TWI774050B - Optical Network Conversion Connector - Google Patents

Abstract

The present invention relates to an optical fiber network conversion connector. The main structure includes a main housing part, an electronic module, an upper hollow part and a lower hollow part, an upper cover plate and a lower cover plate, a magnetic conduction heat dissipation part, a first elastic part and second elastic part, optical fiber connector, network connector, elastic buckle part, rotating rod part, clamping part, cam part, swing shaft limit part, swing shaft, contact surface, buckle convex part, first a heat source and a second heat source, a first heat absorbing part and a second heat absorbing part, a bending part, a first supporting part and a second supporting part, a clamping part, a metal shell, an insertion slot, a buckle limit part, A guide rod, a guide surface, a limiting concave portion, a pivoting piece, a resisting surface, a vacating portion, a resisting limiting surface, an inner concave portion, a protruding portion, a positioning portion, a heat insulating element, and a hook portion. In this way, the spring is replaced by a rotating rod with a seesaw principle, so that the rotating rod can be directly combined with the network connector, so as to improve the structural strength and reduce the damage rate. At the same time, the insertion strength of the plug connector is strengthened.

Description

Optical Network Conversion Connector

The present invention provides an optical fiber network conversion connector, in particular, an optical fiber network conversion connector which is free of springs, is not easily damaged, has good heat dissipation effect, and has good plugging stability.

Press, in optical fiber communication, transceiver is an important component, such as high-speed Ethernet interface converter (Gigabit Interface Converter, GBIC), mainly using optical transmitters to convert electrical signals into optical signals, and using optical receivers Convert the received optical signal into electrical signal and transmit it to the host device. However, high-speed Ethernet interface converters have been gradually replaced by small form-factor pluggable transceivers (SFPs), because SFPs are not only small in size, but also hot-pluggable, which not only reduces the setup time Space can also improve the convenience of replacement and installation of optical transceivers, so SFP-to-network connector converters are also produced in large quantities.

However, when the male head of the network connector is to be removed from the housing, it is generally necessary to pull down the rotary lever to unlock the buckle on the other end of the bottom plate, and then apply an external force to the shrapnel to deform the shrapnel, thereby releasing the card The interference relationship between the buckle and the engaging hole. However, the rotating rod in this design uses a spring to automatically return to its position. In addition to reducing the assembly strength due to elastic fatigue, it is easy to damage the pivot joint when the force is applied to the rotating rod improperly. The buckle points are generally designed together on the casing, so once the casing is deformed, the buckle effect will be lost. In addition, when the rotary rod is opened, the buckle action of the other end moves horizontally, which is different from the swinging action of the rotary rod, so the user needs to compare It is laborious to open, and it is easy to cause the wear of the buckle.

In addition, the small package hot-swap transceiver is also due to its small size and large signal transmission capacity, resulting in the operating temperature often around 80 degrees, which indirectly leads to its low lifespan, and the reason for the high operating temperature is mainly due to poor heat dissipation of electronic components. And it is difficult to provide enough heat dissipation space for the small volume of the housing.

Therefore, how to solve the above-mentioned conventional problems and deficiencies is the direction that the creator of the present invention and related manufacturers in the industry are eager to research and improve.

Therefore, in view of the above-mentioned deficiencies, the creator of the present invention collected relevant information, evaluated and considered from various parties, and based on years of experience accumulated in this industry, through continuous trial production and modification, before designing this kind of spring-free, not easy to damage. , The inventor of the invention patent of the optical fiber network conversion connector with good heat dissipation effect and good plugging stability.

The main purpose of the present invention is: to make the rotary rod directly buckle with the network connector, improve the bonding strength, and replace the spring with the action of the seesaw, while taking into account the service life and the convenience of operation, and maintaining a small volume Take into account the advantages of a good thermal design.

