、所述第二标签模块的第一连接结构以及所述第三标签模块的第一连接结构相同，所述第一标签模块的第二连接结构、所述第二标签模块的第二连接结构以及所述第三标签模块的第二连接结构相同。
基于第二方面，一种可选地实现方式中，所述第一连接结构为卡持凸起，所述第二连接结构为卡持凹槽，和/或，所述第一连接结构为卡持凹槽，所述第二连接结构为卡持凸起，和/或，所述第一连接结构为燕尾，所述第二连接结构为燕尾槽，和/或，所述第一连接结 构为燕尾槽，所述第二连接结构为燕尾，和/或，所述第一连接结构为卡扣，所述第二连接件为卡槽，和/或，所述第一连接结构为卡槽，所述第二连接件为卡扣，和/或，所述第一连接结构为第一磁性件，所述第二连接结构为第二磁性件，所述第一磁性件和所述第二磁性件磁极相异。
基于第二方面，一种可选地实现方式中，所述第一标签模块的第一表面、所述第二标签模块的第一表面和所述第三标签的第一表面位于同一表面上。
可见，在不同的标签模块的第一表面均位于同一表面上的情况下，能够便于对该表面上的各个标签信息的识别，有效地避免了不同的标签信息之间相互遮挡，或光纤连接器本体对标签信息的遮挡，有效地提高了通过标签信息对光纤连接器本体进行识别的准确性。
基于第二方面，一种可选地实现方式中，所述第一标签模块具有通道，所述光缆穿过所述通道。
基于第二方面，一种可选地实现方式中，所述第一连接结构为卡持凸起、卡持凹槽、燕尾、燕尾槽、卡扣、卡槽和/或磁性件，所述第二连接结构为卡持凸起、卡持凹槽、燕尾、燕尾槽、卡扣、卡槽和/或磁性件。
基于第二方面，一种可选地实现方式中，所述第一标签模块的第二表面延伸设置有挂件，所述挂件和所述第二表面之间形成有所述通道。
基于第二方面，一种可选地实现方式中，所述第二表面设置旋转通孔，所述第一标签模块的内部设置有旋转空间，所述旋转空间与所述旋转通孔连通；所述挂件包括挂件本体以及连接在挂件本体两端的第一旋转臂和第二旋转臂，所述第一旋转臂和所述第二旋转臂均设置旋转凹槽，所述旋转凹槽远离所述挂件本体的端部形成抵持凸起；所述旋转通孔包括连通的第一孔口和第二孔口，所述旋转凹槽经由所述第一孔口插设入所述旋转通孔内，且所述抵持凸起与所述第二孔口的外周缘抵持，所述第二孔口的外周缘位于所述旋转空间内部，以便于所述旋转凹槽在所述旋转通孔内旋转。
基于第二方面，一种可选地实现方式中，所述挂件本体和所述第二表面之间形成所述通道。
基于第二方面，一种可选地实现方式中，所述第一标签模块还包括位置相对的第三表面和第四表面，所述第三表面设置第一通道口，所述第四表面设置第二通道口，贯穿所述第一标签模块设置所述通道，且所述通道分别与所述第一通道口和所述第二通道口连通。
基于第二方面，一种可选地实现方式中，所述第一表面分别与所述第三表面和所述第四表面连接，所述光缆穿过所述通道。
基于第二方面，一种可选地实现方式中，所述第一标签模块包括相互连接的第一子模块和第二子模块，所述第一子模块设置第一凹槽，所述第一凹槽的外周壁设置有弹性卡槽，所述第二子模块的外周壁设置有弹性卡扣，在所述弹性卡扣卡合于所述弹性卡槽内部的状态下，所述第一子模块和所述第二子模块连接；所述第二子模块设置第二凹槽，所述第一凹槽和所述第二凹槽之间形成所述通道。
基于第二方面，一种可选地实现方式中，所述第一标签模块的第五表面设置开口，所述开口沿所述通道的轴向延伸，且所述开口与所述通道连通，所述第五表面与所述第一表 面位置相背，所述光缆经由所述开口穿设入所述通道。
基于第二方面，一种可选地实现方式中，沿所述通道的轴向垂直的方向，所述开口的高度小于所述光缆的外径。
基于第二方面，一种可选地实现方式中，所述第一标签模块还包括插盖，所述插盖盖设于所述开口处。
基于第二方面，一种可选地实现方式中，所述插盖的插壁设置有弹性卡扣，所述通道的内侧壁设置有卡槽，在所述弹性卡扣卡合于所述卡槽内的状态下，所述插盖设于所述开口处。
本发明实施例第三方面提供了一种标签模块，所述标签模块为第一标签模块，所述第一标签模块应用于光纤连接器组件，所述光纤连接器组件包括光纤连接器本体和第一标签模块，所述第一标签模块与光缆连接，所述光缆与所述光纤连接器本体连接，所述第一标签模块具有第一表面，所述第一表面设置标签信息，所述标签信息用于标识所述光纤连接器本体；所述第一标签模块具有第一连接结构和第二连接结构，所述第一连接结构用于所述第一标签模块与第二标签模块连接，所述第二连接结构用于所述第一标签模块与第三标签模块连接，所述第一标签模块、所述第二标签模块和所述第三标签模块属于三个不同的光纤连接器组件。
本方面所示的有益效果的说明，请详见上述第一方面所示，具体不做赘述。
基于第三方面，一种可选地实现方式中，所述第一标签模块具有通道，所述光缆穿过所述通道。
基于第三方面，一种可选地实现方式中，所述第一连接结构为卡持凸起、卡持凹槽、燕尾、燕尾槽、卡扣、卡槽和/或磁性件，所述第二连接结构为卡持凸起、卡持凹槽、燕尾、燕尾槽、卡扣、卡槽和/或磁性件。
基于第三方面，一种可选地实现方式中，所述第一标签模块的第二表面延伸设置有挂件，所述挂件和所述第二表面之间形成有所述通道。
基于第三方面，一种可选地实现方式中，所述第二表面设置旋转通孔，所述第一标签模块的内部设置有旋转空间，所述旋转空间与所述旋转通孔连通；所述挂件包括挂件本体以及连接在挂件本体两端的第一旋转臂和第二旋转臂，所述第一旋转臂和所述第二旋转臂均设置旋转凹槽，所述旋转凹槽远离所述挂件本体的端部形成抵持凸起；所述旋转通孔包括连通的第一孔口和第二孔口，所述旋转凹槽经由所述第一孔口插设入所述旋转通孔内，且所述抵持凸起与所述第二孔口的外周缘抵持，所述第二孔口的外周缘位于所述旋转空间内部，以便于所述旋转凹槽在所述旋转通孔内旋转。
基于第三方面，一种可选地实现方式中，所述挂件本体和所述第二表面之间形成所述通道。
基于第三方面，一种可选地实现方式中，所述第一表面和所述第二表面位置相背，或，所述第一表面与所述第二表面之间连接。
基于第三方面，一种可选地实现方式中，所述第一标签模块还包括位置相对的第三表面和第四表面，所述第三表面设置第一通道口，所述第四表面设置第二通道口，贯穿所述 第一标签模块设置所述通道，且所述通道分别与所述第一通道口和所述第二通道口连通。
基于第三方面，一种可选地实现方式中，所述第一表面分别与所述第三表面和所述第四表面连接，所述光缆穿过所述通道。
基于第三方面，一种可选地实现方式中，所述第一标签模块包括相互连接的第一子模块和第二子模块，所述第一子模块设置第一凹槽，所述第一凹槽的外周壁设置有弹性卡槽，所述第二子模块的外周壁设置有弹性卡扣，在所述弹性卡扣卡合于所述弹性卡槽内部的状态下，所述第一子模块和所述第二子模块连接；所述第二子模块设置第二凹槽，所述第一凹槽和所述第二凹槽之间形成所述通道。
基于第三方面，一种可选地实现方式中，所述第一标签模块的第五表面设置开口，所述开口沿所述通道的轴向延伸，且所述开口与所述通道连通，所述第五表面与所述第一表面位置相背，所述光缆经由所述开口穿设入所述通道。
基于第三方面，一种可选地实现方式中，沿所述通道的轴向垂直的方向，所述开口的高度小于所述光缆的外径。
基于第三方面，一种可选地实现方式中，所述第一标签模块还包括插盖，所述插盖盖设于所述开口处。
基于第三方面，一种可选地实现方式中，所述插盖的插壁设置有弹性卡扣，所述通道的内侧壁设置有卡槽，在所述弹性卡扣卡合于所述卡槽内的状态下，所述插盖设于所述开口处。
附图说明
图1为本申请所提供的光网络的一种实施例结构示例图；
图2为本申请所提供的网络节点在实施例一中的一种实施例结构示例图；
图3为本申请所提供的网络节点在实施例一中的另一种实施例结构示例图；
图4为本申请所提供的已插设光纤连接器组件的网络节点在实施例一中的一种实施例结构示例图；
图5为本申请所提供的光纤连接器组件在实施例一中的一种实施例结构示例图；
图6A为本申请所提供的第一标签模块在实施例一中的另一种实施例结构示例图；
