WO2018058631A1 - 一种用于安装光缆的接头盒以及方法 - Google Patents
一种用于安装光缆的接头盒以及方法 Download PDFInfo
- Publication number
- WO2018058631A1 WO2018058631A1 PCT/CN2016/101311 CN2016101311W WO2018058631A1 WO 2018058631 A1 WO2018058631 A1 WO 2018058631A1 CN 2016101311 W CN2016101311 W CN 2016101311W WO 2018058631 A1 WO2018058631 A1 WO 2018058631A1
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- WO
- WIPO (PCT)
- Prior art keywords
- nut
- sub
- cable
- elastic member
- mounting tube
- Prior art date
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Classifications
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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
- G02B6/44—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
- G02B6/4441—Boxes
- G02B6/4442—Cap coupling boxes
-
- 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
- G02B6/255—Splicing of light guides, e.g. by fusion or bonding
- G02B6/2558—Reinforcement of splice joint
-
- 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
-
- 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
- G02B6/4441—Boxes
- G02B6/4442—Cap coupling boxes
- G02B6/4444—Seals
-
- 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
- G02B6/4471—Terminating devices ; Cable clamps
- G02B6/44765—Terminating devices ; Cable clamps with means for strain-relieving to exterior cable layers
-
- H—ELECTRICITY
- H02—GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
- H02G—INSTALLATION OF ELECTRIC CABLES OR LINES, OR OF COMBINED OPTICAL AND ELECTRIC CABLES OR LINES
- H02G15/00—Cable fittings
- H02G15/013—Sealing means for cable inlets
-
- 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
- G02B6/4471—Terminating devices ; Cable clamps
- G02B6/44775—Cable seals e.g. feed-through
-
- H—ELECTRICITY
- H02—GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
- H02G—INSTALLATION OF ELECTRIC CABLES OR LINES, OR OF COMBINED OPTICAL AND ELECTRIC CABLES OR LINES
- H02G15/00—Cable fittings
- H02G15/08—Cable junctions
- H02G15/10—Cable junctions protected by boxes, e.g. by distribution, connection or junction boxes
- H02G15/115—Boxes split perpendicularly to main cable direction
Definitions
- the present invention relates to communication equipment, and more particularly to a connector box and method for mounting an optical cable.
- optical fiber communication has the advantages of large capacity, long distance and anti-electromagnetic interference, it is more suitable for future human demand for large amount of information and high precision, and the low price makes the transmission medium of optical fiber widely promoted.
- the optical fiber network has gradually entered the household use, that is, the fiber to the home (English full name: Fiber To The Home, English abbreviation: FTTH).
- FTTH Fiber To The Home
- connector boxes for installing optical cables are increasingly being applied to FTTH technology.
- FIG. 1 is a schematic diagram of a fiber-to-the-home network shown in the prior art.
- the central computer room 101 performs photoelectric signal conversion, and transmits the converted signal to the connector box 102, and the connector box transmits a signal to the user terminal box 104 through the home optical cable 103, thereby realizing fiber-to-the-home. .
- a heat-shrinkable tube with glue is placed between the cable and the mounting hole, and then the heat-shrinkable tube is blown with a high-temperature hot air gun until the heat shrinkable tube is pressed.
- the heat shrinkable tube is melted such that the heat shrinkable tube after the melting is shrunk and the cable is wrapped such that there is no gap between the cable and the mounting hole, thereby sealing the joint box.
- the disadvantages of using the melted heat-shrinkable tube shown in the prior art for sealing are that special tools such as a heat gun and a power supply device for supplying the heat gun are required, and During the construction process, it is difficult to find a power supply device capable of supplying heat to the heat gun, and it takes about 20 to 30 minutes to process the mounting hole with a heat shrinkable tube through the heat gun, and the joint box is provided with multiple times.
- the mounting hole requires a long time in the sealing process, and the sealing efficiency is relatively low. Once the mounting hole is sealed, the mounting hole cannot be repeatedly opened. To open the mounting hole for maintenance, only the outside of the connector box can be rooted. Cutting the cable, increasing the difficulty and cost of maintenance, and increasing the wear and tear of the cable.
- Embodiments of the present invention provide a connector box and method that improve installation efficiency and facilitate maintenance.
- a first aspect of an embodiment of the present invention provides a connector box.
- the connector box is responsible for providing the end user with the required service interface.
- the connector box is a passive device that provides reliable guarantee for the connection of the optical fiber network, and is divided into overhead, pipeline and direct burial in the use occasion.
- the connector box shown in this embodiment includes a case body and a cable housing tray.
- the overall structure of the box body shown in this embodiment has a cylindrical structure.
- the cable accommodating disk is disposed inside the casing, and the cable accommodating disk is configured to receive an optical cable disposed inside the casing. Specifically, a cable located inside the casing is coiled on the cable accommodating disk. on.
- An optical cable access hole is disposed through an end surface of the casing, and the optical cable can enter and exit the joint box through the cable access hole, and the installation cable is disposed in the cable access hole, and the outer circumferential surface of the mounting tube
- the outer peripheral ring of the nut assembly is provided with an internal thread segment, and the nut assembly is threadedly connected to the externally threaded section of the mounting tube by the internal thread segment;
- the nut assembly is internally provided with a hollow resisting member
- the mounting tube is internally provided with a hollow elastic member
- the optical cable sequentially passes through the nut assembly, the mounting tube and the optical cable.
- the joint box shown in this embodiment even if the joint box shown in this embodiment is applied to a harsh environment such as underground, the degree of protection of IP68 can be achieved, and the joint box shown in this embodiment seals the optical cable.
- no power supply and other equipment such as the heat gun shown in the prior art
- the mechanical sealing can be carried out, that is, the components are sleeved on the optical cable, and the nut assembly is screwed on the mounting tube to seal the optical cable, the sealing process is simple, the operation is fast, and the optical cable is effectively sealed. effectiveness.
- the joint box shown in this embodiment is realized.
- the repeated installation of the optical cable simplifies the maintenance operation process, reduces the maintenance cost, and improves the maintenance efficiency.
- the nut assembly having a hollow structure is away from the end surface of the box body toward the axis of the nut assembly
- the direction of the extension is formed with a holding portion for resisting the resisting member inserted in the nut assembly;
- the resisting member includes at least two sub-pieces.
- the specific number of the components is not limited in this embodiment, as long as the number of the components included in the resisting member is greater than or equal to two.
- the at least two sub-pieces are used for splicing to form the resisting member, and one end of any one of the at least two sub-pieces is abutted on the holding portion, and any one of the at least two sub-pieces The other end of one of the members abuts against the elastic member.
- At least two of the sub-pieces are used for splicing to form the resisting member, and the sub-pieces may be divided by the resisting member in an axial direction, that is, along the axial direction of the resisting member, each The length of the sub-piece is equal to the length of the resisting member, and the length of each of the sub-pieces is smaller than the length of the resisting member in the radial direction of the resisting member.
- the optical cable may be placed in a recess of any one of the sub-pieces, and then at least two of the sub-assemblies may be spliced to form a complete Resisting the member and inserting the resisting member into the nut assembly to splicing all of the sub-pieces located within the nut assembly to form a complete one of the resisting members. At this time, the resisting member is sleeved on the optical cable.
- the elastic member has a hollow cylindrical structure.
- the material used for forming the elastic member is not limited in this embodiment, as long as the elastic member is an elastic member.
- the elastic member may be made of silicone rubber or rubber. And other materials.
- the side surface of the elastic member is provided with a slit extending longitudinally of the elastic member, so that the optical cable can be inserted into the elastic member via the slit, so that the elastic member can be sleeved in the elastic member On the cable.
- the nut assembly shown in this embodiment adopts a detachable structure, and the nut assembly includes a first sub-nut and a second sub-nut which are spliced with each other, and the first sub-nut and the second sub-nut
- the inner peripheral surface is provided with an internal thread section.
- the nut assembly shown in this embodiment has a hollow cylindrical structure, and the first sub-nut and the second sub-nut for splicing the nut assembly are along a radial direction of the nut assembly.
- the cross section of the direction is a semicircular structure.
- An inner circumferential surface of the first sub-nut is provided with a first internal thread segment, and an inner circumferential surface of the second sub-nut is provided with a second internal thread segment.
- the target position of the first sub-nut is concavely provided with a groove.
- a target position of the first sub-nut is an end surface of the first sub-nut facing the second sub-nut, and a target position of the first sub-nut is located at the inner circumference of the first sub-nut
- a guide rail is protruded from a target position of the second sub-nut.
- a target position of the second sub-nut is an end surface of the second sub-nut facing the first sub-nut, and a target position of the second sub-nut is located in the inner circumferential surface of the second sub-nut.
- the following describes how the first sub-nut and the second sub-nut are connected into a complete nut assembly.