In order to achieve the above-mentioned purpose, the main structure of the present invention includes: a main casing member, at least one electronic module is arranged in the main casing member, an upper hollow portion is formed on one side of the main casing member, and the other side of the main casing member is formed. A lower hollow part is formed, one side of the main housing part is provided with a cover part covering the upper hollow part, the other side of the main housing part is provided with a lower cover part covering the lower hollow part, and a guide plate is arranged on the electronic module. The magnetic heat dissipation element is formed with at least one first elastic part passing through the upper cover part and at least one second elastic part passing through the main casing part; one end of the electronic module is provided with a exposed part of the main casing A fiber optic connector on one side of the component and a network connector on the other end exposed on one side of the main housing component, a plurality of elastic snap parts are formed on the side wall of the network connector, and a rotating rod is pivoted on the main housing component The rotating rod includes a pivot piece pivoted on the main housing piece, an abutting surface formed on one side of the pivot piece, and an extension portion formed on one side of the abutting surface. The rod is formed with a plurality of snap parts correspondingly combined with the elastic snap parts, one side of the rotary rod is formed with a cam part eccentrically arranged with the axis of the rotary rod, and a plurality of swing shaft limiters are formed on the main casing. The lower cover is provided with at least one swing shaft that is correspondingly combined with the limit part of the swing shaft, one end of the lower cover is formed with a contact surface that is collided by the cam part, and the other end is formed with a snap protrusion, the electronic module There is a first heat source and a second heat source on it. One side of the magnetically conductive heat sink is formed with a first heat absorbing portion that interferes with the first heat source, and the other side is formed with a bent portion. One side of the bent portion extends to form a Against the second heat absorbing part of the second heat source, at least one first support part for carrying the upper cover plate and at least one second support part for connecting the electronic module are formed on the magnetic conductive heat dissipation part, and one side of the second elastic part is formed. A clamping part for clamping the electronic module is extended, the network connector has a metal shell, a socket is recessed on the metal shell, and the inner side wall of the socket is extended to form a card that partially shields the opening of the socket Buckle the limiting part, a guide rod is formed on one side of the contact surface on the lower cover part, a guide surface for guiding the displacement path of the guide rod is formed on the cam part, and a pair of guide rods are formed on one end of the guide surface The limiting concave portion of the limit, the main body shell is formed with a resisting limiting surface on one side of the pivot member, and the lower cover is formed with an inner concave portion on the side adjacent to the electronic module, the inner concave portion At least one protruding portion is formed on the outer side, at least one positioning portion is formed on the main housing piece, an insulating element is provided on the outer shell of the main housing piece, and at least one hook portion corresponding to the positioning portion is formed on the insulating element .

The rotating rod member of the present invention is pivoted on the main housing member, but is directly connected to the elastic clipping portion of the network connector with its engaging portion, so as to separate the engaging points in two places, and Improve the bonding strength. When the network connector is docked with the plug connector, it also partially shields the snap-in limit of the insertion slot to reduce the risk of the plug connector falling off. When unlocking the fiber optic connector, use the rotating rod. The action of pushing the lower cover plate makes the lower cover plate take the swing shaft as the swing axis, swing the buckle convex part to achieve the purpose of unlocking, and the axis of the rotating rod is bounded by the double limit of the cam part and the guide rod. The position design replaces the traditional spring, thereby stabilizing the action of the rotating rod, and cooperating with the relationship between the abutting limit surface and the abutting surface, it can also avoid the over-swing of the rotating rod and reduce the damage rate. The upper and lower supports and the left and right limit electronic modules directly contact the first heat source and the second heat source on the electronic module, so the heat source can be quickly exported through the first elastic part and the second elastic part, and the lower cover plate The design of the inner concave and convex parts of the parts can also increase the space of the electronic module, and the outside is equipped with heat insulation elements to achieve the effect of triple cooling.

With the above technology, the problems of low assembly strength, high damage rate, inconvenient operation, and poor heat dissipation of conventional small-package hot-swap transceivers can be solved, and the practical progress of the above advantages can be achieved.