图6B为本申请所提供的第一标签模块在实施例一中的另一种实施例结构示例图；
图7为本申请所提供的已插设光纤连接器组件的网络节点在实施例一中的另一种实施例结构示例图；
图8为本申请所提供的网络节点在实施例一中的一种应用场景示例图；
图9为本申请所提供的网络节点在实施例一中的另一种应用场景示例图；
图10为本申请所提供的已插设光纤连接器组件的网络节点在实施例一中的另一种实施例结构示例图；
图11A为本申请所提供的已插设光纤连接器组件的网络节点在实施例二中的一种实施例结构示例图；
图11B为本申请所提供的已插设光纤连接器组件的网络节点在实施例二中的另一种实 施例结构示例图；
图11C为本申请所提供的已插设光纤连接器组件的网络节点在实施例二中的另一种实施例结构示例图；
图12为本申请所提供的光纤连接器组件在实施例三中的一种实施例结构示例图；
图13为本申请所提供的光纤连接器组件在实施例三中的另一种实施例结构示例图；
图14为本申请所提供的光纤连接器组件在实施例三中的另一种实施例结构示例图；
图15为本申请所提供的光纤连接器组件在实施例三中的另一种实施例结构示例图；
图16为本申请所提供的光纤连接器组件在实施例四中的一种实施例结构示例图；
图17为本申请所提供的第一标签模块在实施例四种的一种实施例结构示例图；
图18为本申请所提供的光纤连接器组件在实施例五中的一种实施例结构示例图；
图19为本申请所提供的光纤连接器组件在实施例五中的另一种实施例结构示例图；
图20为本申请所提供的光纤连接器组件在实施例五中的另一种实施例结构示例图。
具体实施方式
下面将结合本发明实施例中的附图，对本发明实施例中的技术方案进行清楚、完整地描述，显然，所描述的实施例仅仅是本发明一部分实施例，而不是全部的实施例。基于本发明中的实施例，本领域技术人员在没有作出创造性劳动前提下所获得的所有其他实施例，都属于本发明保护的范围。
本申请提供了一种光纤连接器组件，为更好的理解本申请所提供的光纤连接器组件，以下首先对该光纤连接器组件所应用的光网络系统进行说明：
如图1所示，其中，图1为本申请所提供的光网络的一种实施例结构示例图。由图1所示可知，本申请以光纤连接器组件应用于无源光网络(passive optical network，PON)系统中为例进行示例性说明：
PON系统包括光线路终端(optical line terminal，OLT)101，OLT101用于为光接入网(optical access network，OAN)提供网络侧接口。OLT101连接上层的网络侧设备(如交换机、路由器等)，下层连接一个或者多个光分配网络(optical distribution network，ODN)102。
ODN102包括用于光功率分配的无源光分光器、连接在无源光分光器和OLT101之间的主干光缆，所述主干光缆用于实现所述OLT101和所述ODN102之间的光信号的传输，所述ODN102还包括连接在无源光分光器和光网络单元(optical network unit，ONU)103之间的分支光缆，所述分支光缆用于实现所述ODN102和所述ONU103之间的光信号的传输。
在OLT101需要向ONU103传输下行光信号时，ODN102将来自OLT101的下行光信号通过无源分光器传输到各个ONU。同样的，在ONU103需要向OLT101传输上行光信号时，ODN将来自ONU103的上行光信号汇聚后传输到OLT101。
ONU103为OAN提供用户侧接口，同时与ODN102相连。如果ONU103同时提供用户端口功能，如ONU提供以太网(Ethernet)用户端口或者传统电话业务(plain old telephone service，POTS)用户端口，则称为光网络终端(optical network termination，ONT)。本申请将ONU或ONT统一称为光网络单元ONU。
为实现光信号传输，则从OLT101输出的光缆连接到ODN102所包括的光缆配线架(optical distribution frame，ODF)单元104，ODF单元104可包括一个或多个ODF。
通过ODF单元104的分配，输出的光缆连接至光缆交接箱(fiber distribution terminal，FDT)单元105，FDT单元105可包括一个或多个FDT。
FDT单元105是用来对光缆进行二次分配，一个FDT单元105的管理范围可能是一个小区，或者一个街道，且可根据FDT单元105需要管理的用户数来选择FDT单元105所连接的光纤连接器组件数量的多少。
FDT单元105通过光缆与光缆分纤箱(fiber access terminal，FAT)单元106连接，FAT单元106包括一个或多个FAT。
FAT单元106与ONU103连接，其中，FAT单元106是用来连接入户光缆的用户接入点，入户段光缆指的是从FAT单元106到用户家的这一段光缆。
本申请所提供的光纤连接器组件应用在跳纤或尾纤上，本示例以光纤连接器组件应用至跳纤上为例进行示例性说明，即一根跳纤的两端分别连接两个光纤连接器组件，所述跳纤可应用至ODF单元104、FDT单元105或FAT单元106，具体不做限定。
例如，所述跳纤连接在如下所示的任一场景：
连接在所述ODF单元104所包括的两个相互连接的ODF之间、连接在同一ODF的不同适配器之间、连接在所述OLT101和所述ODF之间、连接在所述FDT单元105所包括两个相互连接的FDT之间、连接在同一FDT的不同适配器之间、连接在FAT单元106所包括的两个相互连接的FAT之间、连接在FAT单元106和光纤终端盒(access terminal box，ATB)之间或连接在FAT单元106和所述ONU103之间。
以下以跳纤的两端连接在同一FDT的不同适配器之间为例进行说明：
所述跳纤的两端分别连接有第一光纤连接器组件和第二光纤连接器组件，可知，所述第一光纤连接器组件和所述第二光纤连接器组件连接在同一FDT的不同适配器上，例如适配器A和适配器B。
在所述跳纤的第一光纤连接器组件准确地插设于所述适配器A中，且在所述跳纤的第二光纤连接器准确地插设于适配器B中的情况下，有效地保证了光信号经由所述跳纤的传输。
若所述第一光纤连接器组件未插设于所述适配器A中，和/或，所述第二光纤连接器未插设于所述适配器B中，则会导致跳纤无法实现光信号的传输。
本申请所提供的光纤连接器组件具有多种实现的实施例，为更好的理解，以下对各个实施例进行逐一说明。
需要明确地是，本申请所示的各个实施例仅用以说明本发明的技术方案，而非对其限制；尽管参照下述实施例对本发明进行了详细的说明，本领域的普通技术人员应当理解：其依然可以对下述各实施例所记载的技术方案进行修改，或者对其中部分技术特征进行等同替换；而这些修改或者替换，并不使相应技术方案的本质脱离本发明各实施例技术方案的精神和范围。
实施例一
以下对本申请所提供的光纤连接器组件的具体结构进行说明，首先参见图2至图4所示，其中，图2、图3以及图4所示的网络节点，为所述网络节点在不同的视角下的结构图。
网络节点包括插框200，所述插框200上固定多个适配器，以下结合图5所示对本实施例所示的光纤连接器组件的具体结构进行说明：
所述光纤连接器组件500包括光纤连接器本体和第一标签模块503，具体地，本实施例所示的第一标签模块503和所述光纤连接器本体为两个独立的器件，在需要通过第一标签模块503对所述光纤连接器组件500进行标识的情况下，可将第一标签模块503连接在所述光纤连接器本体上。
本实施例所示的适配器201具有插接口，所述插接口用于插设固定光纤连接器本体。在所述光纤连接器本体插设于所述插接口内的状态下，所述光纤连接器本体和所述网络节点之间即可进行光信号的交互。
具体地，所述光纤连接器本体具有插头504和尾套505，尾套505与光缆506连接。所述插头504用于插设于适配器内，以实现光纤连接器组件500与适配器之间的连接。