- a guide rail of the second sub-nut can be inserted into a groove of the first sub-nut, and in a specific installation process, when the axes of the first sub-nut and the second sub-nut are coincident, the The guide rail of the two sub-nuts slides along the guide of the groove of the first sub-nut, and the first sub-nut and the second sub-nut are interlocked with each other, and the guide rail is under the action of an external force.
- the first sub-nut and the second The sub-nuts are spliced to form a complete nut assembly.
- At least one first through hole is disposed at any position through the end of the first sub-nut.
- At least one second through hole is disposed through an end of the second sub-nut.
- any one of the at least one first through hole is a target first through hole, and the target second through hole is disposed coaxially with the target first through hole in the at least one second through hole ;
- An inner circumferential surface of the target first through hole is provided with an internal thread segment, and then the target second through hole and the target first through hole are sequentially provided with a screw, and the external thread provided on the screw a segment threaded to the internal thread segment of the target first through hole;
- the inner circumferential surface of the target second through hole is provided with an internal thread segment, and then the screw is disposed through the target first through hole and the target second through hole in sequence, and the screw is disposed on the screw
- the externally threaded section is threaded onto the threaded section of the target second through bore.
- the nut assembly shown in this embodiment can effectively ensure the stability of the structure of the nut assembly that has been interlocked with each other, and avoid the mutual separation between the first sub-nut and the second sub-nut. Thereby, the stability of the joint box structure is improved, and the situation that the joint box is separated from the optical cable during the subsequent use is avoided.
- the joint box further includes at least two spacers, one of the at least two spacers is disposed on a target end surface of the elastic member, and the target end surface of the elastic member is the elastic member facing the An end surface of the cable access hole or the elastic member facing the end surface of the resisting member;
- One of the at least two spacers is disposed to abut against a target end surface of the elastic member, or any one of the at least two spacers is fixedly disposed on a target end surface of the elastic member .
- the cable access hole includes a first cable access hole
- the mounting tube includes a first mounting tube and a second mounting tube, the first cable access hole, the first mounting tube and the second mounting tube are used for mounting Straight through cable;
- the first cable inlet and outlet holes have an elliptical structure, and the first mounting tube and the second mounting tube are respectively disposed at two ends of the long axis of the first cable access hole, and the first mounting tube edge a first opening is disposed in an axial direction of the first mounting tube, a second opening is disposed along an axial direction of the second mounting tube, and the first opening and the second opening are along The longitudinal direction of the first cable access hole is oppositely disposed;
- a bent portion and a first connecting portion and a second connecting portion respectively connected to the bent portion are formed, and the bent portion passes through the first opening, the second opening, and the Inserting the first cable access hole into the cable receiving tray, so that the first connecting portion is inserted into the first mounting tube via the first opening, so that the second connecting portion is inserted through the second opening Inside the second mounting tube.
- the joint box includes a first nut assembly and a second nut assembly for mounting the through cable, the first nut assembly being threaded to the first mounting tube to sealably mount the first connecting portion, A second nut assembly is threaded onto the second mounting tube to sealably mount the second connection.
- the joint box further includes a wedge block, and an outer peripheral surface of the head of the wedge block is provided with an elastic layer;
- a head of the wedge block is inserted inside the aperture of the first cable access hole such that a head of the wedge block abuts between the first elastic member and the second elastic member, the first
- the elastic member is an elastic member inserted inside the first mounting tube
- the second elastic member is an elastic member inserted inside the second mounting tube to elastically deform the first elastic member
- the elastic layer is abutted against the elastic layer via the first opening such that the second elastic member that is elastically deformed abuts against the elastic layer via the second opening.
- the specific manufacturing process of the wedge block in this embodiment is not limited, as long as the wedge block that has been formed can seal the inlet and outlet holes of the first cable, for example, by using an overmolding process.
- the mold produces a hard wedge-shaped block, and then a thermoplastic soft material such as TPE (English name: Thermoplastic Elastomer, full name: thermoplastic elastomer) is injection molded outside the skeleton through the injection molding machine outside the hard wedge-shaped skeleton. Form a complete elastic layer.
- the wedge block is first inserted into the first cable access hole, so that the wedge block can resist the first opening and the Between the second openings, and enabling the wedge blocks to abut each other with the first elastic member and the second elastic member, thereby sealing the optical cable and the well by the wedge block
- the gap between the inlet and outlet holes of the first optical cable improves the sealing effect of the joint box provided by the embodiment.
- the cable access hole includes at least one second cable access hole
- the mounting tube includes at least one third mounting tube, and the at least one second cable access hole and the at least one third mounting tube are used to mount the divergent cable;
- An inner peripheral wall of the opening of the second cable access hole of the at least one second cable access hole is provided with a resisting portion, and an outer peripheral wall of any one of the at least one third mounting tube is provided with elasticity
- the buckle is fixed to be disposed on the second cable access hole when the elastic buckle is fastened on the abutting portion.
- a second aspect of the embodiments of the present invention provides a sealing method for sealing an optical cable, comprising:
- Step A The optical cable is sequentially passed through the nut assembly, the resisting member, the elastic member, the mounting tube, and the cable access hole to be installed in the cable receiving tray located inside the casing.
- the optical cable access hole is disposed through an end surface of the casing, and the installation pipe is disposed to be connected to the cable access hole.
- Step B Threading an internal thread segment of the inner circumferential surface of the nut assembly to an externally threaded section of the outer circumferential surface of the mounting tube.
- the sealing method shown in this embodiment in the process of sealing the optical cable, no power source and other equipment (such as the hot air gun shown in the prior art) are needed, and only the mechanical sealing is performed, that is, the components are set.
- the sealing of the optical cable can be realized, the sealing process is simple, the operation is fast, and the efficiency of sealing the optical cable is effectively improved.
- the subsequent maintenance process of the joint box it is not necessary to cut the optical cable, and only the nut assembly needs to be unscrewed from the mounting tube to realize maintenance. It can be seen that the joint box shown in this embodiment is realized.
- the repeated installation of the optical cable simplifies the maintenance operation process, reduces the maintenance cost, and improves the maintenance efficiency.
- the method further includes:
- the step A further includes:
- Step A0 arranging any one of at least two components included in the resisting member On the cable, and inserting any one of the at least two sub-pieces inside the nut assembly.
- the method further includes:
- the step A further includes:
- Step A1 the optical cable is inserted into the elastic member through the slot of the elastic member.
- the side surface of the elastic member is provided with the slit extending longitudinally of the elastic member.
- the nut assembly includes splicing The first sub-nut and the second sub-nut, and the inner peripheral surface of the first sub-nut and the second sub-nut are provided with the internal thread segment, and the step B includes:
- Step B11 inserting the optical cable between the first sub-nut and the second sub-nut
- Step B12 splicing the first sub-nut and the second sub-nut to form the nut assembly, so that the nut assembly is sleeved on the optical cable.
- the step B12 includes:
- Step B121 inserting the guide rail of the second sub-nut into the groove of the first sub-nut.
- the target position of the first sub-nut is recessed with the groove, the target position of the first sub-nut is an end surface of the first sub-nut facing the second sub-nut, and the first sub-nut
- the target position is located at two ends of the internal thread segment of the inner peripheral surface of the first sub-nut
- the target position of the second sub-nut is convexly disposed with the guide rail
- the target position of the second sub-nut is The second sub-nut faces the end surface of the first sub-nut, and the target position of the second sub-nut is located at both ends of the internal thread section of the inner peripheral surface of the second sub-nut;
- Step B122 Control the guide rail of the second sub-nut to slide relative to the guide of the groove of the first sub-nut until one end of the guide rail of the second sub-nut follows the first sub- The groove of the nut slides to the bottom of the groove.
- the step B further includes:
- Step B31 at least one first through hole is disposed at any position of the end portion of the first sub-nut, and at least one second through hole is disposed through an end of the second sub-nut, the at least one first Any one of the through holes is a target first through hole, and the at least one second through hole is disposed coaxially with the target first through hole as a target second through hole, the The splicing of the first sub-nut and the second sub-nut to form the nut assembly further includes:
- Step B32 sequentially passing the screw through the target second through hole and the target first through hole to screw the externally threaded portion provided on the screw to the internal thread segment of the target first through hole on;
- Step B33 sequentially passing a screw through the target first through hole and the target second through hole to screw the externally threaded portion provided on the screw to the threaded segment of the target second through hole .
- the stability of the structure in which the complete nut assembly has been interlocked can be effectively ensured, and the first sub-nut and the second sub-nut are prevented from being separated from each other. Thereby improving the stability of the joint box structure and avoiding the joint box and light during subsequent use.
- the connector box further includes at least two spacers, and the method further includes:
- Step C disposing any one of the at least two spacers on a target end surface of the elastic member, the target end surface of the elastic member is an end surface of the elastic member facing the cable access hole or the The elastic member faces an end surface of the resisting member, wherein any one of the at least two spacers is disposed to abut against a target end surface of the elastic member, or any of the at least two spacers A spacer is fixedly disposed on the target end surface of the elastic member.