1, 1a, 1b, 1c: main housing parts

11: Upper hollow part

12: Lower hollow part

13, 13b: Upper cover plate

14a: Swing shaft limiter

15a: Against the limit surface

16c: Positioning part

17a: Socket shaft

2, 2b, 2c: electronic modules

21: Optical fiber connector

22: Network Connector

221: metal shell

2211: Elastic buckle part

2212: Plug slot

2213: Snap limit part

23b: The first heat source

24b: Second heat source

3, 3a, 3c: lower cover plate

31a: Swing axis

32a: Conflicting surface

33a: Snap protrusion

34a: Guide rod

35c: Inner recess

36c: Raised part

4, 4b: Magnetically conductive heat sink

41, 41b: the first elastic part

42, 42b: the second elastic part

43b: First heat sink

44b: Bending part

441b: Second heat sink

45b: The first support part

46b: Second support part

47b: Clamping part

5, 5a: Rotary rod parts

51: Snap part

52a: Cam part

521a: Guide Surface

522a: Limit recess

53a: pivot piece

531a: Resistance face

532a: Make way

6c: Thermal Insulation Elements

61c: Hook part

7: Plug connector

71: Indenter shrapnel

The first figure is a perspective perspective view of a preferred embodiment of the present invention.

The second figure is an exploded view of the preferred embodiment of the present invention.

The third figure is a schematic diagram of the closing of the rotary rod according to the preferred embodiment of the present invention.

Figure 4 is a schematic diagram of the plug connector according to the preferred embodiment of the present invention.

Fig. 5 is a top view of the plug connector according to the preferred embodiment of the present invention.

Figure 6 is an exploded view (1) of a hidden electronic module according to another preferred embodiment of the present invention.

Figure 7 is an exploded view (2) of a hidden electronic module according to another preferred embodiment of the present invention.

Figure 8 is a cross-sectional view of yet another preferred embodiment of the present invention.

Fig. 9 is a schematic diagram of the operation of another preferred embodiment of the present invention.

Figure 10 is a schematic diagram (1) of the implementation of yet another preferred embodiment of the present invention.

Fig. 11 is a schematic diagram (2) of the implementation of yet another preferred embodiment of the present invention.

Figure 12 is a perspective perspective view of another preferred embodiment of the present invention.

Figure 13 is a side view of another preferred embodiment of the present invention.

Figure 14 is an exploded view of another preferred embodiment of the present invention.

Figure 15 is a cross-sectional view of another preferred embodiment of the present invention.

In order to achieve the above objects and effects, the technical means and structures adopted by the present invention are described in detail with reference to the preferred embodiments of the present invention, and the features and functions are as follows, so as to be fully understood.

Please refer to the first and second figures, which are three-dimensional perspective views and exploded views of a preferred embodiment of the present invention. It can be clearly seen from the figures that the present invention includes:

a main housing part 1;

at least one electronic module 2 disposed in the main casing 1;

a hollow portion 11 formed on one side of the main casing member 1;

a hollow portion 12 formed under the other side of the main housing member 1;

a cover plate 13 disposed on one side of the main casing 1 and covering the upper hollow portion 11;

a cover member 3 disposed on the other side of the main housing member 1 and covering the lower hollow portion 12;

a magnetically conductive heat sink 4 disposed on the electronic module 2;

at least one first elastic portion 41 formed on the magnetically conductive heat-dissipating member 4 and passing through the upper cover member 13;

at least one second elastic portion 42 formed on the magnetic conductive heat dissipation member 4 and passing through the main casing member 1;

an optical fiber connector 21 disposed at one end of the electronic module 2 and exposed on one side of the main housing member 1;

a network connector 22 disposed on the other end of the electronic module 2 and exposed on one side of the main casing 1, and the network connector 22 has a metal shell 221;

a plurality of elastic snap portions 2211 formed on the side wall of the network connector 22;

a pivot member 5 pivoted on the main housing member 1;

A plurality of are formed on the rotating rod member 5 and correspondingly combined with the elastic buckle portion 2211 the snap portion 51;

a recessed insertion slot 2212 formed on the metal shell 221;

Two locking portions 2213 extending from the inner sidewall of the insertion slot 2212 and partially shielding the opening of the insertion slot 2212 .

