Lead-in and lead-out device

Abstract

The invention discloses a lead-in and lead-out device. The lead-in and lead-out device according to one aspect of the present invention may comprise: a bracket part detachably coupled to a power distribution frame in a first direction; the power part is detachably combined with the bracket part along the first direction and is used for providing power for leading in and leading out the circuit breaker accommodated in the power distribution frame; the bracket portion may include: a bracket body detachably coupled to the power distribution frame; the guide profile is combined with the bracket main body and extends in the first direction; the power portion may include a power bracket combined with the guide profile to be movable in the first direction.

Description

Technical Field

[0001] The present invention relates to an input / output device, and more specifically, to an input / output device that can be easily coupled and detached from a power distribution frame and coupled to a precise location. Background Technology

[0002] A distribution board is a device that, depending on the system or purpose, transmits electricity received from an external power supply to the load. The distribution board is energized by both the external power supply and the load.

[0003] To prevent potential electrical accidents between external power sources and loads, circuit breakers are typically installed in the distribution panel. These circuit breakers are configured to be energized separately from both the external power source and the load, thereby interrupting them in the event of an abnormal current. This prevents such electrical accidents.

[0004] When performing a current-blocking operation, it may be necessary to replace the circuit breaker's components. Alternatively, it is conceivable that the circuit breaker may need to be disconnected from the distribution panel for maintenance. Therefore, circuit breakers are typically detachably integrated into the distribution panel.

[0005] On the other hand, the size of switchboards and circuit breakers tends to be proportional to their rated capacity. That is, when a larger current flows, the size of the circuit breaker used to block it may also increase. Consequently, the size of the switchboard connected to the circuit breaker may also increase. Therefore, a large force is required to connect or disconnect the circuit breaker from the switchboard.

[0006] However, in the case of traditional switchboards and circuit breakers, the process of connecting and disconnecting circuit breakers is done manually. That is, the process is usually performed by operators. Therefore, the accuracy and efficiency of connecting and disconnecting circuit breakers may be reduced. Furthermore, it is difficult to rule out the possibility of safety accidents when connecting and disconnecting heavy circuit breakers.

[0007] For this purpose, a lead-in / lead-out device is used for introducing and leading in a circuit breaker to or from a distribution panel. The lead-in / lead-out device is configured to introduce or lead in a circuit breaker while being connected to and supported by the distribution panel. Therefore, the lead-in / lead-out device typically includes a first configuration connected to the distribution panel, a second configuration connected to the circuit breaker, and a third configuration for driving the second configuration.

[0008] However, as mentioned above, with the increase in the size and weight of circuit breakers, the size and weight of the input and output devices can also increase to provide the corresponding power. In this case, excessive force is required to integrate the input and output devices into the distribution panel, which may reduce the ease of operation.

[0009] Furthermore, as the weight of the lead-in / lead-out device increases, the difficulty of configuring it to the precise location for connection with the circuit breaker may also increase. In this case, there is a risk that the overall difficulty of the operation of leading and leading the circuit breaker into and out of the distribution panel will increase.

[0010] Korean Patent No. 10-1733705 discloses a distribution panel equipped with a safety device for the introduction and withdrawal of a vacuum circuit breaker. Specifically, the distribution panel disclosed has a locking groove on the bottom surface of a transport vehicle on which the vacuum circuit breaker is mounted, and the locking groove is constrained or released by a horizontal plate mounted on a support, thereby preventing the vacuum circuit breaker from moving arbitrarily.

[0011] However, the existing documents disclose distribution panels equipped with vacuum circuit breaker lead-in and lead-out safety devices that require manual lead-in and lead-out of the vacuum circuit breaker. That is, the existing documents do not propose a scheme for automatically executing the lead-in and lead-out process of the vacuum circuit breaker.

[0012] Korean Patent No. 10-1912449 discloses a high-voltage switchboard with a remote locking system. Specifically, it discloses a high-voltage switchboard with a remote locking system that allows circuit breakers to be remotely accessed or introduced into the switchboard.

[0013] However, the high-voltage switchboards disclosed in the existing literature that utilize remote locking systems require the installation of actuators for moving circuit breakers within the switchboard itself. This necessitates the inclusion of additional motors within the complex, multi-faceted high-voltage switchboard, and necessitates additional, complex wiring structures for their control.

[0014] Furthermore, the remote locking systems disclosed in the existing literature are configured to handle complex conditions for moving the circuit breaker. Therefore, precise input of control signals for introducing or withdrawing the circuit breaker is required, making it difficult to smoothly execute the circuit breaker introduction or withdrawal process.

[0015] Korean Patent No. 10-1733705 (May 8, 2017)

[0016] Korean Patent No. 10-1912449 (October 26, 2018) Summary of the Invention

[0017] The problem that the invention aims to solve

[0018] The present invention is intended to solve the problems described above. The object of the present invention is to provide an inlet / outlet device with a structure that is easy to set up and detach.

[0019] Another object of the present invention is to provide an inlet / outlet device having a structure that can be easily moved to a desired position.

[0020] Another object of the present invention is to provide an inlet / outlet device having a structure that can be configured in a precise position.

[0021] Another object of the present invention is to provide an inlet / outlet device having a structure that can be easily fixed to a configured position.

[0022] Another object of the present invention is to provide an input / output device having a structure that can easily perform the input / output process of a circuit breaker.

[0023] Another object of the present invention is to provide an inlet / outlet device having a structure that facilitates the maintenance of circuit breakers.

[0024] The subject matter of this invention is not limited to the subject matter mentioned above, and those skilled in the art can clearly understand other subject matters not mentioned from the following description.

[0025] Technical solutions to the problem

[0026] According to one aspect of the present invention, an input / output device is provided, comprising: a bracket portion detachably coupled to a power distribution frame along a first direction; and a power unit detachably coupled to the bracket portion along the first direction, providing power for inputting and outputting a circuit breaker housed in the power distribution frame; the bracket portion may include: a bracket body detachably coupled to the power distribution frame; and a guide profile coupled to the bracket body and extending along the first direction; the power unit may include a power bracket coupled to the guide profile to be movable along the first direction.

[0027] At this point, an inlet / outlet device may be provided, wherein the guide profile includes a profile body extending along the first direction; the power bracket includes: a support bracket surrounding the profile body from one side; and a connecting bracket surrounding the profile body from the other side.

[0028] Alternatively, an inlet / outlet device may be provided, wherein the connecting bracket includes: a first bracket plate facing the support bracket across the profile body and surrounding the profile body; and a pair of second bracket plates facing each other across the profile body and respectively connecting with the first bracket plate and the support bracket.

[0029] At this point, an introduction and exit device can be provided, wherein the connecting bracket includes a bracket receiving space defined by a first bracket plate, a pair of second bracket plates and the support bracket, and is open on each side along the first direction to allow the guide profile to be withdrawably received.

[0030] Alternatively, an inlet / outlet device may be provided, wherein the guide profile includes a guide groove that is recessed into the outer periphery of the profile body and extends along the first direction; the connecting bracket includes a guide rail that engages with the surface of the second bracket plate facing the surface of the profile body, extends along the first direction, and is movably inserted into the guide groove.

[0031] At this point, an inlet / outlet device can be provided, wherein the guide groove is formed such that the height of one side toward the second bracket plate is less than the height of the other side that is further away from the second bracket plate than said side.

[0032] Alternatively, an inlet / outlet device can be provided, wherein the guide profile includes a connecting groove formed recessed on the outer periphery of the profile body and extending along the first direction; the power bracket includes a power fixing member movably connected through the first bracket plate and extendably accommodated in the connecting groove; if the power fixing member is inserted into the connecting groove at a predetermined distance, the power fixing member applies pressure to the outer periphery of the profile body surrounding the connecting groove to restrict the movement of the power unit.

[0033] At this point, an inlet / outlet device can be provided, wherein the power bracket includes a fixing member engagement hole formed through the interior of the first bracket plate.

[0034] Alternatively, an inlet / outlet device may be provided, wherein the engagement grooves are a plurality of each other and are spaced apart from each other along a second direction orthogonal to the first direction; the power fixing members are a plurality of each other and are spaced apart from each other along the first direction or the second direction, and are respectively retractably accommodated in the plurality of engagement grooves.

[0035] At this time, an inlet / outlet device can be provided, wherein the guide profile includes a fixing hole, which is recessed into the outer periphery of the profile body at a predetermined distance from the end of the profile body; the power bracket includes a power stop, which is movably coupled to the first bracket plate and extendably accommodated in the fixing hole; if the power unit moves a predetermined distance from the end of the profile body toward the power distribution frame, the power stop is inserted into the fixing hole.

[0036] Alternatively, an inlet / outlet device may be provided, wherein the power stop is configured to apply pressure toward the profile body to move along the first direction while in contact with the outer periphery of the profile body.

[0037] At this time, an input / output device can be provided, comprising a handle portion detachably coupled to the power distribution frame along the first direction; a bracket portion detachably coupled to both the power distribution frame and the handle portion; and a power portion detachably coupled to both the bracket portion and the handle portion.

[0038] Alternatively, an inlet / outlet device may be provided, wherein the handle portion includes: a first shaft member, which is coupled to the bracket portion and the power portion respectively to be rotatable; and a second shaft member, which is coupled to the first shaft member and is rotatably coupled to the power distribution frame.

[0039] At this time, an inlet / outlet device can be provided, wherein the power unit includes: a motor component that provides the power; and a gearbox that is coupled to the motor component and the first shaft component respectively to transmit the power; the gearbox includes: a gear shaft that is coupled to the first shaft component; and a gear identification surface that is formed on the outer periphery of the gear shaft and contacts the inner periphery of the first shaft component.

[0040] Alternatively, an inlet / outlet device may be provided, wherein the first shaft member includes: a gear shaft engagement portion recessed at one end of the first shaft member in the extending direction to accommodate the gear shaft; and a shaft identification surface surrounding the gear shaft engagement portion and contacting the gear identification surface.

[0041] Invention Effects

[0042] According to the above configuration, the introduction and extraction device of the present invention can be easily set up and separated.

[0043] The lead-in and lead-out device is detachably integrated with the distribution frame. The lead-in and lead-out device is detachably integrated with the circuit breaker housed in the distribution frame, allowing the circuit breaker to be brought in or taken out.

[0044] The lead-in / lead-out device includes a power unit that provides power for leading in and leading out the circuit breaker, and a handle unit that is connected to the power unit and the circuit breaker and transmits the generated power. Additionally, the lead-in / lead-out device includes a bracket unit that supports the power unit and is connected to the distribution frame.

[0045] The power unit, handle unit, and bracket unit can be detachably combined with each other. The power unit, handle unit, and bracket unit can also be independently combined with the power distribution frame.

[0046] As an example, the handle can be initially connected to the distribution frame and the circuit breaker housed inside the distribution frame. The bracket can be connected to both the distribution frame and the handle, and the power unit can be connected to both the bracket and the handle. That is, the power unit, circuit breaker, and handle constituting the input / output device can move independently and connect to the distribution frame and other components.

[0047] Therefore, the amount of force required to connect or disconnect the lead-in device from the distribution frame can be reduced. Consequently, the installation and disconnection of the lead-in device can be made easier.

[0048] Furthermore, according to the aforementioned configuration, the introduction and extraction device of this embodiment of the invention can be easily moved to the desired position.

[0049] As described above, the various components of the lead-in / lead-out device can be separated and individually integrated with the distribution frame or circuit breaker. Therefore, the lead-in / lead-out device can be easily integrated with the distribution frame.

[0050] In one embodiment, the bracket portion may be assembled with the power distribution frame before the power unit. The bracket portion includes a guide profile extending in one direction. A guide groove extending in said one direction is formed in the outer periphery of the guide profile.