- the cable access hole includes a first cable access hole
- the mounting tube includes a first mounting tube and a second mounting tube
- the first cable access hole, the first mounting tube and the second mounting tube are used for mounting a straight-through cable
- the first cable inlet and outlet holes have an elliptical structure
- the first mounting tube and the second mounting tube are respectively disposed at two ends of the long axis of the first cable access hole
- the first The mounting tube is provided with a first opening along an axial direction of the first mounting tube
- the second mounting tube is provided with a second opening along an axial direction of the second mounting tube
- the first opening and the first opening The two openings are oppositely disposed along a long axis direction of the first cable access hole;
- the step A includes:
- Step A111 after folding the through cable, forming a bent portion and a first connecting portion and a second connecting portion respectively connected to the bent portion;
- Step A112 inserting the bent portion into the cable receiving tray through the first opening, the second opening, and the first cable access hole, so that the first connecting portion passes through the first opening Inserting into the first mounting tube such that the second connecting portion is inserted into the second mounting tube via the second opening.
- Threading the female threaded portion of the inner circumferential surface of the nut assembly to the outer threaded portion of the outer circumferential surface of the mounting tube includes:
- a second nut assembly for mounting a straight-through cable is threaded onto the second mounting tube to sealably mount the second connection.
- the joint box further includes a wedge block, the outer peripheral surface of the head of the wedge block is provided with an elastic layer, and the method further includes:
- Step D inserting a head of the wedge block into the opening of the first cable access hole, so that the head of the wedge block is between the first elastic member and the second elastic member.
- the first elastic member that elastically deforms is mutually abutted against the elastic layer via the first opening, so that the second elastic member that is elastically deformed passes through the second opening and the elastic layer Resisting each other, wherein the first elastic member is an elastic member inserted inside the first mounting tube, and the second elastic member is an elastic member inserted inside the second mounting tube.
- the wedge block is first inserted into the first cable access hole, so that the wedge block can resist the first opening and the Between the second openings, and enabling the wedge blocks to abut each other with the first elastic member and the second elastic member, thereby sealing the optical cable and the well by the wedge block
- the gap between the inlet and outlet holes of the first optical cable improves the sealing effect of the joint box provided by the embodiment.
- the cable access hole includes at least one second cable access hole
- the mounting tube includes at least one third mounting tube
- the at least one second cable access hole and the at least one third mounting tube are used for mounting a divergent cable.
- An inner peripheral wall of the aperture of the at least one second cable access hole of the at least one second cable access hole is provided with a latching portion
- an outer peripheral wall of any one of the at least one third mounting tube is provided with an elastic card Buckle
- the elastic buckle is fastened to the holding portion, so that the third mounting tube is fixedly disposed on the second cable access hole.
- the utility model has the advantages that the joint box and the sealing method provided by the embodiment have the advantages that the joint box shown in the embodiment does not need a power source and other equipment in the process of sealing the optical cable, and only passes through the machine.
- the sealing can be performed in the manner that the components are sleeved on the optical cable, and the nut assembly is screwed on the mounting tube, and the nut assembly can be resisted by the user after receiving the force of the user's screwing.
- the elastic member is disposed such that the elastic member is elastically deformed under the resisting action of the resisting member, so that the inner peripheral wall of the elastic member that is elastically deformed is in abutment with the optical cable, and elastically deformed.
- the outer peripheral wall of the elastic member abuts against the inner peripheral wall of the mounting tube to achieve sealing of the optical cable, the sealing process is simple, the operation is fast, and the efficiency of sealing the optical cable is effectively improved.
- the subsequent maintenance process of the joint box it is not necessary to cut the optical cable, and only the nut assembly needs to be unscrewed from the mounting tube to realize maintenance. It can be seen that the joint box shown in this embodiment is realized.
- the repeated installation of the optical cable simplifies the maintenance operation process, reduces the maintenance cost, and improves the maintenance efficiency.
- FIG. 1 is a schematic diagram of a fiber to the home network shown in the prior art
- FIG. 2 is a schematic diagram showing an embodiment of a fiber-to-the-home optical cable network
- FIG. 3 is a schematic structural diagram of an embodiment of a straight-through optical cable and a divergent optical cable in a cable laying process through a connector box;
- FIG. 4 is a schematic overall structural view of an embodiment of a joint box provided by the present invention.
- FIG. 5 is a partial structural schematic view of an embodiment of a joint box provided by the present invention.
- FIG. 6 is a schematic structural view of an embodiment of a base of a joint box provided by the present invention.
- Figure 7 is a partial cross-sectional structural view showing an embodiment of a joint box provided by the present invention.
- FIG. 8 is a schematic view showing an explosion connection structure of an embodiment of a joint box provided by the present invention.
- FIG. 9 is a top plan view showing an embodiment of a first nut assembly provided by the present invention.
- FIG. 10 is a schematic overall structural view of an embodiment of a first sub-nut included in a first nut assembly provided by the present invention.
- FIG. 11 is a top plan view showing an embodiment of a first sub-nut included in a first nut assembly according to the present invention.
- FIG. 12 is a schematic overall structural view of an embodiment of a second sub-nut included in the first nut assembly provided by the present invention.
- FIG. 13 is a top plan view showing an embodiment of a second sub-nut included in the first nut assembly provided by the present invention.
- FIG. 14 is a schematic view showing an explosion connection structure of an embodiment of a first nut assembly provided by the present invention.
- FIG. 15 is a schematic overall structural view of an embodiment of a first elastic member provided by the present invention.
- FIG. 16 is a schematic exploded view of an embodiment of a first resisting member provided by the present invention.
- FIG. 17 is a top plan view showing an embodiment of a first gasket provided by the present invention.
- FIG. 18 is a schematic overall structural view of an embodiment of a wedge block provided by the present invention.
- Figure 19 is a side elevational view showing an embodiment of a wedge block provided by the present invention.
- FIG. 20 is a side elevational view showing an embodiment of a wedge block provided by the present invention.
- 21 is a flow chart showing the steps of an embodiment of the sealing method provided by the present invention.
- Figure 22 is a cross-sectional structural view showing another embodiment of the joint box provided by the present invention.
- FIG. 23 is a partial cross-sectional structural view showing another embodiment of the joint box provided by the present invention.
- 24 is a schematic overall structural view of an embodiment of a third mounting tube included in the joint box provided by the present invention.
- Figure 25 is a flow chart showing the steps of another embodiment of the sealing method provided by the present invention.
- 26 is a schematic structural view of an embodiment of a first gasket provided on an end surface of a first elastic member according to the present invention.
- Figure 27 is a schematic view showing the structure of another embodiment in which the first spacer is disposed on the end surface of the first elastic member.
- the connector box shown in this embodiment should be applicable to a fiber access network (English name: Fiber-To-The-X) English abbreviation: FTTX), and the fiber access network can be divided into optical fibers to a switching box.
- the fiber to the home optical cable network includes a central computer room 101, a cable distribution point 201, a connector box 102, and a terminal box 104.
- the central computer room 101 is an optical line terminal (English full name: Optical Line Terminal, English abbreviation: OLT).
- the central office 101 is configured to provide an interconnection interface of voice, data, and video service networks, and implements main functions of network management.
- An ODN network 200 is connected between the central office 101 and the terminal box 104, and the ODN network 200 includes a light distribution point 202 and a connector box 102.
- ODN American full name: Optical Distribution Network
- Chinese full name: optical distribution network Chinese full name: optical distribution network
- the ODN network 200 is configured to be responsible for connecting the central office room 101 and the associated terminal box 104.
- the ODN network 200 is configured to provide optical transmission means between the central office room 101 and the terminal box 104.
- the ODN network 200 is provided.
- the main function is to complete the distribution of optical signal power.
- the terminal box 104 is an optical network unit (English full name: Optical Network Unit, English abbreviation: ONU) and/or an optical network terminal (English full name: Optical Network Terminal, English abbreviation: ONT).
- the terminal box 104 is responsible for providing the end user with the required service interface.
- the connector box 102 is a passive device that provides reliable guarantee for the connection of the optical fiber network, and is divided into overhead, pipeline, and direct burial in use.
- a straight-through optical cable and a divergent optical cable can be used.
- the straight-through optical cable refers to an optical cable in which the straight-through optical cable is not cut or welded, and the optical cable of the joint box 102 is directly taken out after the optical cable enters the joint box 102.
- the divergent cable refers to a fiber optic cable that is led out of the connector box 102 by a plurality of optical cables after an optical cable enters the connector box 102.
- FIG. 4 is an overall structural diagram of an embodiment of the joint box provided by the present invention
- FIG. 5 is provided by the present invention.
- the joint box shown in this embodiment includes a case body 401 and a cable receiving tray 402.
