KR102045822B1 - Method for manufacturing optical telecommunication assembly - Google Patents

Abstract

The present invention relates to a method of manufacturing an optical communication assembly, which comprises the steps of: providing a case (110) fixed onto a substrate; providing an optical cable for transmitting an optical signal to the case (110); providing an optical switch configured to pass or block the optical signal received from the optical cable; and providing a coupler configured to distribute or couple the optical signal received from the optical cable. The case (110) includes a lower body having a first mounting means (111) on at least a portion of the circumference, and an upper body coupled to the lower body and having a second mounting means (112) on at least a portion of the circumference. The optical communication module further comprises a movable module (113) provided in a longitudinal direction of the first mounting means (111) and the second mounting means (112) to perform an operation for opening or closing the lower body and the upper body. Therefore, the optical communication module can be handled more efficiently such that management of internal components of the optical communication module can be easy.

Description

Method for manufacturing optical telecommunication assembly

The present invention relates to a method for manufacturing an optical communication assembly, and more particularly, to an optical communication assembly manufacturing method for managing an internal component of an optical communication module more efficiently by handling the optical communication module more efficiently.

Regarding the general optical communication module, technologies for solving the trouble of the complicated installation of the optical cable and the hassle of dismantling the optical cable installed when replacing the defective optical switch and the coupler and replacing with a new component are being developed. Through the development of this technology, some of the problems of the optical communication module have been improved to some extent. However, there is a problem that handling inconvenience and inefficiency still exist in the most basic handling process of visually checking the internal components of the optical communication module itself and managing them again. For example, there is a problem in that it is inconvenient to open and handle the case of the external optical communication module as a whole for handling and management of a part of the internal components. This problem has a problem that is more weighted as the standard of the optical communication module.

Therefore, there is a disadvantage in that it is not easy to provide an optical communication module that enables efficient maintenance, management, and repair of internal components.

Korean Patent Registration No. 10-1445675

An object of the present invention is to provide a method for manufacturing an optical communication assembly that is more easily handled by the optical communication module to manage the internal components of the optical communication module.

According to an aspect of the present invention, there is provided a method of manufacturing an optical communication assembly, comprising: providing a case (110) fixed on a substrate; Providing an optical cable for transmitting an optical signal in the case (110); providing an optical switch for passing or blocking an optical signal received from the optical cable; And a coupler configured to distribute or couple the optical signal received from the optical cable, wherein the case 110 includes: a lower body having a first mounting means 111 disposed on at least a portion of the circumference; And an upper body coupled to the body and provided with a second mounting means 112 on at least a portion of the circumference, wherein the optical communication module includes a length direction of the first mounting means 111 and the second mounting means 112. It is provided on the optical communication assembly manufacturing method further comprises a movable module 113 for performing the opening or closing of the lower body and the upper body with each other.

According to the present invention, the optical communication module can be handled more efficiently, thereby making it possible to manufacture an optical communication assembly that is easy to manage the internal components of the optical communication module.

1 to 5 are diagrams illustrating the components of an optical communication module according to an embodiment of the present invention.
6 is a diagram illustrating an optical communication assembly according to an exemplary embodiment of the present invention.
7 to 8A are views showing modifications of the configurations according to FIG. 6, respectively.
8B is a diagram illustrating the components of the optical communication assembly according to FIG. 6.
9A to 9B are diagrams each showing a modified example of the configuration according to FIG. 6.
10 to 14 illustrate the components of the optical communication assembly according to FIG. 6.
15 is a flowchart sequentially illustrating a method of manufacturing an optical communication assembly according to an embodiment of the present invention.

Hereinafter, exemplary embodiments of the present invention will be described in detail with reference to the accompanying drawings.

<Optical communication module>

1 is a perspective view of an optical communication module according to the present invention, Figure 2 is an exploded perspective view of the optical communication module according to the present invention. The optical communication module according to the present invention includes an optical cable 100 'disposed to transmit an optical signal by embedding an optical fiber, an optical switch 200' for passing or blocking an optical signal transmitted from the optical cable 100 ', and the A coupler 300 'for distributing or combining the optical signal transmitted from the optical cable 100' and the optical cable 100 ', the optical switch 200', and the coupler 300 'are disposed therein, and the substrate 20' It includes a case 400 'fixed on the).