[0051] The power unit includes a motor component that provides power and a power bracket that supports it. The power bracket includes a bracket housing space that serves as a space for accommodating guide profiles. The bracket housing space is defined by a support bracket and a connecting bracket.

[0052] The bracket includes a first bracket plate that surrounds the guide profile from one side and a second bracket plate that is continuous with the first bracket plate and surrounds the guide profile from the other side. The second bracket plate is provided with a guide rail that is slidably accommodated in a guide groove.

[0053] If the guide profile is accommodated in the bracket accommodating space, the guide rail is also accommodated in the guide groove. Due to the combination of the guide rail and the guide groove, the power unit can move in one direction and prevent swaying in the other direction.

[0054] Therefore, the power unit, which is connected to the bracket, can be easily moved to a preset position.

[0055] Furthermore, according to the aforementioned configuration, the lead-in and lead-out device of this embodiment of the invention can be configured at a precise location.

[0056] A fixing hole is formed on one side of the profile body. The fixing hole is recessed on said side of the profile body. At this time, the fixing hole can be positioned to correspond to the distance that the power unit moves toward the power distribution frame in said direction.

[0057] The power bracket includes a power stop. The power stop is extendably inserted into the fixing hole at a position overlapping with it. In one embodiment, the power stop extends through and engages in a stop engagement hole formed in the first bracket plate.

[0058] In one embodiment, the power stop may have an elastic member such as a spring. The elastic member applies an elastic force to the power stop in the direction toward said side of the profile body. When the power unit moves, the power stop can remain in contact with said side of the profile body.

[0059] If the power stop is arranged overlapping the fixing hole, the power stop is inserted into the fixing hole under the action of the elastic force. This restricts further movement of the power unit in the aforementioned direction.

[0060] Therefore, if the power unit moves to the preset position, the power stop is accommodated in the fixing hole, thereby limiting further movement. Thus, the power unit can be positioned accurately.

[0061] Furthermore, according to the aforementioned configuration, the lead-in / lead-out device of this embodiment can be easily fixed to the configured position.

[0062] A mating groove is formed on one side of the profile body. The mating groove extends along the aforementioned direction and is recessed on the aforementioned side of the profile body.

[0063] The power bracket includes a power retaining member that can be extended and inserted into the mating groove. If the aforementioned power stop is received in the fixing hole, the power retaining member can be operated and inserted into the mating groove. If the power retaining member moves a predetermined length, one side of the profile body surrounding the mating groove is pressed by the power retaining member.

[0064] Therefore, the power unit that has moved to the preset position can be stably held in the corresponding position by the power fixing member.

[0065] Furthermore, according to the above configuration, the lead-in / lead-out device of the present invention can easily perform the lead-in / lead-out process of the circuit breaker.

[0066] As mentioned above, the power for bringing in and out the circuit breaker can be provided by a motor component. That is, no human power is required to move the circuit breaker.

[0067] Therefore, not only can the installation and disconnection of the lead-in and lead-out devices be easily performed, but the lead-in and lead-out processes of the circuit breaker can also be easily performed.

[0068] Another object of the present invention is to provide an inlet / outlet device having a structure that facilitates the maintenance of circuit breakers.

[0069] As described above, the bracket, power unit, and handle unit constituting the inlet / outlet device can be detachably combined. In the event of maintenance of the inlet / outlet device, only the corresponding components can be detached to perform the required work.

[0070] Therefore, maintenance of the lead-in and lead-out devices can be easily performed, and the required costs can be saved.

[0071] The effects of the present invention are not limited to those described above, but should be understood to include all effects that can be derived from the invention's composition as described in the detailed description or claims. Attached Figure Description

[0072] Figure 1 This is a perspective view showing the lead-in / lead-out device and the power distribution frame combined with the lead-in / lead-out device according to an embodiment of the present invention.

[0073] Figure 2 It is shown Figure 1 An exploded three-dimensional view showing the separation of the lead-in device and the power distribution frame.

[0074] Figure 3 It shows the setting in Figure 1 A three-dimensional view of the power distribution board of the power distribution frame.

[0075] Figure 4 It is shown Figure 3 The main view and enlarged partial view of the distribution board.

[0076] Figure 5 It is shown Figure 1 A three-dimensional view of the introduction and extraction device.

[0077] Figure 6 It is shown Figure 5 An exploded perspective view of the introduction and extraction device.

[0078] Figure 7 It shows the setting in Figure 5 A perspective view of the bracket portion of the introduction and extraction device.

[0079] Figure 8 It is shown Figure 7 Front view of the bracket section.

[0080] Figure 9 It is shown Figure 7 Rear view of the bracket section.

[0081] Figure 10 It is shown Figure 7 A top view of the bracket section.

[0082] Figure 11 It is shown Figure 7 Side view of the bracket section.

[0083] Figure 12 and Figure 13 It shows the setting in Figure 5 A perspective view of the power unit of the introduction and extraction device.

[0084] Figure 14 It is shown Figure 12 A top view of the power unit.

[0085] Figure 15 It is shown Figure 12 The front view of the power unit.

[0086] Figure 16 It is shown Figure 12 An exploded perspective view of the power unit.

[0087] Figure 17 It shows the setting in Figure 5 A perspective view of the handle portion of the introduction and extraction device.

[0088] Figure 18 It is shown Figure 5 A three-dimensional view of the AA cross-section of the introduction and extraction device.

[0089] Figures 19 to 22 It is shown Figure 1 The diagram shows the usage status of the process of integrating the lead-out device into the power distribution frame. Detailed Implementation

[0090] Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings, so that those skilled in the art can readily implement the invention. The present invention can be implemented in various different forms and is not limited to the embodiments described herein. For clarity of illustration, parts unrelated to the description have been omitted from the drawings, and the same reference numerals are used throughout the specification for the same or similar constituent elements.

[0091] The words and terms used in this specification and claims should be interpreted as meanings and concepts consistent with the technical idea of ​​the invention, in order to best describe the invention, based on the principle that the inventors can define terms and concepts, and should not be interpreted as their usual meanings or dictionary meanings.

[0092] Therefore, the embodiments and configurations described in this specification and the accompanying drawings are equivalent to a preferred embodiment of the present invention and cannot replace all the technical ideas of the present invention. Therefore, when applying for the present invention, there may be equivalents and modifications that can replace this configuration.

[0093] In the following description, some of the constituent elements may be omitted in order to clarify the features of the present invention.

[0094] The term "connection" as used in the following description means that one or more components can be connected to each other in a manner that allows fluid flow. In one embodiment, a connection may be formed by components such as pipes, tubes, or piping. In the following description, "connection" can also mean "fluidly connected" to one or more components.

[0095] As used in the following description, the term "energized" means that one or more components are connected in a manner that allows them to transmit current or electrical signals to each other. In one embodiment, energization can be achieved in a wired manner based on conductor components or in a wireless manner based on Bluetooth, Wi-Fi, RFID, etc. In one embodiment, energization can include the meaning of "communication".

[0096] As used in the following description, the term "fluid" refers to a substance that flows under external force and whose shape or volume can change in any form. In one embodiment, the fluid may be a liquid such as water or a gas such as air.

[0097] The terms "upper side," "lower side," "left side," "right side," "front side," and "rear side" used in the following description can be found in [reference needed]. Figure 1 , Figure 3 , Figure 5 , Figure 7 , Figures 11 to 12 as well as Figure 18 We can understand this using the coordinate system shown in the diagram.

[0098] Reference Figures 1 to 2 The diagram illustrates the combined and separated states of the lead-in / lead-out device 1 and the power distribution frame 2 according to an embodiment of the present invention. The lead-in / lead-out device 1 can be combined with one side of the power distribution frame 2, i.e., the front side in the illustrated embodiment.

[0099] The lead-in / lead-out device 1 can extend through one side of the power distribution frame 2 and be combined with a circuit breaker (not shown) housed inside the power distribution frame 2. The lead-in / lead-out device 1 can be used to bring the circuit breaker (not shown) into or out of the power distribution frame 2 while it is combined with and supported by the power distribution frame 2.

[0100] The lead-in / lead-out device 1 can be detachably connected to the power distribution frame 2. Additionally, the lead-in / lead-out device 1 can be detachably connected to a circuit breaker (not shown) housed inside the power distribution frame 2. In the illustrated embodiment, the lead-in / lead-out device 1 moves rearward to connect with the power distribution frame 2 and moves forward to separate from the power distribution frame 2.

[0101] In particular, the various components of the lead-in / lead-out device 1 in this embodiment of the invention can be at least partially detachably combined with each other. Due to the configuration described above, the various components of the lead-in / lead-out device 1 can be sequentially combined with or separated from the power distribution frame 2.

[0102] The following will describe the power distribution frame 2 first, and then describe the incoming and outgoing device 1.

[0103] The distribution frame 2 houses a circuit breaker (not shown). The circuit breaker (not shown) housed in the distribution frame 2 can be energizedly connected to an external power source (not shown) or load (not shown). The circuit breaker (not shown) is housed in the distribution frame 2 and is not exposed to the outside. This prevents safety accidents caused by high-voltage current energized to the circuit breaker (not shown).

[0104] The distribution frame 2 can be any shape capable of accommodating a circuit breaker (not shown). In the illustrated embodiment, the distribution frame 2 is a three-dimensional shape having a length in the front-to-back direction, a width in the left-to-right direction, and a height in the top-to-bottom direction.

[0105] The power distribution frame 2 is detachably connected to the inlet / outlet device 1. As shown in the figure, the power distribution frame 2 is formed to have a larger volume than the inlet / outlet device 1, so the connection and separation can be performed as the inlet / outlet device 1 moves.

[0106] exist Figures 2 to 4 In the embodiment shown, the power distribution frame 2 includes a power distribution frame body 2a, a power distribution frame space 2b, a power distribution board 2c, an inlet / outlet device joint 2d, an inlet / outlet device cover member 2e, and a power distribution frame handle 2f.

[0107] The main body 2a of the power distribution frame forms part of the outer shape of the power distribution frame 2. The main body 2a of the power distribution frame at least partially surrounds the power distribution frame space 2b formed therein. In the illustrated embodiment, the main body 2a of the power distribution frame forms the rear, left, right, upper, and lower sides of the power distribution frame 2. The main body 2a of the power distribution frame surrounds the power distribution frame space 2b from the rear, left, right, upper, and lower sides.

[0108] The main body 2a of the power distribution frame is combined with the power distribution board 2c. In the illustrated embodiment, the main body 2a of the power distribution frame and the power distribution board 2c are detachably combined. Alternatively, the power distribution board 2c can be rotatably combined with the main body 2a of the power distribution frame.

[0109] The distribution frame space 2b is a space for accommodating circuit breakers (not shown). The distribution frame space 2b is defined by the distribution frame body 2a and the distribution panel 2c. As described above, the rear, left, right, upper, and lower sides of the distribution frame space 2b are surrounded by the distribution frame body 2a. The front side of the distribution frame space 2b is surrounded by the distribution panel 2c.

[0110] The power distribution frame space 2b can have a shape corresponding to the shape of the power distribution frame body 2a and the power distribution board 2c. In the illustrated embodiment, the power distribution frame space 2b is formed as a polygonal prism shape with a quadrilateral cross-section and a height in the vertical direction.

[0111] The front side of the power distribution frame space 2b is surrounded by the power distribution board 2c.

