Coupling system and construction including same

Abstract

A present application is directed to a shelving system having a coupling system comprising a tab coupler and a socket coupler, said tab coupler comprising a locking tab extending from a locking face along a locking axis and configured with a round, T-like sectioned shape; said socket coupler comprising a U-shaped locking socket projecting from a mounting face of the socket coupler along a coupler axis and configured with a U-shaped tab arresting groove; the coupling system is configurable between an unlocked position whereat the locking socket slidingly receives the locking tab so that the locking axis and the coupler axis coincide, and a locked position upon rotating one of the tab coupler and the socket coupler about the coinciding axes, entailing snugly arresting of the locking tab by the locking socket, preventing sliding displacement and axial displacement along the coinciding axes.

Claims

1. A shelving system comprising: a plurality of support posts; at least one tab coupler mounted on each support post such that each tab coupler faces at least one equi-leveled tab coupler mounted on a neighboring support post; and a plurality of socket couplers each fitted at respective opposite ends of support beams, said tab coupler comprising at least one locking tab extending from a locking face along a locking axis and configured with a round T-like sectioned shape, said socket coupler comprising at least one U-shaped locking socket projecting from a mounting face of the socket coupler along a coupler axis and configured with a U-shaped tab arresting groove; the shelving system is configurable between an unlocked position whereat the locking socket slidingly receives the locking tab so that the locking axis and the coupler axis coincide, and a locked position upon rotating one of the tab coupler and the socket coupler about the coinciding axes, entailing snugly arresting of the locking tab by the locking socket, preventing sliding displacement and axial displacement along the coinciding axes and defining a support surface on the support beams.

2. The shelving system of claim 1, wherein a neck of the locking tab and a head of the locking tab are cylindrical, and a locking socket head and the tab arresting grove have a U-like shape, thereby facilitating sliding displacement of the socket coupler into engagement with the tab coupler, into the unlocked position, and wherein rotation of the socket coupler or the tab coupler entails engagement therebetween at the locked position.

3. The shelving system of claim 1, wherein the tab coupler and the socket coupler are each integrally articulated with, or articulable integrated, with a respective first construction member and a second construction member.

4. The shelving system of claim 1, wherein the tab coupler further comprises at least one barrier member spaced from the locking tab, wherein the socket coupler is slidably detachable from the tab coupler only at the unlocked position, along a path of displacement.

5. The shelving system of claim 4, wherein the at least one barrier member is disposed so as to prevent sliding displacement of the socket coupler in a direction perpendicular to a path of displacement of the socket coupler with respect to the tab coupler.

6. The shelving system of claim 4, wherein the at least one barrier member is a wall portion extending parallel to the path of displacement.

7. The shelving system of claim 1, wherein at the unlocked position an opening of the tab arresting groove faces in a direction of the path of displacement.

8. The shelving system of claim 1, wherein a foolproof guard is provided at the tab coupler, configured for prevention rotation of the socket coupler beyond the locked position.

9. The shelving system of claim 8, wherein the foolproof guard can extend at a 4.sup.th quadrant of the round neck of the locking tab.

10. The shelving system of claim 8, wherein the foolproof guard is configured as a tangential extension of the neck of the locking tab, said extension extending at either or both tangents at the 4.sup.th quadrant.

11. The shelving system of claim 1, wherein at least one tab coupler extends from a tab mounting unit, said tab mounting unit intercoupling the at least one tab coupler with any support unit.

12. The shelving system of claim 11, wherein the tab mounting unit is a side bar of the shelving system, and wherein the plurality of support posts comprises at least two right support posts and at least two left support posts, each of the right support posts and the left support posts interconnect with one another through a side bar, wherein said side bar is configured with at least one tab coupler, said at least one tab coupler disposed on a side face of the side bar and facing a tab coupler of the other of the right support posts and the left support posts.

13. The shelving system of claim 12, wherein the side bar is configured with at least one secondary tab coupler, said secondary tab coupler disposed at a front face or rear face of the side bar.

14. The shelving system of claim 11, wherein each end of the side bar is configured with a right side tab coupler, a front or rear side tab coupler, and a left side tab coupler.