The optical cable 100 ′ is disposed to transmit an optical signal from the outside to the optical switch 200 ′, the coupler 300 ′, or the like by embedding an optical fiber. In this case, the optical cable 100 'is connected to the optical switch 200' and the coupler 300 ', and each free end is exposed to the outside of the case 400' so that the optical signal can be input and output. The connection terminal 110 ′ may be provided to be connected to the external terminal to allow optical communication. The optical switch 200 ′ is installed between the optical cables 100 ′ so as to pass or block an optical signal transmitted from the optical cable 100 ′. The optical switch 200 ′ may be composed of a non-latching optical switch and a latching optical switch, wherein the latching optical switch is selectively configured, and when the non-latching optical switch and the latching optical switch are provided, mutual optical communication may be performed. It is connected to the optical cable 100 'to enable. The coupler 300 'is configured to distribute or couple the optical signal transmitted from the optical cable 100'.

The coupler 300 'is mostly provided to branch the optical fiber, and is connected to the optical switch 200' by an optical cable 100 'to enable optical communication. In addition, when the optical switch 200 'includes two non-latching optical switches and two latching optical switches, the coupler 300' is also provided to connect to each optical switch 200 '. The case 400 ′ includes the optical cable 100 ′, the optical switch 200 ′, and the coupler 300 ′ therein, and is fixed on the substrate 20 ′. The case 400 'as described above serves to fix the optical cable 100', the optical switch 200 ', and the coupler 300' into one module. Accordingly, the case 400 is built in the optical switch 200 'and the coupler 300', and the optical cable 100 'connected to the optical switch 200' and the coupler 300 'is allowed to enter and exit. The shape and material of ') may occur in various embodiments. First, the case 400 'material may be formed of various materials such as metal, such as steel and aluminum, synthetic resin such as acrylic, and rubber. In addition, the shape of the case 400 'is as small as possible, to form a low height so as not to occupy a lot of space when mounted on various products, including an optical switch 200' and coupler (inside the box shape or cylindrical shape) It can be formed in various ways to accommodate the 300 '). 3 is an exploded perspective view of a case according to the present invention. According to a preferred embodiment of the present invention, the case 400 'is formed so that one surface thereof is opened, and includes the optical cable 100', the optical switch 200 ', the coupler 300', and the substrate 20 The lower body 410 'is fixed to the'), and the upper cover 420 'for opening or closing the opened one surface of the lower body 410'. The lower body 410 'is fixed to the substrate 20', and generally has the form of a box with an upper side opened.

Accordingly, the optical switch 200 'and the coupler 300' are built in the inner space and fixed to the bottom surface, and the optical switch 200 'and the coupler 300' are connected to the external optical cable 100 '. Form the module. The upper cover 420 'is configured to open or close one open surface of the lower body 410' and includes an optical switch 200 ', a coupler 300', and an optical cable embedded in the lower body 410 '. When checking and repairing 100 '), the upper cover 420' is opened and worked, and when the work is completed, the upper cover 420 'is closed to block the lower body 410' from the outside. At this time, the upper cover 420 'and the lower body 410' may be provided with a separate fastening means, the upper cover 420 'forms side walls on both sides, the lower body 410' is A concave portion into which the side wall is fitted can be formed and joined. In addition, the lower body 410 'and the upper cover 420' is hinged so that the upper cover 420 'can be rotated based on the lower body 410', and the upper cover 420 'is the lower body ( 410 ') may be combined in a form that surrounds all or a part of the package. According to a preferred embodiment of the present invention, the lower body 410 'is provided with an opening portion 411' so that the optical cable 100 'passes through both lower ends. The opening portion 411 'is perforated to pass through the optical cable 100' and serves as a passage, and the optical switch 200 'and the coupler 300' do not escape but allow the optical cable 100 'to enter and exit. It is formed in various forms in the range. According to a preferred embodiment of the present invention, the opening portion 411 'includes a cover 412' to block the opening portion 411 'when the optical cable 100' does not pass.