本实施例所述光纤连接器本体的类型不做限定，例如，本实施例所示的光纤连接器本体的类型为如下所示的任一项：
金属接头(ferrule connector，FC)型光纤连接器、客户端接头(subscriber connector，SC)型光纤连接器、小头(lucent connector，LC)型光纤连接器、直尖(straight tip，ST)型光纤连接器或光缆分布式数据接口(fiber distributed data interface，FDDI)型光纤连接器等。
以下对本实施例所示的所述第一标签模块503进行说明：
首先，说明所述第一标签模块503与所述光纤连接器组件500之间的位置关系：
本实施例所示的所述第一标签模块503与所述光缆506连接，本实施例对连接在所述光缆506上的第一标签模块503与所述光纤连接器组件500之间的位置关系不做限定，只要所述第一标签模块503与所述光缆506连接即可。
例如，如图5所示，所述第一标签模块503连接在靠近所述尾套505的位置。
又如，如图7所示，所述第一标签模块503连接在远离所述光纤连接器组件500的位置处。
其次，对所述第一标签模块503的具体结构进行说明：
本实施例所示的第一标签模块503用于对所述光纤连接器本体进行指示，具体地，所述第一标签模块503具有第一表面601，所述第一表面601用于设置标签信息，所述标签信息用于标识所述光纤连接器本体。
本实施例中，在第一表面601设置用于标识所述光纤连接器本体的所述标签信息，本实施例对标签信息不做限定，只要标签信息能够起到对所述光纤连接器本体的唯一的标识作用即可。即不同的标签信息用于标识不同的光纤连接器本体即可。例如，所述标签信息可为用于唯一标识所述光纤连接器本体的二维码、唯一标识符、条形码或数字文本信息等。
以下对本实施例所示的第一表面601的位置进行说明，需明确地是，本实施例对所述 第一表面601的位置的说明为可选地示例，不做限定，只要所述第一表面601位于可视范围或摄像范围内即可。
结合图2至图7所示为例，本实施例所示的所述插框200可为高密插框，其中，高密度插框是指插框面板的单位区域内，插设多个光纤连接器组件，且相邻的光纤连接器组件之间的间隙很小。以下对所述高密度插框的排布方式进行说明：
所述插框200所包括的多个适配器形成适配器阵列，所述适配器阵列包括沿所述插框200的横向204排列的N行适配器，所述适配器阵列还包括沿所述插框200的竖向205排列的M列适配器。其中，横向204与竖向205相互垂直，本实施例对M以及N的具体取值不做限定。
在所述第一标签模块503连接在靠近所述尾套505的位置的情况下，则所述第一表面601与所述插框200表面位置相背。
具体地，本实施例所示的第一标签模块503具有第二表面602，所述第二表面602与所述插框200表面位置相对设置，即第二表面602面向所述插框200表面设置，所述第一表面601和所述第二表面602为所述第一标签模块503所具有的位置相背的两个侧面。从朝向的角度进一步进行说明可知，所述第二表面602相对于插框200表面，朝向朝内；第一表面601相对于插框200表面朝向朝外。
为更好的理解所述第一表面601与所述插框200表面位置相背的位置关系，以下结合图8所示进行说明：
如图8所示可知，若第一标签模块503位于人眼901的视线范围内，则朝向朝外的第一表面601，为人眼901可视的表面，而朝向朝内的第二表面602，为人眼901不可视的表面。
可见，在所述光纤连接器组件已插设在插框200的表面上的状态下，所述第一表面601与插框200表面位置相背。
本实施例中，若插框200整个均位于人眼901的可视范围内，则插框200所插设的各个光纤连接器组件的第一表面均位于人眼901的可视范围内。
上述以第一表面601位于人眼901的视线范围内为例进行说明，本实施例所示的第一表面601还位于摄像头的摄像范围内。
如图9所示，若插框200的表面位于摄像头1000的摄像范围内，具体是指，若插框200还未插设光纤连接器组件，则摄像头1000对插框200的表面进行拍照，所获取到的目标图像中包括插框200所包括的各个适配器。
若插框200已插设一个或多个光纤连接器组件，则摄像头1000对插框200的表面进行拍照，所获取到目标图像能够完整且清楚的拍摄出各个第一表面601上所设置的标签信息。
由上述说明可知，本实施例所示的第一表面601位于人眼的可视范围和/或位于摄像头的摄像范围内，以下以本实施例所示的第一表面601位于摄像头的范围内为例进行示例性说明。
为实现第一表面601位于摄像头的摄像范围内，则本实施例以所述第一表面601与所述插框200表面之间平行(如图7所示)。在其他示例中，所述第一表面601与所述插框 200表面之间的夹角也可为钝角，本实施例对具体地角度不做限定，只要第一表面601位于摄像范围内即可。
需明确地是，本实施例以第一表面601为平面结构为例进行示例性说明，在其他示例中，所述第一表面601也可呈曲面或其他任意形状，只要第一表面601上所设置的标签信息位于摄像范围内即可。
由上述说明可知，所述第一标签模块503与光缆506连接，为有效地对所述标签信息所标识的所述光纤连接器本体，则需要所述标签信息始终位于摄像范围内，即需要第一标签模块503的位置固定，位置固定的所述第一标签模块503，即可有效地保证所述第一标签模块503的第一表面601上的标签信息能够始终位于摄像范围内，以下对如何对所述第一标签模块503的位置进行固定的进行说明：
结合图10所示，以固定在所述插框200的多个标签模块中的任意相邻的三个标签模块为例进行示例性说明，其中，本示例所示的以任意相邻的三个标签模块为第一标签模块1102、第二标签模块1103以及及第三标签模块1104为例进行示例性说明：
若所述第一标签模块1102、所述第二标签模块1103以及第三标签模块1104位置固定，即可有效地将所述第一标签模块1102的标签信息、第二标签模块1103的标签信息以及第三标签模块1104始终固定在摄像范围内。
本实施例以所述第一标签模块1102位于所述第二标签模块1103和所述第三标签模块1104之间为例进行示例性说明：
所述第一标签模块1102具有第一连接结构，在图10所示的示例中，所述第二标签模块1103位于所述第一标签模块1102的上方，则所述第一标签模块1102的上表面设置所述第一连接结构，需明确地是，本实施例对所述第一连接结构的具体位置不做限定，只要所述第一连接结构位于所述第一标签模块1102面向所述第二标签模块1103的表面上即可。
所述第一标签模块1102具有第二连接结构，在图10所示的示例中，所述第三标签模块1104位于所述第一标签模块1102的下方，则所述第一标签模块1102的下表面设置所述第二连接结构，需明确地是，本实施例对所述第二连接结构的具体位置不做限定，只要所述第二连接结构位于所述第一标签模块1102面向所述第三标签模块1104的表面上即可。
以下对所述第一标签模块1102和所述第二标签模块1103之间的连接方式进行说明：
所述第二标签模块1103具有第二连接结构，在图10所示的示例中，所述第一标签模块1102位于所述第二标签模块1103的下方，则所述第二标签模块1103的下表面设置所述第二连接结构，需明确地是，本实施例对所述第二标签模块1103的第二连接结构的具体位置不做限定，只要所述第二标签模块1103的第二连接结构位于所述第二标签模块1103面向所述第一标签模块1102的表面上即可。
本实施例所示的所述第一标签模块1102的第一连接结构和所述第二标签模块1103的第二连接结构相互匹配连接，在所述第一标签模块1102的第一连接结构与所述第二标签模块1103的第二连接结构连接的状态下，实现了所述第一标签模块1102和所述第二标签模块1103的连接。
本实施例对所述第一连接结构和所述第二连接结构的具体结构不做限定，只要通过所 述第一连接结构和第二连接结构的连接，实现位置相邻的两个标签模块的连接即可，本实施例以所述第一连接结构和所述第二连接结构为以下所示的连接方式中的一种或多种：