- the overall structure of the casing 401 shown in this embodiment has a cylindrical structure. It should be understood that the specific structure and external shape of the casing 401 are not limited in this embodiment.
- the cable accommodating disk 402 is disposed inside the casing 401, and the cable accommodating disk 402 is configured to receive an optical cable disposed inside the casing 401. Specifically, the optical cable located inside the casing 401 is coiled and disposed. The cable is housed on the disk 402.
- the specific structure of the cable accommodating disk 402 and the specific number of the cable accommodating disk 402 fixedly disposed inside the casing 401 and the cable accommodating disk 402 are not limited, as long as the cable is not limited.
- the housing tray 402 can accommodate an optical cable located inside the casing 401.
- the joint box shown in this embodiment can seal the through cable and the branch cable.
- FIG. 6 is a schematic structural view of an embodiment of a base of a joint box provided by the present invention
- FIG. 7 is a partial cross-sectional structural view of an embodiment of the joint box provided by the present invention
- FIG. 8 is a schematic diagram of an explosion connection structure of an embodiment of a joint box provided by the present invention.
- a first cable access hole 501 is disposed through an end surface of the casing 401.
- the first cable access hole 501 shown in this embodiment is used for mounting the through cable. Specifically, the through cable can be inserted into the casing 401 via the first cable access hole 501, and is disposed in the casing 401. The cable is housed on the disk 402.
- the uncut short-through optical cable needs to be inserted into the inside of the casing 401 via the first cable access hole 501.
- the through cable 502 needs to be folded in half, and the folded through cable is formed with a bent portion 504, a first connecting portion 505 connected to one end of the bent portion 504, and the bent portion 504
- the second connection portion 506 is connected to the other end.
- the maximum bending radius of the bent portion 504 formed by the through cable 502 is greater than or Equal to 30 mm.
- the description of the magnitude of the maximum bending radius of the bent portion 504 in this embodiment is an optional example and is not limited.
- the connector box is capable of smoothly installing the through cable 502, and the first cable access hole 501 is an elliptical hole, and the opening of the first cable access hole 501 is at least about 70 mm, thereby The first cable access hole 501 can securely secure the insertion of the through cable 502 into the inside of the casing 401 of the joint box.
- the joint box shown in this embodiment further includes a first mounting tube 507 and a second mounting tube 508.
- first mounting tube 507 and the second mounting tube 508 are respectively disposed at two ends of the long axis of the first cable access hole 501.
- the first mounting tube 507 and the second mounting tube 508 are specifically fixed at two ends of the long axis of the first cable access hole 501 of the connector box, for example,
- the first mounting tube 507 and the second mounting tube 508 are integrally formed with both ends of the long axis of the first cable access hole 501, and, for example, the first mounting tube 507 and the second mounting
- the outer peripheral surface of the tube 508 is provided with a buckle, and the inner peripheral surface of both ends of the long axis of the first cable access hole 501 is provided with a card slot, and the buckle and the card slot are oppositely disposed to enable the The first mounting tube 507 and the second mounting tube 508 are fastened in the card slot of the first cable access hole 501 by the snap.
- first mounting tube 507 and the second mounting tube 508 will be specifically described below:
- the first mounting tube 507 is provided with a first opening 509 along the axial direction of the first mounting tube 507.
- the second mounting tube 508 is provided with a second opening 510 along the axial direction of the second mounting tube 508.
- the first opening 509 and the second opening 510 are opposite to each other along the long axis direction of the first cable access hole 501.
- the first mounting tube 507 is connected to the first through the first opening 509.
- the cable access hole 501 is electrically connected, and the second mounting tube 508 is electrically connected to the first cable access hole 501 via the second opening 510.
- the bent portion 504 of the through cable may be through the first opening 509, the second opening 510, and the The first cable access hole 501 is inserted into the cable receiving tray 402, and the first connecting portion connected to the bent portion 504 is inserted into the cable receiving tray 402 during insertion of the bent portion 504 into the cable receiving tray 402.
- 505 is inserted into the first mounting tube 507 via the first opening 509
- the second connecting portion 506 connected to the bent portion 504 is inserted into the second mounting tube 508 via the second opening 510 .
- the joint box is further provided with a first nut assembly 601, a second nut assembly 602, a first resisting member 603, a second resisting member 604, a first elastic member 605, and a second elastic A member 606, two first spacers 607, two second spacers 608, and a wedge block 609.
- the wedge block 609 is first inserted into the first cable access hole 501 during the assembly process, and is resisted at the first opening 509 and the second Between the openings 510, the first spacer 607, the first elastic member 605, the first spacer 607, and the first layer are sequentially inserted on the first connecting portion 505 of the through cable. a resisting member 603 and the first nut assembly 601, and sequentially inserting the second spacer 608, the second elastic member 606, and the second connecting portion 506 of the through cable A second spacer 608, the second abutting member 604, and a second nut assembly 602.
- the first nut assembly 601 and the second nut assembly 602 are the same in the embodiment.
- the embodiment is described by the structure of the first nut assembly 601.
- the second nut assembly 602 is exemplified.
- For the specific structure refer to the description of the specific structure of the first nut assembly 601, which is not specifically described in this embodiment.
- the first nut assembly 601 includes a first sub-nut 701 and a second sub-nut 702 that are spliced to each other, and inner circumferential surfaces of the first sub-nut 701 and the second sub-nut 702 are provided with internal thread segments.
- the first nut assembly 601 shown in this embodiment has a hollow cylindrical structure, and is used for splicing the first sub-nut 701 and the second sub-nut 702 of the first nut assembly 601.
- the cross section along the radial direction of the first nut assembly 601 has a semicircular structure.
- the first nut assembly 601 includes two sub-nuts as an example for example.
- the first nut assembly 601 can also be spliced by multiple sub-nuts.
- the specific number of the sub-nuts for splicing into the first nut assembly 601 is not limited in this embodiment.
- the inner circumferential surface of the first sub-nut 701 is provided with a first internal thread segment 703, and the inner circumferential surface of the second sub-nut 702 is provided with a second internal thread segment 704.
- the target position of the first sub-nut 701 is concavely provided with a groove 705.
- the target position of the first sub-nut 701 is the end surface of the first sub-nut 701 facing the second sub-nut 702, and the target position of the first sub-nut 701 is located in the inner circumference of the first sub-nut 701
- a guide rail 706 is protruded from a target position of the second sub-nut 702.
- the target position of the second sub-nut 702 is the end surface of the second sub-nut 702 facing the first sub-nut 701, and the target position of the second sub-nut 702 is located in the inner circumference of the second sub-nut 702
- Both ends of the second internal thread section 704 of the face, that is, the second diameter of the second internal thread section 704 of the second sub-nut 702 each have a guide rail 706.
- the nut assembly 601 adopts a detachable structure, and the first connecting portion 505 of the through cable can be placed into the first sub-nut 701 and the second sub-process during the installation of the straight-through optical cable. Between the nuts 702, the first sub-nut 701 and the second sub-nut 702 are connected to the complete first nut assembly 601, so that the first connecting portion 505 of the through-through cable is nested. Within the first nut assembly 601.
- first sub-nut 701 and the second sub-nut 702 are connected to form the complete first nut assembly 601.
- the guide rail 706 of the second sub-nut 702 can be inserted into the recess 705 of the first sub-nut 701, and the axis of the first sub-nut 701 and the second sub-nut 702 during a specific installation process
- the guide rail 706 of the second sub-nut 702 slides along the guide of the groove 705 of the first sub-nut 701, and the first sub-nut 701 and the second
- the sub-nuts 702 are in a state of being interlocked with each other, and the guide rails 706 continue to follow the grooves under the action of an external force.
- the guide 706 slides until one end of the guide rail 706 of the second sub-nut 702 slides along the groove 705 of the first sub-nut 701 to the bottom of the groove 705, as shown in FIG.
- a nut 701 is spliced with the second sub-nut 702 to form a complete first nut assembly 601.
- At least one first through hole 707 is provided at an arbitrary position of the end of the nut 701.
- At least one second through hole 708 is disposed through an end of the second sub-nut 702.
- the first through hole 707 and the second through hole 708 are respectively exemplified as an example. It should be clarified that the first through hole 707 and the second pass are in this embodiment.
- the specific number of the holes 708 is not limited as long as the number of the first through holes 707 and the second through holes 708 are equal, and when the first sub-nut 701 and the second sub-nut 702 are engaged with each other to form a complete When the first nut assembly 601 is used, the first through hole 707 and the second through hole 708 may be coaxially disposed.
- the joint box shown in this embodiment further includes a screw 709.
- the number of the screws 709 shown in this embodiment is equal to the number of the first through holes 707. Specifically, the present embodiment is exemplified by two screws 709.