[0112] The distribution board 2c constitutes the remainder of the external shape of the power distribution frame 2. The distribution board 2c is coupled to the main body 2a of the power distribution frame, surrounding the power distribution frame space 2b. In the illustrated embodiment, the distribution board 2c is coupled to the front side of the main body 2a of the power distribution frame. In one embodiment, the distribution board 2c can be detachably coupled to the power distribution frame 2 or rotatably coupled to it.

[0113] The distribution board 2c is combined with the input / output device 1. The distribution board 2c and the input / output device 1 can be detachably combined with each other.

[0114] The distribution board 2c can be part of the overall shape of the distribution frame 2 and can be detachably combined with the lead-in / lead-out device 1. In the illustrated embodiment, the lead-in / lead-out device 1 is formed as a quadrilateral plate with a width in the left-right direction, a height in the up-down direction, and a thickness in the front-back direction.

[0115] Although not marked, the distribution board 2c may have a plurality of through holes. These through holes can serve as channels to connect the distribution frame space 2b to the outside and to dissipate heat generated in the circuit breaker (not shown).

[0116] The distribution board 2c is provided with an inlet / outlet device joint 2d, an inlet / outlet device cover component 2e, and a distribution frame handle 2f.

[0117] The lead-in / lead-out device coupling portion 2d is the part that engages with the lead-in / lead-out device 1. The lead-in / lead-out device coupling portion 2d is offset to one side in the height direction of the distribution board 2c, that is, the lower side in the illustrated embodiment. The position of the lead-in / lead-out device coupling portion 2d can be changed according to the engagement position of the circuit breaker (not shown) and the lead-in / lead-out device 1.

[0118] The lead-in / lead-out device coupling portion 2d may include an opening formed through the distribution plate 2c. This opening may be formed in accordance with the shape of the motor component coupling hole 312 and keyway 313 provided in the lead-in / lead-out device 1. In the illustrated embodiment, the opening is formed with a circular cross-section, and outwardly protruding additional grooves are formed on the upper and lower sides, respectively. The shaft member 700 is rotatably and extendably coupled through the opening.

[0119] The lead-in / lead-out device cover component 2e is rotatably coupled to the lead-in / lead-out device coupling portion 2d.

[0120] The inlet / outlet device cover member 2e is open or closed at the opening formed in the inlet / outlet device coupling portion 2d. The inlet / outlet device cover member 2e is rotatably coupled to the inlet / outlet device coupling portion 2d. The inlet / outlet device cover member 2e can be rotatably disposed with one side centered on the radial direction of the inlet / outlet device coupling portion 2d.

[0121] The distribution frame handle 2f is offset to one side of the width direction of the distribution board 2c, i.e., the right side in the illustrated embodiment. The distribution frame handle 2f is the part gripped to move the distribution board 2c, thus opening or closing the distribution frame space 2b. The operator grips the distribution frame handle 2f and applies external force, thereby moving the distribution board 2c.

[0122] Reference Figures 5 to 18 The diagram illustrates an inlet / outlet device 1 according to an embodiment of the present invention. The inlet / outlet device 1 is detachably connected to the distribution frame 2. Alternatively, the inlet / outlet device 1 can also be detachably connected to a circuit breaker (not shown) housed in or to be housed in the distribution frame 2. The inlet / outlet device 1 allows the circuit breaker (not shown) to move in the direction of being housed in or led out from the distribution frame 2.

[0123] The lead-out device 1 can be electrically connected to an external power source (not shown) and a control unit (not shown). The power and control signals used to operate the power unit 20 (described later) can be transmitted from the external power source (not shown) and the control unit (not shown).

[0124] The lead-in / lead-out device 1 is combined with the power distribution frame 2. Specifically, a portion of the lead-in / lead-out device 1 is combined with the power distribution board 2c, and other components of the lead-in / lead-out device 1 are combined with the lead-in / lead-out device connection portion 2d.

[0125] In the illustrated embodiment, the lead-in / lead-out device 1 includes a bracket portion 10, a power unit 20, and a handle portion 30. At this time, the handle portion 30, the bracket portion 10, and the power unit 20 are respectively provided from the power distribution frame 2. That is, the power unit 20, the bracket portion 10, and the handle portion 30 are arranged in a direction from the front side to the rear side.

[0126] like Figure 6 As shown, the bracket portion 10, power unit 20, and handle portion 30 of the lead-in / lead-out device 1 in this embodiment of the invention can be detachably coupled to each other. Therefore, the bracket portion 10, power unit 20, and handle portion 30 can be coupled to the power distribution frame 2 in the detached state.

[0127] Therefore, compared to the case where the lead-in / lead-out device 1 is integrally formed and combined with the power distribution frame 2, the amount of force required for the connection is reduced, thereby improving workability. Thus, not only can the lead-in / lead-out device 1 be combined with the power distribution frame 2 with less force, but the connection positions of the lead-in / lead-out device 1 and the power distribution frame 2 can also be accurately matched.

[0128] Furthermore, as described later, the lead-in / lead-out device 1 of this embodiment of the invention can accurately and easily combine the bracket portion 10, the power portion 20, and the handle portion 30, which are detachably configured from each other. Therefore, the assembly process of the lead-in / lead-out device 1 can be easily performed, and the combination of each component can be firmly formed.

[0129] Reference Figures 7 to 11 The image shows a bracket portion 10 provided in the lead-in / lead-out device 1 according to an embodiment of the present invention.

[0130] The bracket portion 10 constitutes the main body of the inlet / outlet device 1. The bracket portion 10 is formed of a material and structure with high rigidity and supports the other components of the inlet / outlet device 1.

[0131] The bracket portion 10 can be directly coupled to the distribution board 2c. The bracket portion 10 is coupled to the power unit 20. The bracket portion 10 is located between the power unit 20 and the distribution frame 2, and is coupled to them respectively. The bracket portion 10 is coupled to the shaft member 700. The bracket portion 10 supports the shaft member 700 so that it can rotate.

[0132] In the illustrated embodiment, the bracket portion 10 includes a bracket body 100, a connecting member 200, and a power unit support portion 300.

[0133] The bracket body 100 forms part of the outer shape of the bracket section 10. The bracket body 100 is formed of a material and structure with high rigidity and supports other components of the bracket section 10 or other components of the lead-out device 1.

[0134] The bracket body 100 can be formed of a high-rigidity and lightweight material. This is to prevent the total weight of the bracket body 100 and the inlet / outlet device 1 from increasing excessively, and to stably support the various components of the inlet / outlet device 1.

[0135] The bracket body 100 may include any configuration for supporting the bracket portion 10. In the illustrated embodiment, the bracket body 100 includes a first plate 110, a second plate 120, a limiting plate 130, and a bracket handle 140.

[0136] The first plate 110 forms part of the bracket body 100. The first plate 110 forms part of the width direction of the bracket body 100, that is, the left-right direction in the illustrated embodiment. The first plate 110 extends along the height direction of the bracket body 100, that is, the up-down direction in the illustrated embodiment.

[0137] The first plate 110 is joined to the second plate 120. The second plate 120 is joined to one side of the first plate 110 in the height direction, that is, the upper side in the illustrated embodiment.

[0138] The first plate 110 is combined with the limiting plate 130. The limiting plate 130 is combined with one side of the first plate 110 in the length direction, that is, the front side in the illustrated embodiment. At this time, the first limiting plate 131 is located on one side of the first plate 110 in the height direction, that is, the upper side in the illustrated embodiment. The second limiting plate 132 is located on the other side of the first plate 110 in the height direction, that is, the lower side in the illustrated embodiment.

[0139] The first plate 110 is connected to and supports the connecting member 200. The connecting member 200 is connected to the outer side of the first plate 110 in the width direction.

[0140] The first plate 110 can have any shape that can combine with and support the second plate 120, the limiting plate 130, and the connecting member 200. In the illustrated embodiment, the first plate 110 is a quadrilateral plate having a length in the front-back direction, a width in the left-right direction, and a height in the top-bottom direction.

[0141] There may be a plurality of first plates 110. The plurality of first plates 110 are spaced apart from each other along their width direction and can be coupled to the second plate 120, the limiting plate 130, and the connecting member 200, respectively. In the illustrated embodiment, there is a pair of first plates 110, spaced apart in the left-right direction. The space formed by the gap between the pair of first plates 110 partially accommodates the power unit support 300.

[0142] The second plate 120 constitutes the other part of the bracket body 100. The second plate 120 forms one side of the bracket body 100 in the height direction, that is, the upper side in the illustrated embodiment. The second plate 120 extends along the width direction of the bracket body 100, that is, the left-right direction in the illustrated embodiment.

[0143] The second plate 120 is coupled to the first plate 110. The lower sides of each end of the second plate 120 in the extension direction, namely the left end and the right end in the illustrated embodiment, are coupled to the upper ends of the pair of first plates 110 respectively.

[0144] The second plate 120 engages with and supports the bracket handle 140. One side of the second plate 120 in the height direction, i.e., the upper side in the illustrated embodiment, engages with the bracket handle 140.

[0145] Therefore, it can be understood that the second plate 120 is located between the first plate 110 and the bracket handle 140 along its height direction.

[0146] The second plate 120 can have any shape that can be combined with and support the first plate 110 and the bracket handle 140 respectively. In the illustrated embodiment, the second plate 120 is formed as a quadrilateral plate having a length in the left-right direction, a width in the front-back direction, and a height in the up-down direction.

[0147] The limiting plate 130 restricts the distance at which the power unit 20 inserts into the bracket portion 10. The limiting plate 130 contacts the power unit 20 inserted into the bracket portion 10 at a predetermined distance or more, thereby restricting further movement of the power unit 20. Due to the limiting plate 130, the power unit 20 moves to a predetermined distance, thereby achieving a stable connection with the bracket portion 10.

[0148] The limiting plate 130 is coupled to the first plate 110. The limiting plate 130 is coupled to and supported by a pair of first plates 110 respectively. That is, the limiting plate 130 is coupled to a pair of first plates 110 at a plurality of positions.

[0149] The limiting plate 130 is combined with the power unit support 300. Specifically, the limiting plate 130 is combined with the motor component joint 310 and the guide profile 320, and supports the joint 310 and the guide profile 320.

[0150] The limiting plate 130 may limit the movement distance of the power unit 20 and can be combined with the first plate 110 and the power unit support 300 in any shape to support them. In the illustrated embodiment, the limiting plate 130 includes a first portion extending to have a height in the vertical direction and combined with the first plate 110, and a second portion having a width in the front-rear direction and combined with the motor component connection portion 310.

[0151] At this point, the first and second portions can form a defined angle and be continuous. In the illustrated embodiment, the first and second portions form a right angle and extend to form the shape of a U-shaped steel (angle) member.

[0152] There may be a plurality of limiting plates 130. The plurality of limiting plates 130 may be arranged spaced apart along the height direction of the bracket body 100 and respectively connected to the first plate 110 and the power unit support 300.

[0153] In the illustrated embodiment, the limiting plate 130 includes a first limiting plate 131 and a second limiting plate 132, which are a pair.

[0154] The first limiting plate 131 is coupled to one side of the first plate 110 in the height direction, i.e., the upper side in the illustrated embodiment. The first limiting plate 131 is coupled to the upper side of the guide profile 320 and supports the guide profile 320. Each end of the first limiting plate 131 in the length direction is coupled to the upper front side of the pair of first plates 110.

[0155] The second limiting plate 132 is coupled to the other side of the first plate 110 in the height direction, i.e., the lower side in the illustrated embodiment. The second limiting plate 132 is coupled to the lower side of the guide profile 320 and supports the guide profile 320. In addition, the second limiting plate 132 is coupled to and supports the motor component joint 310. Each end of the second limiting plate 132 in the length direction is coupled to the lower front side of the pair of first plates 110.

