TW201307165A - A case with partition structure - Google Patents

Abstract

A case with partition structure includes a plurality of side plate, and at least two said side plates respectively having a sliding groove, and each of sliding grooves is formed on each of a surface of said side plates, at least two connectors are respectively and clasped each of said sliding groove, and at least one partition is set between said two side plates along a longitudinal axis direction or a transverse axis direction thereof. While said partition is removed from or inserted between said connectors, said connectors are respectively and flexibly moved to or departed from said side plates, therefore, formed one first position or second position. Whereby the flexibility of said connectors stably clamp said partition, avoiding said partition out of said case cased by unanticipated force.

Description

Box with partition structure

The present invention relates to a casing, and more particularly to a casing having a partition structure.

At present, the common storage box is convenient for sorting and storing articles, and most of the left and right parallel corresponding side plates of the box body are combined with the partition device by a connecting member, and the partition device is installed in the box body, and the space inside the box is configured into a plurality of parts. Storage space to facilitate storage of items of different shapes and uses. At the same time, with the rail device, the fixed rail is arranged on the cabinet or the furniture, and the box body with the partition structure is mounted on the pull-out rail to form the drawer partition structure. It can save the drawer effort and push it in; it is convenient for storage and storage.

Due to the question of the drawer partition structure, the storage of the articles is more convenient, but as the types of articles are used more and more, it is necessary to use the partition members and the partition members to divide the drawer into a plurality of spaces to facilitate various articles. Storage. Due to the different sizes of the items and the different uses, in the case of kitchen cabinets, the drawer structure can be divided into the left and right side panel heights (excluding the bottom rails). The basic drawers with less than 100mm and the left and right side panels are higher than 100mm. Two high drawers. Among them, the basic drawer is used to place items such as cutlery, spoons, chopsticks, dishes, condiments, etc. The heightening drawer is used to place larger items such as pots, frying tools, larger cutlery, and dry goods. Most of the basic drawers are arranged above the cabinet, and the heightening drawers are mostly arranged under the cabinet to facilitate the use of the items. In addition, in order to facilitate the storage of the articles, the box body having the partition structure is attached with a slide rail or a pulley device, which makes the storage more labor-saving and more convenient, and greatly improves the convenience of use of the storage box.

Please refer to U.S. Patent Nos. 6,357,844 and 6,834,924, which are prior art drawer partition structures. Due to the complexity of the components used, the production is not easy, and the storage, transportation, sales and procurement of the products are difficult. Due to the variety of components, the assembly is difficult, and the products are not durable after assembly, often causing the components to be loose and fall or Loss and many other defects are obviously inconvenient and defective in actual use, so it is necessary to improve them.

In view of the above drawbacks, it is an object of the present invention to provide a box body having a partition structure to provide a box body having a partition structure which is simple in structure, convenient to assemble and use.

A box body having a partition structure according to an embodiment of the present invention has a box body, at least one partition member and at least two connecting members. The box body has a bottom plate member and a plurality of side plate members, and the side plate members are respectively disposed around the bottom plate member, and at least two side plate members of the box body respectively define a sliding groove. The spacer member is disposed in the casing along a horizontal axis direction or a longitudinal axis direction. The two connecting members are correspondingly buckled into the sliding grooves of the two side plates, and the two connecting members are respectively elastically rotated relative to the side plate members, so that the two connecting members are respectively moved to the first position of the set of the connecting plate members and A second position in which the spacer member is released.

According to another embodiment of the present invention, a casing having a partition structure has a casing, at least one partition member, and at least two joint members. The box body has a bottom plate member and a plurality of side plate members, and the side plate members are respectively disposed around the bottom plate member, and at least two side plate members of the box body respectively define a sliding groove. The spacer member is disposed in the casing along a horizontal axis direction or a longitudinal axis direction. The two connecting members are correspondingly buckled into the sliding grooves of the two side plates, and the two connecting members respectively have a resilient structure, and the elastic structure is elastically rotated relative to the connecting member, so that the connecting members are respectively moved to a group The first position of the spacer member and the second position of the release spacer member.