15. The shelving system of claim 11, wherein the tab mounting unit is articulable to any support structure.

16. The shelving system of claim 11, wherein the tab mounting unit is a prismatic body configured with at least one tab coupler over at least one face of the prismatic body.

17. The shelving system of claim 11, wherein the tab mounting unit is configured for mounting over a support post, said tab mounting unit comprising one or more radially disposed tab couplers.

18. The shelving system of claim 11, wherein the tab mounting unit comprises several tab couplers, for articulating respective socket couplers thereto, at a coextensive configuration, at an angled configuration, or at coextensive and angled configurations.

19. The shelving system of claim 1, wherein a tolerance cancelation arrangement is configured between the tab coupler and the socket coupler, to thereby cancel or reduce to minimum tolerances therebetween.

20. The shelving system of claim 19, wherein the tolerance cancelation arrangement comprises one or more socket tolerance projections configured at one of the mounting face and a head face of the socket coupler, and the locking face and a head face of the locking tab; and a complimentary one or more tab tolerance projections configured at the other one of the mounting face and the head face of the socket coupler, and the locking face and the head face of the locking tab; wherein at the unlocked position said socket tolerance projections and said tab tolerance projections are coaxially oriented and do not interlace with one another, and at the locked position, said socket tolerance projections and said tab tolerance projections bear against one another so as to apply axial pressure between the tab coupler and the socket coupler.

21. The shelving system of claim 20, wherein the socket tolerance projections project from the mounting face and the head face of the socket coupler substantially the same extent as the tab tolerance projections projects from the locking face and the head face of the locking tab, whereby at the unlocked position, they zero each other, and at the locked position their axial projection accumulates to apply the axial pressure between the tab coupler and the socket coupler.

22. The shelving system of claim 20, wherein the socket tolerance projections and the tab tolerance projections are co-oriented at the unlocked position, and intersect one another at the locked position.

23. The shelving system of claim 1, wherein a securing arrangement is configured at one or both of the tab coupler and the socket coupler, for preventing spontaneous displacement from the locked position into the unlocked position.

24. The shelving system of claim 23, wherein the securing arrangement is a projection configured at one of the tab coupler and the socket coupler, and a depression configured at the other one of the tab coupler and the socket coupler, wherein said projection is snappingly engageable by the depression.

25. The shelving system of claim 1 comprising one or more utility modules applicable over the support beams.

26. The shelving system of claim 25, wherein a post mounting assembly is configured for detachably axially articulating a tab mounting unit over one of the plurality of support posts, said post mounting assembly comprising a post configured with at least one radial post engaging member, and a mounting shim comprising at least one shell member having an inside, concave surface corresponding with an external surface of the support post, and fitted at the concave surface with at least one radial shim engaging member configured for snug engagement with a corresponding radial post engaging member, and wherein an outside convex surface of the mounting shim has an arresting mechanism configured for engaging within a bore of the tab mounting unit.

27. The shelving system of claim 26, wherein the mounting shim of the post mounting assembly comprises a single shell member configured for snug engagement over the support post, the single shell member spanning approximately 180°.

28. The shelving system of claim 26, wherein the mounting shim of the post mounting assembly comprises two or more shell members configured for snug engagement over the support post.

29. The shelving system of claim 26, wherein the two or more shims of the post mounting assembly interconnect with one another.

30. The shelving system of claim 26, wherein an outside surface of the mounting shim is configured with a tapering surface facilitating as an arresting mechanism for engaging within a correspondingly tapering cross section of within the bore of the tab mounting unit.

31. The shelving system of claim 26, wherein the radial shim engaging member of the at least one shim member comprises one or more radial ribs or radial grooves, configured for engaging with corresponding other of radial ribs or radial grooves configured at the external surface of the support post.