[0156] The bracket handle 140 is the part of the bracket body 100 that is held by the operator. The bracket handle 140 is connected to the second plate 120. The bracket handle 140 is connected to the upper side of the second plate 120 and is positioned opposite to the first plate 110 across the second plate 120.

[0157] The connecting member 200 is the part that connects the bracket portion 10 to the distribution board 2c of the distribution frame 2. The connecting member 200 is configured to adjust the connection force with the distribution board 2c. The connecting member 200 can have any shape that allows it to be detachably connected to the distribution board 2c. In one embodiment, the connecting member 200 can be connected to the distribution board 2c under the action of magnetic force.

[0158] The connecting member 200 is connected to the bracket body 100. The connecting member 200 is connected to and supported on the outer side of the first plate 110 in the width direction.

[0159] There may be a plurality of connecting members 200. The plurality of connecting members 200 may be connected to and supported by a plurality of first plates 110 respectively. In the illustrated embodiment, there is a pair of connecting members 200, which are connected to and supported by the outer sides of a pair of first plates 110 in the width direction.

[0160] In the illustrated embodiment, the connecting member 200 includes a magnet member 210 and a handle member 220.

[0161] The magnetic component 210 is the part that connects the connecting component 200 to the distribution board 2c. The magnetic component 210 can connect to the distribution board 2c under the action of magnetic force. In the above embodiment, the magnetic component 210 can be a permanent magnet or an electromagnet, etc.

[0162] The magnet component 210 is coupled to the first plate 110. The magnet component 210 is coupled to the outer side of the first plate 110 in the width direction. In the illustrated embodiment, the magnet component 210 located on the left side is coupled to and supported by the left side of the first plate 110 on the left side, and the magnet component 210 located on the right side is coupled to and supported by the right side of the first plate 110 on the right side.

[0163] The magnet component 210 is coupled to the handle component 220. When the handle component 220 is operated, the strength of the magnetic force applied by the magnet component 210 to the distribution board 2c can be adjusted. In another embodiment, when the handle component 220 is operated, the degree of pressure between the magnet component 210 and the distribution board 2c can be adjusted. That is, the bonding force between the magnet component 210 and the distribution board 2c can be adjusted by the handle component 220.

[0164] The magnet component 210 can be of any shape that can be detachably coupled to the distribution board 2c. In the illustrated embodiment, the magnet component 210 is a polygonal prism shape with a quadrilateral cross-section and a height in the vertical direction.

[0165] The handle component 220 adjusts the bonding force between the magnet component 210 and the power distribution board 2c. The operator can use the handle component 220 to engage or disengage the magnet component 210 and the power distribution board 2c.

[0166] The handle component 220 is combined with the magnet component 210. The handle component 220 is located on the side of the magnet component 210 opposite to the power distribution frame 2, i.e., the front side in the illustrated embodiment.

[0167] The handle member 220 can have any shape capable of adjusting the bonding force between the magnet member 210 and the power distribution plate 2c. In the illustrated embodiment, the handle member 220 can be configured to adjust the bonding force between the magnet member 210 and the power distribution plate 2c by rotational operation.

[0168] The power unit support 300 is the part where the bracket 10 is combined with the power unit 20 and the handle 30. The power unit support 300 supports the power unit 20 so that it can move and supports the handle 30 so that it can rotate.

[0169] The power unit support 300 is combined with the bracket body 100. The power unit support 300 is supported by the bracket body 100.

[0170] The power unit support 300 is combined with the power unit 20. Specifically, the power unit support 300 supports the power bracket 600 provided on the power unit 20 so that it can move.

[0171] The power unit support 300 is combined with the handle 30. Specifically, the power unit support 300 supports the shaft member 700 provided on the handle 30 so that it can move and rotate.

[0172] In the illustrated embodiment, the power unit support 300 includes a motor component joint 310 and a guide profile 320.

[0173] The motor component joint 310 is defined as a part where the power unit support 300 is joined to the power unit 20. The motor component joint 310 supports the gear shaft 510 of the power unit 20 so that it can rotate. In addition, the motor component joint 310 supports the first shaft member 710, which is joined to the gear shaft 510, so that it can rotate.

[0174] The motor component joint 310 is engaged with the bracket body 100. Specifically, the motor component joint 310 is engaged with the second limiting plate 132 located on the opposite lower side.

[0175] The motor component joint 310 may include any configuration that engages with and supports the gear shaft 510 and the first shaft component 710 in a rotatable manner. In the illustrated embodiment, the motor component joint 310 includes a joint plate 311, a motor component joint hole 312, a keyway 313, and a joint boss 314.

[0176] The connecting plate 311 surrounds and engages with the gear shaft 510 and the first shaft member 710 from the radially outer side. The connecting plate 311 supports the gear shaft 510 and the first shaft member 710.

[0177] On the side of the connecting plate 311 opposite to the power distribution frame 2, i.e., the front side in the illustrated embodiment, an indicator can be formed for indicating the operating state based on the rotation of the gear shaft 510 and the second shaft member 720.

[0178] The connecting plate 311 can be of any shape capable of supporting the gear shaft 510 and the first shaft member 710. In the illustrated embodiment, the connecting plate 311 is a circular plate with a circular cross-section and a thickness in the front-to-back direction.

[0179] A motor component connection hole 312 and a keyway 313 are formed inside the connecting plate 311.

[0180] The motor component engagement hole 312 accommodates the first shaft component 710 so that it can rotate. The motor component engagement hole 312 is formed through the thickness direction of the engagement plate 311, that is, the front-to-back direction in the illustrated embodiment.

[0181] The motor component engagement hole 312 can be formed correspondingly to the shape of the outer periphery of the first shaft component 710. In the illustrated embodiment, the motor component engagement hole 312 is formed as a space in the shape of a circular plate with a circular cross-section and a thickness in the front-rear direction.

[0182] The motor component connection hole 312 is connected to the keyway 313.

[0183] The keyway 313 limits the through angle of the first shaft member 710. The keyway 313 is formed through the joint plate 311 along the thickness direction, i.e., the front-to-back direction in the illustrated embodiment.

[0184] The keyway 313 can be formed at a position corresponding to the key protrusion 721 provided on the second shaft member 720. In the illustrated embodiment, the keyway 313 is located between the outer periphery of the connecting plate 311 and the motor member connecting hole 312, and communicates with the motor member connecting hole 312. In other words, the keyway 313 is located on the radial inner side of the connecting plate 311 and the radial outer side of the motor member connecting hole 312.

[0185] The keyway 313 can be formed in accordance with the shape of the key protrusion 721 formed on the outer periphery of the second shaft member 720. In the illustrated embodiment, the keyway 313 is formed as a polygonal prism-shaped space having a polygonal cross-section extending radially outward and having a thickness in the front-back direction.

[0186] The keyway 313 can be formed in a plurality of ways. The plurality of keyways 313 can be spaced apart from each other and communicate with the motor component engagement hole 312 at different positions. In the illustrated embodiment, there is a pair of keyways 313, which are arranged vertically spaced apart from each other across the motor component engagement hole 312.

[0187] The boss 314 supports a portion of the shaft member 700. A hollow is formed inside the boss 314, communicating with the motor member engagement hole 312. The shaft member 700 can pass through the motor member engagement hole 312 and the shaft member 700 in sequence and engage with the bracket portion 10.

[0188] The connecting boss 314 is engaged with the second limiting plate 132. The connecting boss 314 is arranged facing the connecting plate 311 across the second limiting plate 132. In the illustrated embodiment, the connecting boss 314 is engaged with the rear side of the second limiting plate 132.

[0189] The engagement boss 314 extends in the direction opposite to the second limiting plate 132, i.e., the rearward side in the illustrated embodiment. The engagement boss 314 can extend long enough to accommodate the portion that engages with the first shaft member 710 and the second shaft member 720 of the shaft member 700.

[0190] The guide profile 320 supports the power unit 20 so that it can move. Specifically, the guide profile 320 supports the power unit 20 so that it can move in the direction facing the power distribution frame 2 and in the opposite direction to the power distribution frame 2. In the illustrated embodiment, the guide profile 320 supports the power unit 20 so that it can move in the front-back direction.

[0191] Furthermore, the guide profile 320 guides the movement of the power unit 20. The power unit 20 can be guided along the guide profile 320 and move stably. Moreover, the guide profile 320 holds the power unit 20, which has moved to a predetermined position, in that position.

[0192] The guide profile 320 is combined with the bracket body 100. Specifically, the guide profile 320 is combined with and supported by the limiting plate 130. As described above, the limiting plate 130 includes a first limiting plate 131 and a second limiting plate 132. The guide profile 320 is located between the first limiting plate 131 and the second limiting plate 132, and is combined with the first limiting plate 131 and the second limiting plate 132 respectively.

[0193] The guide profile 320 extends in the direction in which the lead-in / lead-out device 1 engages with the power distribution frame 2 or in the direction in which it separates from the power distribution frame 2. In the illustrated embodiment, the guide profile 320 extends in the front-to-back direction. It can be understood that this direction is the same as the direction in which the power unit 20 engages with or separates from the bracket portion 10.

[0194] In the illustrated embodiment, the guide profile 320 includes a profile body 321, a guide groove 322, a connecting groove 323, and a fixing hole 324.

[0195] The profile body 321 constitutes the main body of the guide profile 320. A guide groove 322, a connecting groove 323, and a fixing hole 324 are formed in the profile body 321.

[0196] The profile body 321 is combined with the limiting plate 130. The profile body 321 is located between the first limiting plate 131 and the second limiting plate 132, and is combined with the first limiting plate 131 and the second limiting plate 132 respectively.

[0197] The profile body 321 extends along the direction of engagement and disengagement of the power unit 20, i.e., the front-rear direction in the illustrated embodiment. One end of the profile body 321 extending in the illustrated embodiment, i.e., the front end in the illustrated embodiment, protrudes outward. The other end of the profile body 321 extending in the illustrated embodiment, i.e., the rear end in the illustrated embodiment, engages with the limiting plate 130.

[0198] The profile body 321 can be a shape corresponding to the shape of the power bracket 600 provided in the power unit 20. In the illustrated embodiment, the profile body 321 is a polygonal prism shape having a width in the left-right direction, a height in the up-down direction, and a length in the front-back direction.

[0199] At this time, the width of the profile body 321 can be formed to be less than or equal to the width of the bracket receiving space 623 of the power unit 20. In other words, the width of the profile body 321 can be formed to be less than or equal to the distance between the pair of second bracket plates 622 (see reference). Figure 12 ).

[0200] Furthermore, the height of the profile body 321 can be set to be less than or equal to the width of the bracket accommodating space 623. In other words, the height of the profile body 321 can be set to be less than or equal to the distance between the first support bracket 611 and the first bracket plate 621 (see reference). Figure 12 ).

[0201] Guide grooves 322 are formed on each side of the profile body 321 in the width direction, namely the left and right sides in the illustrated embodiment.

[0202] The guide groove 322 is configured to guide the movement of the power unit 20, which is coupled to the profile body 321. Due to the guide groove 322, the swaying of the power unit 20 in another direction can be minimized, and the power unit 20 can move stably along the extension direction of the profile body 321, that is, the front-back direction in the illustrated embodiment.

[0203] The guide groove 322 engages with the guide rail 630 provided on the power unit 20. The guide groove 322 supports the guide rail 630 so that it can slide.

[0204] The guide groove 322 is recessed in the surface of the profile body 321. The guide groove 322 extends along the extension direction of the profile body 321. There is a pair of guide grooves 322, which can be formed on different surfaces of the profile body 321 respectively.