The cover 412 ′ has a structure in which the opening part 411 ′ is normally closed and is opened when the optical cable 100 ′ is installed. According to a preferred embodiment of the present invention, the lower body 410 'has a holder 413' for fixing the optical cable 100 ', optical switch 200', coupler 300 'on the inner bottom surface; Prepared. The holder 413 'includes an optical support 200' and a coupler, as well as a holder of an elastic support method in which the optical cable 100 'is fitted.

It may include a holder in the form of a band provided to surround the 300 ', the optical cable 100', the optical switch 200 ', the coupler 300' can maintain the state disposed on the lower body (410 ') It may be provided with a variety of fixing means in a range to be. According to a preferred embodiment of the present invention, the holder 413 'fixes the optical cable 100' installed to maintain the curvature of the optical cable 100 'more than 3 cm or 8 cm in order to eliminate the optical attenuation of the optical cable 100'. Characterized in that. In general, the optical switch 200 'and the coupler 300' are classified into a multi-mode of 850 nm and a single mode of 1310 nm according to the optical wavelength. The two types of modes are the optical switch 200 'or the coupler 300'. Since the size and shape are the same, it can be used as an optical communication module. In the above case, when the optical cable 100 'is laid, the optical attenuation may occur according to the curvature of the optical cable 100'. Generally, the smaller the curvature, the higher the probability of occurrence of optical attenuation. In general, multimode has the least light attenuation at curvature of about 8 cm in diameter and single mode has no light attenuation at curvature of about 3 cm in diameter.

In the multi-mode, the light attenuation phenomenon occurred seriously at the curvature of less than 8 cm, and in the single mode, the light attenuation was detected at the curvature of less than 3 cm. Therefore, in the multi-mode, the curvature of the optical cable 100 'should be installed to maintain more than 8 cm when the optical cable 100' is laid, and in the single mode, the optical cable 100 when the optical cable 100 'is laid The curvature of ') shall be installed so as to maintain more than 3cm. According to a preferred embodiment of the present invention, the lower body 410 ′ has the optical switch 200 ′ on the inner bottom surface of the substrate 2.

0 ') and the connection port 414' is formed to be in circuit communication with. Since the switch 200 'may be connected to the substrate 20' through the connection hole 414 ', the connection hole 414' is perforated at a position corresponding to the connection portion of the substrate 20 '. It is preferable to form. 4 is an exploded perspective view of a case according to another embodiment of the present invention. According to a preferred embodiment of the present invention, the lower body 410 'is characterized by displaying a guide line 415' for guiding the installation of the optical cable 100 'on the inner bottom surface. The guide line 415 'indicates a guide line that can be a guide when the optical cable 100' is installed on the bottom surface of the lower body 410 'to prevent optical attenuation of the optical cable 100'.

<Optical communication assembly>

6 is a diagram illustrating an optical communication assembly according to an embodiment of the present invention. 7 to 14 illustrate the components of the optical communication assembly according to FIG. 6.

6 to 14, an optical communication assembly, comprising: an optical cable for transmitting an optical signal; An optical switch configured to pass or block an optical signal received from the optical cable; A coupler for distributing or coupling the optical signal received from the optical cable; The optical switch, coupler, and the optical cable is disposed inside, and includes a case 110 fixed on the substrate.

The case 110 includes a lower body having a first mounting means 111 on at least a portion of the circumference and an upper body coupled to the lower body and having a second mounting means 112 on at least a portion of the circumference. Including, the optical communication module, the movable module is provided on the longitudinal direction of the first mounting means 111 and the second mounting means 112 for performing the opening or closing of the lower body and the upper body with each other. (113) is further included.