方式1
所述第一连接结构为卡持凸起，所述第二连接结构为卡持凹槽，在所述卡持凸起插设于所述卡持凹槽内的状态下，实现所述第一连接结构和所述第二连接结构之间的连接。
方式2
所述第一连接结构为卡持凹槽，所述第二连接结构为卡持凸起，在所述卡持凸起插设于所述卡持凹槽内的状态下，实现所述第一连接结构和所述第二连接结构之间的连接。
方式3
所述第一连接结构为燕尾，所述第二连接结构为燕尾槽，在所述燕尾插设于所述燕尾槽内的状态下，实现所述第一连接结构和所述第二连接结构之间的连接。
方式4
所述第一连接结构为燕尾槽，所述第二连接结构为燕尾，在所述燕尾插设于所述燕尾槽内的状态下，实现所述第一连接结构和所述第二连接结构之间的连接。
方式5
所述第一连接结构为卡扣，所述第二连接件为卡槽，在所述卡扣卡合固定于所述卡槽内的状态下，实现所述第一连接结构和所述第二连接结构之间的连接。
方式6
所述第一连接结构为卡槽，所述第二连接件为卡扣，在所述卡扣卡合固定于所述卡槽内的状态下，实现所述第一连接结构和所述第二连接结构之间的连接。
方式7
所述第一连接结构为第一磁性件，所述第二连接结构为第二磁性件，所述第一磁性件和所述第二磁性件磁极相异，在所述第一磁性件和所述第二磁性件相吸以固定的状态下，实现所述第一连接结构和所述第二连接结构之间的连接。
方式8
第一连接结构与第二连接结构可为一体成型结构，所述第一连接结构和所述第二连接结构之间有孔的结构，在光纤连接器组件组装过程中，就预先将光纤连接器组件连接的光缆穿入所述第一连接结构和所述第二连接结构之间的孔。
方式9
第一连接结构可为扎带、胶带等结构，所述第一连接结构将光缆与第二连接结构连接，例如，在所述第一连接结构为扎带的情况下，可通过扎带将所述光缆与所述第二连接结构扎紧连接，又如，所述第一连接结构为胶带的情况下，可通过胶带将所述光缆与所述第二连接结构粘结。
所述第一标签模块1102的第二连接结构与所述第三标签模块1104的第一连接结构连接，对所述第一标签模块1102的第二连接结构和所述第三标签模块1104的第一连接结构的连接方式的说明，请详见上述所示的第一标签模块1102的第一连接结构和第二标签模块1103的第二连接结构的连接方式的说明，具体不做赘述。
通过上述对所述第一标签模块1102、所述第二标签模块1103以及所述第三标签模块1104的连接方式的说明可知，已插设固定于所述插框200上的多个标签模块中，不同的标签模块的第一连接结构的结构均相同，例如，已插设固定于所述插框200上的多个标签模块的第一连接结构均为燕尾。
已插设固定于所述插框200上的多个标签模块中，不同的标签模块的第二连接结构的结构均相同，例如，已插设固定于所述插框200上的多个标签模块的第二连接结构均为燕尾槽。
可选地，若第一标签模块为图10所示的第一标签模块1105，其中，所述第一标签模块1105位于标签阵列的边缘，其中，所述标签阵列为已插设在所述插框200上的所有光纤连接器组件的标签模块所组成的阵列。
本实施例所示的位于标签阵列边缘的第一标签模块可位于所述标签阵列的底边缘(例如，一列标签模块中的最后一个标签模块)、顶边缘(例如，一列标签模块中的第一个标签模块)，右边缘(如一行标签模块中的最右侧标签模块)或左边缘(如一行标签模块中的最左侧标签模块)。
本实施例以第一标签模块1105位于标签阵列中的底边缘为例进行示例性说明：
所述插框200延伸形成有固定板1106，沿所述插框200的竖向方向，所述固定板1106与所述第一标签模块1102位置相对设置，所述固定板1106面向所述第一标签模块1102的表面设置有第一连接结构，所述固定板1106的第一连接结构与所述第一标签模块1102的第二连接结构连接，实现位于所述标签阵列的边缘的所述第一标签模块1105与所述插框200之间的连接，对所述第一连接结构和所述第二连接结构的说明，请详见上述所示，不做赘述。
可见，本实施例所示能够实现标签阵列中，任意相邻的两个标签模块之间的连接，还能够实现标签阵列与插框之间的连接，从而使得标签阵列整体位置的固定，在标签阵列整体位置固定的状态下，各个标签模块的标签信息位置也实现了固定，从而有效地保证了标签阵列上的各个标签信息均位于摄像范围内。
在图10所示的示例中，多个标签模块沿竖向位置相邻，所述第一标签模块1102的上表面设置所述第一连接结构，所述第一标签模块1102的下表面设置所述第二连接结构为例，若多个标签模块沿横向位置相邻，则所述第一标签模块的左侧壁设置第一连接结构，所述第一标签模块的右侧壁设置第二连接结构。
本实施例对标签阵列所包括的各个标签模块的第一表面的具体位置不做限定，只要位于第一表面上的标签信息位于摄像范围内即可，本实施例以标签阵列中，不同的标签信息具有统一的朝向为例进行说明：
其中，标签阵列中不同的标签信息具有统一的朝向可指，在图9所示的高密度插框的场景下，已插设在插框200上的不同的标签模块的各个第一表面601均与所述插框200的表面平行，且各个第一表面601位于同一表面上，从而便于摄像头进行拍摄。有效地保证了摄像头对插框200所拍摄的照片，能够拍摄出清楚且完整的各个标签信息。在其他示例中，不同的标签模块的第一表面601与所述插框200表面之间的夹角也可不相等，只要各 个第一表面601均位于摄像范围内即可。
具体地，继续以图9所示为例，各个第一表面601均具有统一的朝向还可指，已插设入所述插框200上的多个标签模块的第一表面601位于同一表面上，所述同一表面可为平面结构、曲面结构或为凹凸结构等，具体不做限定，只要位于同一表面上的多个标签信息均位于可视范围或摄像范围内即可。
具体地，继续参见图10所示，相互连接的多个标签模块的标签信息可位于标签区域1140内，位于所述标签区域1140内的多个标签信息均具有相同的指向，从而使得位于标签区域1140内的多个标签信息位于摄像范围或视线范围内。
可选地，本实施例所示的标签信息可在光纤连接器组件出厂的时候，将标签信息设置在第一表面601，还可选地，可在后续使用光纤连接器组件的情况下，将标签信息设置在所述第一表面601上。
由上述可知，各个第一标签模块503的第一表面601均位于摄像范围内，则通过摄像头对插框200进行拍摄所获取到的目标图像，即可通过该目标图像获取包括已插设在插框200上的各个光纤连接器组件的标签信息，基于标签信息即可确定各个标签信息所标识的所述光纤连接器本体，可见，通过本实施例所示的标签信息对光纤连接器本体进行识别，有效地提高了识别光纤连接器本体的效率。
以下对本实施例所示的第一标签模块503与光缆506的连接方式进行说明：
结合图5、图6A和图6B所示，以第一标签模块503应用至高密度插框为例进行说明：
本实施例所示的第一标签模块503包括相互连接的挂件610和标签本体612，所述标签本体612具有所述第一表面601和所述第二表面602。
所述挂件610和所述第二表面602之间形成有通道611。所述光缆506穿过所述通道611，以实现所述第一标签模块503和所述光缆506之间的连接。
所述第二表面602设置旋转通孔613，所述标签本体612的内部设置有旋转空间614，所述旋转空间614与所述旋转通孔613连通。
所述挂件610包括挂件本体615以及连接在挂件本体615两端的第一旋转臂616和第二旋转臂617，所述第一旋转臂616和所述第二旋转臂617均设置旋转凹槽618，所述旋转凹槽618远离所述挂件本体615的端部形成抵持凸起619。
所述旋转通孔613包括第一孔口620和第二孔口621，所述第一孔口620和第二孔口621沿所述旋转通孔613的轴向位置相对，且所述第一孔口620和第二孔口621均与所述旋转通孔613连通。
所述旋转凹槽618经由所述第一孔口620插设入所述旋转通孔613内，且所述抵持凸起619与所述第二孔口621的外周缘抵持，所述第二孔口621的外周缘位于所述旋转空间614内部，以便于所述旋转凹槽618在所述旋转通孔613内旋转。