Please also refer to the first to fifth figures, which are a perspective view of the preferred embodiment of the present invention and a top view of the plug connector. When the above components are used, it can be clearly seen from the figures, The electronic module 2 of the present invention is a circuit substrate. Both ends of the electronic module 2 are respectively provided with an optical fiber connector 21 (Small form-factor pluggable transceiver, SFP) and a network connector 22 (RJ45). The component 1 accommodates the electronic module 2 inside to form a standard optical fiber network conversion connector, but the main housing component 1 has the upper, The lower part also has an upper hollow part 11 and a lower hollow part 12 respectively. The upper hollow part 11 is screwed to fix an upper cover part 13, and the lower hollow part 12 is provided with a lower cover part 3. This kind of main casing Part 1 can reduce the difficulty of assembly and improve the assembly yield, and the left and right width of the lower cover plate part 3 except the side adjacent to the rotating rod part 5 is almost the same as that of the main casing part 1. In this embodiment, the lower cover The width of the outer edge of the plate member 3 corresponds to the distance between the inner side walls of the main housing member 1 as an example. The magnetically conductive heat sink 4 is a metal shrapnel with multiple bends. By being disposed on the electronic module 2 , the heat generated by the electronic module 2 is dissipated through the first elastic portion 41 and the second elastic portion 42 . , to reduce the internal temperature.

As shown in Figures 3 and 4, the rotating rod member 5 is of a u-shaped structure, and is pivoted on the main housing member 1 by using the u-shaped ends, and a plurality of left and right arms of the u-shaped are formed with a plurality of The perforated latching portion 51 is correspondingly combined with the elastic latching portion 2211 on the metal shell 221 of the network connector 22 to fix the closed state of the rotary rod member 5 , and the elastic latching portion 2211 is the metal shell 221 The above integrally formed elastic sheet structure, whereby the rotating rod member 5 is fixed to the main casing member 1 and the network connector 22 at the same time when the rod member 5 is in the closed state, compared with the traditional design that is only fixed to the main casing member 1 , with better structural strength.

In addition, as shown in FIG. 4 and FIG. 5 , in addition to the U-shaped socket 2212 for connecting the plug connector 7 on the metal shell 221 , the left and right side walls of the socket 2212 are formed to protrude inwardly. The design of the two snap-on limiting portions 2213, which partially shield the insertion slot 2212, can limit the indenter spring 71 of the plug connector 7 when the plug connector 7 is inserted into the network connector 22, so as to avoid the plug connector 7. Due to the abnormal plugging and unplugging action, it will fall off, resulting in poor contact or structural damage.

Please also refer to Figures 6 to 11, which are exploded views (1) to (2) of a hidden electronic module according to another preferred embodiment of the present invention, which can be clearly seen from the figures. It should be noted that this embodiment is similar to the above-mentioned embodiment, except that the rotating rod member 5a further includes a pivot member 53a pivoted on the main housing member 1a, and a contact member 53a formed on one side of the pivot member 53a. The surface 531a, an abdicating portion 532a extending on one side of the abutting surface 531a, a cam portion 52a formed on one side of the rotating rod member 5a and eccentrically arranged with the pivot member 53a of the rotating rod member 5a, A guide surface 521a formed on the cam portion 52a, a limit concave portion 522a formed on one end of the guide surface 521a, and has a plurality of swing shaft limit portions 14a formed on the main housing member 1a, at least A swing shaft 31a disposed on the lower cover member 3a and correspondingly combined with the swing shaft limiting portion 14a, a contact surface 32a formed at one end of the lower cover member 3a and collided by the cam portion 52a, a The latching convex portion 33a at the other end of the lower cover member 3a, and the abutting limiting surface 15a formed on the main housing member 1a and located on one side of the pivot member 53a are tied to the abutting surface. 531a to limit the swinging motion of the rotating rod member 5a, a guide rod member 34a formed on the lower cover member 3a and located on one side of the contact surface 32a, the guide rod member 34a is limited by the limiting concave portion 522a And the guided surface 521a guides its displacement path.

The pivot member 53a is a socket formed on both sides of the U-shaped top surface of the rotary rod member 5a, and the side of the pivot member 53a away from the rotary rod member 5a has a planar abutting surface 531a and a The arc-shaped receding portion 532a can selectively contact the abutting and limiting surface 15a of the main housing member 1a according to the different rotation angles of the rotating rod member 5a; the cam portion 52a is a ㄇ character formed on the rotating rod member 5a A quasi-sector-shaped bump in the center of the top surface of the mold, and the center of the seg-shaped bump and the socket shaft 17a of the main housing part 1a are eccentric, and the arc surface of the cam portion 52a is defined as the guide surface 521a. The concave portion 522a is a groove on the guide surface 521a adjacent to the ㄇ-shaped top surface of the rotating rod member 5a; In order to form a rod body similar to a hook in the center of the two sides of the lower cover member 3a, the locking protrusion 33a is a hook structure for fixing the butt connector combined with the optical fiber connector, and the guide rod 34a is also similar to a hook. Hook-like rod body.