[0205] In the illustrated embodiment, there is a pair of guide grooves 322, located on the left and right sides of the profile body 321, respectively. The pair of guide grooves 322 extend along the extension direction of the profile body 321, i.e., the front-to-back direction.

[0206] The guide grooves 322 are open at their ends in the extending direction, allowing the guide rails 630 to be accommodated and extended. A pair of guide grooves 322 support a pair of guide rails 630 so that they can slide separately.

[0207] The guide groove 322 can be formed into a shape corresponding to the shape of the guide rail 630. At this time, the guide groove 322 can be a shape that can engage or disengage with the guide rail 630 in the direction in which the power unit 20 engages or disengages with the bracket unit 10, but prevents engagement or disengagement in the other direction.

[0208] In the illustrated embodiment, the guide groove 322 is formed with a concave-convex cross-section where the height of the inner portion in the width direction is longer than the height of the outer portion. The shape of the guide groove 322 can be changed according to the shape of the guide rail 630.

[0209] The engagement groove 323 is the part that engages with the power fixing member 640 provided on the power unit 20. The core (seam, not marked) provided on the power fixing member 640 is inserted into the engagement groove 323. If the core (not marked) of the power fixing member 640 is inserted and applies pressure to the profile body 321, the relative position of the power unit 20 and the bracket part 10 is fixed, thereby restricting further movement of the power unit 20.

[0210] A groove 323 is recessed into the surface of the profile body 321. The groove 323 extends along the extension direction of the profile body 321. There are multiple grooves 323, which can be formed on the surface of the profile body 321.

[0211] In the illustrated embodiment, there is a pair of mating grooves 323 located on the upper side of the profile body 321. The pair of mating grooves 323 are spaced apart along the width direction of the profile body 321, i.e., in the left-right direction. A pair of power fixing members 640 are respectively extended and accommodated in the pair of mating grooves 323.

[0212] A pair of mating grooves 323 extend along the length direction of the profile body 321, i.e., the front-to-back direction. Each end of the mating groove 323 is open in the extension direction. The power unit 20 can move along the mating groove 323 while the power fixing member 640 is at least partially accommodated in the mating groove 323.

[0213] The number and configuration of the connecting slots 323 can be changed according to the number and configuration of the power fixing components 640.

[0214] A fixing hole 324 is provided between a pair of mating grooves 323.

[0215] The power stop 650, provided in the power unit 20, can be extended and inserted into the fixing hole 324. When the power stop 650 is inserted into the fixing hole 324, further movement of the power unit 20 along the extension direction of the profile body 321, i.e., the front-to-back direction, is restricted. Then, if the power fixing member 640 is operated and the core (not marked) is inserted into the mating groove 323, the position of the power unit 20 can be fixed.

[0216] A fixing hole 324 is formed through or recessed on one side of the profile body 321. In this case, the fixing hole 324 can be formed on the surface formed by the mating groove 323. In the illustrated embodiment, the fixing hole 324 is formed on the upper side of the profile body 321, located between a pair of mating grooves 323.

[0217] The fixing hole 324 can be any shape that accommodates the power stop 650 so that it can be extended. In the illustrated embodiment, the fixing hole 324 is formed as a cylindrical space with a circular cross-section and a height in the vertical direction.

[0218] The fixing hole 324 can be configured to be spaced a predetermined distance from the end of the limiting plate 130 opposite to the power distribution frame 2, i.e., the front end in the illustrated embodiment.

[0219] In addition, the position of the fixing hole 324 can be determined in accordance with the position of the power stop 650 when the first support bracket 611 of the power unit 20 contacts the first limiting plate 131.

[0220] In one embodiment, the distance between the fixing hole 324 and the front end of the first limiting plate 131 may be greater than the distance between the power stop 650 and the front end of the first limiting plate 131 when the first support bracket 611 of the power unit 20 contacts the first limiting plate 131.

[0221] Therefore, the distance at which the power unit 20 is inserted into the bracket unit 10 can be limited by both the limiting plate 130 and the fixing hole 324. As a result, the power unit 20 can be stably set in a preset position and then fixed.

[0222] Reference Figures 12 to 16 The introduction and extraction device 1 of this embodiment includes a power unit 20.

[0223] The power unit 20 provides the power required to introduce or draw out the circuit breaker (not shown) into or from the power distribution frame space 2b.

[0224] The power unit 20 can have any shape capable of moving the circuit breaker (not shown). In one embodiment, the power unit 20 can be configured to move the circuit breaker (not shown) using an electrical method such as a motor.

[0225] In the embodiment described, the power unit 20 is energizedly connected to an external power source (not shown) and a control unit (not shown), and can receive the power and control signals required for operation. In another embodiment, the power unit 20 may be configured to move the circuit breaker (not shown) hydraulically.

[0226] The power unit 20 is combined with the bracket unit 10. The power unit 20 is combined with the bracket unit 10 so that it can slide in the direction facing the power distribution frame 2 (i.e., the front side) and in the opposite direction to the power distribution frame 2 (i.e., the rear side).

[0227] At this time, in order to ensure the stable movement of the power unit 20, a guide groove 322 is provided in the bracket portion 10. In addition, as described above, in order to limit the movement distance of the power unit 20, a limiting plate 130 and a fixing hole 324 are provided in the bracket portion 10.

[0228] The power unit 20 is combined with the handle unit 30. The power unit 20 is combined with the circuit breaker (not shown) via the handle unit 30. The power applied by the power unit 20 can be transmitted to the circuit breaker (not shown) via the handle unit 30.

[0229] In the illustrated embodiment, the power unit 20 includes a motor component 400 and a gearbox 500.

[0230] Motor component 400 generates power to move the circuit breaker (not shown). The power generated by motor component 400 is transmitted to the circuit breaker (not shown) sequentially through gearbox 500 and shaft component 700.

[0231] The motor component 400 is coupled to the gearbox 500. The power generated by the motor component 400 can be transmitted to the gearbox 500. In the illustrated embodiment, the rear side of the motor component 400 is coupled to the gearbox 500.

[0232] The motor component 400 is combined with the power bracket 600. The motor component 400 can be supported by the power bracket 600. The motor component 400 can be at least partially surrounded and supported by the support bracket 610 of the power bracket 600.

[0233] A gearbox 500 is provided between the motor component 400 and the shaft component 700.

[0234] The gearbox 500 transmits the power generated by the motor component 400 to the shaft component 700. The gearbox 500 is located between the motor component 400 and the shaft component 700, and engages with them respectively.

[0235] The gearbox 500 can have any shape for transmitting power generated by the motor component 400 to the shaft component 700. Although not shown, the gearbox 500 may include a plurality of gears that are gear-fitted to each other internally. A portion of the plurality of gears engages with the motor component 400. Another portion of the plurality of gears engages with the gear shaft 510.

[0236] The gearbox 500 is combined with the power bracket 600. The gearbox 500 can be combined with and supported by the support bracket 610.

[0237] In the illustrated embodiment, the gearbox 500 includes a gear shaft 510 and a gear identification surface 520.

[0238] The gear shaft 510 is the part where the gearbox 500 and the shaft member 700 are joined. The gear shaft 510 protrudes from each side of the gearbox 500 toward the side of the power distribution frame 2, that is, the rear side in the illustrated embodiment.

[0239] The gear shaft 510 engages with at least one of a plurality of gears disposed inside the gearbox 500. The gear shaft 510 can receive power generated from the motor component 400.

[0240] The gear shaft 510 is inserted into the gear shaft engagement portion 711 formed in the first shaft member 710. The gear shaft 510 can transmit the received power to the first shaft member 710.

[0241] A gear identification surface 520 is provided on the outer periphery of the gear shaft 510 adjacent to the end in the extending direction.

[0242] The gear identification surface 520 is configured to make the rotation of the gear shaft 510 and the first shaft member 710 synchronized. Due to the gear identification surface 520, slippage between the gear shaft 510 and the first shaft member 710 can be prevented.

[0243] A gear identification surface 520 is formed on the outer periphery of the gear shaft 510. At this time, the gear identification surface 520 can be arranged adjacent to the end of the gear shaft 510 and contact the shaft identification surface 712 formed on the first shaft member 710.

[0244] The gear identification surface 520 may be formed to be flatter than other parts of the outer periphery of the gear shaft 510. In one embodiment, the gear identification surface 520 may be formed as a plane extending in a horizontal or vertical direction.

[0245] The gear identification surface 520 can be formed in a plurality of ways. The plurality of gear identification surfaces 520 can be spaced apart from each other along the outer periphery of the gear shaft 510. In the illustrated embodiment, there are two pairs of gear identification surfaces 520. One pair of gear identification surfaces 520 is spaced apart in the vertical direction. The other pair of gear identification surfaces 520 is spaced apart in the horizontal direction. Each pair of gear identification surfaces 520 contacts a plurality of shaft identification surfaces 712.

[0246] The shape and configuration of the gear identification surface 520 can be changed according to the shape and configuration of the shaft identification surface 712.

[0247] The power bracket 600 forms part of the overall shape of the power unit 20. The power bracket 600 is combined with and supports the motor component 400 and the gearbox 500. In addition, the power bracket 600 is movably combined with the bracket section 10.

[0248] In the illustrated embodiment, the power bracket 600 includes a support bracket 610, a connecting bracket 620, a guide rail 630, a power fixing member 640, and a power stop member 650.

[0249] The support bracket 610 is combined with and supports other components provided in the power unit 20. The support bracket 610 is combined with the motor component 400 and the gearbox 500 respectively.

[0250] The support bracket 610 can be formed of a lightweight and highly rigid material. In one embodiment, the support bracket 610 can be formed of the same material as the bracket body 100.

[0251] The support bracket 610 is coupled to the connecting bracket 620. A space is formed between the support bracket 610 and the connecting bracket 620 for the insertion of the guide profile 320. The support bracket 610 can support the guide profile 320 inserted into the space from below.

[0252] In the illustrated embodiment, the support bracket 610 includes a first support bracket 611, a second support bracket 612, and a third support bracket 613. In one embodiment, the first support bracket to the third support bracket 611, 612, and 613 can be integrally formed.

[0253] The first support bracket 611 forms part of the support bracket 610. The first support bracket 611 forms the upper side of the support bracket 610 in the height direction, i.e., in the illustrated embodiment. The first support bracket 611 extends along the width direction of the support bracket 610, i.e., in the left-right direction in the illustrated embodiment.

[0254] The first support bracket 611 is combined with the second support bracket 612. The second support bracket 612 is combined with one side of the plane in the height direction of the first support bracket 611, that is, the lower side in the illustrated embodiment.

[0255] The first support bracket 611 is combined with the third support bracket 613. The third support bracket 613 is combined with one side of the first support bracket 611 in the width direction, i.e., the rear side in the illustrated embodiment. In one embodiment, the first support bracket 611 and the third support bracket 613 may form a predetermined angle and be continuous.

[0256] The first support bracket 611 is coupled to the connecting bracket 620. The connecting bracket 620 is coupled to the other side of the plane in the height direction of the first support bracket 611, that is, the upper side in the illustrated embodiment.

[0257] The first support bracket 611 surrounds the bracket receiving space 623 from one side in the height direction. In the illustrated embodiment, the first support bracket 611 surrounds the lower side of the bracket receiving space 623. The first support bracket 611 surrounds the lower side of the guide profile 320 received in the bracket receiving space 623.

[0258] The first support bracket 611 can have any shape that can combine with and support the power unit support 300, motor component 400, gearbox 500 and connecting bracket 620. In the illustrated embodiment, the first support bracket 611 is a quadrilateral plate with a length in the left-right direction, a height in the up-down direction, and a width in the front-back direction.

