Distributed intelligent remote direct current power supply equipment

Abstract

The utility model, which relates to the technical field of the distributed intelligent remote DC power supply equipment, discloses distributed intelligent remote DC power supply equipment comprising a DC power supply equipment body and four transport wheels respectively installed on the lower wall surface of the DC power supply equipment body. A front wall limiting groove is formed in the front wall face of the direct-current power supply equipment body, a positioning shaft is installed in the front wall limiting groove, the outer wall face of the positioning shaft is sleeved with a door front limiting block, a storage structure is installed in the direct-current power supply equipment body, and two side wall storage grooves are formed in the side wall face of the direct-current power supply equipment body. When the handle is used, the two auxiliary rotating sleeves and the auxiliary grip are connected in a threaded mode, when the handle is not used, all parts can be placed in the fixing grooves to be stored, space is saved, meanwhile, the parts are prevented from being lost, and the problems that an existing handle of the distributed intelligent remote direct-current power supply equipment is connected in a split mode, occupied space is large, and the handle is prone to being lost are solved.

Description

TECHNICAL FIELD

[0001] The utility model relates to distributed wisdom remote DC power supply equipment technical field, especially in kind of distributed wisdom remote DC power supply equipment. BACKGROUND

[0002] Power equipment mainly includes two major categories of power generation equipment and power supply equipment, and the power generation equipment mainly is power station boiler, steam turbine, gas turbine, water turbine, generator, transformer and the like, and the power supply equipment mainly is various voltage level transmission line, mutual inductor, contactor and the like.

[0003] The utility model discloses a kind of distributed wisdom remote DC power supply equipment of application No. UTILITY MODEL CONTENT

[0004] The utility model solves the technical problems that the equipment door of existing power supply equipment cannot be stored, when using in the position of narrow space, it is relatively occupied space, handle is connected with split type, space is occupied larger, and handle is easy to lose, simultaneously there is no supporting structure, once pulley is damaged, it cannot be used, and use stability is insufficient.

[0005] In order to solve the above technical problems, the technical scheme of the utility model is that a kind of distributed wisdom remote DC power supply equipment, four transport wheels are respectively installed in the lower wall surface of DC power supply equipment ontology, the front wall of DC power supply equipment ontology is equipped with front wall limiting slot, positioning shaft is installed in the front wall limiting slot, door front limiting block is sleeved on the outer wall surface of positioning shaft, storage structure is installed in DC power supply equipment ontology, two side wall storage grooves are equipped in the lateral wall surface of DC power supply equipment ontology, auxiliary structure is installed in two side wall storage grooves, four lower wall storage grooves are equipped in the lower wall surface of DC power supply equipment ontology, and supporting structure is installed in four lower wall storage grooves.

[0006] As a further scheme of the utility model: the storage structure includes: two ladder grooves, two storage sliders, auxiliary door shaft and equipment door;Two ladder grooves are respectively equipped in the upper and lower two wall surfaces inside DC power supply equipment ontology, two storage sliders are respectively installed in two ladder grooves, the both ends of auxiliary door shaft are respectively connected with two storage sliders, and the equipment door is sleeved on the outer wall surface of auxiliary door shaft.

[0007] As a further scheme of the utility model: the auxiliary structure includes: two auxiliary rotating shafts, two auxiliary push frames, two auxiliary rotating sleeves, two auxiliary threaded rods, a handle limiting groove, an auxiliary handle, two auxiliary limiting blocks and two auxiliary threaded sleeves; the two auxiliary rotating shafts are respectively installed in the two side wall storage grooves, the two auxiliary push frames are respectively sleeved on the outer wall surfaces of the two auxiliary rotating shafts, the two auxiliary rotating sleeves are respectively sleeved on the outer wall surfaces of the two auxiliary push frames, the two auxiliary threaded rods are respectively connected on the outer wall surfaces of the two auxiliary rotating sleeves, the handle limiting groove is arranged on the side wall surface of the direct current power supply equipment body, the auxiliary handle is installed in the handle limiting groove, the two auxiliary limiting blocks are respectively installed on the two end surfaces of the auxiliary handle and the two auxiliary threaded sleeves are respectively sleeved on the two auxiliary limiting blocks.

[0008] As a further scheme of the utility model: the support structure includes: four bearing shafts, four bidirectional threaded sleeves, four bearing threaded rods and four support limiting blocks; the four bearing shafts are respectively installed in the four lower wall storage grooves, the four bidirectional threaded sleeves are respectively sleeved on the four bearing shafts, the four bearing threaded rods are respectively installed in the four bearing shafts and the four support limiting blocks are respectively sleeved on the outer wall surfaces of the four bidirectional threaded sleeves.