- first sub-nut 701 and the second sub-nut 702 are fixed by the screw 709 in two ways:
- An inner circumferential surface of the first through hole 707 is provided with an internal thread segment through which the screw 709 is disposed through the second through hole 708 and the first through hole 707, and the screw 709
- the externally threaded portion provided above is threaded onto the internally threaded section of the first through hole 707.
- the internal thread segment may be directly disposed in the first through hole 707, or a nut may be embedded in the first through hole 707 to make the external thread provided on the screw 709 The segment is threaded onto the internally threaded section of the nut embedded within the first through bore 707.
- the inner circumferential surface of the second through hole 708 is provided with an internal thread segment through which the screw 709 is disposed through the first through hole 707 and the second through hole 708, and the screw An externally threaded section provided on 709 is threaded onto the threaded section of the second through bore 708.
- the internal thread segment may be directly disposed in the second through hole 708, or may be in the A nut is embedded in the through hole 708 so that the externally threaded portion provided on the screw 709 is screwed to the internal threaded section of the nut embedded in the second through hole 708.
- the groove 705 is disposed on the first sub-nut 701
- the guide rail 706 is disposed on the second sub-nut 702 as an example.
- a guide rail is disposed on the first sub-nut 701
- a groove is disposed on the second sub-nut 702, which is not limited in this embodiment.
- the structure of the first nut assembly 601 can be stabilized, and the first sub-nut 701 for combining to form the first nut assembly 601 can be avoided.
- the second nut 702 is slid relative to the second nut 702, so that the assembled first nut assembly 601 has considerable strength and rigidity, and meets the requirements of the joint box for the torque of the through cable installation.
- first sub-nut 701 and the second sub-nut 702 are spliced to form the complete first nut assembly 601 in this embodiment is an optional example, as long as the splicing is
- the first nut assembly 601 formed can be sleeved on the optical cable, for example, the first sub-nut 701 and the second sub-nut 702 can be hung by the hose clamp to form a complete The first nut assembly 601.
- the first elastic member 605 shown in the embodiment is described on how to be sleeved on the first connecting portion 505 of the through cable.
- FIG. 15 is a schematic overall structural view of an embodiment of a first elastic member provided by the present invention.
- the first elastic member 605 shown in this embodiment has a hollow cylindrical structure.
- the material used for forming the first elastic member 605 is not limited in this embodiment, as long as the first elastic member 605 is Flexibility
- the first elastic member 605 may be made of a material such as silica gel or rubber.
- the side surface of the first elastic member 605 is provided with a slit 610 extending longitudinally along the first elastic member 605, so that the first connecting portion 505 of the through cable can be inserted through the slot 610.
- the first elastic member 605 is disposed in the first elastic member 605 so as to be sleeved on the first connecting portion 505.
- the second elastic member 606 is specifically disposed on the second connecting portion 506.
- the details please refer to the specific process of the first elastic member 605 being sleeved on the first connecting portion 505. The details are not described in the embodiments.
- first elastic member 605 in this embodiment is an optional example, and is not limited as long as the first elastic member 605 can be directly sleeved on the first connecting portion 505. can.
- FIG. 16 is a schematic exploded view of an embodiment of a first resisting member provided by the present invention.
- the specific structure of the second resisting member 604 shown in this embodiment is the same as that of the first resisting member 603.
- the specific structure of the second resisting member 604 please refer to The specific structure of the first abutting member 603 is not specifically described in this embodiment.
- the first resisting member 603 includes at least two sub-members 611.
- the specific number of the sub-members 611 is not limited in this embodiment, as long as the number of the sub-members 611 included in the first resisting member 603 is greater than or equal to two.
- This embodiment is described by taking the number of the sub-components 611 as two as an example.
- the two sub-members 611 are used for splicing to form the first resisting member 603.
- the sub-member 611 can be divided by the first resisting member 603 in the axial direction. That is, along the axial direction of the first resisting member 603, the length of each of the sub-members 611 is equal to the length of the first resisting member 603, along the radial direction of the first resisting member 603, The length of the sub-member 611 is smaller than the length of the first resisting member 603.
- the first connecting portion 505 may be placed in the recess 612 of any one of the sub-pieces 611, and then two The sub-members 611 are spliced to form the complete first resisting member 603, and the first resisting member 603 is inserted into the first nut assembly 601 so as to be located at the first nut. All of the sub-pieces 611 within the assembly 601 are spliced to form a complete first of the first resists 603. At this time, the first resisting member 603 is sleeved on the first connecting portion 505 , and the first connecting portion 505 is located between the first connecting portion 505 and the first nut assembly 601 .
- the structure of the first resisting member 603 is exemplified in the embodiment, as long as the first resisting member 603 can be sleeved between the first connecting portion 505 and the first nut assembly 601.
- a slit may be disposed on a side of the first resisting member 603 having a hollow cylindrical structure, and a slit of the first resisting member 603 may be along the first resisting member 603
- the first connecting portion 505 is inserted into the first resisting member 603 via a slot of the first resisting member 603.
- the first nut assembly 601 shown in this embodiment can firmly fix the first resisting member 603 inside the first nut assembly 601. Specifically, as shown in FIG. 7 , the first nut The end surface of the assembly 601 away from the casing 401 is extended toward the axial direction of the first nut assembly 601 to form a catching portion 613.
- the holding portion 613 is configured to resist the first abutting member 603 inserted in the first nut assembly 601, and the first abutting is caused by the resisting action of the engaging portion 613
- the holder 603 is stably inserted into the first nut assembly 601, and the first nut assembly 601 can pass the first abutting member 603 toward the box body 401 through the holding portion 613. force.
- the second resisting member 604 is specifically disposed on the second connecting portion 506.
- the first resisting member 603 being sleeved on the first connecting portion.
- the specific process of the 505 is specifically not described in this embodiment.
- the first spacer 607 has a ring structure and is penetrated by Any end of the first spacer 607 is provided with an opening 614 to enable the cable to be inserted into the first spacer 607 via the opening 614.
- the first spacer 607 includes a plurality of spacer sub-pieces 600, and the inner peripheral surface of each of the spacer sub-pieces 600 has a circular arc-shaped structure, and all of the spacers
- the sub-piece 600 can be spliced to form the first spacer 607, that is, the area of the spacer sub-piece 600 is smaller than the area of the first spacer 607.
- the inner circumferential surfaces of all of the spacer sub-pieces 600 are disposed opposite each other in a circular arc shape to form the accommodation space 700, so that the optical cable can be inserted into the first spacer 607 via the accommodation space 700.
- the specific structure of the second spacer 608 shown in this embodiment is the same as that of the first spacer 607.
- the specific structure of the second spacer 608 in this embodiment is not described again.
- one of the first spacers 607 shown in this embodiment is disposed at an end surface of the first elastic member 605 facing the first cable access hole 501, and the other of the first spacers 607 is disposed at the The first elastic member 605 faces the end surface of the first resisting member 603.
- the first spacer 607 and the end surface of the first elastic member 605 are detachably connected, that is, the first spacer 607 and the first elastic member 605 are independent of each other. Two parts.
- the end surface of the first elastic member 605 is fixedly disposed with the first spacer 607. In this embodiment, between the end surface of the first elastic member 605 and the first spacer 607. It is not limited to how the fixing is fixed. For example, the end surface of the first elastic member 605 and the first spacer 607 are adhered by an adhesive substance.
- the spacer member 600 is fixedly disposed on an end surface of the first elastic member 605, and the spacer member 600 is fixedly disposed on an end surface of the first elastic member 605.
- the first spacer 607 is fixedly disposed on the end surface of the first elastic member 605, and details are not described herein.
- the first spacer 607 is fixedly disposed on the end surface of the first elastic member 605, thereby further reducing the difficulty for the user to install the optical cable, simplifying the operation process, and further improving the efficiency of installing the optical cable. .
- the outer peripheral surface of the head of the wedge block 609 is provided with an elastic layer 615.
- the specific manufacturing process of the wedge block 609 in this embodiment is not limited, as long as the wedge block 609 has been formed to seal the first cable access hole 501, for example, by an overmolding process.
- a hard wedge piece 609 is produced by using a mold, and then a thermoplastic soft material such as TPE (English name: Thermoplastic Elastomer, full name: thermoplastic elastomer) is injected outside the hard wedge-shaped skeleton through an injection molding machine. Injection molded out of the frame forms a complete elastic layer 615.
- Step 2101 After the through cable is folded in half, a bent portion 504 and a first connecting portion 505 and a second connecting portion 506 respectively connected to the bent portion 504 are formed.
- Step 2102 inserting the bent portion 507 into the cable receiving tray 402 via the first opening 509, the second opening 510, and the first cable access hole 501.
- the first connecting portion 505 can be inserted into the first mounting tube 507 via the first opening 509 through the step 2102 shown in this embodiment, and the second connecting portion 506 is inserted through the second opening 510.
- the second mounting tube 508 is inside.