[0259] The second support bracket 612 constitutes the remaining part of the support bracket 610. The second support bracket 612 forms the width direction of the support bracket 610, that is, the left or right side in the illustrated embodiment. The second support bracket 612 extends along the height direction of the support bracket 610, that is, the vertical direction in the illustrated embodiment.

[0260] The second support bracket 612 is coupled to the first support bracket 611. In the illustrated embodiment, the second support bracket 612 is offset towards the end of the first support bracket 611 along its length. The second support bracket 612 surrounds the motor component 400 from the outside.

[0261] The second support bracket 612 is combined with the third support bracket 613. In the illustrated embodiment, the ends of the second support bracket 612 and the third support bracket 613 in the width direction are continuous.

[0262] There may be a plurality of second support brackets 612. The plurality of second support brackets 612 may be spaced apart from each other and engage with the first support bracket 611 at a plurality of positions. In the illustrated embodiment, there is a pair of second support brackets 612, spaced apart from each other in the left-right direction. The pair of second support brackets 612 are respectively biased towards the left and right ends of the first support bracket 611.

[0263] The motor component 400 is housed in the space formed between a pair of second support brackets 612. The pair of second support brackets 612 support the motor component 400 from the left and right sides, respectively.

[0264] The second support bracket 612 can be of any shape that combines with the first support bracket 611 and the third support bracket 613 respectively and is capable of supporting the motor component 400. In the illustrated embodiment, the second support bracket 612 is a polygonal plate with a triangular cross-section having a length on the upper side longer than the lower side and a front edge extending downward at an angle, and a width in the left-right direction.

[0265] In the embodiment, the upper edge of the second support bracket 612 is engaged with the first support bracket 611. The rear edge of the second support bracket 612 is engaged with the third support bracket 613.

[0266] The third support bracket 613 constitutes the remainder of the support bracket 610. The third support bracket 613 forms one side of the support bracket 610 along its length, i.e., the rear side in the illustrated embodiment. The third support bracket 613 extends along the height direction of the support bracket 610, i.e., the vertical direction in the illustrated embodiment.

[0267] The third support bracket 613 is combined with the first support bracket 611. In the illustrated embodiment, the third support bracket 613 and the first support bracket 611 are continuous on one side in the width direction, i.e., the rear side edge. The third support bracket 613 and the first support bracket 611 form a predetermined angle and are continuous.

[0268] The third support bracket 613 is combined with the second support bracket 612. In the illustrated embodiment, the third support bracket 613 and the second support bracket 612 are continuous on one side of their length direction, i.e., their rear side edges. The third support bracket 613 and the second support bracket 612 form a predetermined angle and are continuous.

[0269] The third support bracket 613 is coupled to the motor component 400. In the illustrated embodiment, the front side of the third support bracket 613 is coupled to the rear side of the motor component 400.

[0270] The third support bracket 613 is coupled to the gearbox 500. In the illustrated embodiment, the rear side of the third support bracket 613 is coupled to the front side of the gearbox 500. That is, the motor component 400 and the gearbox 500 are arranged facing each other across the third support bracket 613.

[0271] An opening may be formed inside the third support bracket 613. The motor component 400 and the gear shaft 510 can be joined through the opening.

[0272] The support bracket 610 is combined with the connecting bracket 620.

[0273] The connecting bracket 620 and the support bracket 610 together form a space for the guide profile 320 to be movably accommodated. The connecting bracket 620 is supported by the guide profile 320 accommodated in the space to enable it to move.

[0274] The connecting bracket 620 is combined with the support bracket 610. Specifically, the connecting bracket 620 is combined with the upper side of the first support bracket 611. At this time, the space can be formed between the connecting bracket 620 and the first support bracket 611.

[0275] The bracket 620 is combined with the guide rail 630. The guide rail 630 can be accommodated in the guide groove 322 of the guide profile 320, which is located in the space, so that it can slide.

[0276] The connecting bracket 620 is connected to the power fixing member 640. The power fixing member 640 is movably connected to the connecting bracket 620. The power fixing member 640 can be extended and accommodated in the connecting groove 323 of the guide profile 320 accommodated in the space.

[0277] The connecting bracket 620 is connected to the power stop 650. The power stop 650 is movably connected to the connecting bracket 620. The power stop 650 can be extended and received in the fixing hole 324 of the guide profile 320 received in the space.

[0278] The connecting bracket 620 can be formed of a lightweight and highly rigid material. In one embodiment, the connecting bracket 620 can be formed of the same material as the bracket body 100 or the support bracket 610.

[0279] In the illustrated embodiment, the connecting bracket 620 includes a first bracket plate 621, a second bracket plate 622, a bracket receiving space 623, a fixing member connecting hole 624, and a stop member connecting hole 625.

[0280] The first bracket plate 621 forms part of the connecting bracket 620. The first bracket plate 621 surrounds the bracket receiving space 623 from one side in the height direction, i.e., the upper side in the illustrated embodiment. The first bracket plate 621 is arranged facing the first support bracket 611 across the bracket receiving space 623.

[0281] The first bracket plate 621 can be of any shape that, together with the first support bracket 611, can partially surround the bracket receiving space 623. In the illustrated embodiment, the first bracket plate 621 is a polygonal prism shape having a length in the left-right direction, a width in the front-back direction, and a thickness in the top-bottom direction.

[0282] The first bracket plate 621 can be placed and supported on the guide profile 320 housed in the bracket receiving space 623.

[0283] The first bracket plate 621 and the second bracket plate 622 are continuous. In the illustrated embodiment, each end of the first bracket plate 621 in the extension direction, namely the left and right ends, forms a predetermined angle with the second bracket plate 622 and is continuous.

[0284] A fixing member engagement hole 624 is formed through the interior of the first bracket plate 621. The first bracket plate 621 can be engaged with the power fixing member 640 through the fixing member engagement hole 624.

[0285] A stop engagement hole 625 is formed through the interior of the first bracket plate 621. The first bracket plate 621 can be engaged with the power stop 650 through the stop engagement hole 625.

[0286] The second bracket plate 622 constitutes the other part of the connecting bracket 620. There may be a plurality of second bracket plates 622. In the illustrated embodiment, there is a pair of second bracket plates 622, which are spaced apart from each other along the length direction of the first bracket plate 621, i.e., in the left-right direction.

[0287] A pair of second bracket plates 622 surround the bracket receiving space 623 from each side along the length direction, i.e., the left and right sides in the illustrated embodiment. The pair of second bracket plates 622 are arranged facing each other across the bracket receiving space 623. The pair of second bracket plates 622 can respectively support the left and right outer surfaces of the guide profile 320 received in the bracket receiving space 623.

[0288] The second bracket plate 622 can be of any shape that, together with the first support bracket 611 and the first bracket plate 621, can partially surround the bracket receiving space 623. In the illustrated embodiment, the second bracket plate 622 is formed as a polygonal plate having a length in the front-to-back direction, a height in the vertical direction, and a width in the left-to-right direction.

[0289] The second bracket plate 622 is combined with the first bracket plate 621. In the illustrated embodiment, the upper ends of the pair of second bracket plates 622 form a predetermined angle with the left and right ends of the first bracket plate 621, respectively, and are continuous. In one embodiment, the first bracket plate 621 and the second bracket plate 622 can be integrally formed.

[0290] The second bracket plate 622 is combined with the first support bracket 611. At this time, one side of the second bracket plate 622 in the height direction, that is, the lower end in the illustrated embodiment, can be bent outward in the width direction to form and combine with the first support bracket 611.

[0291] The second bracket plate 622 is combined with the guide rail 630. Specifically, the guide rail 630 is combined with the inner side of the second bracket plate 622 facing the bracket receiving space 623, that is, the side in the width direction.

[0292] The bracket receiving space 623 accommodates the guide profile 320 so that it can move. With the guide profile 320 contained in the bracket receiving space 623, the power unit 20 can move in the direction facing the power distribution frame 2 or in the opposite direction, i.e., the front side or the rear side.

[0293] The bracket receiving space 623 can be formed corresponding to the shape of the guide profile 320. In the illustrated embodiment, the bracket receiving space 623 is formed to have a length in the left-right direction, a width in the front-back direction, and a height in the vertical direction. At this time, as described above, the length of the bracket receiving space 623 in each direction can be formed to be less than or equal to the length of the guide profile 320 in each direction.

[0294] The bracket receiving space 623 is defined by a first support bracket 611, a first bracket plate 621, and a second bracket plate 622. Each side of the bracket receiving space 623 in the width direction, i.e., the front and rear sides in the illustrated embodiment, is open. The guide profile 320 can be received, led out, and moved into the bracket receiving space 623 through said sides.

[0295] The dynamic fixing member 640 is movably engaged with the fixing member engagement hole 624. The fixing member engagement hole 624 is formed through the first bracket plate 621. The dynamic fixing member 640, passing through the fixing member engagement hole 624, can move in the direction facing the guide profile 320 accommodated in the bracket accommodating space 623 and in the opposite direction.

[0296] The fixing member engagement hole 624 can be formed correspondingly to the shape of the power fixing member 640. In the illustrated embodiment, the fixing member engagement hole 624 is formed as a space in the shape of a circular plate with a circular cross-section and a thickness in the vertical direction.

[0297] The fixing member engagement holes 624 can be formed in a plurality of ways. The plurality of fixing member engagement holes 624 can be arranged spaced apart from each other. In the illustrated embodiment, the fixing member engagement holes 624 include a pair biased to the left and another pair biased to the right.

[0298] At this time, the pair of fixing member engagement holes 624 can be located vertically above the engagement groove 323 on the left side. Additionally, the other pair of fixing member engagement holes 624 can be located vertically above the engagement groove 323 on the right side.

[0299] A stop member engagement hole 625 is provided between a plurality of fixed member engagement holes 624.

[0300] The power stop 650 is movably engaged with the stop engagement hole 625. The stop engagement hole 625 extends through the first bracket plate 621. The power stop 650 can extend through the stop engagement hole 625 and move in the direction facing the guide profile 320 accommodated in the bracket accommodating space 623 and in the opposite direction.

[0301] The stop engagement hole 625 can be formed correspondingly to the shape of the power stop 650. In the illustrated embodiment, the stop engagement hole 6250 is formed as a space in the shape of a circular plate with a circular cross-section and a thickness in the vertical direction.

[0302] The stop member engagement hole 625 can be arranged adjacent to the center of the first bracket plate 621. In other words, the distances to each vertex of the first bracket plate 621 can be the same, with the stop member engagement hole 625 as a reference. At this time, if the power unit 20 moves to the preset position of the bracket part 10, the stop member engagement hole 625 can be located vertically above the fixing hole 324.

[0303] The guide rail 630 is movably inserted into the guide groove 322. In one embodiment, the guide rail 630 can be slidably inserted into the guide groove 322. In the illustrated embodiment, the guide rail 630 is movably inserted into the guide groove 322 along the extension direction of the guide profile 320, i.e., in the front-to-back direction.

[0304] The movement of the guide rail 630 inserted into the guide groove 322 in directions other than the direction of movement, namely the left-right and up-down directions in the illustrated embodiment, is restricted. Therefore, the power unit 20 can move along the extension direction of the guide profile 320, i.e., the front-back direction, and is prevented from wobbling in the left-right or up-down directions.

[0305] As a result, the movement of the power unit 20 relative to the bracket unit 10 can be carried out stably.

[0306] The guide rail 630 can be of any shape that inserts into the guide groove 322 and prevents wobbling in the vertical or horizontal direction. In the illustrated embodiment, the guide rail 630 is formed such that the height of the inner portion in the width direction is longer than the height of the middle portion in the width direction. The shape of the guide rail 630 can be changed accordingly to match the shape of the guide groove 322.