可见，采用本方式所示，所述挂件本体615和所述第二表面602之间形成所述通道611，所述光缆506穿过所述通道611以实现所述第一标签模块503和所述光缆506之间的连接。
需明确的是，本实施例所示的所述挂件610和所述标签本体612连接方式的说明，为可选地示例，不做限定，例如，所述挂件610和所述标签本体612之间还可采用磁性连接 的方式、弹性连接的方式或粘结的方式等任意方式。
具体地，所述磁性连接的方式可为，在所述挂件610为金属制件，所述标签本体612为磁铁，从而在所述挂件610和所述标签本体612相吸以连接的状态下，实现所述挂件610和所述标签本体612之间的连接。
所述弹性连接的方式可为，所述挂件610的所述第一旋转臂616和所述第二旋转臂617由具有弹性的材质制成，所述标签本体612的第二表面与所述第一旋转臂616对应位置处设置第一插孔，所述标签本体612的第二表面与所述第二旋转臂617对应位置处设置第二插孔，且在所述第一旋转臂616插设于所述第一插孔内时，所述第一旋转臂616与所述第一插孔之间涨紧配合，在所述第二旋转臂617插设于所述第二插孔内时，所述第二旋转臂617与所述第二插孔之间涨紧配合，以实现所述挂件610和所述标签本体612之间的连接。
所述粘结的方式可为，所述第一旋转臂616和所述第二表面之间设置有胶层，且所述第二旋转臂617和所述第二表面之间也设置有胶层，通过胶层实现了所述挂件610和所述标签本体612之间的连接。
采用本实施例所示的光纤连接器组件，通过位置固定的标签模块对光纤连接器本体进行标识，且不同的标签模块的第一表面均在可视范围或摄像范围内，从而有效地避免了不同的标签模块之间、标签模块和光纤连接器本体之间的相互干涉、缠绕等，降低了对网络节点进行维护的难度。
而且本实施例所示的不同的标签模块的标签信息之间不会出现相互的遮挡，光纤连接器本体也不会对标签信息造成遮挡，有效地提高了对标签信息进行获取的效率和准确性。
插设在插框上的各个光纤连接器组件的标签信息均位于摄像范围内，则在带有摄像头的终端设备(如智能手机)对插框进行拍摄即可获取包括各个标签信息的目标图像，通过该目标图像即可识别目标图像中的各个标签信息所标识的各个光纤连接器本体，无需采用专用的装置进行识别，有效地降低了对标签信息所标识的光纤连接器本体进行识别的成本和复杂度，而且对目标图像所包括的各个标签信息所标识的各个光纤连接器本体进行识别，提高了识别的效率。
而且对目标图像可通过图像识别技术识别出目标图像所包括的各个标签信息，根据标签信息即可实现对标签信息的自动化录入，实现对插框所插设的各个光纤连接器本体的录入和统计，提高了对网络节点的光纤连接器本体的资源进行管理的效率。
因本实施例所示的标签阵列中，位置相邻的不同的标签模块之间处于连接的关系，从而有效地对标签阵列的位置进行了固定，从而使得在网络节点后续使用的过程中，所述标签阵列的标签信息不会出现位置的偏移的情况，从而有效地保证了标签模块的标签信息能够始终位于摄像范围或可视范围内，提高了对标签信息所标识的光纤连接器本体进行识别的准确性。
本实施例所示的标签模块与光缆进行连接，则使得标签模块的位置可根据需要随时的进行调整，提高了对标签模块的位置进行调整的自由度。提高了在网络节点后续使用过程中，根据需要随时增加标签模块、减少标签模块以及对标签模块的位置进行改变的操作难度，提高了效率。
实施例二
在实施例一中，以光纤连接器组件应用至高密度插框的场景下为例，而本实施例以光纤连接器组件应用至如图11A所示的非高密度场景中为例，需明确地是，本实施例所示的光纤连接器组件也可应用至高密度插框的场景，本实施例仅为一种示例。
如图11A所示，本实施例以网络节点所包括的插框1010为非高密度场景，例如，本实施例所示的插框1010仅包括一行适配器1011。需明确的是，本实施例对插框1010的结构的说明为可选地示例，不做限定。
本实施例所示的光纤连接器组件包括光纤连接器本体和第一标签模块503，对所述光纤连接器本体的具体结构的说明，请详见实施例一所示，具体不做赘述。
本实施例所示的第一标签模块503具有第一表面1012，所述第一表面1012用于设置标签信息，对所述标签信息的具体说明，请详见实施例一所示，具体在本实施例中不做赘述。
本实施例所示的第一表面1012位于可视范围内或摄像范围内，对可视范围以及摄像范围的具体说明，请详见实施例一所示，具体不做赘述。
相对于实施例一所示的，所述第一表面601与所述插框200表面位置相背的设置方式，本实施例中，所述第一表面1012可与所述插框1010底面1020位置相背，从而使得摄像头在所述插框1010上方的状态下，所述第一表面1012上所设置的标签信息即可位于所述摄像头的摄像范围内。
可选地，在其他示例中，所述第一表面1012可与所述插框1010顶面位置相背，从而使得摄像头在所述插框1010下方的状态下，所述第一表面上所设置的所述标签信息位于所述摄像头的摄像范围内。
可选地，所述插框1010中所插设的所有光纤连接器组件的标签信息可具有统一的朝向，具体是指，已插设在插框1010上的不同的标签模块的各个第一表面1012均与所述插框200的表面垂直，且各个第一表面1012位于同一表面上，从而便于摄像头进行拍摄。有效地保证了摄像头对插框1010所拍摄的照片，能够拍摄出清楚且完整的各个标签信息。在其他示例中，不同的标签模块的第一表面1012与所述插框1010表面之间的夹角也可不相等，只要各个第一表面1012均位于摄像范围内即可。
可选地，已插设在插框1010上的不同的标签模块的各个第一表面1012可位于同一表面上，所述同一表面可为平面结构或曲面结构，从而使得位于同一表面上的多个标签信息均位于可视范围或摄像范围内。
可选地，已插设在插框1010上的不同的标签模块的各个第一表面1012的朝向均与所述插框表面位置相背，从而使得各个第一表面1012均位于可视范围或摄像范围内。
由上述可知，各个第一标签模块503的第一表面1012均位于摄像范围内，则通过摄像头对标签阵列进行拍摄所获取到的目标图像，即可通过该目标图像获取包括已插设在插框1010上的各个光纤连接器组件的标签信息，基于标签信息即可确定各个标签信息所标识的所述光纤连接器本体，可见，通过本实施例所示的标签信息对光纤连接器本体进行识别，有效地提高了识别光纤连接器本体的效率。
需明确地，图11A为非高密度场景的插框的一种可选地示例，不做限定，例如图11B和图11C所示，图11B和图11C所示以网络节点为FAT为例进行示例性说明：
在图11A中，所述插框1010包括一行适配器，插设在该适配器内的多个光纤连接器组件所连接的光缆506，与位于同一行的标签模块进行连接，可见，在图11A所示的示例中，适配器和标签阵列均呈单行结构。
而在图11B和图11C中，插框1030包括呈多行多列排布的多个适配器1031，为使得标签模块能够对呈多行多列排布的任一适配器所插设的光纤连接器本体进行标识，则需要标签阵列所包括的每个标签信息均位于摄像范围或视线范围内，则图11B和图11C中的标签阵列的排布情况与图11A所示的标签阵列的排布情况相同，即标签阵列所包括的多个标签模块沿同一行排列，从而有效地保证标签阵列中的每个标签信息均位于摄像范围或视线范围内，具体排布情况的说明，请详见图11A所示，具体不做赘述。
在图11B和图11C中，呈多行多列排布的多个适配器中，插设于不同适配器内的光纤连接器组件所连接的光缆，与呈同一行排列的不同的标签模块1040连接。
需明确地是，本实施例以标签阵列所包括的多个标签模块1040沿同一行进行排列为例进行示例性说明，在其他示例中，所述标签阵列所包括的多个标签模块1040也可沿同一列进行排列，只要标签阵列所包括的每个标签模块的标签信息均位于摄像范围内或可视范围内即可。
以下对本实施例所示的第一标签模块503与光缆506的连接方式进行说明：