- the specific structure of the first opening 509, the second opening 510, the first cable access hole 501, and the cable receiving tray 402 is shown in the above embodiment, and details are not described herein.
- Step 2103 Insert the head of the wedge block 609 inside the aperture of the first cable access hole 501.
- the head of the wedge block 609 when the bent portion 504 is inserted into the first cable access hole 501, the head of the wedge block 609 can be inserted into the hole of the first cable access hole 501.
- the inside of the mouth is such that the head of the wedge block 609 is located between the aperture of the first cable entry and exit hole 501 and the optical cable.
- Step 2104 The optical cable is sequentially passed through the nut assembly, the resisting member, the elastic member, the mounting tube, and the cable access hole to be installed in the cable receiving tray located inside the casing.
- the first gasket 607, the first elastic member 605, the first gasket 607, the first abutting member 603, and the first nut assembly 601 are sequentially inserted into the 505, and
- the second connecting portion 506 of the straight-through optical cable is sequentially inserted into the second spacer 608, the second elastic member 606, the second spacer 608, the second resisting member 604, and the second nut.
- the first spacer 607 and the second spacer 608 are optional devices, and the first connection portion 505 is installed as an example, and the two first spacers 607 are located in the The two ends of the first elastic member 605 can effectively gather the optical fibers included in the first connecting portion 505, so that the optical fibers can be well gathered by the first spacer 607.
- the first elastic member 605 and the first resisting member 603 are disposed to reduce the possibility of a gap between the optical fibers, thereby improving the sealing effect.
- the first spacer 607 is located between the first resisting member 603 and the first elastic member 605 for uniformly transmitting the resisting force of the first resisting member 603 to
- the first elastic member 605 is configured to uniformly transmit the abutting force of the first resisting member 603 to the first elastic member 605, so that the first elastic member 605 can be elastically deformed uniformly The situation in which the sealing effect is affected by the inability of the first elastic member 605 to be uniformly elastically deformed is avoided.
- first elastic member 605 and the first spacer 607 shown in this embodiment may be independent components, or the first elastic member 605 and the first spacer 607 may be
- first elastic member 605 and the first spacer 607 may be
- For the fixed connection setting please refer to the above embodiment for details, and details are not described herein.
- Step 2105 screwing a first nut assembly 601 for installing a straight-through cable to the first mounting tube 507 to sealably mount the first connecting portion 505.
- a user may apply a force toward the casing 401 on the first nut assembly 601, so that the first nut assembly 601 that has been sleeved on the first connecting portion 505 can drive the
- the first abutting member 603 is guided to slide along the first connecting portion 505 to a direction close to the first mounting tube 507.
- a user may apply a screwing force on the first nut assembly 601 such that the internally threaded section of the first nut assembly 601 is threaded onto the externally threaded section of the first mounting tube 507, thereby The first resisting member 603 abuts against the first bullet that is located in the first mounting tube 507
- the member 605 is configured to elastically deform the first elastic member 605, and the inner diameter of the first elastic member 605 is elastically deformed, and the user continues to screw the first nut assembly 601 until elastic deformation occurs.
- the inner peripheral surface of the first elastic member 605 is abutted against the first connecting portion 505, and the outer peripheral surface of the first elastic member 605 and the outer peripheral surface of the head portion of the wedge block 609 which are elastically deformed are disposed.
- the elastic layer resists.
- Step 2106 screwing a second nut assembly 602 for installing a straight-through cable to the second mounting tube 508 to sealably mount the second connecting portion 506.
- a user can apply a force toward the casing 401 on the second nut assembly 602, so that the second nut assembly 602 that has been sleeved on the second connecting portion 506 can drive the
- the second resisting member 604 is guided to slide along the second connecting portion 506 to a direction close to the second mounting tube 508.
- a user can apply a screwing force on the second nut assembly 602 such that the internally threaded section of the second nut assembly 602 is threaded onto the externally threaded section of the second mounting tube 508, thereby
- the second resisting member 604 abuts against the second elastic member 606 located in the second mounting tube 508, so that the second elastic member 606 is elastically deformed, and the first elastic member is elastically deformed.
- the inner diameter of the two elastic members 606 is reduced, and the user continues to screw the second nut assembly 602 until the inner peripheral surface of the second elastic member 606 elastically deforms resists the second connecting portion 506, and the elasticity occurs.
- the deformed outer peripheral surface of the second elastic member 606 abuts against the elastic layer provided on the outer peripheral surface of the head portion of the wedge block 609.
- the elastic layer provided on the outer peripheral surface of the head portion of the wedge block 609 and the first elastic member 605 and the first
- the gap between the through cable and the first cable access hole 501 is sealed, and the first elastic member 605 and the first connecting portion 505 are mutually resisted.
- the second elastic member 606 and the second connecting portion 506 are mutually abutted such that a gap between the through cable and the elastic member is sealed.
- FIG. 22 is a cross-sectional structural view showing another embodiment of the joint box provided by the present invention
- FIG. 23 is a partial cross-sectional view showing another embodiment of the joint box provided by the present invention. Schematic diagram of the surface structure.
- At least one second cable access hole 901 is disposed at one end surface of the casing 401.
- the second cable access hole 901 shown in this embodiment has a circular structure.
- the splice closure shown in this embodiment further includes at least one third mounting tube 902 for mounting the divergent cable.
- the number of the third mounting tube 902 and the second cable access hole 901 shown in this embodiment is equal and the position is correspondingly set.
- the third mounting tube 902 shown in this embodiment has a cylindrical structure, and the outer circumferential surface of the third mounting tube 902 is provided with an external thread segment.
- the inner peripheral wall of the aperture of the second cable access hole 901 is provided with a resisting portion 903, and the outer peripheral wall of the third mounting tube 902 is provided with an elastic buckle 904, which may be used during the installation process.
- the mounting tube 902 is inserted into the second cable access hole 901 to fasten the elastic buckle 904 of the third mounting tube 902 to the abutting portion 903, thereby enabling the third mounting.
- a tube 902 is mounted on the second cable entry and exit hole 901.
- the installation manner of the third mounting tube 902 and the second cable access hole 901 in this embodiment is exemplified and not limited, for example, the third mounting tube 902 and the The arrangement in which the second cable access holes 901 correspond to each other is provided with a matching thread or the like.
- a sealing ring 905 is further disposed between the third mounting tube 902 and the second cable access hole 901.
- the sealing performance between the third mounting tube 902 and the second cable access hole 901 is enhanced by the seal ring 905.
- a third spacer 906, a third elastic member 907, a third spacer 906, a third abutting member 908, and a third nut assembly 909 are sequentially inserted into the divergent cable.
- the third spacer 906 and the method for arranging on the optical cable please refer to the first spacer 607 shown in the above embodiment, which is not described in this embodiment. .
- the connector box shown in this embodiment further includes a cable plug 910.
- the cable plug 910 can pass through the cable plug 910 in sequence.
- the third spacer 906, the third elastic member 907, the third spacer 906, the third resisting member 908, and the third nut assembly 909 are in the process of installing the divergent optical cable
- the cable plug 910 can be detached from the connector box, and the divergent cable can be inserted inside the connector box.
- Step 2501 The optical cable is sequentially passed through the nut assembly, the resisting member, the elastic member, the mounting tube, and the cable access hole to be installed in the cable housing tray located inside the casing.
- the third spacer 906, the third elastic member 907, the third spacer 906, and the third resisting member 908 may be specifically inserted into the divergent optical cable.
- the third spacer 906 is an optional device, and the two third spacers 906 are located at two ends of the third elastic member 907, and the third spacer 906 can be effectively used. Gathering the optical fibers contained in the divergent cable so that the optical fibers are well gathered by the third spacer 906 The third elastic member 907 and the third resisting member 908 reduce the possibility of a gap between the optical fibers, thereby improving the sealing effect.
- the third spacer 906 is located between the third resisting member 908 and the third elastic member 907 for uniformly transmitting the resisting force of the third resisting member 908 to
- the third elastic member 907 is configured to uniformly transmit the abutting force of the third resisting member 908 to the third elastic member 907, so that the third elastic member 907 can be elastically deformed uniformly. The situation in which the sealing effect is affected by the inability of the third elastic member 907 to be uniformly elastically deformed is avoided.
- Step 2502 screwing a third nut assembly 909 for mounting the divergent cable to the third mounting tube 902 to sealably mount the divergent cable.
- a user may apply a force toward the casing 401 on the third nut assembly 909, so that the third nut assembly 909 that has been sleeved on the divergent cable can drive the third
- the resisting member 908 slides along the guide of the divergent cable to a direction close to the third mounting tube 902.
- a user may apply a screwing force on the third nut assembly 909 such that the internally threaded section of the third nut assembly 909 is threaded onto the externally threaded section of the third mounting tube 902 such that The third resisting member 908 abuts against the third elastic member 907 located in the third mounting tube 902 to elastically deform the third elastic member 907, and the elastic deformation is performed.