Description

BRIEF DESCRIPTION OF THE DRAWINGS

(1) In order to better understand the subject matter that is disclosed herein and to exemplify how it may be carried out in practice, embodiments will now be described, by way of non-limiting example only, with reference to the accompanying drawings, in which:

(2) FIG. 1A is a shelving system according to an example of the present disclosure;

(3) FIG. 1B is an isolation of the portion marked 1B in FIG. 1A;

(4) FIG. 1C is an enlarged view of the portion marked 1C in FIG. 1B;

(5) FIG. 1D is an exploded view of FIG. 1C;

(6) FIG. 2A is an enlarged view of the portion marked 2A in FIG. 1C;

(7) FIG. 2B is a longitudinal section along line 2B-2B in FIG. 2A;

(8) FIG. 3A is an isolated view of FIG. 2A, of the coupling system only, at a locked position;

(9) FIG. 3B is a vertical section along line 3B-3B in FIG. 3A;

(10) FIG. 3C is a horizontal section along line 3C-3C in FIG. 3A;

(11) FIG. 3D is a vertical section along line 3D-3D in FIG. 3A;

(12) FIG. 3E is a vertical section along line 3E-3E in FIG. 3A (being a mirror view of FIG. 3D);

(13) FIG. 3F is an enlargement of the portion marked 3F in FIG. 6C, illustrating the tolerance cancelation arrangement at the unlocked position;

(14) FIG. 3G is an enlargement of the portion marked 3G in FIG. 3C, illustrating the tolerance cancelation arrangement at the locked position;

(15) FIG. 4A is a front perspective view of a socket coupler of a coupling system according to the disclosure;

(16) FIG. 4B is a rear perspective view of the socket coupler of FIG. 4A;

(17) FIG. 4C is a vertical section along line 4C-4C in FIG. 4A;

(18) FIG. 4D is a vertical section along line 4D-4D in FIG. 4A;

(19) FIG. 4E is a horizontal section along line 4E-4E in FIG. 4A;

(20) FIG. 5A is a top perspective view of a side bar of the shelving system according to an example of the disclosure;

(21) FIG. 5B is an enlarged bottom perspective view of the portion marked 5B in FIG. 5A;

(22) FIG. 5C is a horizontal section along line 5C-5C in FIG. 5A;

(23) FIG. 5D is a vertical section along line 5D-5D in FIG. 5A;

(24) FIG. 5E is a planar side view of FIG. 5D;

(25) FIG. 5F is a vertical section along line 5F-5F in FIG. 5A;

(26) FIG. 6A is a perspective view of the coupling system, at an assembled, unlocked position;

(27) FIG. 6B is an enlargement of the portion marked 6B in FIG. 6A;

(28) FIG. 6C is a vertical section along line 6C-6C in FIG. 6B;

(29) FIG. 6D is a horizontal section along line 6D-6D in FIG. 6B;

(30) FIG. 6E is a vertical section along line 6E-6E in FIG. 6B;

(31) FIG. 6F is a vertical section along line 6F-6F in FIG. 6B (being a mirror view of FIG. 6E);

(32) FIG. 7A illustrates a side bar mounted over a support pole according to an example of the shelving system;

(33) FIG. 7B is a vertical section along line 7B-7B of the portion marked 7B in FIG. 7A;

(34) FIG. 7C is a planar view of FIG. 7B;

(35) FIG. 7D is an isometric view of only the support pole and a mounting shim applied thereover;

(36) FIG. 7E is an exploded view of FIG. 7D;

(37) FIG. 8A is an enlarged view of the portion marked 8A in FIG. 1A, illustrating a ground piece articulated to a support post of the shelving system;

(38) FIG. 8B is a vertical section along line 8B-8B in FIG. 8A;

(39) FIG. 9A is similar to FIG. 8A however illustrating a wheeling system of the shelving system;

(40) FIG. 9B is a vertical section along line 9B-9B in FIG. 9A;

(41) FIGS. 10 to 14 illustrate consecutive steps of assembling a shelving system configured with a coupling system according to an example of the disclosure, wherein:

(42) FIG. 10A is a perspective view of a support beam fitted at its respective ends with a socket coupler;

(43) FIG. 10B is a rotated enlargement of the portion marked 18B in FIG. 10A;

(44) FIG. 10C is a section along line 10C-10C in FIG. 10B;

(45) FIG. 10D is a section along line 10D-10D in FIG. 10B;