The movable module 113 may include driving units 113a2, 113b2 and 113c2 provided on the first mounting means 111 and flow units 113a1, 113b1 and 113c1 provided on the second mounting means 112. ), Wherein the driving units 113a2, 113b2, and 113c2 have a predetermined thickness and are flown in the longitudinal direction of the first mounting means 111, and the flow units 113a1, 113b1, and 113c1 include the driving unit ( Lifting the second mounting means 112 based on the flow from 113a2, 113b2, 113c2.

The flow part 113a1, 113b1, 113c1 flows toward the second mounting means 112 and is coupled to the second mounting means 112, and flows upward from the driving parts 113a2, 113b2, 113c2. Lift the body from the lower body. The upper body, between the first upper body 114 provided on one side, the second upper body 115 provided on the other side, between the first upper body 114 and the second upper body 115 It includes a third upper body 116 is provided. The second mounting means 112 may include the second-first mounting means 112a corresponding to the first upper body 114 and the second-second mounting means corresponding to the second upper body 115 ( 112b) and the second mounting means 112c corresponding to the third upper body 116.

The first mounting means 111 includes first-first mounting means 111a corresponding to the second-first mounting means 112a and first-first corresponding to the second-second mounting means 112b. 2 mounting means (111b) and 1-3 mounting means (111c) corresponding to the 2-3 mounting means (112c), the movable module 113, the 1-1 mounting means ( A first moving part 113a2 provided in 111a) and a first flow part 113a1 operated in the first driving part 113a2 and provided to be coupled to the second-first mounting means 112a. 1 the movable module 113a, the second driving unit 113b2 provided in the 1-2 mounting means 111b, and the second driving unit 113b2, and are operated by the second-2 mounting means 112b. The second movable module 113b including the second flow part 113b1 provided to be able to bind, the third driving part 113c2 provided in the 1-3 mounting means 111c, and the third driving part ( Operating in 113c2) and engaging with the 2-3 mounting means 112c. The third movable module 113c including the third flow part 113c1 provided to be possible is included.

The first movable module 113a is operable to lift the first upper body 114, and the second movable module 113b is operable to lift the second upper body 115. The third movable module 113c is operable to lift the third upper body 116. The first flow part 113a1 to the third flow part 113c1 are selectively provided to be capable of generating a magnetic force, and are based on the magnetic force generated from the second first mounting means 112a to the second. Each of the second mounting means 112a to the second mounting means 112c is coupled to the third mounting means 112c, respectively. A first sensing unit 117 is provided to sense first approach or touch contact with the mounting means 112c to generate first sensing information.

The first flow part 113a1 to the third flow part 113c1 of the movable module 113 may be installed in the second-first mounting means 112a to the second-3 based on the first detection information. Magnetic binding is respectively performed on the mounting means 112c, and the first driving unit 113a2 to the third driving unit 113c2 of the movable module 113 are configured based on the first sensing information. The eastern portion 113a1 to the third flow portion 113c1 are operated in an upward flow mode for respectively flowing upward.

The first-first mounting means 111a to the 1-3 mounting means 111c may approach or touch the first-first mounting means 111a to the 1-3 mounting means 111c. And a second sensing unit 118 configured to generate second sensing information. The driving units 113a2, 113b2, and 113c2 of the movable module 113 may be configured based on the second sensing information. Hold the upward flow state of 113a1, 113b1, 113c1). The upward flow mode includes a first moving state in which the first flow part 113a1 lifts the first upper body 114 and moves to one side, and the second flow part 113b1 is in the second upper part. A second movement state in which the body 115 is lifted and moved to the other side, and a third movement state in which the third flow part 113c1 lifts the third upper body 116 to move to one side or the other side; Include.

The first moving state is one of the flow of the first flow part 113a1 in the first drive part 113a2 and the longitudinal flow of the first-first mounting means 111a of the first drive part 113a2. The second moving state may be performed based on at least one of the two moving parts of the second driving part 113b2 and the first-second mounting means of the second driving part 113b2. Based on at least one of the longitudinal flows at 111b.