[0009] As a further scheme of the utility model: the edge of the direct current power supply equipment body is provided with a safety chamfer.

[0010] As a further scheme of the utility model: the lower wall surfaces of the four bearing threaded rods are respectively provided with anti-skid pads.

[0011] As a further scheme of the utility model: the four support limiting blocks are respectively provided with a plurality of anti-skid grooves.

[0012] The utility model adopts the above technical scheme, compared with the prior art, has the following advantages:

[0013] The equipment door is moved forward along the two stepped grooves by the auxiliary door shaft and the two storage sliding blocks, so that the equipment door can be stored, and the problem that the equipment door of the existing distributed intelligent remote direct current power supply equipment cannot be stored and occupies a large space when used in a small space is solved.

[0014] When used, the two auxiliary rotating sleeves and the auxiliary handle are connected by a threaded mode, when not used, the parts can be stored in the fixing groove, space is saved, parts are prevented from being lost, the handle of the existing distributed intelligent remote direct current power supply equipment is connected in a split type, occupies a large space and is easy to be lost.

[0015] When the four supporting limiting blocks are on the lower wall surface of the direct current power supply device body, the four bidirectional threaded sleeves cannot rotate around the load bearing shaft, then the operator rotates the four load bearing threaded rods around the four bidirectional threaded sleeves respectively, and the anti-skid pads are tightly attached to the ground, so that the direct current power supply device body can be supported, the burden of the four transport wheels is reduced, the uneven road surface is compensated, the friction with the ground is increased, and the problems of the existing distributed intelligent remote direct current power supply device without supporting structure, unable to use once the pulley is damaged, and insufficient use stability are solved. BRIEF DESCRIPTION OF DRAWINGS

[0016] Figure 1 It is a whole structure schematic view of a distributed intelligent remote direct current power supply device in the embodiment of the present application.

[0017] Figure 2 It is a storage structure schematic view of a distributed intelligent remote direct current power supply device in the embodiment of the present application.

[0018] Figure 3 It is an auxiliary structure schematic view of a distributed intelligent remote direct current power supply device in the embodiment of the present application.

[0019] Figure 4 It is an auxiliary structure schematic view of a distributed intelligent remote direct current power supply device in the embodiment of the present application, and the partial enlarged view of A.

[0020] Figure 5 It is a supporting structure schematic view of a distributed intelligent remote direct current power supply device in the embodiment of the present application.

[0021] In the figure: 1, direct current power supply device body; 2, transport wheel; 3, front wall limiting groove; 4, positioning shaft; 5, door front limiting block; 6, side wall storage groove; 7, lower wall storage groove; 8, stepped groove; 9, storage sliding block; 10, auxiliary door shaft; 11, equipment door; 12, auxiliary rotating shaft; 13, auxiliary pushing frame; 14, auxiliary rotating sleeve; 15, auxiliary threaded rod; 16, handle limiting groove; 17, auxiliary handle; 18, auxiliary limiting block; 19, auxiliary threaded sleeve; 20, load bearing shaft; 21, bidirectional threaded sleeve; 22, load bearing threaded rod; 23, supporting limiting block; 24, anti-skid pad. DETAILED DESCRIPTION

[0022] The specific embodiments of the present application will be further described in combination with the drawings. It should be noted that the description of these embodiments is used to help understand the present application, but does not constitute a limitation on the present application. In addition, the technical features involved in each embodiment of the present application described below can be combined with each other as long as they do not conflict with each other.

[0023] Please refer to Figures 1-4The utility model provides a kind of distributed wisdom remote DC power supply equipment, including DC power supply equipment ontology 1 and four transport wheels 2, four transport wheels 2 are respectively installed in the lower wall of DC power supply equipment ontology 1, front wall limit slot 3 is set in the front wall of DC power supply equipment ontology 1, positioning shaft 4 is installed in front wall limit slot 3, door front limiting block 5 is sleeved on the outer wall of positioning shaft 4, receiving structure is installed in DC power supply equipment ontology 1, two sidewall receiving grooves 6 are set in the side wall of DC power supply equipment ontology 1, two sidewall receiving grooves 6 are installed with auxiliary structure, four lower wall receiving grooves 7 are set in the lower wall of DC power supply equipment ontology 1, four lower wall receiving grooves 7 are installed with support structure.