(46) FIG. 11A illustrates assembling two support posts;

(47) FIG. 11B illustrates fitting a mounting shim on the support post of FIG. 11A;

(48) FIG. 12A illustrates a first step of articulating the assembled support beams to the side bars, into the unlocked position;

(49) FIG. 12B is an enlarged view illustrating positioning the tab coupler and a socket coupler, into the unlocked position;

(50) FIG. 12C is a second step of engaging the tab coupler and a socket coupler, namely at the unlocked position;

(51) FIG. 12D is an enlarged sectioned view along line 12D-12D in FIG. 12C, at the unlocked position;

(52) FIG. 13A illustrates an assembled shelving system, without shelves;

(53) FIG. 13B illustrates the assembled shelving system, with shelves;

(54) FIG. 14A is a top sectioned view of a portion of a support beam and a shelve;

(55) FIG. 14B a bottom view of a portion of a support beam and a shelve; and

(56) FIG. 15 is a perspective view of a square tab mounting unit, configured for mounting on a support post and comprising four tab couplers;

(57) FIGS. 16A and 16B are a perspective front view and a perspective rear view, respectively, of a locking socket fitted with a securing arrangement;

(58) FIGS. 16C and 16D illustrate how a locking socket of FIGS. 16A and 16B interlocks with a tab coupler fitted with a securing arrangement;

(59) FIG. 17A illustrates an L-shaped shelving system comprising coupling elements according to different examples of the present disclosure;

(60) FIG. 17B is a partial view of a level of the L-shaped shelving system shown in FIG. 17A;

(61) FIG. 17C is an enlargement of the portion marked 17C in FIG. 17B;

(62) FIG. 17D is an enlargement of the portion marked 17D in FIG. 17B; and

(63) FIG. 17E is a sectioned view in direction of arrow 17E in FIG. 17D.

DETAILED DESCRIPTION OF EMBODIMENTS

(64) Attention is first directed to FIGS. 1A to 1D of the drawings, illustrating a construction assembly, which in the present example is a four level shelving system generally designated 10. However, it is appreciated the disclosure can be related to any other type of construction assemblies, of any type and purpose, made of a variety of materials, without departing from the scope of the discloser.

(65) The shelving system 10 comprises four support posts/legs 12A-12D (non-specifically designated 12 and which will be discussed hereinafter in greater detail, are each assembled of several segments), wherein two right-side support posts 12A and 12B are interconnected to one another by a plurality of horizontally disposed right-side side bars 16, and likewise both left-side support posts 12C and 12D are interconnected to one another by a plurality of tab mounting units, which at the particular design are side bars 16 (equally leveled with the right-side side bars, and further wherein the right-side side bars are identical with the left-side side bars, as will be seen hereinafter). A support beam 20 extends between each two front side bars and between each two rear side bars, giving rise to a support frame 22 (FIG. 1C) configured out of two side bars and two support beams 20, with a plurality of shelving modules, namely shelving tiles 24 articulated between the parallelly disposed support beams 20. It is appreciated that the shelving modules are an example and that a homogeneous shelve (i.e. single board) or even other types of modules can be mounted over the support beams 20.

(66) Further noted, the shelving system 10 is a floor mounted system (not a wheeled one, as will be discussed later) and the top most support post segment is fitted with a decorative end plug 28.

(67) The side bars 16 are made of solid material (e.g. molded polymeric material) and are each configured with a pair of spaced bores 30 configured with a cross section tapering along the longitudinal axis X (best seen in FIGS. 5D, 5E, 7B and 7C) for mounting over the support beams 20 by a pair of mounting shims 34 (to be discussed in greater detail hereinafter; In FIGS. 7B-7E referred to specifically as 34A and 34B). Respective ends of the side bars 16 (tab mounting units) are each fitted with three orthogonal tab couplers, generally designated 38, disposed at three respective faces of the side bars 16. The tab couplers 38 extend coplanar (i.e. at the same elevation along the longitudinal X axis) and are disposed at right angles Y and Z (e.g. FIG. 3C).