The third moving state is in the flow of the third flow portion 113c1 in the third drive portion 113c2 and in the longitudinal flow of the third mounting means 111c of the third drive portion 113c2. It is performed based on at least one. A first upper magnetic body UM1 is provided at one end of the first upper body 114, and a second upper magnetic body UM2 at one end of the third upper body 116 facing the first upper body 114. ) Is provided, and a third upper magnetic body UM3 is provided at one end of the second upper body 115.

A fourth upper magnetic body UM4 is provided at the other end of the third upper body 116 facing the second upper body 115, and the first upper magnetic body UM1 and the second upper magnetic body UM2 are provided. Are operated to generate a mutual attraction force in a mutually adjacent state, and are operated to generate anti-elastic force between the third upper magnetic body (UM3) and the fourth upper portion in the process of operating in the upward flow mode. The magnetic body UM4 is operated to generate a mutual attraction force in a state adjacent to each other, and is operated to generate anti-elasticity between each other in the process of operating in the upward flow mode.

The first flow part 113a1 may be longitudinally flowable in the first drive part 113a2, and the second flow part 113b1 may be longitudinally flowable in the second drive part 113b2, and the third fluid may flow in the third flow path. The eastern part 113c1 is longitudinally movable by the third drive part 113c2.

The first flow part 113a1 to the third flow part 113c1 may be moved in various positions based on rotation and linear reciprocating motions in the first drive part 113a2 to the third drive part. To this end, the areas of the first driver 113a2 to the third driver 113c2 may be appropriately adjusted. As shown in FIG. 7, the first flow part 113a1 to the third flow part 113c1 may be bound as described above directly in an external appearance, and, in particular, may be rotated when formed in a rectangular shape. Based on this, it is bound to the binding position to widen the contact area, and other applications such as lifting are possible.

Further comprising a built-in module 119 is located below the case 110, the built-in module 119, the mounting portion 119a of the center where the substrate is provided and the case 110 is mounted, and The first built-in portion 119b provided on one side in the width direction on the mounting portion, the second built-in portion 119c provided on the other side in the width direction on the mounting portion, and a predetermined recessed space is formed on an inner circumferential surface thereof, and one side in the longitudinal direction on the mounting portion. The third interior portion 119d provided in the, a predetermined recessed space is formed on the inner peripheral surface and includes a fourth interior portion 119e provided on the other side in the longitudinal direction on the mounting portion.

The first interior portion 119b to the fourth interior portion 119e are operated in a separation mode spaced apart from each other in the outward direction from the mounting portion 119a and in an adjacent mode adjacent to each other in the inward direction. The first interior portion 119b to the fourth interior portion 119e are operated in the adjacent mode to surround and protect the case 110 in a state of being seated in the mounting portion 119a, and seated therein. The case 110 in a closed state is operated in the separation mode so as to be elevated by the mounting portion 119a to be exposed to the outside.

The third interior portion 119d and the fourth interior portion 119e are provided with a first film treatment module 120 in the longitudinal direction, and inject the fluid toward the case located inside. The first film treatment module 120 includes a film treatment body 121, a first-first injection body 123 provided on the film treatment body 121, and the film treatment body 121. The 1-2th injector 124 of the other side provided in the image, and the 1-3 injector provided between the said 1-1st injector 123 and the 1-2th injector 124 of the other side ( A first injector 122 having a 125, a second injector 127 provided between the first-first injector 123 and the second injector 124, and And a second injector 126 provided with the second injector 128 provided between the 1-2 injector 124 and the 1-3 injector 125.

 The first-first injector 123 and the first-second injector 124 are spaced apart or adjacent to each other symmetrically on the coating body 121 based on the first-third injector 125. Longitudinal reciprocating flow is possible, and the 2-1 injector 127 and the 2-2 injector 128 inject fluid, but the 1-1 injector 123 and the 1-3 Injected on the basis of the reciprocating flow of the injector 125 to accelerate the injection of the fluid.

The 2-1st injection body 127 is provided on both sides of the first injection body 127a for injecting fluid and the first injection body 127a, and the first-first injection body 123 and the A first press body 127b is provided by the first injection body 125 and allows the first injection body 127a to accelerate the injection of the fluid.