[0307] The guide rail 630 is engaged with the second bracket plate 622. The guide rail 630 is located on the inner surface of the second bracket plate 622 facing the bracket receiving space 623, i.e., in the thickness direction. The guide rail 630 is located in the bracket receiving space 623.

[0308] There may be a plurality of guide rails 630. The plurality of guide rails 630 may be spaced apart from each other and each engage with a plurality of second bracket plates 622. In the illustrated embodiment, there is a pair of guide rails 630, each located on the inner surface of a pair of second bracket plates 622. The pair of guide rails 630 are spaced apart from each other along the length of the bracket receiving space 623, i.e., in the left-right direction in the illustrated embodiment.

[0309] The number and configuration of guide rails 630 can be changed according to the number and configuration of guide slots 322.

[0310] The power fixing member 640 can be extended and accommodated in the mating groove 323. If the power fixing member 640 is fully accommodated in the mating groove 323, the power fixing member 640 applies pressure to the surface of the profile body 321 surrounding the mating groove 323. As a result, the movement of the power unit 20 can be restricted and fixed in the corresponding position.

[0311] The power-fixing member 640 is engaged with the first bracket plate 621. Specifically, the power-fixing member 640 is engaged through the fixing member engagement hole 624 formed through the first bracket plate 621.

[0312] The power-locking member 640 engages with the first bracket plate 621 to be movable in the direction facing the engagement groove 323 and in the opposite direction, i.e., the upper and lower sides in the illustrated embodiment. Alternatively, the power-locking member 640 can remain in a movable state. In one embodiment, the power-locking member 640 may be formed in the shape of a screw and threadedly engaged with the first bracket plate 621.

[0313] The power-locking member 640 can have any shape that is received in the engagement groove 323 and can apply pressure to the guide profile 320. In the illustrated embodiment, the power-locking member 640 includes a core member that extends vertically and passes through the fixing member engagement hole 624 and applies pressure to the guide profile 320, and a handle member that engages with the upper end of the core member and is located on the upper side of the first bracket plate 621.

[0314] In the embodiment described, the operator can adjust the vertical position of the core component by rotating or pressing the handle component.

[0315] There may be a plurality of dynamic fixing members 640. The plurality of dynamic fixing members 640 may be movably connected through at least one of the plurality of fixing member connection holes 624. In the illustrated embodiment, the dynamic fixing member 640 has a pair of fixing member connection holes 624 respectively connected through a pair of fixing member connection holes 624 located on the front right side and the rear left side.

[0316] In either case, as long as the dynamic fixing member 640 is located vertically above the mating groove 323, it is acceptable.

[0317] A power stop 650 is provided between a pair of power-fixed members 640.

[0318] The power stop 650 can be extended and received in the fixing hole 324. If the power stop 650 is received in the fixing hole 324, the movement of the power unit 20 can be restricted and fixed in the corresponding position.

[0319] The power stop 650 is engaged with the first bracket plate 621. Specifically, the power stop 650 is engaged through the stop engagement hole 625 formed through the first bracket plate 621.

[0320] The power stop 650 engages with the first bracket plate 621 to be movable in the direction facing the fixing hole 324 and in the opposite direction, i.e., the upper and lower sides in the illustrated embodiment. In this case, the power stop 650 can move in the direction facing the fixing hole 324 without additional external force, or require an external force to move in the direction opposite to the fixing hole 324.

[0321] In one embodiment, the power stop 650 may include an elastic member such as a spring. The elastic member may be configured to apply an elastic force to the power stop 650 in the direction of the guide profile 320.

[0322] Therefore, when the fixing hole 324 is not located vertically below the power stop 650, the end of the power stop 650 in the extending direction can maintain a state of applying pressure to and contacting the surface of the profile body 321.

[0323] Furthermore, when the fixing hole 324 is located vertically below the power stop 650, the power stop 650 can be accommodated in the fixing hole 324 under the action of the elastic force even without applying additional external force.

[0324] Therefore, if the power unit 20 moves along the guide profile 320, the power stop 650 can first be accommodated in the fixing hole 324 and the position where the power unit 20 needs to be fixed can be identified. Then, if the power fixing member 640 is operated, the power unit 20 can be fixed in the corresponding position.

[0325] Therefore, not only can the position of the power unit 20 be easily identified, but the power unit 20 can also be stably maintained in the preset position.

[0326] Reference Figures 17 to 18 The introduction and extraction device 1 of this embodiment includes a handle portion 30.

[0327] The handle 30 connects the power unit 20 and the circuit breaker (not shown). The handle 30 transmits the power generated by the power unit 20 to the circuit breaker (not shown) and performs the introduction and withdrawal of the circuit breaker (not shown).

[0328] The handle portion 30 is combined with the power distribution frame 2. Specifically, the handle portion 30 passes through the lead-in / lead-out device joint portion 2d provided on the power distribution board 2c, and is combined with the circuit breaker (not shown) housed in the power distribution frame space 2b.

[0329] The handle portion 30 is combined with the bracket portion 10. The handle portion 30 can be rotatably supported on the bracket portion 10.

[0330] The handle 30 is combined with the power unit 20. The handle 30 can receive power generated by the power unit 20.

[0331] The handle portion 30 extends along the direction in which the lead-in / lead-out device 1 is joined or separated from the power distribution frame 2. In the illustrated embodiment, the handle portion 30 extends in the front-to-back direction.

[0332] In the illustrated embodiment, the handle portion 30 includes a shaft member 700.

[0333] The shaft member 700 may be composed of a plurality of parts. One part of the shaft member 700 may be combined with the power unit 20 and supported by the bracket part 10 to be rotatable. Other parts of the shaft member 700 may be combined with the inlet and outlet device connection part 2d of the switchboard 2c and the circuit breaker (not shown).

[0334] In the illustrated embodiment, shaft member 700 includes a first shaft member 710 and a second shaft member 720.

[0335] The first shaft member 710 is a portion of the shaft member 700, that is, the part where the shaft member 700 is joined to the bracket portion 10 and the power portion 20. The first shaft member 710 constitutes one side of the shaft member 700 in the extending direction, that is, the front side in the illustrated embodiment.

[0336] The first shaft member 710 is engaged with the bracket portion 10. Specifically, the first shaft member 710 passes through the motor member engagement hole 312 of the motor member engagement portion 310.

[0337] The first shaft member 710 is coupled to the power unit 20. Specifically, the first shaft member 710 is coupled to the gear shaft 510 that passes through the motor member coupling hole 312.

[0338] The first shaft member 710 is engaged with the second shaft member 720. One side of the first shaft member 710 in the extension direction, i.e., the rear end, is engaged with the second shaft member 720. At this time, the first shaft member 710 can be joined with the second shaft member 720.

[0339] The first shaft member 710 can be any shape that can be supported by the bracket portion 10 and rotate. In the illustrated embodiment, the first shaft member 710 is a cylindrical shape with a circular cross-section and a length in the front-rear direction.

[0340] In the illustrated embodiment, the first shaft member 710 includes a gear shaft engagement portion 711 and a shaft identification surface 712.

[0341] The gear shaft engagement portion 711 is a space for accommodating the gear shaft 510. The gear shaft engagement portion 711 is recessed on the opposite side of the extending direction of the first shaft member 710, i.e., the front end face. The gear shaft engagement portion 711 can be recessed to accommodate at least partially the length of the gear identification surface 520 formed on the gear shaft 510.

[0342] The inner surface of the first shaft member 710 surrounding the gear shaft engagement 711 can be defined as the shaft identification surface 712.

[0343] The shaft identification surface 712 contacts the gear identification surface 520 of the gear shaft 510 housed in the gear shaft joint 711. Due to the contact between the shaft identification surface 712 and the gear identification surface 520, slippage between the gear shaft 510 and the first shaft member 710 can be prevented.

[0344] The shaft identification surface 712 is defined as the inner surface of the first shaft member 710 surrounding the gear shaft engagement portion 711. The shaft identification surface 712 is positioned correspondingly to the gear shaft engagement portion 711. In the illustrated embodiment, the shaft identification surface 712 is arranged adjacent to the other end, i.e., the front end, in the extending direction of the first shaft member 710.

[0345] The shaft identification surface 712 may be formed to be flatter than the outer periphery of the first shaft member 710. In one embodiment, the shaft identification surface 712 may be formed as a plane extending in a horizontal or vertical direction.

[0346] The shaft identification surface 712 can be formed in a plurality of ways. The plurality of shaft identification surfaces 712 can be arranged spaced apart from each other along the inner periphery of the first shaft member 710. In the illustrated embodiment, there are two pairs of shaft identification surfaces 712. One pair of shaft identification surfaces 712 is arranged spaced apart in the vertical direction. The other pair of shaft identification surfaces 712 is arranged spaced apart in the horizontal direction. Each pair of shaft identification surfaces 712 contacts the plurality of shaft identification surfaces 712.

[0347] The shape and configuration of the shaft recognition surface 712 can be changed according to the shape and configuration of the gear recognition surface 520.

[0348] The first shaft member 710 and the second shaft member 720 are combined and rotate together.

[0349] The second shaft member 720 is the other configuration of the shaft member 700, namely the portion of the shaft member 700 that is combined with the circuit breaker (not shown) and the distribution frame 2. The second shaft member 720 constitutes the other side of the extension direction of the shaft member 700, namely the rear side in the illustrated embodiment.

[0350] The second shaft member 720 is coupled to the distribution board 2c. Specifically, the second shaft member 720 is coupled through the lead-in / lead-out device coupling 2d. The second shaft member 720 is supported by the lead-in / lead-out device coupling 2d and is rotatable. One end of the second shaft member 720 in the extending direction, i.e. the rear end in the illustrated embodiment, is coupled to a circuit breaker (not shown) located in the distribution frame space 2b.

[0351] The second shaft member 720 is coupled to the first shaft member 710. Specifically, the other end of the second shaft member 720 in its extending direction, i.e., the front end in the illustrated embodiment, is coupled to the first shaft member 710. As described above, in one embodiment, the coupling may be a butt coupling.

[0352] The second shaft member 720 can be any shape that can be rotatably supported by the lead-in / lead-out device joint 2d. In the illustrated embodiment, the second shaft member 720 is a cylindrical shape with a circular cross-section and a length in the front-rear direction.

[0353] In the illustrated embodiment, the second shaft member 720 includes a key protrusion 721.

[0354] The key protrusion 721 protrudes radially from the outer periphery of the second shaft member 720. The key protrusion 721 can limit the insertion angle of the shaft member 700. That is, the shaft member 700 can only penetrate and engage with the bracket portion 10 and the distribution plate 2c when the angle of the key protrusion 721 through the additional groove and keyway 313 formed in the lead-out device engagement portion 2d is adjusted.

[0355] The key protrusion 721 is disposed adjacent to one end of the second shaft member 720 in the extending direction, i.e., the rear end in the illustrated embodiment. The key protrusion 721 extends along the extending direction of the second shaft member 720, i.e., in the front-rear direction in the illustrated embodiment.

[0356] There may be a plurality of key protrusions 721. The plurality of key protrusions 721 may be spaced apart from each other and arranged in different positions. In the illustrated embodiment, the key protrusions 721 are arranged spaced apart in the vertical direction.

[0357] The number, shape, and arrangement of the key protrusions 721 can be changed according to the number, shape, and arrangement of the additional grooves and keyways 313 of the lead-out device joint 2d.

[0358] Reference Figures 19 to 22 As an example, the process of integrating the lead-out device 1 with the power distribution frame 2 according to an embodiment of the present invention is shown. It can be understood that through the process, the lead-out device 1 is integrated not only with the power distribution frame 2, but also with a circuit breaker (not shown) housed inside the power distribution frame 2.