As shown in the ninth figure, during the opening process of the rotating rod member 5a, it swings around the socket shaft 17a of the main housing member 1a as the axis, and the cam portion 52a is eccentrically arranged on the rotary rod member relative to the socket shaft 17a. 5a side, the opening and swinging action of the rotary lever member 5a will cause the cam portion 52a to press down the contact surface 32a of the lower cover member 3a, so that the lower cover member 3a takes the swing shaft 31a as the axis to perform the first step. The swing of a kind of lever principle (the force application point and the force resistance point are located on both sides of the fulcrum), which in turn drives the buckle protrusion 33a to retract into the main housing part 1a, so as to realize the unlocking action of the butt connector. Compared with the traditional horizontal The movable locking action is more convenient and labor-saving in operation.

As shown in Figures 9 and 10, since the rotating rod member 5a uses the cooperation of the cam portion 52a and the guide rod member 34a to perform double limiting during the rotation process, thereby avoiding the need for a spring, the rotating rod can also be The member 5a is stably fixed in the open state or the closed state. Specifically, when the rotating rod member 5a is in the closed state, the guide rod member 34a is fixed in the limiting recess 522a, so as to use the concave structure to restrict the floating of the guide rod member 34a, and at the same time, the closed angle of the auxiliary rotating rod member 5a will not be too large During the opening process of the rotary rod member 5a, the guide rod member 34a relatively slides along the guide surface 521a, and at the same time, the guide rod member 34a is supported upward by the guide surface 521a, and the guide rod member 34a is directly connected to the lower cover On the plate member 3a, it can prevent the lower cover plate member 3a from swinging too much due to the pressing action of the cam portion 52a. In addition, as shown in Fig. 11, during the opening process of the rotary rod member 5a, the pivoting member 53a is released. The position portion 532a allows the rotary rod member 5a to swing smoothly, but when the rotary rod member 5a completes the opening action, the abutting surface 531a of the pivoting member 53a will abut against the abutting limiting surface 15a of the main housing member 1a , while restricting the rotary rod member 5a to continue to rotate, so as to avoid the phenomenon of excessive swing of the rotary rod member 5a, thereby reducing the risk of damage due to improper operation.

Please also refer to the twelfth and thirteenth figures, which are perspective and side views of another preferred embodiment of the present invention. For the sake of similarities, only the electronic module 2b is provided with a first heat source 23b and a second heat source 24b, and a first heat absorbing portion 43b, a first heat absorbing portion 43b that interferes with the first heat source 23b is formed on one side of the magnetically conductive heat sink 4b. A bent portion 44b formed on the other side of the magnetically conductive heat sink 4b, and a second heat absorption portion 441b formed on one side of the bent portion 44b and abutting against the second heat source 24b. and has at least one first support portion 45b formed on the magnetic conductive heat dissipation member 4b and supporting the upper cover member 13b, at least one second support formed on the magnetic conductive heat dissipation member 4b and connected to the electronic module 2b The portion 46b and a clamping portion 47b extending on one side of each of the second elastic portions 42b are used for clamping the electronic module 2b.

Among them, the first heat source 23b and the second heat source 24b are the main electronic components on the electronic module 2b, so the first heat absorbing part 43b and the second heat absorbing part 441b extend directly from the magnetically conductive heat sink 4b, respectively. The heat source 23b and the second heat source 24b absorb heat, and the second heat source 24b is further formed by the extension of the bent portion 44b, so the heat dissipation effect can be enhanced, and the heat dissipation effect can be enhanced. The first elastic portion 41b and the second elastic portion 42b outside the housing part 1b can effectively dissipate the internal heat energy, so as to avoid the influence of the service life due to improper working temperature.