在本实施例中，所述第一标签模块503还包括位置相对的第三表面1013和第四表面1014，所述第三表面1013设置第一通道口，所述第四表面1014设置第二通道口1021，贯穿所述第一标签模块503设置通道。所述通道分别与所述第一通道口和所述第二通道口连通。
可见，所述第一通道口面向所述光纤连接器本体设置，所述第二通道口背向所述光纤连接器本体设置。
本实施例所示的所述第一表面1012分别与所述第三表面1013和所述第四表面1014连接，所述光缆506穿过所述通道。
本实施例中，标签阵列中位置相邻的不同的标签模块之间具有连接关系，具体以图10所示的标签模块1022和标签模块1023所示为例，即所述标签模块1022和标签模块1023插设于插框1010上同一行且位置相邻的两个适配器中。
所述标签模块1022面向所述标签模块1023的侧面设置有第一连接结构，所述标签模块1023面向所述标签模块1022的侧面设置有第一连接结构，通过所述第一连接结构和所述第二连接结构的连接，实现所述标签模块1022和所述标签模块1023之间的连接，对所述第一连接结构和所述第二连接结构的说明，请详见实施例一所示，具体在本实施例中不做赘述。
本实施例所示的光纤连接器组件的有益效果的说明，请详见实施例一所示，具体在本实施例中不做赘述。
实施例三
本实施例继续以光纤连接器组件应用至非高密度插框的场景下为例，对非高密度场景的说明请参见实施例二所示，具体不做赘述，需明确地是，本实施例所示的光纤连接器组件也可应用至高密度插框的场景，本实施例仅为一种示例。
本实施例所示的插框的具体结构可参见实施例二所示的所述插框1010的具体结构的说明，具体不做赘述。
本实施例所示的光纤连接器组件包括光纤连接器本体和第一标签模块503，对所述光纤连接器本体的具体结构的说明，请详见实施例一所示，具体不做赘述。
本实施例所示的第一标签模块503具有第一表面1012，所述第一表面1012用于设置标签信息，对第一表面1012以及所述标签信息的具体说明，请详见实施例二所示，具体在本实施例中不做赘述。
本实施例所示的第一表面1012位于可视范围内或摄像范围内，具体说明请详见实施例二所示，具体不做赘述。
以下对本实施例所示的第一标签模块503与光缆506的连接方式进行说明：
参见图12至图15所示，本连接方式所示的第一标签模块503还包括连接表面1014，具体地，所述第一表面1012和所述连接表面1014位置相背。
本连接方式所示的第一标签模块503包括相互连接的挂件1015和标签本体1016，对所述挂件1015的具体结构的说明，向详见实施例一所示，具体不做赘述。
所述挂件1015和所述连接表面1014之间形成有通道1017。所述光缆506穿过所述通道1017，以实现所述第一标签模块503和所述光缆506之间的连接。
所述连接表面1014设置旋转通孔，对连接表面1014所设置的旋转通孔的说明，请详见实施例一所示的旋转通孔613的说明，具体不做赘述。
所述标签本体1016内部还设置旋转空间，对旋转空间的具体说明，请详见实施例一所示的所述标签本体612的内部的旋转空间614的说明，具体不做赘述。
所述挂件1015和所述标签本体1016之间如何形成所述通道1017的过程，请详见实施例一所示，具体不做赘述。
本实施例中，标签阵列中位置相邻的不同的标签模块之间具有连接关系，具体说明请详见实施例二所示，不做赘述。
本实施例所示的光纤连接器组件的有益效果的说明，请详见实施例一所示，具体在本实施例中不做赘述。
实施例四
本实施例以光纤连接器组件应用至高密度插框的场景下，对高密度插框的具体说明，请详见实施例一所示，具体在本实施例中不做赘述。需明确地是，本实施例所示的光纤连接器组件还可应用至非高密度插框等场景中，具体在本实施例中不做赘述。
本实施例所示的所述光纤连接器组件包括光纤连接器本体和第一标签模块503，对所述光纤连接器本体的具体结构的说明，请详见实施例一所示，具体在本实施例中不做赘述。
本实施例所示的第一标签模块503具有第一表面601，所述第一表面601用于设置标签信息，对所述第一表面601和所述标签信息的具体说明，请详见实施例一所示，具体在 本实施例中不做赘述。
本实施例所示的第一表面601位于可视范围内或摄像范围内，对可视范围以及摄像范围的具体说明，请详见实施例一所示，具体不做赘述。
以下结合图16和图17所述，对本实施例所示的第一标签模块503与光缆506的连接方式进行说明：
所述第一标签模块503的第五表面530设置开口531，本实施例第五表面530的具体位置的说明，请详见实施例一所示的对第二表面的位置的说明，具体在本实施例中不做赘述。
本实施例所示，贯穿所述第一标签模块503设置有通道532，所述开口531沿所述通道532的轴向延伸，且所述开口531与所述通道532连通，所述光缆506经由所述开口穿设入所述通道532，以实现所述光缆506与所述光纤连接器组件之间的连接。
可选地，为提高所述光缆506与所述第一标签模块503之间连接结构的稳固，则沿所述通道532的轴向垂直的方向，所述开口531的高度小于所述光缆506的外径，可见，
可见，在需要将所述第一标签模块503与所述光缆506进行连接的情况下，可将所述光缆506经由所述开口531向所述通道532内部挤压，从而使得所述光缆506受到挤压力的作用而变形，直至所述光缆506进入到所述通道532内，可见，光缆506能够经由所述开口531穿设入所述通道532，以实现所述第一标签模块503和光缆506之间的连接。
可选地，所述第一标签模块还包括插盖，所述插盖盖设于所述开口531处，可选地，所述插框与所述开口531之间可通过卡合固定的方式，具体连接方式如下所示：
所述插盖的插壁设置有弹性卡扣，所述通道532的内侧壁设置有卡槽，在所述弹性卡扣卡合于所述卡槽内的状态下，所述插盖设于所述开口531处。
需明确地是，本实施例对所述插盖与所述开口531之间连接的方式的说明为可选地示例，不做限定，例如，所述开口531和所述插框之间还可通过磁性连接的方式、弹性连接的方式或粘结的方式等任意方式进行连接，对磁性连接的方式、弹性连接的方式或粘结的方式的说明，可参见实施例一所示，具体在本实施例中不做赘述。
本实施例中，标签阵列中位置相邻的不同的标签模块之间具有连接关系，具体说明请详见实施例一所示，不做赘述。
本实施例所示的光纤连接器组件的有益效果的说明，请详见实施例一所示，具体在本实施例中不做赘述。
实施例五
本实施例以光纤连接器组件应用至高密度插框的场景下，对高密度插框的具体说明，请详见实施例一所示，具体在本实施例中不做赘述，需明确地是，本实施例所示的光纤连接器组件也可应用至非高密度插框的场景，本实施例仅为一种示例。
本实施例所示的所述光纤连接器组件包括光纤连接器本体和第一标签模块503，对所述光纤连接器本体的具体结构的说明，请详见实施例一所示，具体在本实施例中不做赘述。
本实施例所示的第一标签模块503具有第一表面，所述第一表面用于设置标签信息，对所述第一表面和所述标签信息的具体说明，请详见实施例一所示，具体在本实施例中不 做赘述。
本实施例所示的第一表面位于可视范围内或摄像范围内，对可视范围以及摄像范围的具体说明，请详见实施例一所示，具体不做赘述。
以下结合图18至图19对本实施例所示的第一标签模块503与光缆506的连接方式进行说明：
所述第一标签模块503包括相互连接的第一子模块1801和第二子模块1802，所述第一子模块1801设置第一凹槽1803，所述第一凹槽1803的外周壁设置有弹性卡槽1805，所述第二子模块1802的外周壁设置有弹性卡扣1806，在所述弹性卡扣1806卡合于所述弹性卡槽1805内部的状态下，所述第一子模块1801和第二子模块1802连接；
所述第二子模块设置第二凹槽1804，在所述第一子模块1801和第二子模块1802连接的状态下，所述第一凹槽1803和所述第二凹槽1804之间形成通道。
所述光缆506穿过所述通道，实现所述第一标签模块和所述光缆506之间的连接。