(68) The coupler 38 is part of a coupling system according to the disclosure, whereby particular reference is now being made to the tab coupler 38 comprising a locking tab 40 extending along a locking axis (axes Y and Z, respectively) from a locking face 42 and configured with a round, T-like sectioned head with a cylindrical neck portion 46. As can be seen, best in FIG. 5E, the arrangement is such that the locking tab 40 has a neck having a diameter D.sub.LTN smaller than a diameter of a head diameter D.sub.LTH (D.sub.LTN<D.sub.LTH); and wherein the locking tab neck has a thickness T.sub.LTN and a locking tab head thickness T.sub.LTH. A front (head) face and a back wall face of the locking tab 40 are substantially parallel to one another and to the locking face 42. The tab coupler 38 is further configured with a barrier member in the form of wall 48 extending at least along a portion opposite said locking tab and spaced from the locking tab 40 at a distance d.sub.bar measured between the barrier wall and the neck 46 of the locking tab 40, and the barrier wall 48 has a thickens T.sub.BW as measured from the locking face 42.

(69) Turning now to FIGS. 4A to 4E reference is made to a socket coupler 50 of the coupling system, configured for engagement with the tab coupler 38 discussed hereinabove. The socket coupler 50 comprises a body portion 54 with a receiving receptacle 56 and at least one screw fastener bore 58 for coupling thereto any construction element (e.g. support beams 20, as will be discussed hereinafter), though it is appreciated that any construction element can be integral with, or integrated with the socket coupler 50.

(70) The socket coupler 50 is further configured with a U-shaped locking socket 60 projecting from a mounting face 62 along a socket coupler axis P, extending normal to said mounting face 62, said locking socket having an opening of width W.sub.LS. Locking socket 60 is further configured with a U-shaped tab arresting groove 64, wherein inside side walls 65 of the tab arresting groove 64 extend substantially parallel to one another (FIGS. 4E, 4D).

(71) The locking socket 60 has an external diameter D.sub.LS and the tab arresting grove 64 has a diameter D.sub.AG is smaller than the diameter of the locking socket D.sub.LS (D.sub.AG<D.sub.LS). The locking socket head has a thickness T.sub.LSH and the tab arresting grove has a thickness T.sub.TAG.

(72) The arrangement according to the disclosure is such that the following relations occur:

(73) the width W.sub.LS of the locking socket 60 is substantially similar to a diameter of the tab arresting grove D.sub.AG (W.sub.LS=D.sub.AG);

(74) the diameter of the tab arresting grove D.sub.AG is smaller than the diameter of the locking socket D.sub.LS (D.sub.AG<D.sub.LS);

(75) the neck diameter D.sub.LTN of the locking tab is smaller than a diameter of the head diameter D.sub.LTH (D.sub.LTN<D.sub.LTH);

(76) the thickness of locking tab neck T.sub.LTN is similar to or slightly greater than a thickness of the locking socket head T.sub.LSH (T.sub.LTN≥T.sub.LSH); and

(77) the thickness of the tab arresting grove T.sub.TAG is similar or slightly greater than a thickness of locking tab head T.sub.LTH (T.sub.TAG≥T.sub.LTH).

(78) As can further be seen, the tab coupler is optionally configured with a foolproof guard 70 (best seen in FIGS. 3E, 5F, 6F), for prevention rotation of the socket coupler beyond the locked position. The foolproof guard 70 is in the form of an extension along two tangents at a 4.sup.th quadrant of the round neck 46 of the locking tab 40, such that it does not project beyond the radii along the X and Z axes. The foolproof guard 70 prevents over rotation of the socket coupler 50 beyond the locked position (i.e. beyond 90°).

(79) The set of ratios between elements of the coupling system, namely locking tab 40 and the locking socket 60, plays a role in locking engagement of the tab coupler 38 and the socket coupler 50.