In addition, the magnetically conductive heat dissipation member 4b can use the first support portion 45b to support the upper cover member 13b upward, and use the second support portion 46b to fix the electronic module 2b below, so as to ensure that the internal space of the main housing member 1b will not be affected by External impact or improper plug-in action causes the deformation of the main housing part 1b to compress the inner space. Furthermore, there is a clamping portion 47b on one side of the second elastic portion 42b of the magnetically conductive heat dissipation member 4b, which can clamp and fix the electronic module 2b from both sides, so that the magnetically conductive heat dissipation member 4b can be further removed from the main casing. The interior of the component 1b strengthens the structural strength in all directions, and at the same time ensures that the first heat absorbing portion 43b and the second heat absorbing portion 441b are in close contact with the first heat source 23b and the second heat source 24b.

Please also refer to Figure 14 and Figure 15, which are an exploded view and a cross-sectional view of another preferred embodiment of the present invention. It can be clearly seen from the figures that this embodiment is similar to the above-mentioned embodiment. , only includes an inner recess 35c formed on the lower cover 3c and adjacent to the side of the electronic module 2c, at least one protrusion 36c formed on the outer side of the inner recess 35c, at least one formed on the main shell The positioning part 16c on the body part 1c, the heat insulating element 6c set outside the main housing part 1c, and at least one hook part 61c formed on the heat insulating element 6c and correspondingly combined with the positioning part 16c. The lower cover member 3c is designed to be concave inward and outwardly convex, and the central concave portion is defined as the inner concave portion 35c, and the surrounding protruding portions are defined as the raised portion 36c. When combined with the main housing part 1c, the inner recess 35c is used to provide a larger space inside the main housing part 1c, thereby reducing the risk of collision of the electronic components on the side of the electronic module 2c adjacent to the lower cover part 3c. In addition, the positioning part 16c is a groove on the main housing part 1c, and the hook part 61c is a structure in which the heat insulating element 6c is combined with the main housing part 1c, and the heat insulating element 6c is an anti-scalding rubber sleeve, so it is insulated from heat. The arrangement of the element 6c can not only be assembled easily by the corresponding combination of the positioning part 16c and the hook part 61c, but also can prevent the user from directly contacting the high temperature main housing part 1c.

However, the above descriptions are only the preferred embodiments of the present invention, which do not limit the patent scope of the present invention. Therefore, all simple modifications and equivalent structural changes made by using the contents of the description and drawings of the present invention should be the same. Included in the scope of the patent of the present invention, it is hereby stated.

To sum up, in order to achieve the effect and purpose of the optical fiber network conversion connector of the present invention, the present invention is an invention with excellent practicability. In order to meet the application requirements for an invention patent, it is proposed in accordance with the law. Application, I hope that the review committee will approve the invention as soon as possible to protect the hard work of the creator. If the review committee of the Jun Bureau has any doubts, please do not hesitate to send a letter for instructions, and the creator will do his best to cooperate. Germany will.

1: Main body parts

11: Upper hollow part

12: Lower hollow part

13: Upper cover plate

2: Electronic module

22: Network Connector

221: metal shell

2211: Elastic buckle part

2212: Plug slot

2213: Snap limit part

3: Lower cover plate

4: Magnetic heat sink

41: The first elastic part

42: Second elastic part

5: Rotary rod parts

51: Snap part

Claims (10)