The second-second injector 128 is provided on both sides of the second injection body 128a for injecting fluid and the second injection body 128a, and the first-second injector 124 and the The second press body 128b is pressurized by the 1-3 injection body 125 and allows the second injection body 128a to accelerate the injection of the fluid. The film treatment body 121 may include a first film treatment body 121a in which the first-first injector 123 to the third injection body 125 are located, and the first film treatment body ( And a second coating body 121b for accommodating 121a) to allow the first coating body 121a to flow in the front-rear direction or in the left-right direction. The first-first injector 123 to the first-third injector 125 may flow in the front-rear direction between an inner circumferential surface direction and an outer circumferential surface direction of the first film-processing body 121a, and the second-1. The injectors 127 to the second-two injectors 128 may flow in the front-rear direction between the inner circumferential surface direction and the outer circumferential surface direction of the first coating body 121a.

One side of the first-first injector 123 is provided with a first magnetic module M1, and one side of the first indenter 127b facing the first-first injector 123 has a second magnetic property. A module M2 is provided, and a third magnetic module M3 is provided at one side of the first-second injector 124 and the second indenter facing the first-second injector 124. One side of the 128b is provided with a fourth magnetic module M4, and the first magnetic body M1 and the second magnetic body M2 are operated to generate mutual anti-elastic force for high-speed separation flow during the separation flow. .

The third magnetic material (M3) and the formulation 4 magnetic material (M4) is operated to generate a mutual anti-elasticity, for the high speed adjacent flow in the adjacent flow, the first magnetic material (M1) and the second magnetic material (M2) It is operated to generate mutual attraction, and the third magnetic body M3 and the formulation 4 magnetic body (M4) is operated to generate mutual attraction.

A fifth magnetic module M5 is provided at one side of the first to third injectors 125, and a sixth to another side of the first indenter 127b facing the first to third injectors 125. The magnetic module M6 is provided, and on the other side of the 1-3 injector 125, the seventh magnetic module M7 is provided, and the second pressure facing the 1-3 injector 125 is provided. The other side of the three-dimensional (128b) is provided with an eighth magnetic module (M8), for the high-speed separation flow during the separation flow, the formulation 4 magnetic material (M4) and the fifth magnetic material (M5) is operated to generate a mutual anti-elastic force The sixth magnetic body M6 and the seventh magnetic body M7 are operated to generate mutual anti-elasticity, so that the formulation 4 magnetic body M4 and the fifth magnetic body M5 for high-speed adjacent flow during the adjacent flow. ) Is operated to generate mutual attraction, and the sixth magnetic body M6 and the seventh magnetic body M7 are operated to generate mutual attraction.

The built-in module 119, in the receiving mode, the suction module 130 for sucking the fluid inside the case 110 and the built-in module 119 covering the upper area corresponding to the case 110 It is provided. The suction module 130 is in communication with the panel unit 131 covering the upper portion of the built-in module 119, the panel unit 131 to suck the fluid of the built-in module 119, the first upper body The first suction unit 132 provided in the first region of the panel unit 131 corresponding to the 114 and the panel unit 131 communicate with each other to suck the fluid of the internal module 119, The second suction part 133 provided in the second area of the panel part 131 corresponding to the upper body 115 and the panel part 131 communicate with each other to suck the fluid of the internal module 119. The third suction part 134 is provided in the third area of the panel part 131 corresponding to the third upper body 116.

The built-in module 119 is provided with a second suction module 140 for sucking the internal fluid flowing out to cover the upper portion of the built-in module 119, the second suction module 140, the panel unit The second panel portion 131 covering the upper portion of the built-in module 119 so as to be positioned above the 131, and the fourth suction portion 142 communicating with the second panel portion 141 to suck and discharge fluid. , 143 is provided.

<Optical communication assembly manufacturing method>

16 is a flowchart sequentially illustrating a method of manufacturing an optical communication assembly according to an embodiment of the present invention. Referring to FIG. 16, a method of fabricating an optical communication assembly includes: providing a case 110 fixed to a substrate; Providing an optical cable for transmitting an optical signal in the case (110); Providing an optical switch configured to pass or block an optical signal received from the optical cable; And a coupler for distributing or coupling the optical signal received from the optical cable.