需明确地是，本实施例对所述第一子模块1801和第二子模块1802之间的连接方式的说明为可选地示例，不做限定，只要所述在所述第一子模块1801和第二子模块1802连接的状态下，所述第一凹槽1803和所述第二凹槽1804之间形成通道即可，例如，所述第一子模块1801和第二子模块1802之间可通过卡合连接的方式、磁性连接的方式、弹性连接的方式或粘结的方式等任意方式，具体连接方式可参见实施例一所示，具体在本实施例中不做赘述。
为更好的理解，以下结合图20所示，对所述第一子模块1801和第二子模块1802之间通过磁性连接的方式进行说明：
所述第二子模块1802设置有容纳空间1807，所述容纳空间1807与所述第二凹槽1804连通，具体地，所述第二凹槽1804呈底部镂空设置，本示例所示的第一标签模块还包括磁铁1808，所述磁铁1808插设于所述容纳空间1807内，且所述磁铁1808经由所述第二凹槽1804底部镂空的区域，从所述第二凹槽1804的底部露出。
可见，在第一子模块1801和第二子模块1802靠近的状态下，且在所述第一子模块1801由金属材质制成的情况下，所述磁铁1808吸引所述第一子模块1801，以实现第一子模块1801和第二子模块1802之间的连接。
本实施例中，标签阵列中位置相邻的不同的标签模块之间具有连接关系，具体说明请详见实施例一所示，不做赘述。
本实施例所示的光纤连接器组件的有益效果的说明，请详见实施例一所示，具体在本实施例中不做赘述。
实施例六
本实施例提供了一种标签系统，本实施例所示的标签系统包括插框、插设在插框上的光纤连接器组件，对所述插框以及所述光纤连接器组件的具体说明，请参见上述实施例一至实施例五任一项所示，具体不做赘述。
可选地，本实施例所示的标签系统，以图4所示为例，所述插框200已插设多个光纤连接器组件的情况下，为避免各个光纤连接器组件引出的光缆出现相互缠绕且便于对标签 系统中的光缆进行梳理，则本实施例所示的各个光纤连接器组件引出的光缆均可沿相同的方向在所述插框200中进行延伸。
例如，各个所述光纤连接器组件所连接的光缆沿方向204从各个光纤连接器组件的标签模块中引出，所述方向204为插框200的横向方向，且方向204具体为各个所述光纤连接器组件的左侧方向。
随后，从各个光纤连接器组件的标签模块中引出的光缆沿方向205从插框200中引出，所述方向205为插框200的竖向方向。
需明确地是，本实施例对各个光纤连接器组件所连接的光缆，在插框200中的延伸路径的说明，为一种可选地示例，不做限定，只要不同的光纤连接器组件所连接的光缆能够不出现相互缠绕以便于对光缆进行梳理即可。

Claims (45)

  1. 一种光纤连接器组件，其特征在于，所述光纤连接器组件包括光纤连接器本体和第一标签模块，所述第一标签模块与光缆连接，所述光缆与所述光纤连接器本体连接，所述第一标签模块具有第一表面，所述第一表面用于设置标签信息，所述标签信息用于标识所述光纤连接器本体；
    所述第一标签模块具有第一连接结构和第二连接结构，所述第一连接结构用于所述第一标签模块与第二标签模块连接，所述第二连接结构用于所述第一标签模块与第三标签模块连接，所述第一标签模块、所述第二标签模块和所述第三标签模块属于三个不同的光纤连接器组件。
  2. 根据权利要求1所述的光纤连接器组件，其特征在于，所述第一标签模块具有通道，所述光缆穿过所述通道。
  3. 根据权利要求1或2所述的光纤连接器组件，其特征在于，所述第一连接结构为卡持凸起、卡持凹槽、燕尾、燕尾槽、卡扣、卡槽和/或磁性件，所述第二连接结构为卡持凸起、卡持凹槽、燕尾、燕尾槽、卡扣、卡槽和/或磁性件。
  4. 根据权利要求2或3所述的光纤连接器组件，其特征在于，所述第一标签模块的第二表面延伸设置有挂件，所述挂件和所述第二表面之间形成有所述通道。
  5. 根据权利要求4所述的光纤连接器组件，其特征在于，所述第二表面设置旋转通孔，所述第一标签模块的内部设置有旋转空间，所述旋转空间与所述旋转通孔连通；
    所述挂件包括挂件本体以及连接在挂件本体两端的第一旋转臂和第二旋转臂，所述第一旋转臂和所述第二旋转臂均设置旋转凹槽，所述旋转凹槽远离所述挂件本体的端部形成抵持凸起；
    所述旋转通孔包括连通的第一孔口和第二孔口，所述旋转凹槽经由所述第一孔口插设入所述旋转通孔内，且所述抵持凸起与所述第二孔口的外周缘抵持，所述第二孔口的外周缘位于所述旋转空间内部，以便于所述旋转凹槽在所述旋转通孔内旋转。
  6. 根据权利要求5所述的光纤连接器组件，其特征在于，所述挂件本体和所述第二表面之间形成所述通道。
  7. 根据权利要求4至6任一项所述的光纤连接器组件，其特征在于，所述第一表面和所述第二表面位置相背，或，所述第一表面与所述第二表面之间连接。
  8. 根据权利要求2或3所述的光纤连接器组件，其特征在于，所述第一标签模块还包括位置相对的第三表面和第四表面，所述第三表面设置第一通道口，所述第四表面设置第二通道口，贯穿所述第一标签模块设置所述通道，且所述通道分别与所述第一通道口和所述第二通道口连通。
  9. 根据权利要求8所述的光纤连接器组件，其特征在于，所述第一表面分别与所述第三表面和所述第四表面连接，所述光缆穿过所述通道。
  10. 根据权利要求8或9所述的光纤连接器组件，其特征在于，所述第一标签模块包括相互连接的第一子模块和第二子模块，所述第一子模块设置第一凹槽，所述第一凹槽的外周壁设置有弹性卡槽，所述第二子模块的外周壁设置有弹性卡扣，在所述弹性卡扣卡合 于所述弹性卡槽内部的状态下，所述第一子模块和所述第二子模块连接；
    所述第二子模块设置第二凹槽，所述第一凹槽和所述第二凹槽之间形成所述通道。
  11. 根据权利要求8所述的光纤连接器组件，其特征在于，所述第一标签模块的第五表面设置开口，所述开口沿所述通道的轴向延伸，且所述开口与所述通道连通，所述第五表面与所述第一表面位置相背，所述光缆经由所述开口穿设入所述通道。
  12. 根据权利要求11所述的光纤连接器组件，其特征在于，沿所述通道的轴向垂直的方向，所述开口的高度小于所述光缆的外径。
  13. 根据权利要求11或12所述的光纤连接器组件，其特征在于，所述第一标签模块还包括插盖，所述插盖盖设于所述开口处。
  14. 根据权利要求13所述的光纤连接器组件，其特征在于，所述插盖的插壁设置有弹性卡扣，所述通道的内侧壁设置有卡槽，在所述弹性卡扣卡合于所述卡槽内的状态下，所述插盖设于所述开口处。
  15. 一种标签系统，其特征在于，所述标签系统包括插框、第一光纤连接器组件和第二光纤连接器组件，所述第一光纤连接器组件和所述第二光纤连接器组件插设于所述插框上；所述第一光纤连接器组件包括第一光纤连接器本体和第一标签模块，所述第二光纤连接器组件包括第二光纤连接器和第二标签模块，所述第一标签模块的第一表面设置第一标签信息，所述第一标签信息用于标识所述第一光纤连接器本体，所述第二标签模块的第一表面设置第二标签信息，所述第二标签信息用于标识所述第二光纤连接器本体；
    所述第一标签模块具有第一连接结构，所述第二标签模块具有第二连接结构，在所述第一连接结构与所述第二连接结构连接的状态下，所述第一标签模块与所述第二标签模块连接。
  16. 根据权利要求15所述的标签系统，其特征在于，所述标签系统还包括第三光纤连接器组件，所述第三光纤连接器组件包括第三光纤连接器和第三标签模块，所述第三标签模块的第一表面设置第三标签信息，所述第三标签信息用于标识所述第三光纤连接器本体；
    所述第一标签模块还具有第二连接结构，所述第三标签模块具有第一连接结构，在所述第一连接结构与所述第二连接结构连接的状态下，所述第一标签模块与所述第三标签模块连接。
  17. 根据权利要求16所述的标签系统，其特征在于，所述第一标签模块的第一连接结构、所述第二标签模块的第一连接结构以及所述第三标签模块的第一连接结构相同，所述第一标签模块的第二连接结构、所述第二标签模块的第二连接结构以及所述第三标签模块的第二连接结构相同。