The function of the box body with the partition structure disclosed in the present invention is that the connecting member is fastened to the side plate member or the partition member of the box body to form a positioning, and the connecting member can be elasticized relative to the side plate member or the partition member. Rotating, or elastically rotating by the elastic structure of the connecting member, when the partitioning member is assembled into the connecting member, the elastic member of the connecting member or the elastic force of the elastic structure of the connecting member can be used to tightly clamp the partitioning member. When an unexpected external force collides with the casing, the casing can be prevented from being directly separated from the connecting member by the joining direction. With the elastic force clamping method, the partition member can be stably assembled into the box body, thereby achieving the advantages of simple structure, quick assembly and accurate positioning.

The present invention will be further described in detail below with reference to the accompanying drawings and embodiments. It is understood that the specific embodiments described herein are merely illustrative of the invention and are not intended to limit the invention.

1A to 1F are schematic views of a first embodiment of the present invention. The present invention provides a casing having a partition structure, comprising a casing 100, at least one partition member 200, and at least two connecting members 300.

The case 100 has a bottom plate member 110 and a plurality of side plate members 120. The side plate members 120 are respectively disposed around the bottom plate member 110 to constitute the structure of the casing 100. The casing 100 of the present invention includes, but is not limited to, articles such as a storage box, a storage cabinet or a storage box. Furthermore, at least two side plates 120 of the casing 100 respectively have a sliding groove 121, and the two sliding grooves 121 respectively correspond to each other.

In addition, at least two side panels 120 of the casing 100 are respectively connected with a pull-out rail 400 at the bottom end thereof, and the pull-out rail 400 cooperates with a fixed rail 500, and the fixed rail 500 is fixed on the cabinet or the laminate. As such, the pull-out rail 400 can be displaced relative to the fixed rail 500 to pull or push the cartridge 100.

The spacer member 200 is disposed in the casing 100 along a horizontal axis direction or a vertical axis direction.

The two connecting members 300 are respectively inserted into the sliding grooves 121 of the two side plates 120. Each of the connecting members 300 includes a latching structure 310 and a set of connecting structures 320. As shown in FIG. 1C, the snap-fit structure 310 is bent and protruded from one side of the connector 300, so that the snap-fit structure 310 has an L shape, and the snap-fit structure 310 is matched to the slide groove 121. When the connecting member 300 is assembled to the side plate member 120, the engaging structure 310 of the connecting member 300 is assembled into the sliding groove 121 of the side plate member 120.

It should be noted that the snap-fit structure 310 has an elastic design, that is, the snap-fit structure 310 can be made of an elastic material. When the snap-fit structure 310 is assembled into the sliding slot 121, the elasticity of the snap-fit structure 310 can be utilized. The connecting member 300 is rotationally displaceable relative to the side panel member 120 to rotate the connecting member 300 between a first position and a second position. In addition, the assembly structure 320 is a recessed groove for receiving one end of the spacer member 200.

Therefore, when the partition member 200 is assembled into the casing 100, the two ends of the partition member 200 are slid into the groove-like assembly structure 320, and the spacer member 200 is pushed against the connecting member 300 to be rotated by the second position. To the first position, the connector 300 is moved to the first position of the set of spacer members 200 (as shown in Figures 1C and 1E). The two connecting members 300 are respectively fixed on opposite sides of the partition member 200. By this arrangement, a plurality of partition members 200 can be overlapped inside the casing 100 to divide the inside of the casing 100 into a plurality of storage spaces.

It should be noted that in the embodiment of the present invention, the sliding groove 121 can be designed as a groove structure having a shape of a dovetail. As shown in FIG. 1E, the sliding groove 121 has a first side surface 1211, a second side surface 1212 and a third side surface 1213. The three side surfaces 1211, 1212, and 1213 surround the shape of the sliding groove 121, and One side 1211 and the second side 1212 form an acute angle 1214 such that the top end of the engaging structure 310 of the connecting member 300 is locked in the acute angle 1214.