[0024] Please refer to Figure 2 Receiving structure includes: two ladder grooves 8, two receiving sliders 9, auxiliary door shaft 10 and equipment door 11;Two ladder grooves 8 are set in the upper and lower walls inside DC power supply equipment ontology 1 respectively, two receiving sliders 9 are installed in two ladder grooves 8 respectively, auxiliary door shaft 10 is connected with two receiving sliders 9 at two ends respectively, and equipment door 11 is sleeved on the outer wall of auxiliary door shaft 10.

[0025] Please refer to Figure 3 Auxiliary structure includes: two auxiliary rotating shafts 12, two auxiliary push frames 13, two auxiliary rotating sleeves 14, two auxiliary threaded rods 15, handle limiting groove 16, auxiliary handle 17, two auxiliary limiting blocks 18 and two auxiliary threaded sleeves 19;Two auxiliary rotating shafts 12 are installed in two sidewall receiving grooves 6 respectively, two auxiliary push frames 13 are sleeved on the outer wall of two auxiliary rotating shafts 12, two auxiliary rotating sleeves 14 are sleeved on the outer wall of two auxiliary push frames 13, two auxiliary threaded rods 15 are connected on the outer wall of two auxiliary rotating sleeves 14, handle limiting groove 16 is set in the side wall of DC power supply equipment ontology 1, auxiliary handle 17 is installed in handle limiting groove 16, two auxiliary limiting blocks 18 are installed on the two end faces of auxiliary handle 17 respectively, and two auxiliary threaded sleeves 19 are sleeved on two auxiliary limiting blocks 18.

[0026] Please refer to Figure 4 Support structure includes: four bearing shafts 20, four bidirectional threaded sleeves 21, four bearing threaded rods 22 and four support limiting blocks 23;Four bearing shafts 20 are installed in four lower wall receiving grooves 7 respectively, four bidirectional threaded sleeves 21 are sleeved on four bearing shafts 20 respectively, four bearing threaded rods 22 are installed in four bearing shafts 20 respectively, and four support limiting blocks 23 are sleeved on the outer wall of four bidirectional threaded sleeves 21.

[0027] Please refer to Figure 1 The edge of DC power supply equipment ontology 1 is provided with safety chamfer, when using, the harm received when accidentally new knock of operator can be reduced through safety chamfer.

[0028] Please refer to Figure 4 The lower wall surface of the four load-bearing threaded rods 22 is respectively provided with a non-slip pad 24. In use, the friction with the ground can be increased through the non-slip pad 24.

[0029] Please refer to Figure 4 The four support limiting blocks 23 are respectively provided with a plurality of anti-skid grooves. In use, the friction of the support limiting blocks 23 can be increased through the anti-skid grooves.

[0030] In example 1, the device door 11 is moved forward along the two stepped grooves 8 by the auxiliary door shaft 10 to drive the two storage sliding blocks 9, so that the device door 11 can be stored.

[0031] Specifically, in use, the operator holds the device door 11 and rotates it counterclockwise by 90 degrees around the auxiliary door shaft 10, and then pushes the device door 11 forward. The device door 11 is moved forward along the two stepped grooves 8 by the auxiliary door shaft 10 to drive the two storage sliding blocks 9, so that the device door 11 can be stored. At this time, the operator can operate inside the DC power supply device body 1.

[0032] In example 2, in use, the two auxiliary sleeves 14 and the auxiliary handle 17 are connected by a threaded method. When not in use, the components can be stored in the fixed groove to save space and prevent loss of components.

[0033] Specifically, in movement, the operator holds the two auxiliary push handles 13 and rotates them outward by 90 degrees around the two auxiliary shafts 12, and then holds the two auxiliary sleeves 14 and rotates them inward around the two auxiliary push handles 13 until the two auxiliary threaded rods 15 are opposite. Then the operator removes the auxiliary handle 17 from the handle limiting groove 16, aligns the two auxiliary limiting blocks 18 with the two auxiliary threaded rods 15, slides the two auxiliary threaded sleeves 19 along the auxiliary handle 17, and then screws the two auxiliary threaded sleeves 19 onto the two auxiliary threaded rods 15 to fix the two auxiliary threaded rods 15 and the two auxiliary limiting blocks 18. At this time, the operator can hold the auxiliary handle 17 and move the DC power supply device body 1 with the aid of the four transport wheels 2.

[0034] In example 3, when the four support limiting blocks 23 are on the lower wall surface of the DC power supply device body 1, the four bidirectional threaded sleeves 21 cannot rotate around the load-bearing shaft 20. Then the operator rotates the four bidirectional threaded sleeves 21 around the four bidirectional threaded sleeves 21 to drive the non-slip pads 24 to tightly adhere to the ground, thereby supporting the DC power supply device body 1, reducing the burden on the four transport wheels 2, compensating for uneven road surfaces, and increasing the friction with the ground.