- the inner diameter of the three elastic members 907 is reduced, and the user continues to screw the third nut assembly 909 until the inner peripheral surface of the third elastic member 907 which is elastically deformed is in abutment with the branch cable, and the elastic deformation occurs.
- the outer peripheral surface of the third elastic member 907 is in abutment with the third mounting tube 902.
- the IP68 protection level can be achieved, and the joint box that meets the IP68 protection level can be guaranteed to work at a depth of 10 meters for 2 weeks without water. Put in 100 meters water depth, damage test for 12 hours, still can maintain the good performance of the product.
- the joint box shown in this embodiment does not need a power source and other equipment (such as the heat gun shown in the prior art), and can be sealed only by mechanical means, that is, the components are sleeved on the optical cable.
- the sealing of the optical cable can be realized by screwing the nut assembly on the mounting tube, the sealing process is simple, the operation is fast, and the efficiency of sealing the optical cable is effectively improved.
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Abstract
Description
Claims (22)
- 一种用于安装光缆的接头盒,其特征在于,包括盒体、光缆收容盘、螺母组件、抵持件以及弹性件;所述光缆收容盘设置在所述盒体内部,贯穿所述盒体的一端面设置有光缆进出孔,与所述光缆进出孔连接设置有安装管,所述安装管的外周面环设有外螺纹段,所述螺母组件内周面环设有内螺纹段,所述螺母组件内插设有中空的所述抵持件,所述安装管内插设有中空的所述弹性件,当所述光缆依次穿过所述螺母组件、所述安装管以及所述光缆进出孔以安装至所述光缆收容盘中时,所述抵持件位于所述光缆和所述螺母组件之间,所述弹性件位于所述光缆和所述安装管之间,在所述螺母组件通过所述内螺纹段螺纹螺纹连接至所述安装管的所述外螺纹段上时,所述抵持件抵持所述弹性件设置,使得所述弹性件在所述抵持件的抵持作用下发生弹性形变,以使发生弹性形变的所述弹性件的内周壁与所述光缆抵持,发生弹性形变的所述弹性件的外周壁与所述安装管的内周壁抵持。
- 根据权利要求1所述的接头盒,其特征在于,呈中空结构的所述螺母组件远离所述盒体的端面沿朝向所述螺母组件轴心线的方向延伸形成有卡持部,所述卡持部用于抵持插设在所述螺母组件内的所述抵持件;所述抵持件包括至少两个子件,所述至少两个子件用于拼接以形成所述抵持件,所述至少两个子件中的任一个子件的一端抵持在所述卡持部上,所述至少两个子件中的任一个子件的另一端抵持在所述弹性件上。
- 根据权利要求1或2所述的接头盒,其特征在于,所述弹性件的侧面设置有沿所述弹性件纵向延伸的切槽,以使所述光缆经由所述切槽插设在所述弹性件内。
- 根据权利要求1至3任一项所述的接头盒,其特征在于,所述螺母组件包括相互拼接的第一子螺母和第二子螺母,且所述第一子螺母和所述第二子螺母的内周面设置有所述内螺纹段。
- 根据权利要求4所述的接头盒,其特征在于,所述第一子螺母的目标位置凹设有凹槽,所述第一子螺母的目标位置为所述第一子螺母面向所述第二子螺母的端面,且所述第一子螺母的目标位置位于 所述第一子螺母内周面的所述内螺纹段的两端,所述第二子螺母的目标位置凸设有导轨,所述第二子螺母的目标位置为所述第二子螺母面向所述第一子螺母的端面,且所述第二子螺母的目标位置位于所述第二子螺母内周面的所述内螺纹段的两端,且所述第二子螺母的导轨插入所述第一子螺母的凹槽内设置,以使所述第二子螺母的导轨沿所述第一子螺母的凹槽的导向相对滑动,直至所述第二子螺母的导轨的一端沿所述第一子螺母的凹槽滑动至所述凹槽的底部,以使所述第一子螺母与所述第二子螺母拼接以形成所述螺母组件。
- 根据权利要求4或5所述的接头盒,其特征在于,贯穿所述第一子螺母的端部的任意位置设置有至少一个第一通孔,贯穿所述第二子螺母的端部设置有至少一个第二通孔,所述至少一个第一通孔中的任一第一通孔为目标第一通孔,所述至少一个第二通孔中与所述目标第一通孔同轴设置的为目标第二通孔;所述目标第一通孔的内周面设置有内螺纹段,则依次穿过所述目标第二通孔和所述目标第一通孔设置有螺钉,且所述螺钉上所设置的外螺纹段螺纹连接至所述目标第一通孔的内螺纹段上;或,所述目标第二通孔的内周面设置有内螺纹段,则依次穿过所述目标第一通孔和所述目标第二通孔设置有螺钉,且所述螺钉上所设置的外螺纹段螺纹连接至所述目标第二通孔的螺纹段上。
- 根据权利要求1至6任一项所述的接头盒,其特征在于,所述接头盒还包括至少两个垫片,所述至少两个垫片中的任一个垫片设置在所述弹性件的目标端面,所述弹性件的目标端面为所述弹性件朝向所述光缆进出孔的端面或所述弹性件朝向所述抵持件的端面;所述至少两个垫片中的任一个垫片与所述弹性件的目标端面抵持设置,或,所述至少两个垫片中的任一个垫片固定设置在所述弹性件的目标端面。
- 根据权利要求1至7任一项所述的接头盒,其特征在于,所述光缆进出孔包括第一光缆进出孔,所述安装管包括第一安装管和第二安装管,所述第一光缆进出孔、所述第一安装管以及所述第二安装管用于安装直通光缆;所述第一光缆进出孔呈椭圆形结构,所述第一安装管和所述第二安装管分别设置在所述第一光缆进出孔的长轴的两端,且所述第一安装管沿所述第一安 装管的轴向设置有第一开口,所述第二安装管沿所述第二安装管的轴向设置有第二开口,且所述第一开口与所述第二开口沿所述第一光缆进出孔的长轴方向相对设置;所述直通光缆对折后形成有弯折部以及分别与所述弯折部连接的第一连接部和第二连接部,所述弯折部经由所述第一开口、所述第二开口以及所述第一光缆进出孔插入所述光缆收容盘,以使所述第一连接部经由所述第一开口插入所述第一安装管内,以使所述第二连接部经由所述第二开口插入所述第二安装管内。
- 根据权利要求8所述的接头盒,其特征在于,所述接头盒包括用于安装所述直通光缆的第一螺母组件和第二螺母组件,所述第一螺母组件螺纹连接至所述第一安装管上以密封安装所述第一连接部,所述第二螺母组件螺纹连接至所述第二安装管上以密封安装所述第二连接部。
- 根据权利要求8或9所述的接头盒,其特征在于,所述接头盒还包括楔形块,所述楔形块的头部的外周面设置有弹性层;所述楔形块的头部插设在所述第一光缆进出孔的孔口内部,以使所述楔形块的头部抵持在第一弹性件和第二弹性件之间,所述第一弹性件为插设在所述第一安装管内部的弹性件,所述第二弹性件为插设在所述第二安装管内部的弹性件,以使发生弹性形变的所述第一弹性件经由所述第一开口与所述弹性层相互抵持,以使发生弹性形变的所述第二弹性件经由所述第二开口与所述弹性层相互抵持。
- 根据权利要求1至7任一项所述的接头盒,其特征在于,所述光缆进出孔包括至少一个第二光缆进出孔,所述安装管包括至少一个第三安装管,所述至少一个第二光缆进出孔和所述至少一个第三安装管用于安装分歧光缆;所述至少一个第二光缆进出孔中的任一个第二光缆进出孔的孔口内周壁设置有抵持部,所述至少一个第三安装管中的任一个第三安装管的外周壁设置有弹性卡扣,以使当所述弹性卡扣扣合在所述抵持部上时,所述第三安装管固定设置在所述第二光缆进出孔上。
- 一种用于密封光缆的密封方法,其特征在于,包括:将光缆依次穿过螺母组件、抵持件、弹性件、安装管以及光缆进出孔以安 装至位于盒体内部的光缆收容盘中,其中,贯穿所述盒体的一端面设置有所述光缆进出孔,与所述光缆进出孔连接设置有所述安装管;将所述螺母组件内周面环设的内螺纹段螺纹连接至所述安装管的外周面环设的外螺纹段上,以使位于所述螺母组件和所述光缆之间的所述抵持件抵持位于所述安装管和所述光缆之间的所述弹性件,使得所述弹性件在所述抵持件的抵持作用下发生弹性形变,使得发生弹性形变的所述弹性件的内周壁与所述光缆抵持,发生弹性形变的所述弹性件的外周壁与所述安装管的内周壁抵持。
- 根据权利要求12所述的方法,其特征在于,所述方法还包括:将所述抵持件所包括的至少两个子件中的任一个子件套设在所述光缆上,并将所述至少两个子件中的任一个子件插设在所述螺母组件内部,以使所述至少两个子件拼接以形成所述抵持件,使得所述至少两个子件中的任一个子件的一端抵持在所述螺母组件的卡持部上,所述至少两个子件中的任一个子件的另一端抵持在所述弹性件上,呈中空结构的所述螺母组件远离所述盒体的端面沿朝向所述螺母组件轴心线的方向延伸形成有所述卡持部。
