The present invention relates to a module system comprising a case and a number of boxes.
In storage systems it is required that the customer/user, such as a workman, easily could equip himself/herself with the correct quantities of working material in an organised manner in order to perform his/her assignment. For instance, a carpenter is required, in advance, to fill his/her case/cases in an organised way with the necessary working material. In such case, the working material is usually filled from a storage system including screws, fasteners and nails. When the case/cases are filled with all necessary equipment, the carpenter is ready to go and hopefully able to carry out the tasks at the working location effectively and fast, without any delay due to disorder and/or shortage of working material.
A workman has often limited facilities to bring working material to the working location. Ideally, the workman only has to bring one or two cases including tools and other working material. However, many assignments require in particular that a large amount of working material, such that various fasteners or the like, are brought. Consequently, there is a problem regarding effectiveness and handling of the working material if the workman could not bring all the necessary working material.
The object of the present invention is to provide a module system comprising a case and a number of boxes, which overcomes the disadvantages of prior art. A further object is to provide an alternative solution in view of the state of the art and an improved module system for obtaining increased compaction of boxes within a case. It is also an object to provide an optimization and organisation of a working material in a case.
The above mentioned objects are solved by the present invention, which relates to a module system comprising a case and a number of boxes. Each box is defined by a cross-sectional area of an opening of the respective box, the case have a case lid and a case bottom part, where the case lid and the case bottom part forms an interior space within the case, and the boxes are to be stored in the interior space of the case. The module system is characterised in that the cross-sectional area of one box is approximately a multiple of any cross-sectional area of any of the number of boxes that are to be stored in the interior space of the case, and the case lid is provided with sealing means that sealingly fits over and in abutment with an upper surface of at least one box, with the case in closed position, when the boxes are stored in the interior space of the case.
According to the solution of the present invention, it was realized that the user/customer/workman, such as a carpenter, can tailor his/her case content by filling the case with boxes directly from the shelf in the store. Hence, the case can be tailored with a desired assortment of material. With the module system according to the present invention, it is possible for a workman to organize his/her working material in a favourable way, such that a correct and adequate number of items can be filled in the boxes, respectively, and stored during transportation and handling in the case. A high packing degree can be obtained with the module system, which facilitates the handling for the user. Since the case lid is provided with sealing means, the case can be carried around with the case closed without running the risk that the contents in the open boxes are spread around in the interior of the case, even if some or all boxes are without a box lid. Another advantage with the module system, with the boxes that are packed and stored in the case, which then constitutes a desired assortment of boxes, is that the boxes in themselves can be sales units.
By the term “multiple” in this context is meant a number t, representing a smallest module in the module system, that can be written as t multiplied with an integer n (i.e. t·n), and where the product of to is an integer representing another larger module in the module system.
The invention will hereinafter be described with reference to an embodiment of the invention and the enclosed figures, where
A module system according to an embodiment of the present invention will now be described by way of example only. The disclosure is not intended to limit the scope of the enclosed claims in any way.
Hence, an essential part of the accessible space in the case can be filled with boxes, according to the solution of the present invention. Alternatively, instead of the expression in terms of the degree of compaction, the packing degree can be expressed as extent of available open area or available interior space that remains when the boxes are positioned and stored in the case. When the boxes are stored in the interior space 10 of the case 2, the available open area or available interior space is suitably below about 10%.
In the module system shown in
It is preferred according to the present invention, that each box has a lid 12.
Suitably, the cross-sectional area, A, A′ . . . An, of the modules 4, 4′ . . . 4n, respectively, are rotational symmetrical with respect to a centre C of the boxes, respectively.
The interior space 10 of the case 2 has preferably a cross-sectional area AC (see
Each box, 4, 4′ . . . 4n, has a bottom surface 14 as illustrated in
The respective box lid 12 has preferably a circumference 20 essentially corresponding to the cross-sectional area, A, A′ . . . An, of the opening 5 of the respective box 4, 4′ . . . 4n. The bottom surface 14 of the respective box 4, 4′ . . . 4n can comprise a projection 22 at the periphery P of the bottom surface 14. Each box lid 12 has an upper surface 18 comprising a rim 24 and a groove 26 arranged within the rim 24, the projection 22 of the bottom surface 14 of the box 4, 4′ . . . 4n is adapted to fit within the groove 26 of the box lid 12. In that respect, an inner surface 28 of the bottom part 8 of the case 2 can be provided with a plurality of projecting areas 30, the dimension of the projecting areas 30 are adapted such that they mates with the shape of respective bottom surface 14, within the projection 22, of the boxes 4, 4′ . . . 4n and a respective recess 32, formed within the groove 26, of the box lid 12, respectively.
A fully or partly loaded case should be possible to carry regardless if the boxes are closed, opened (box lid removed or thrown away) or opened with the box lids stored underneath the boxes, respectively, in the case. Suitably, the case lid 6 is provided with sealing means 16 on the inside 17 of the case lid 6 (see
Consequently, at least one box 4, 4′ . . . 4n may have an open and accessible opening 5 defined at the upper surface 18. The at least one box is stored in the case 2 with the opening 5 accessible when the case lid 6 is in a first opened position, with the case lid swung open. In a second closed position, in which the case lid 6 is in abutment towards the case bottom part 8, the opening 5 of said box is inaccessible. The sealing means 16 sealingly fits over and in abutment with the upper surface 18 of said box. The sealing means may comprise one or more sealing elements 16, distributed over substantially the whole inside 17 of the case lid 6. The sealing means can be formed of a flexible material made of foamed material such as foamed plastics or the similar.
Thanks to the sealing means, the case may also comprise a mixture of boxes that are provided with box lids 12 as well as boxes that have an accessible opening 5 defined at the upper surface 18 when the boxes are positioned and stored in the case 2.
As mentioned above, the interior space 10 of the case 2 can be dimensioned such that it essentially corresponds to a multiple n of the cross-sectional area, A, A′ . . . An, of one box, 4, 4′ . . . 4n, in the module system. As illustrated in
As mentioned in the general description, the term “multiple” in this context means a number t, representing a smallest module in the module system, that can be written as t multiplied with an integer n (i.e. t·n), and where the product of to is an integer representing another larger module in the module system. In the module system, the smallest module having the smallest cross-sectional area A of a box 4 is represented by t=1 which is for the box marked XS in
Number | Date | Country | Kind |
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0951020-7 | Dec 2009 | SE | national |
Number | Date | Country | |
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Parent | 13517228 | Aug 2012 | US |
Child | 14661858 | US |