[0035] Specifically, after moving, the operator holds the four two-way threaded sleeves 21 and rotates half a circle around the four load-bearing shafts 20, then rotates the four support limit blocks 23 around the four two-way threaded sleeves 21, respectively, the four support limit blocks 23 move upwards along the four two-way threaded sleeves 21, respectively, when the four support limit blocks 23 are on the lower wall of the direct current power supply device body 1, the four two-way threaded sleeves 21 cannot rotate around the load-bearing shafts 20, then the operator rotates the four load-bearing threaded rods 22 around the four two-way threaded sleeves 21, respectively, and drives the non-slip mat 24 to tightly adhere to the ground, which can support the direct current power supply device body 1, reduce the burden of the four transport wheels 2, at the same time, make up for the uneven road surface, and increase the friction with the ground.

[0036] The embodiments of the utility model are described in detail above in combination with the drawings, but the utility model is not limited to the described embodiments. For those skilled in the art, various changes, modifications, replacements and modifications can be made to these embodiments without departing from the principles and spirits of the utility model, and still fall within the protection scope of the utility model.

Claims

1. A distributed intelligent remote DC power supply device, comprising a DC power supply device body (1) and four transport wheels (2), characterized in that, Four transportation wheels (2) are installed on the lower wall of the direct current power supply device body (1), the front wall of the direct current power supply device body (1) is provided with a front wall limiting groove (3), a positioning shaft (4) is installed in the front wall limiting groove (3), a door front limiting block (5) is sleeved on the outer wall of the positioning shaft (4), a receiving structure is installed in the direct current power supply device body (1), two side wall receiving grooves (6) are formed in the side wall of the direct current power supply device body (1), an auxiliary structure is installed in the two side wall receiving grooves (6), four lower wall receiving grooves (7) are formed in the lower wall of the direct current power supply device body (1), and a supporting structure is installed in the four lower wall receiving grooves (7).

2. The distributed intelligent remote DC power supply device according to claim 1, wherein, The receiving structure comprises two stepped grooves (8), two receiving sliding blocks (9), an auxiliary door shaft (10) and a device door (11). The two stepped grooves (8) are formed on the upper and lower walls inside the direct current power supply device body (1), the two receiving sliding blocks (9) are installed in the two stepped grooves (8), the two ends of the auxiliary door shaft (10) are connected with the two receiving sliding blocks (9), and the device door (11) is sleeved on the outer wall of the auxiliary door shaft (10).

3. The distributed intelligent remote DC power supply device according to claim 1, wherein, The auxiliary structure comprises two auxiliary rotating shafts (12), two auxiliary push frames (13), two auxiliary rotating sleeves (14), two auxiliary threaded rods (15), a handle limiting groove (16), an auxiliary handle (17), two auxiliary limiting blocks (18) and two auxiliary threaded sleeves (19). The two auxiliary rotating shafts (12) are installed in the two side wall receiving grooves (6), the two auxiliary push frames (13) are sleeved on the outer walls of the two auxiliary rotating shafts (12), the two auxiliary rotating sleeves (14) are sleeved on the outer walls of the two auxiliary push frames (13), the two auxiliary threaded rods (15) are connected to the outer walls of the two auxiliary rotating sleeves (14), the handle limiting groove (16) is formed in the side wall of the direct current power supply device body (1), the auxiliary handle (17) is installed in the handle limiting groove (16), the two auxiliary limiting blocks (18) are installed on the two end faces of the auxiliary handle (17), and the two auxiliary threaded sleeves (19) are sleeved on the two auxiliary limiting blocks (18).

4. The distributed intelligent remote DC power supply device of claim 1, wherein, The supporting structure comprises four bearing shafts (20), four bidirectional threaded sleeves (21), four bearing threaded rods (22) and four supporting limiting blocks (23). The four bearing shafts (20) are installed in the four lower wall receiving grooves (7), the four bidirectional threaded sleeves (21) are sleeved on the four bearing shafts (20), the four bearing threaded rods (22) are installed in the four bearing shafts (20), and the four supporting limiting blocks (23) are sleeved on the outer walls of the four bidirectional threaded sleeves (21).

5. The distributed intelligent remote DC power supply device according to claim 1, wherein, A safety chamfer is formed on the edge of the direct current power supply device body (1).

6. The distributed intelligent remote DC power supply device according to claim 4, wherein, Anti-skid pads (24) are installed on the lower walls of the four bearing threaded rods (22).

7. The distributed intelligent remote DC power supply device of claim 4, wherein, A plurality of anti-skid grooves are formed in the four supporting limiting blocks (23).

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