An optical fiber network conversion connector, which mainly includes: a main housing member; at least one electronic module disposed in the main housing member; a hollow portion formed on one side of the main casing member; a hollow portion formed under the other side of the main casing member; a cover plate member disposed on one side of the main casing member and covering the upper hollow portion; a cover plate member disposed on the other side of the main casing member and covering the lower hollow portion; a magnetically conductive heat sink disposed on the electronic module; at least one first elastic portion formed on the magnetically conductive heat-dissipating member and passing through the upper cover member; at least one second elastic portion formed on the magnetically conductive heat-dissipating member and passing through the main casing member; an optical fiber connector disposed on one end of the electronic module and exposed on one side of the main casing; a network connector disposed on the other end of the electronic module and exposed on one side of the main casing; a plurality of elastic snap portions formed on the side wall of the network connector; a pivot member pivoted on the main housing member; A plurality of latching portions are formed on the rotating rod and correspondingly combined with the elastic latching portion. An optical fiber network conversion connector, which mainly includes: a main housing member; at least one electronic module disposed in the main housing member; a hollow portion formed on one side of the main casing member; a hollow portion formed under the other side of the main casing member; a cover plate member disposed on one side of the main casing member and covering the upper hollow portion; a cover plate member disposed on the other side of the main casing member and covering the lower hollow portion; a magnetically conductive heat sink disposed on the electronic module; at least one first elastic portion formed on the magnetically conductive heat-dissipating member and passing through the upper cover member; at least one second elastic portion formed on the magnetically conductive heat-dissipating member and passing through the main casing member; a pivot member pivoted on the main housing member; a cam portion formed on one side of the rotary rod member and eccentrically arranged with the axis of the rotary rod member; a plurality of pendulum shaft limiting parts formed on the main housing part; at least one swing shaft disposed on the lower cover member and correspondingly combined with the swing shaft limit portion; an abutting surface formed at one end of the lower cover member and resisted by the cam portion; A snap-locking protruding portion formed on the other end of the lower cover member. An optical fiber network conversion connector, which mainly includes: a main housing member; at least one electronic module disposed in the main housing member; a hollow portion formed on one side of the main casing member; a hollow portion formed under the other side of the main casing member; a cover plate member disposed on one side of the main casing member and covering the upper hollow portion; a cover plate member disposed on the other side of the main casing member and covering the lower hollow portion; a magnetically conductive heat sink disposed on the electronic module; at least one first elastic portion formed on the magnetically conductive heat-dissipating member and passing through the upper cover member; at least one second elastic portion formed on the magnetically conductive heat-dissipating member and passing through the main casing member; a pivot member pivoted on the main housing member; a first heat source disposed on the electronic module; a second heat source disposed on the electronic module; a first heat-absorbing portion formed on one side of the magnetically conductive heat-dissipating member and abutting against the first heat-generating source; a bent portion formed on one side of the magnetically conductive heat sink; A second heat absorbing portion extending on one side of the bending portion and abutting against the second heat source. An optical fiber network conversion connector, which mainly includes: a main housing member; at least one electronic module disposed in the main housing member; a hollow portion formed on one side of the main casing member; a hollow portion formed under the other side of the main casing member; a cover plate member disposed on one side of the main casing member and covering the upper hollow portion; a cover plate member disposed on the other side of the main casing member and covering the lower hollow portion; a magnetically conductive heat sink disposed on the electronic module; at least one first elastic portion formed on the magnetically conductive heat-dissipating member and passing through the upper cover member; at least one second elastic portion formed on the magnetically conductive heat-dissipating member and passing through the main casing member; a pivot member pivoted on the main housing member; at least one first support portion formed on the magnetically conductive heat-dissipating member and supporting the upper cover member; At least one second support portion formed on the magnetic conductive heat dissipation member and connected to the electronic module. An optical fiber network conversion connector, which mainly includes: a main housing member; at least one electronic module disposed in the main housing member; a hollow portion formed on one side of the main casing member; a hollow portion formed under the other side of the main casing member; a cover plate member disposed on one side of the main casing member and covering the upper hollow portion; a cover plate member disposed on the other side of the main casing member and covering the lower hollow portion; a magnetically conductive heat sink disposed on the electronic module; at least one first elastic portion formed on the magnetically conductive heat-dissipating member and passing through the upper cover member; a plurality of second elastic parts formed on the magnetically conductive heat-dissipating member and passing through the main casing member; a pivot member pivoted on the main housing member; A clamping portion extending on one side of each of the second elastic portions is used for clamping the electronic module. An optical fiber network conversion connector, which mainly includes: a main housing member; at least