In detail, the snap-fit structure 310 has a top portion 311, a convex portion 312 and a bent portion 313, and the top portion 311 is fastened in the acute angle 1214 formed by the first side surface 1211 and the second side surface 1212, and the convex portion 312 is then abutted against the second side 1212, and the bent portion 313 is abutted against the third side 1213. In this way, the latching structure 310 can be disposed in the sliding slot 121 in an inclined manner, so that the latching structure 310 has a lever action relative to the sliding slot 121, and the latching structure 310 serves as a pivot point, and is supplemented by the latching structure 310. The elastic material causes the connecting member 300 to be rotationally displaced relative to the side plate member 120 by the snap-fit structure 310.

As a result, when the connecting member 300 is not pushed by the partition member 200, the connecting member 300 is tied to the second position, and the connecting structure 320 of the connecting member 300 forms a resilient slope. When the spacer member 200 is assembled from the top to the bottom of the assembly structure 320, the spacer member 200 can be pushed against the rotation of the connecting member 300 from the second position toward the first position, and the engaging structure 310 is biased. An elastic deformation is formed, and the two ends of the spacer member 200 are completely assembled into the groove-like assembly structure 320 of the two connecting members 300, and then the elastic force of the engaging structure 310 is transmitted to tightly clamp the connecting member 300. The two ends of the spacer member 200 are prevented from being affected by an unintended external force and are separated from the assembly structure 320 of the connector 300.

2A to 2D are schematic views of a second embodiment of the present invention, and the specific embodiments thereof are substantially the same as the first embodiment described above, and the following description is only for differences, and the rest are not described herein. The assembly structure 320 of the connector 300 is a block, and the assembly structure 320 of the two ends of the spacer member 200 corresponding to the block is designed with a recess 321 . When the spacer member 200 is assembled into the connecting member 300, the insert-like assembly structure 320 is correspondingly embedded in the recessed portion 321 so that the two ends of the spacer member 200 and the connecting member 300 are assembled and fixed to each other.

3A to 3B are schematic views of a third embodiment of the present invention, and the specific embodiment thereof is substantially the same as the foregoing first embodiment, and the following description is only for differences, and the rest are not described herein. In the present invention, the spacer member 200 further has a sliding groove 210, and the structure of the sliding groove 210 is the same as that of the sliding groove 121 of the side plate member 120 in the foregoing embodiment. As such, the connector 300 can be assembled to the spacer member 200 such that the plurality of spacer members 200 can be assembled to each other. Alternatively, the spacer member 200 is assembled between the other spacer member 200 and the side panel member 120.

4A to 4C are diagrams showing a fourth embodiment of the present invention. In the present invention, the connecting member 300 is positioned on the side plate member 120, that is, the connecting member 300 is further configured with a fastening structure 330, and the locking structure 310 and the fastening structure 330 are respectively positioned in the sliding groove of the side plate member 120. 121 upper and lower corners, that is, the snap-fit structure 310 is positioned at an end angle formed by the first side surface 1211 and the second side surface 1212, and the fastening structure 330 is positioned at an end angle formed by the second side surface 1212 and the third side surface 1213. In turn, the connector 300 can be positioned on the side panel member 120. It should be noted that the fastening structure 330 in this embodiment can also be positioned in the sliding groove 210 of the other spacer member 200. Such a simple structural change is similarly included in the patent application scope of the present invention.

In addition, the connector 300 further has a spring structure 340, and the elastic structure 340 is disposed on the assembly structure 320. When the spacer member 200 is assembled into the connecting member 300, the two ends of the spacer member 200 are respectively pushed against the elastic structure 340 of the two connecting members 300, so that the elastic structure 340 is elastically deformed and rotated from the second position to the first position. position. The spacer member 200 is clamped by the elastic force of the elastic structure 340 to prevent the spacer member 200 from being detached from the connecting member 300.