(80) With further particular reference made also to FIGS. 3F and 3G, a tolerance cancelation arrangement is configured between the tab coupler 38 and the socket coupler 50 to thereby cancel or reduce to minimum tolerances therebetween. Referring first to the tab coupler 38 the tolerance cancelation arrangement comprises a first projection, namely elevated surface 80 from the locking face 42, said elevated surface 80 oriented along the Z axis and extending substantially parallel to the surface of locking face 42. A second projection, namely elevated surface 82 is configured at the front, head face of locking tab 40, said elevated surface 82 also oriented along the Z axis and extending substantially parallel to the surface of head face of locking tab 40.

(81) Further reference is now made to socket coupler 50 wherein the mounting face 62 is configured with a central depressed portion 84 extending between two lateral elevated portions 86, wherein said depressed portion 84 and said lateral elevated portions 86 are oriented parallel to walls 65 of the tab arresting groove 64. The front, head face of the locking socket 60 is also configured with a depressed surface portion 88 between two elevated face surface 90 (FIG. 4A), oriented parallel to said central depressed portion 84 and two lateral elevated portions 86.

(82) The width and projection of the first elevated surface 80 (the locking face 42 of tab coupler 38) corresponds with width and projection of the depressed surface portion 88 (head face of the locking socket 60) and the width and projection of the second elevated surface 82 (at the front, head face of locking tab 40) corresponds with width and projection of the central depressed surface portion 84 (at the mounting face 62 of locking socket 60). The orientation of the elevations/depressions 80, 82 of the tab coupler 38 are oriented at 90° with respect to the elevations/depressions 88, 90 of the locking socket 60, such that at the unlocked position they all extend coaxially (i.e. parallel to one another) and at the locked position they extend normal to one another, i.e. the tolerance cancelation arrangement takes place, as will be explained herein below.

(83) Locking engagement of the socket coupler 50 with the tab coupler 38 (regardless of what the construction is) takes place as follows: first, the socket coupler 50 is brought to the vicinity of the tab coupler 38 oriented such that the opening of the locking socket 60 faces the locking tab 40 (FIG. 12B). Then, the socket coupler 50 is displaced over the tab coupler 38, in direction of arrow 100 in FIG. 12B, such that slidingly surfaces 84 and 88 of the socket coupler 50 slide over surfaces 80 and 82, respectively, of the tab coupler 38. Once fully introduced, i.e. when the arresting groove 64 of the socket coupler 50 encounters the neck portion 46 of the tab coupler 38 (this position is depicted in FIGS. 6A to 6F) the P axis of the socket coupler 50 coincides with the Y axis of the tab coupler 38 and then the socket coupler 50 is rotated at 90° about the P axis (in direction of arrow 102 in FIGS. 12C and 12D) into the locked position. At the locked position the socket coupler 50 can not detach from the tab coupler 38, unless rotated in a counter direction of arrow 102, into the unlocked position. As mentioned above, at the unlocked position the tolerance cancelation projections of the tab coupler and of the socket coupler are coaxially oriented and do not interlace with one another, and at the locked position the tolerance cancelation projections bear against one another so as to apply axial pressure between the tab coupler and the socket coupler (along the coaxial axes P and Y).

(84) Further attention is now made to FIGS. 7A to 7E, directed to a post mounting assembly generally designate 110. As seen, the support post 12 is composed of several (identical) cylindrical tubular segments 12i, 12ii, etc., screw coupled to one another, as seen for example in FIG. 11A. The support post 12 is configured with indicia 114 in the form of numbers representing axial increments along the support post 12. The support post 12 is further configured with a plurality of equally spaced annular grooves 116.

(85) A pair of shims 34A and 34B is provided, said shims 34 being identical though inverted (up-side down) and each having a cylindrical portion inside surface 120 and a tapering outside face 122, with one or more (three in the illustrated example) radial projections 126. Each of the shims 34A and 34B comprises a cut out portion 128 and a complimentary projecting tab 132, said tap configured for snap arresting within the cut out portion 128 so that the two shims 34A and 34B engage to become a cylindrical sleeve like element. The shims 34A and 34B are further configured with a window 134 facilitating viewing the indicia 114 marked on the surface of the support post 12.