[0359] Reference Figure 19 The lead-in / lead-out device 1 and the power distribution frame 2 are arranged side by side. At this time, the lead-in / lead-out device cover member 2e provided on the power distribution board 2c rotates to open the lead-in / lead-out device joint 2d. The shaft member 700 of the lead-in / lead-out device 1 is arranged side by side with the lead-in / lead-out device joint 2d. At this time, it can be understood that the shaft member 700 is arranged side by side along the direction in which the lead-in / lead-out device 1 and the power distribution frame 2 are joined or separated, that is, in the front-back direction in the illustrated embodiment.

[0360] Reference Figure 20The shaft member 700 of the lead-in / lead-out device 1 moves forward first and penetrates and engages with the lead-in / lead-out device engagement portion 2d. At this time, it can be understood that the key protrusion 721 provided on the second shaft member 720 is engaged with the lead-in / lead-out device engagement portion 2d through the additional groove formed in the lead-in / lead-out device engagement portion 2d.

[0361] Due to the aforementioned connection, the end of the second shaft member 720 in the extending direction, i.e. the rear end in the illustrated embodiment, can be connected to a circuit breaker (not shown) housed in the power distribution frame space 2b.

[0362] It is understood that the process is based on the handle portion 30, which is composed of shaft member 700, and other components of the lead-in and lead-out device 1, namely the bracket portion 10 and the power portion 20, which are detachably combined.

[0363] Reference Figure 21 The bracket portion 10 moves forward and engages with the handle portion 30, which is connected to the handle portion 30 of the power distribution board 2c. At this time, the first shaft member 710 passes through the keyway 313 of the power unit support portion 300 and is supported by the connecting plate 311 and the connecting boss 314.

[0364] Furthermore, the magnet component 210 of the connecting component 200 contacts and engages with the distribution board 2c. At this time, it can be understood that the engagement force between the magnet component 210 and the distribution board 2c can be adjusted by operating the handle component 220.

[0365] Therefore, the bracket portion 10 can be connected to multiple parts, namely the distribution board 2c and the handle portion 30. As a result, the connection between the bracket portion 10 and the lead-in / lead-out device 1 can be stably maintained.

[0366] Reference Figure 22 The power unit 20 moves forward and engages with the bracket unit 10 and the handle unit 30, respectively. The gear shaft 510 is accommodated in the gear shaft engagement portion 711. At this time, the gear shaft 510 is configured such that the gear identification surface 520 and the shaft identification surface 712 are parallel to each other and are accommodated in contact with the gear shaft engagement portion 711. Therefore, slippage between the gear shaft 510 and the handle unit 30 can be prevented.

[0367] Furthermore, the power unit 20 and the bracket unit 10 are combined such that the guide profile 320 is accommodated in the bracket accommodating space 623 of the power bracket 600. The guide profile 320 accommodated in the bracket accommodating space 623 supports the first bracket plate 621 of the combined bracket 620 from below. In addition, the second bracket plate 622 supports each side of the guide profile 320 in the width direction, namely the left and right sides.

[0368] Meanwhile, the guide rail 630 is slidably coupled to the guide groove 322. As a result, the power unit 20 can move in the direction coupled to the power distribution frame 2, i.e., the front side, and can prevent swaying in the width or height direction.

[0369] On the other hand, if the power unit 20 moves forward to a preset position, the fixing hole 324 is located vertically below the power stop 650. The power stop 650, which applies pressure to the upper side of the profile body 321 and moves there, is inserted into the fixing hole 324, thereby restricting further movement of the power unit 20.

[0370] In the stated state, if the power fixing member 640 is operated and inserted into the connecting groove 323, applying pressure to the surface of the profile body 321 surrounding the lower side of the connecting groove 323, the power unit 20 can be fixed in a preset position.

[0371] Although not illustrated, it is understandable. Figures 19 to 22 The process shown can also be reversed, allowing the lead-out device 1 to be separated from the power distribution frame 2.

[0372] The lead-in / lead-out device 1 of the present invention described above is configured such that the bracket portion 10, the power portion 20, and the handle portion 30 are all separable. Therefore, when the lead-in / lead-out device 1 is combined with the power distribution frame 2, each component can be separated and sequentially combined with the power distribution frame 2 and other components, thereby improving operational convenience.

[0373] Furthermore, the power unit 20 and the bracket unit 10 are supported by a plurality of components and shaft members 700. Therefore, the bonding force between the various components of the lead-out device 1 and the bonding force with the power distribution frame 2 can be increased.

[0374] Furthermore, the bracket portion 10 includes a guide groove 322, and the power unit 20 includes a guide rail 630 slidably coupled to the guide groove 322. Due to this coupling, the power unit 20 can move along the extension direction of the guide profile 320 and is restricted from moving in other directions.

[0375] On the other hand, the power unit 20 includes a power fixing member 640 and a power stop member 650, and the bracket part 10 includes a mating groove 323 and a fixing hole 324. The operator can move the power unit 20 to a preset position simply by moving it until the power stop member 650 engages with the fixing hole 324. Furthermore, the operator can hold the power unit 20 in a preset position simply by inserting the power fixing member 640 into the mating groove 323 and applying pressure to the guide profile 320.

[0376] As a result, the process of connecting and disconnecting the lead-in device 1 from the power distribution frame 2 can be easily performed.

[0377] The embodiments of the present invention have been described, but the spirit of the present invention is not limited to the embodiments set forth in this specification. Those skilled in the art who understand the spirit of the present invention can easily propose other embodiments by adding, changing, deleting, or supplementing the constituent elements within the same spirit scope, but these embodiments are also included within the spirit scope of the present invention.

[0378] 1: Inlet and outlet devices; 2: Power distribution frame

[0379] 2a: Main body of the power distribution frame 2b: Space of the power distribution frame

[0380] 2c: Distribution board; 2d: Connection part of lead-in and lead-out devices.

[0381] 2e: Lead-in / Lead-out device cover component; 2f: Power distribution frame handle.

[0382] 10: Bracket section; 20: Power section

[0383] 30: Handle section 100: Bracket body

[0384] 110: First board 120: Second board

[0385] 130: Restriction plate 131: First restriction plate

[0386] 132: Second limiting plate; 140: Bracket handle

[0387] 200: Connecting component; 210: Magnet component

[0388] 220: Handle component; 300: Power unit support unit

[0389] 310: Motor component joint 311: Joint plate

[0390] 312: Motor component mating hole; 313: Keyway

[0391] 314: Boss (joint boss) 320: Profile (guide profile)

[0392] 321: Profile body 322: Guide groove

[0393] 323: Groove; 324: Fixing hole

[0394] 400: Motor components; 500: Gearbox

[0395] 510: Gear shaft; 520: Gear identification surface

[0396] 600: Power bracket; 610: Support bracket

[0397] 611: First support bracket; 612: Second support bracket

[0398] 613: Third support bracket; 620: Combined bracket

[0399] 621: First bracket plate; 622: Second bracket plate

[0400] 623: Bracket accommodation space; 624: Fixing component connection hole

[0401] 625: Stopping component mating hole; 630: Guide rail

[0402] 640: Dynamic fixing component; 650: Dynamic stopper.

[0403] 700: Shaft member; 710: First shaft member

[0404] 711: Gear shaft joint 712: Shaft identification surface

[0405] 720: Second shaft component; 721: Key protrusion

Claims

1. An inlet / outlet device, wherein, include: The bracket is detachably attached to the power distribution frame along the first direction; as well as The power unit, detachably coupled to the bracket unit along the first direction, provides power for introducing and withdrawing the circuit breaker housed in the power distribution frame; The bracket portion includes: The bracket body is detachably attached to the power distribution frame; and A guide profile, which is combined with the bracket body, extends along the first direction; The power unit includes a power bracket, which is coupled to the guide profile to be movable along the first direction.

2. The inlet / outlet device according to claim 1, wherein, The guide profile includes a profile body extending along the first direction; The power bracket includes: Support brackets surround the profile body from one side; and Combined with the bracket, the profile body is surrounded from the other side.

3. The inlet / outlet device according to claim 2, wherein, The connecting bracket includes: A first bracket plate, facing the support bracket across the profile body, surrounds the profile body; and A pair of second bracket plates are arranged facing each other across the profile body and are respectively connected to the first bracket plate and the support bracket.

4. The inlet / outlet device according to claim 3, wherein, The combined bracket includes a bracket receiving space defined by a first bracket plate, a pair of second bracket plates, and the support bracket, and is open on each side along the first direction to extendably accommodate the guide profile.

5. The inlet / outlet device according to claim 3, wherein, The guide profile includes a guide groove, which is recessed into the outer periphery of the profile body and extends along the first direction; The connecting bracket includes a guide rail, which engages with the surface of the second bracket plate facing the profile body, extends along the first direction, and is movably inserted into the guide groove.

6. The inlet / outlet device according to claim 5, wherein, The guide groove is formed such that the height of the side facing the second bracket plate is less than the height of the other side that is further away from the second bracket plate than the side facing the second bracket plate.

7. The inlet / outlet device according to claim 3, wherein, The guide profile includes a connecting groove, which is recessed into the outer periphery of the profile body and extends along the first direction; The power bracket includes a power fixing member, which is movably connected through the first bracket plate and extendably accommodated in the connecting groove. If the power fixing member is inserted into the mating groove at a predetermined distance, the power fixing member applies pressure to the outer periphery of the profile body surrounding the mating groove to restrict the movement of the power unit.

8. The inlet / outlet device according to claim 7, wherein, The power bracket includes a fixing member engagement hole that extends through the interior of the first bracket plate.

9. The inlet / outlet device according to claim 7, wherein, The coupling grooves are a plurality of those arranged spaced apart from each other along a second direction orthogonal to the first direction; The power fixing member is a plurality of such members, which are spaced apart from each other along the first direction or the second direction and are respectively extendably accommodated in the plurality of such coupling grooves.

10. The inlet / outlet device according to claim 3, wherein, The guide profile includes a fixing hole, which is recessed into the outer periphery of the profile body at a predetermined distance from the end of the profile body. The power bracket includes a power stop, which is movably coupled to the first bracket plate and extendably accommodated in the fixing hole; If the power unit moves a predetermined distance from the end of the profile body toward the power distribution frame, the power stop is inserted into the fixing hole.

11. The inlet / outlet device according to claim 10, wherein, The power stop is configured to apply pressure toward the profile body so as to move along the first direction while in contact with the outer periphery of the profile body.

12. The inlet / outlet device according to claim 1, wherein, Includes a handle portion, which is detachably coupled to the power distribution frame along the first direction; The bracket portion is detachably connected to the power distribution frame and the handle portion, respectively; The power unit is detachably connected to the bracket and the handle, respectively.

13. The inlet / outlet device according to claim 12, wherein, The handle portion includes: The first shaft component is respectively coupled to the bracket portion and the power unit to be rotatable; and The second shaft member, combined with the first shaft member, is rotatably coupled to the power distribution frame.

14. The inlet / outlet device according to claim 13, wherein, The power unit includes: Motor components, providing the power; and The gearbox is connected to both the motor component and the first shaft component to transmit the power. The gearbox includes: The gear shaft is coupled to the first shaft member; and A gear identification surface is formed on the outer periphery of the gear shaft and contacts the inner periphery of the first shaft member.

15. The inlet / outlet device according to claim 14, wherein, The first shaft member includes: A gear shaft engagement portion is recessed at one end of the first shaft member in the extending direction to accommodate the gear shaft; and A shaft identification surface surrounds the gear shaft engagement portion and contacts the gear identification surface.

Images