The case 110 includes a lower body having a first mounting means 111 on at least a portion of the circumference and an upper body coupled to the lower body and having a second mounting means 112 on at least a portion of the circumference. Include. The optical communication module, the movable module 113 is provided on the longitudinal direction of the first mounting means 111 and the second mounting means 112 for performing the opening or closing of the lower body and the upper body mutually. It includes more.

<Optical communication assembly manufacturing method>

15 is a flowchart sequentially illustrating a method of manufacturing an optical communication assembly according to an embodiment of the present invention. Referring to FIG. 16, a method of fabricating an optical communication assembly includes: providing a case 110 fixed to a substrate; Providing an optical cable for transmitting an optical signal in the case (110); Providing an optical switch configured to pass or block an optical signal received from the optical cable; And a coupler for distributing or coupling the optical signal received from the optical cable.

The case 110 includes a lower body having a first mounting means 111 on at least a portion of the circumference and an upper body coupled to the lower body and having a second mounting means 112 on at least a portion of the circumference. Include. The optical communication module is provided on the longitudinal direction of the first mounting means 111 and the second mounting means 112, the movable module 113 for performing the opening or closing of the lower body and the upper body mutually. It includes more.

Although the present invention has been described with reference to the embodiments shown in the drawings, this is merely exemplary, and it will be understood by those skilled in the art that various modifications and equivalent other embodiments are possible. Therefore, the true technical protection scope of the present invention will be defined by the technical spirit of the appended claims.

110: case
111: first mounting means
112: second mounting means
113: moving module

Claims (10)