- 根据权利要求12或13所述的方法,其特征在于,所述方法还包括:将所述光缆经由所述弹性件的切槽插设在所述弹性件内,其中,所述弹性件的侧面设置有沿所述弹性件纵向延伸的所述切槽。
- 根据权利要求12至14任一项所述的方法,其特征在于,所述螺母组件包括相互拼接的第一子螺母和第二子螺母,且所述第一子螺母和所述第二子螺母的内周面设置有所述内螺纹段,所述将光缆依次穿过螺母组件包括:将所述光缆插设在所述第一子螺母和所述第二子螺母之间;将所述第一子螺母和所述第二子螺母进行拼接以形成所述螺母组件,以使所述螺母组件套设在所述光缆上。
- 根据权利要求15所述的方法,其特征在于,所述将所述第一子螺母和所述第二子螺母进行拼接以形成所述螺母组件包括:将所述第二子螺母的导轨插入所述第一子螺母的凹槽内,所述第一子螺母的目标位置凹设有所述凹槽,所述第一子螺母的目标位置为所述第一子螺母面向所述第二子螺母的端面,且所述第一子螺母的目标位置位于所述第一子螺母内周面的所述内螺纹段的两端,所述第二子螺母的目标位置凸设有所述导轨, 所述第二子螺母的目标位置为所述第二子螺母面向所述第一子螺母的端面,且所述第二子螺母的目标位置位于所述第二子螺母内周面的所述内螺纹段的两端;控制所述第二子螺母的所述导轨沿所述第一子螺母的所述凹槽的导向相对滑动,直至所述第二子螺母的所述导轨的一端沿所述第一子螺母的所述凹槽滑动至所述凹槽的底部。
- 根据权利要求15或16所述的方法,其特征在于,贯穿所述第一子螺母的端部的任意位置设置有至少一个第一通孔,贯穿所述第二子螺母的端部设置有至少一个第二通孔,所述至少一个第一通孔中的任一第一通孔为目标第一通孔,所述至少一个第二通孔中与所述目标第一通孔同轴设置的为目标第二通孔,所述将所述第一子螺母和所述第二子螺母进行拼接以形成所述螺母组件还包括:将螺钉依次穿过所述目标第二通孔和所述目标第一通孔,以使所述螺钉上所设置的外螺纹段螺纹连接至所述目标第一通孔的内螺纹段上;或,将螺钉依次穿过所述目标第一通孔和所述目标第二通孔,以使所述螺钉上所设置的外螺纹段螺纹连接至所述目标第二通孔的螺纹段上。
- 根据权利要求12至17任一项所述的方法,其特征在于,所述接头盒还包括至少两个垫片,所述方法还包括:将所述至少两个垫片中的任一个垫片设置在所述弹性件的目标端面,所述弹性件的目标端面为所述弹性件朝向所述光缆进出孔的端面或所述弹性件朝向所述抵持件的端面,其中,所述至少两个垫片中的任一个垫片与所述弹性件的目标端面抵持设置,或,所述至少两个垫片中的任一个垫片固定设置在所述弹性件的目标端面。
- 根据权利要求12至18任一项所述的方法,其特征在于,所述光缆进出孔包括第一光缆进出孔,所述安装管包括第一安装管和第二安装管,所述第一光缆进出孔、所述第一安装管以及所述第二安装管用于安装直通光缆,所述第一光缆进出孔呈椭圆形结构,所述第一安装管和所述第二安装管分别设置在所述第一光缆进出孔的长轴的两端,且所述第一安装管沿所述第一安装管的轴 向设置有第一开口,所述第二安装管沿所述第二安装管的轴向设置有第二开口,且所述第一开口与所述第二开口沿所述第一光缆进出孔的长轴方向相对设置;所述将光缆依次穿过螺母组件、抵持件、弹性件、安装管以及光缆进出孔以安装至位于盒体内部的光缆收容盘中包括:将所述直通光缆对折后形成有弯折部以及分别与所述弯折部连接的第一连接部和第二连接部;将所述弯折部经由所述第一开口、所述第二开口以及所述第一光缆进出孔插入所述光缆收容盘,以使所述第一连接部经由所述第一开口插入所述第一安装管内,以使所述第二连接部经由所述第二开口插入所述第二安装管内。
- 根据权利要求19所述的方法,其特征在于,所述将所述螺母组件内周面环设的内螺纹段螺纹连接至所述安装管的外周面环设的外螺纹段上包括:将用于安装直通光缆的第一螺母组件螺纹连接至所述第一安装管上以密封安装所述第一连接部;将用于安装直通光缆的第二螺母组件螺纹连接至所述第二安装管上以密封安装所述第二连接部。
- 根据权利要求19或20所述的方法,其特征在于,所述接头盒还包括楔形块,所述楔形块的头部的外周面设置有弹性层,所述方法还包括:将所述楔形块的头部插设在所述第一光缆进出孔的孔口内部,以使所述楔形块的头部抵持在第一弹性件和第二弹性件之间,以使发生弹性形变的所述第一弹性件经由所述第一开口与所述弹性层相互抵持,以使发生弹性形变的所述第二弹性件经由所述第二开口与所述弹性层相互抵持,其中,所述第一弹性件为插设在所述第一安装管内部的弹性件,所述第二弹性件为插设在所述第二安装管内部的弹性件。
- 根据权利要求12至18任一项所述的方法,其特征在于,所述光缆进出孔包括至少一个第二光缆进出孔,所述安装管包括至少一个第三安装管,所述至少一个第二光缆进出孔和所述至少一个第三安装管用于安装分歧光缆,所述至少一个第二光缆进出孔中的任一个第二光缆进出孔的孔口内周壁设置有卡持部,所述至少一个第三安装管中的任一个第三安装管的外周壁设置有弹性卡扣,所述方法还包括:将所述弹性卡扣扣合在所述卡持部上,以使所述第三安装管固定设置在所述第二光缆进出孔上。
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RU2727562C1 (ru) * | 2020-01-30 | 2020-07-22 | Федеральное государственное бюджетное образовательное учреждение высшего образования "Поволжский государственный университет телекоммуникаций и информатики" | Способ крепления оптических модулей оптического кабеля на кассете муфты при сращивании длин оптического кабеля |
CN111999832A (zh) * | 2020-08-28 | 2020-11-27 | 浙江超前通信科技股份有限公司 | 一种光缆密封塞及接头盒 |
RU2771064C1 (ru) * | 2021-03-16 | 2022-04-25 | Федеральное государственное бюджетное образовательное учреждение высшего образования "Поволжский государственный университет телекоммуникаций и информатики" | Способ фиксации оптических волокон в модульной трубке |
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- 2016-09-30 BR BR112019006232-7A patent/BR112019006232B1/pt active IP Right Grant
- 2016-09-30 MX MX2019003568A patent/MX2019003568A/es unknown
- 2016-09-30 EP EP16917381.2A patent/EP3511752B1/en active Active
- 2016-09-30 CN CN201680089662.8A patent/CN109791263A/zh active Pending
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CN101271182A (zh) * | 2007-03-22 | 2008-09-24 | 茹志康 | 采用螺帽旋转压紧密封圈自动抱紧光缆的接头盒密封装置 |
WO2014101511A1 (zh) * | 2012-12-26 | 2014-07-03 | 长飞光纤光缆有限公司 | 可扩容式卧式光缆接头盒 |
CN203881988U (zh) * | 2014-06-19 | 2014-10-15 | 余姚铭博通讯设备有限公司 | 光缆接头盒进出缆孔机械密封装置 |
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CN113703109A (zh) * | 2021-08-06 | 2021-11-26 | 华为技术有限公司 | 一种接头盒 |
CN113703109B (zh) * | 2021-08-06 | 2022-11-18 | 华为技术有限公司 | 一种接头盒 |
Also Published As
Publication number | Publication date |
---|---|
BR112019006232B1 (pt) | 2024-04-30 |
CN109791263A (zh) | 2019-05-21 |
BR112019006232A2 (pt) | 2019-06-18 |
EP3511752A4 (en) | 2019-10-16 |
US10921521B2 (en) | 2021-02-16 |
EP3511752A1 (en) | 2019-07-17 |
EP3511752B1 (en) | 2022-05-11 |
MX2019003568A (es) | 2019-09-04 |
US20190227236A1 (en) | 2019-07-25 |
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