5A to 5D are schematic views of a fifth embodiment of the present invention, and the specific embodiment thereof is substantially the same as the foregoing fourth embodiment, and the following description is only for differences, and the rest are not described herein. In the present invention, the connecting member 300 is designed with a supporting structure 350, and the supporting structure 350 has a screwing member 351 and two positioning members 352. The locating member 350 is mainly inserted into the sliding slot 121, and the two locking members 352 are respectively extended to the sliding slot 121 by the screwing member 351 passing through the connecting member 300. The two end corners are used to position the connector 300 on the side panel member 120. It should be noted that the supporting structure 350 in this embodiment can also be positioned in the sliding groove 210 of the other partition member 200. Such a simple structural change is similarly included in the patent application scope of the present invention.

6A to 6D are schematic views of a sixth embodiment of the present invention, and the specific embodiment thereof is substantially the same as the foregoing first embodiment, and the following description is only for differences, and the rest are not described herein. In the present invention, there is further included at least one additional member 600. In the present embodiment, an additional member 600 is disposed on the corresponding inner side of the two opposite side plates 120. The additional members 600 respectively define a sliding groove 610, and the two sliding grooves 610 respectively correspond to each other.

Each of the connecting members 300 includes a latching structure 310 and a set of connecting structures 320. As shown in FIG. 6D, the sliding groove 610 can be designed as a generally dovetail-shaped groove structure, and the sliding groove 610 has a first side surface 611, a second side surface 612 and a third side surface 613. 611, 612, 613 surround the shape of the sliding groove 610, and the first side 611 and the second side 612 form an acute angle 614, so that the top end of the engaging structure 310 of the connecting member 300 is locked in the acute angle 614.

Similarly, the engaging structure 310 of the connecting member 300 has a top portion 311, a convex portion 312 and a bent portion 313. The top portion 311 is fastened in the acute angle 614 formed by the first side surface 611 and the second side surface 612. The convex portion 312 abuts against the second side surface 612, and the bent portion 313 abuts against the third side surface 613. In this way, the latching structure 310 can be disposed in the sliding slot 610 in an inclined manner, so that the latching structure 310 has a lever action relative to the sliding slot 610, and the latching structure 310 serves as a pivot point, and is supplemented by the latching structure 310. The elastic material causes the connecting member 300 to be rotationally displaced relative to the additional member 600 by the snap-fit structure 310.

In summary, the present invention is positioned by the connecting member in the sliding groove of the side plate member or the sliding groove of the partition member, so that the spacer member can be clamped by the elastic force of the connecting member when the connecting member is assembled into the connecting member. The plate member is such that the spacer member is not affected by an unintended external force and is detached from the connector. Therefore, the present invention has the effects of quick assembly, uneasy release of components, and the like.

The invention may, of course, be embodied in various other embodiments and various modifications and changes can be made in accordance with the present invention without departing from the spirit and scope of the invention. Modifications are intended to fall within the scope of the appended claims.

100. . . Box

110. . . Floor piece

120. . . Side panel

121. . . Slip groove

1211. . . First side

1212. . . Second side

1213. . . Third side

1214. . . Sharp angle

200. . . Partition

210. . . Slip groove

300. . . Connector

310. . . Card connection structure

311. . . top

312. . . Convex

313. . . Bending section

320. . . Assembly structure

321. . . Insert slot

330. . . Card structure

340. . . Shrapnel structure

350. . . Support structure

351. . . Screw lock

352. . . Positioning member

400. . . Pull out the track

500. . . Fixed track

600. . . Add-on

610. . . Slip groove

611. . . First side

612. . . Second side

613. . . Third side

614. . . Sharp angle

1A to 1F are schematic views of a first embodiment of the present invention.

2A to 2D are schematic views of a second embodiment of the present invention.

3A to 3B are schematic views of a third embodiment of the present invention.

4A to 4C are views showing a fourth embodiment of the present invention.