In the optical communication assembly manufacturing method,
Providing a case (110) fixed on the substrate;
Providing an optical cable for transmitting an optical signal in the case 110
Providing an optical switch to the case 110 to pass or block an optical signal received from the optical cable; And
And providing a coupler to the case 110 to distribute or couple the optical signal received from the optical cable.
The case 110,
A lower body having a first mounting means 111 on at least a portion of the circumference and an upper body coupled to the lower body and having a second mounting means 112 on at least a portion of the circumference,
The optical communication assembly,
Further comprising a movable module 113 provided on the longitudinal direction of the first mounting means 111 and the second mounting means 112 for opening or closing the lower body and the upper body,
The movable module 113,
Driving parts 113a2, 113b2, and 113c2 provided on the first mounting means 111,
It includes a flow portion 113a1, 113b1, 113c1 provided on the second mounting means 112,
The drive unit 113a2, 113b2, 113c2,
It has a predetermined thickness and flows in the longitudinal direction of the first mounting means 111,
The flow section 113a1, 113b1, 113c1,
And the second mounting means (112) are lifted based on flow from the drive (113a2, 113b2, 113c2). delete The method according to claim 1,
The flow section 113a1, 113b1, 113c1,
Method for manufacturing an optical communication assembly that flows toward the second mounting means 112 and is coupled to the second mounting means 112 and flows upward from the driving units 113a2, 113b2 and 113c2 to lift the upper body from the lower body. . The method according to claim 3,
The upper body,
The first upper body 114 provided on one side,
The second upper body 115 provided on the other side,
It includes a third upper body 116 provided between the first upper body 114 and the second upper body 115,
The second mounting means 112,
2-1 mounting means 112a corresponding to the first upper body 114,
2-2 mounting means 112b corresponding to the second upper body 115,
And a second mounting means (112c) corresponding to the third upper body (116). The method according to claim 4,
The first mounting means 111,
The first-first mounting means 111a corresponding to the second-first mounting means 112a,
The first-second mounting means 111b corresponding to the second-second mounting means 112b,
It includes a 1-3 mounting means 111c corresponding to the 2-3 mounting means 112c,
The movable module 113,
The first driving unit 113a2 provided in the first-first mounting means 111a and the first driving unit 113a2 operate in the first driving unit 113a2 and are provided to be coupled to the second-first mounting means 112a. A first movable module 113a including an eastern portion 113a1,
The second driving unit 113b2 provided in the 1-2 mounting means 111b and the second oil supply unit 132 operate in the second driving unit 113b2 and are provided to be coupled to the second-2 mounting means 112b. A second movable module 113b including an eastern portion 113b1,
The third drive unit 113c2 provided in the 1-3 mounting means 111c and the third oil supply unit 132 operate in the third driving unit 113c2 and are provided to be coupled to the second-3 mounting means 112c. A third movable module 113c including the eastern portion 113c1,
The first movable module 113a,
Is operable to lift the first upper body 114,
The second movable module 113b,
Is operable to lift the second upper body 115,
The third movable module 113c,
10. A method of fabricating an optical communication assembly operable to lift the third upper body (116). The method according to claim 5,
The first flow portion (113a1) to the third flow portion (113c1),
It is selectively provided to be capable of generating a magnetic force, respectively bound to the 2-1 mounting means (112a) to the 2-3 mounting means (112c) based on the generated magnetic force,
The 2-1 mounting means 112a to 2-3 mounting means 112c,
A first detecting unit 117 is provided to generate first sensing information by detecting an approach or a touch contact with the 2-1 mounting means 112a to the 2-3 mounting means 112c.
The first flow portion (113a1) to the third flow portion (113c1) of the movable module 113,
On the basis of the first detection information, the magnetic binding is performed on the 2-1 mounting means 112a to the 2-3 mounting means 112c, respectively.
The first driving unit 113a2 to the third driving unit 113c2 of the movable module 113,
And a first flow unit (113a1) to the third flow unit (113c1) based on the first sensing information, respectively, the optical communication assembly to operate in an upward flow mode for flowing upward. The method according to claim 6,
The first-first mounting means 111a to the 1-3 mounting means 111c are,
A second detection unit 118 is provided to detect the approach or touch contact to the first-first mounting means 111a to the 1-3 mounting means 111c to generate second detection information.
The driving unit (113a2, 113b2, 113c2) of the movable module (113) is an optical communication assembly manufacturing method for holding the upward flow state of the flow unit (113a1, 113b1, 113c1) based on the second sensing information. The method according to claim 7,
The upward flow mode,
A first moving state in which the first flow part 113a1 lifts the first upper body 114 and moves to one side;
A second moving state in which the second flow part 113b1 lifts the second upper body 115 and moves to the other side;
And a third moving state in which the third flow part (113c1) lifts the third upper body (116) to move to one side or the other side. The method according to claim 8,
The first moving state is,
Based on at least one of the flow of the first flow portion 113a1 in the first drive unit 113a2 and the longitudinal flow of the 1-1 mounting means 111a of the first drive unit 113a2. ,
The second moving state is,
Based on at least one of the flow of the second flow portion 113b1 in the second drive portion 113b2 and the longitudinal flow of the 1-2 mounting means 111b of the second drive portion 113b2. ,
The third moving state is,
Based on at least one of the flow of the third flow part 113c1 in the third drive part 113c2 and the longitudinal flow of the first mounting means 111c of the third drive part 113c2 Optical communication assembly manufacturing method. The method according to claim 9,
One end of the first upper body 114 is provided with a first upper magnetic body (UM1),
A second upper magnetic body UM2 is provided at one end of the third upper body 116 facing the first upper body 114,
One end of the second upper body 115 is provided with a third upper magnetic body (UM3),
A fourth upper magnetic body UM4 is provided at the other end of the third upper body 116 facing the second upper body 115,
The first upper magnetic body UM1 and the second upper magnetic body UM2 are
In the adjoining state, it is operated to generate a mutual attraction force
In the process of operating in the upward flow mode is operated to generate anti-elasticity between each other,
The third upper magnetic body UM3 and the fourth upper magnetic body UM4 are
In the state of adjoining each other, it is operated to generate a mutual attraction force.
The optical communication assembly manufacturing method which is operated to generate anti-elasticity with each other in the process of operating in the upward flow mode.

Images