  18. 根据权利要求15至17任一项所述的标签系统，其特征在于，所述第一连接结构为卡持凸起，所述第二连接结构为卡持凹槽，和/或，所述第一连接结构为卡持凹槽，所述第二连接结构为卡持凸起，和/或，所述第一连接结构为燕尾，所述第二连接结构为燕尾槽，和/或，所述第一连接结构为燕尾槽，所述第二连接结构为燕尾，和/或，所述第一连接结构为卡扣，所述第二连接件为卡槽，和/或，所述第一连接结构为卡槽，所述第二连接件为卡扣，和/或，所述第一连接结构为第一磁性件，所述第二连接结构为第二磁性件，所述第 一磁性件和所述第二磁性件磁极相异。
  19. 根据权利要求17或18所述的标签系统，其特征在于，所述第一标签模块的第一表面、所述第二标签模块的第一表面和所述第三标签的第一表面位于同一表面上。
  20. 根据权利要求17至19任一项所述的标签系统，其特征在于，所述第一标签模块具有通道，所述光缆穿过所述通道。
  21. 根据权利要求17至20任一项所述的标签系统，其特征在于，所述第一连接结构为卡持凸起、卡持凹槽、燕尾、燕尾槽、卡扣、卡槽和/或磁性件，所述第二连接结构为卡持凸起、卡持凹槽、燕尾、燕尾槽、卡扣、卡槽和/或磁性件。
  22. 根据权利要求17至21任一项所述的标签系统，其特征在于，所述第一标签模块的第二表面延伸设置有挂件，所述挂件和所述第二表面之间形成有所述通道。
  23. 根据权利要求22所述的标签系统，其特征在于，所述第二表面设置旋转通孔，所述第一标签模块的内部设置有旋转空间，所述旋转空间与所述旋转通孔连通；
    所述挂件包括挂件本体以及连接在挂件本体两端的第一旋转臂和第二旋转臂，所述第一旋转臂和所述第二旋转臂均设置旋转凹槽，所述旋转凹槽远离所述挂件本体的端部形成抵持凸起；
    所述旋转通孔包括连通的第一孔口和第二孔口，所述旋转凹槽经由所述第一孔口插设入所述旋转通孔内，且所述抵持凸起与所述第二孔口的外周缘抵持，所述第二孔口的外周缘位于所述旋转空间内部，以便于所述旋转凹槽在所述旋转通孔内旋转。
  24. 根据权利要求23所述的标签系统，其特征在于，所述挂件本体和所述第二表面之间形成所述通道。
  25. 根据权利要求17至21任一项所述的标签系统，其特征在于，所述第一标签模块还包括位置相对的第三表面和第四表面，所述第三表面设置第一通道口，所述第四表面设置第二通道口，贯穿所述第一标签模块设置所述通道，且所述通道分别与所述第一通道口和所述第二通道口连通。
  26. 根据权利要求25所述的标签系统，其特征在于，所述第一表面分别与所述第三表面和所述第四表面连接，所述光缆穿过所述通道。
  27. 根据权利要求25或26所述的标签系统，其特征在于，所述第一标签模块包括相互连接的第一子模块和第二子模块，所述第一子模块设置第一凹槽，所述第一凹槽的外周壁设置有弹性卡槽，所述第二子模块的外周壁设置有弹性卡扣，在所述弹性卡扣卡合于所述弹性卡槽内部的状态下，所述第一子模块和所述第二子模块连接；
    所述第二子模块设置第二凹槽，所述第一凹槽和所述第二凹槽之间形成所述通道。
  28. 根据权利要求25所述的标签系统，其特征在于，所述第一标签模块的第五表面设置开口，所述开口沿所述通道的轴向延伸，且所述开口与所述通道连通，所述第五表面与所述第一表面位置相背，所述光缆经由所述开口穿设入所述通道。
  29. 根据权利要求28所述的标签系统，其特征在于，沿所述通道的轴向垂直的方向，所述开口的高度小于所述光缆的外径。
  30. 根据权利要求28或29所述的标签系统，其特征在于，所述第一标签模块还包括 插盖，所述插盖盖设于所述开口处。
  31. 根据权利要求30所述的标签系统，其特征在于，所述插盖的插壁设置有弹性卡扣，所述通道的内侧壁设置有卡槽，在所述弹性卡扣卡合于所述卡槽内的状态下，所述插盖设于所述开口处。
  32. 一种标签模块，其特征在于，所述标签模块为第一标签模块，所述第一标签模块应用于光纤连接器组件，所述光纤连接器组件包括光纤连接器本体和第一标签模块，所述第一标签模块与光缆连接，所述光缆与所述光纤连接器本体连接，所述第一标签模块具有第一表面，所述第一表面设置标签信息，所述标签信息用于标识所述光纤连接器本体；
    所述第一标签模块具有第一连接结构和第二连接结构，所述第一连接结构用于所述第一标签模块与第二标签模块连接，所述第二连接结构用于所述第一标签模块与第三标签模块连接，所述第一标签模块、所述第二标签模块和所述第三标签模块属于三个不同的光纤连接器组件。
  33. 根据权利要求32所述的标签模块，其特征在于，所述第一标签模块具有通道，所述光缆穿过所述通道。
  34. 根据权利要求32或32所述的标签模块，其特征在于，所述第一连接结构为卡持凸起、卡持凹槽、燕尾、燕尾槽、卡扣、卡槽和/或磁性件，所述第二连接结构为卡持凸起、卡持凹槽、燕尾、燕尾槽、卡扣、卡槽和/或磁性件。
  35. 根据权利要求33或34所述的标签模块，其特征在于，所述第一标签模块的第二表面延伸设置有挂件，所述挂件和所述第二表面之间形成有所述通道。
  36. 根据权利要求35所述的标签模块，其特征在于，所述第二表面设置旋转通孔，所述第一标签模块的内部设置有旋转空间，所述旋转空间与所述旋转通孔连通；
    所述挂件包括挂件本体以及连接在挂件本体两端的第一旋转臂和第二旋转臂，所述第一旋转臂和所述第二旋转臂均设置旋转凹槽，所述旋转凹槽远离所述挂件本体的端部形成抵持凸起；
    所述旋转通孔包括连通的第一孔口和第二孔口，所述旋转凹槽经由所述第一孔口插设入所述旋转通孔内，且所述抵持凸起与所述第二孔口的外周缘抵持，所述第二孔口的外周缘位于所述旋转空间内部，以便于所述旋转凹槽在所述旋转通孔内旋转。
  37. 根据权利要求36所述的标签模块，其特征在于，所述挂件本体和所述第二表面之间形成所述通道。
  38. 根据权利要求35至37任一项所述的标签模块，其特征在于，所述第一表面和所述第二表面位置相背，或，所述第一表面与所述第二表面之间连接。
  39. 根据权利要求33或34所述的标签模块，其特征在于，所述第一标签模块还包括位置相对的第三表面和第四表面，所述第三表面设置第一通道口，所述第四表面设置第二通道口，贯穿所述第一标签模块设置所述通道，且所述通道分别与所述第一通道口和所述第二通道口连通。
  40. 根据权利要求38所述的标签模块，其特征在于，所述第一表面分别与所述第三表面和所述第四表面连接，所述光缆穿过所述通道。
  41. 根据权利要求39或40所述的标签模块，其特征在于，所述第一标签模块包括相互连接的第一子模块和第二子模块，所述第一子模块设置第一凹槽，所述第一凹槽的外周壁设置有弹性卡槽，所述第二子模块的外周壁设置有弹性卡扣，在所述弹性卡扣卡合于所述弹性卡槽内部的状态下，所述第一子模块和所述第二子模块连接；
    所述第二子模块设置第二凹槽，所述第一凹槽和所述第二凹槽之间形成所述通道。
  42. 根据权利要求39所述的标签模块，其特征在于，所述第一标签模块的第五表面设置开口，所述开口沿所述通道的轴向延伸，且所述开口与所述通道连通，所述第五表面与所述第一表面位置相背，所述光缆经由所述开口穿设入所述通道。
  43. 根据权利要求42所述的标签模块，其特征在于，沿所述通道的轴向垂直的方向，所述开口的高度小于所述光缆的外径。
  44. 根据权利要求42或43所述的标签模块，其特征在于，所述第一标签模块还包括插盖，所述插盖盖设于所述开口处。
  45. 根据权利要求44所述的标签模块，其特征在于，所述插盖的插壁设置有弹性卡扣，所述通道的内侧壁设置有卡槽，在所述弹性卡扣卡合于所述卡槽内的状态下，所述插盖设于所述开口处。
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