5A to 5D are schematic views of a fifth embodiment of the present invention.

6A to 6D are schematic views of a sixth embodiment of the present invention.

100. . . Box

110. . . Floor piece

120. . . Side panel

121. . . Slip groove

200. . . Partition

300. . . Connector

400. . . Pull out the track

500. . . Fixed track

Claims (10)

A box body having a partition structure comprises: a box body having a bottom plate member and a plurality of side plate members, wherein the side plate members are respectively disposed around the bottom plate member, at least a sliding groove is respectively formed on the surface of the two side plate members; At least two connecting members are respectively engaged in the sliding grooves of the two side plates; and at least one partition member is disposed between the two connecting members along a horizontal axis direction or a longitudinal axis direction, The spacer member is inserted between the two connecting members or separated from the two connecting members, and the two connecting members are respectively elastically rotated relative to the side plate member, so that the partitioning member and the two connecting members respectively form A set of first positions that connect the spacer member and a second position that releases the spacer member. The box body having a partition structure according to claim 1, wherein the connecting member further comprises a snapping structure and a set of connecting structures, the snapping structure matching the sliding groove, the connecting structure and the partitioning plate The pieces are assembled to each other. The box body having the partition structure according to claim 2, wherein the sliding groove is composed of a first side surface, a second side surface and a third side surface, and the fastening structure further comprises: a bending a portion bent from the connecting member, the bent portion being fastened to an end angle formed by the second side surface and the third side surface; a top portion extending from the bent portion, the top portion being fastened to the first portion An end angle formed by a side surface and the second side surface; and a convex portion disposed between the bent portion and the top portion, the convex portion being abutted against the second side surface. The box body having the partition structure as claimed in claim 2, wherein the assembly structure is a recessed groove, and one end of the spacer member is embedded in the recessed groove. The box body with a partition structure according to claim 2, wherein the assembly structure is a block, and the partition member has a groove corresponding to the block, and the block is embedded in the groove. The box body having the partition structure as claimed in claim 1, further comprising a plurality of the partitioning members and the plurality of connecting members, each of the partitioning members respectively having a sliding groove, and each of the connecting members is respectively buckled In the sliding groove of each of the partition members, each of the connecting members is rotationally displaced with respect to each of the partition members. A box body having a partition structure comprises: a box body having a bottom plate member and a plurality of side plate members, wherein the side plate members are respectively disposed around the bottom plate member, at least a sliding groove is respectively formed on the surface of the two side plate members; At least two connecting members are respectively engaged in the sliding grooves of the two side plates; and at least one partition member is disposed between the two connecting members along a horizontal axis direction or a longitudinal axis direction, The two connecting members respectively have a resilient structure, and the spacer member is inserted between the two connecting members or between the two connecting members, and the elastic structure is elastically rotated relative to the connecting member to make the partition The plate member and the two connecting members respectively form a first position of the partition member and a second position for releasing the partition member. The box body with a partition structure according to claim 7, wherein the connecting member further comprises a snapping structure and a set of connecting structures, the snapping structure matching the sliding groove, the connecting structure and the partitioning plate The pieces are assembled to each other. The box body having the partition structure according to claim 7, wherein the sliding groove is composed of a first side surface, a second side surface and a third side surface, and the connecting member further comprises: a snap structure Extending from the connecting member, the snapping structure is fastened to an end angle formed by the second side surface and the third side surface; and a fastening structure extending from the connecting member, the fastening structure is fastened An end angle formed by the first side surface and the second side surface. The box body having the partition structure according to claim 7, wherein the sliding groove is composed of a first side surface, a second side surface and a third side surface, and the connecting member has a supporting structure, The supporting structure further includes: two positioning members respectively matching an end angle formed by the first side surface and the second side surface, and an end angle formed by the second side surface and the third side surface; and a screw locking member Passing through the connecting member and pushing the two positioning members to extend relative to each other, the two positioning members are respectively fastened to the two end angles.