one electronic module disposed in the main housing member; a hollow portion formed on one side of the main casing member; a hollow portion formed under the other side of the main casing member; a cover plate member disposed on one side of the main casing member and covering the upper hollow portion; a cover plate member disposed on the other side of the main casing member and covering the lower hollow portion; a magnetically conductive heat sink disposed on the electronic module; at least one first elastic portion formed on the magnetically conductive heat-dissipating member and passing through the upper cover member; a plurality of second elastic parts formed on the magnetically conductive heat-dissipating member and passing through the main casing member; a network connector disposed on the other end of the electronic module and exposed on one side of the main casing, and the network connector has a metal shell; a pivot member pivoted on the main housing member; a socket formed in a recess on the metal shell; Two snap limiters extending from the inner sidewall of the insertion slot and partially covering the opening of the insertion slot department. An optical fiber network conversion connector, which mainly includes: a main housing member; at least one electronic module disposed in the main housing member; a hollow portion formed on one side of the main casing member; a hollow portion formed under the other side of the main casing member; a cover plate member disposed on one side of the main casing member and covering the upper hollow portion; a cover plate member disposed on the other side of the main casing member and covering the lower hollow portion; a magnetically conductive heat sink disposed on the electronic module; at least one first elastic portion formed on the magnetically conductive heat-dissipating member and passing through the upper cover member; at least one second elastic portion formed on the magnetically conductive heat-dissipating member and passing through the main casing member; a pivot member pivoted on the main housing member; a cam portion formed on one side of the rotary rod member and eccentrically arranged with the axis of the rotary rod member; a plurality of pendulum shaft limiting parts formed on the main housing part; at least one swing shaft disposed on the lower cover member and correspondingly combined with the swing shaft limit portion; an abutting surface formed at one end of the lower cover member and resisted by the cam portion; a buckle protrusion formed on the other end of the lower cover member; a guide rod formed on the lower cover and located on one side of the abutting surface; a guide surface formed on the cam portion for guiding the displacement path of the guide rod; A limiting concave portion formed at one end of the guide surface and limiting the position of the guide rod. An optical fiber network conversion connector, which mainly includes: a main housing member; at least one electronic module disposed in the main housing member; a hollow portion formed on one side of the main casing member; a hollow portion formed under the other side of the main casing member; a cover plate member disposed on one side of the main casing member and covering the upper hollow portion; a cover plate member disposed on the other side of the main casing member and covering the lower hollow portion; a magnetically conductive heat sink disposed on the electronic module; at least one first elastic portion formed on the magnetically conductive heat-dissipating member and passing through the upper cover member; at least one second elastic portion formed on the magnetically conductive heat-dissipating member and passing through the main casing member; a pivot member pivoted on the main housing member, the pivot member includes a pivot member pivoted on the main housing member, a bearing surface formed on one side of the pivot member, and an extension formed in the The abutment part on the side of the abutting surface; An abutting limiting surface formed on the main body shell and located on one side of the pivoting member restricts the swinging motion of the rotating rod when it abuts against the abutting surface. An optical fiber network conversion connector, which mainly includes: a main housing member; at least one electronic module disposed in the main housing member; a hollow portion formed on one side of the main casing member; a hollow portion formed under the other side of the main casing member; a cover plate member disposed on one side of the main casing member and covering the upper hollow portion; a cover plate member disposed on the other side of the main casing member and covering the lower hollow portion; a magnetically conductive heat sink disposed on the electronic module; at least one first elastic portion formed on the magnetically conductive heat-dissipating member and passing through the upper cover member; at least one second elastic portion formed on the magnetically conductive heat-dissipating member and passing through the main casing member; a pivot member pivoted on the main housing member; an inner recess formed on the lower cover member and adjacent to one side of the electronic module; At least one convex portion is formed on the outer side of the inner concave portion. An optical fiber network conversion connector, which mainly includes: a main housing member; at least one electronic module disposed in the main housing member; a hollow portion formed on one side of the main casing member; a hollow portion formed under the other side of the main casing member; a cover plate member disposed on one side of the main casing member and covering the upper hollow portion; a cover plate member disposed on the other side of the main casing member and covering the lower hollow portion; a magnetically conductive heat sink disposed on the electronic module; at least one first elastic portion formed on the magnetically conductive heat-dissipating member and passing through the upper cover member; at least one second elastic portion formed on the magnetically conductive heat-dissipating member and passing through the main casing member; a pivot member pivoted on the main housing member; at least one positioning portion formed on the main housing member; a set of thermal insulation elements provided outside the main housing element; At least one hook portion formed on the heat insulating element and correspondingly combined with the positioning portion.

Images