(86) Upon assembly, the shims 34A and 34B are placed over the support post 12 at an embracing position (FIG. 7D), at a desired elevation (this can be easily appreciated through the visualizing aperture 134), whereupon the side bar 16 is placed over the adjoining shims such that the inside tapering surface of bore 30 embrace the shims over the support post 12 and whereby the side bar 16 can displace thereover until the inclined surfaces (that of the inside bore 30 and that of the outside surface 122 of the shims) coincide, whereby the side bar 16 is axially arrested and will not further displace along the support post 12, unless lifted from the shims 34.

(87) FIGS. 8A and 8B are directed to a ground piece 140 articulated to a bottom most pole support segment 12iii of the shelving system 10, wherein the ground piece 140 comprises a floor engaging portion 142 and an internally threaded neck portion 144 configured for screw coupling at a bottom of the pole support segment 12iii. The ground piece 140 can be thread coupled all the way trough or part way only, so as to regulate the height of the support post, e.g. over an uneven surface.

(88) Although not shown, it is appreciated that a sealing support piece can be articulated by screw coupling at a top end of an upper most support post segment, to thereby axially bear against a ceiling surface.

(89) FIGS. 9A and 9B illustrate a swivel wheel 150 articulated to the bottom most pole support segment 12iii of the shelving system 10, in a similar fashion as ground piece 140 discussed hereinabove, whereby the shelving system 10 (or any construction assembly) can be easily wheeled over a surface.

(90) Further attention is now directed to FIGS. 10 to 14 for explaining how a construction assembly, e.g. a shelving system 10, according to the present disclosure is assembled.

(91) In FIGS. 10A to 10D there is shown a support beam 20, of generally rectangle cross-section, made for example of extruded metal, is fitted at its respective ends into receptacle 56 of a socket coupler 50 and secured in place by a screw inserted through fastener bore 58, obtaining a support beam sub-assembly 158.

(92) Then, all support posts 12A-12D are assembled by screw coupling the support posts segments to one another (FIG. 11A) and the shims 34A and 34B are placed over the respective support post at the desired elevation (FIG. 11B) allowing the respective side bars 16 to be fixed at the desired location, as explained hereinabove with reference to FIGS. 7A to 7E, and the ground piece 140 are fitted too, obtaining two ladder-like sub-assemblies 160 (FIG. 12A).

(93) Further, the support beam sub-assemblies are 158 (FIG. 10A) placed in proximity with the ladder-like sub-assemblies 160 (FIGS. 12A and 12B) and then the support beam sub-assemblies 158 are slidingly displaced into the unlocked position of the socket couplers 50 with respect to the tab couplers 38 of the side beams 16 (as explained in connection with FIGS. 6A-6F above) and as illustrated in FIGS. 12C and 12D. rotating the support beam sub-assemblies 158 in direction of arrow 102 (FIGS. 12C and 12D) entails locking engagement of the socket couplers 50 with the tab couplers 38 as explained hereinabove, whereby a shelving construction assembly 166 is configured (FIG. 13A).

(94) Finally, the shelving tiles 24 are placed over the leveled support beams 20 (FIGS. 14A and 14B). Fixing the shelving tiles 24 over the support beans can be facilitated by a groove 170 configured along a bottom face of side portions of the shelving tiles 24, wherein said groove can be continuous (not shown) or comprise several co-extensive ribs 172 each with a cutout shaped for snugly and snappingly mounting over the T-like shaped top portion of the support beams 20.

(95) FIG. 15 illustrates a square tab mounting unit generally designated 180, configured with a central tapering bore 182, fitted for mounting on a support post (not shown) in a similar fashion as discussed herein before with reference to side bars 16. The tab mounting unit 180 comprising four tab couplers 184 (only three of which are seen) and a perimetric barrier wall 186, similar to the disclosure of tab couplers 36 mentioned before, and wherein coupling thereto a socket coupler (not shown) takes place in a similar fashion as discussed. For example, four such a square tab mounting units 180 can replace two side bars 16 of the previous example.

(96) With reference to FIGS. 16A to 17D there is illustrated a socket coupler generally designated 190 for use in conjunction with a tab coupler 192, both being similar to the respective socket coupler 50 and tab coupler 38 discussed before, however with a securing arrangement comprising a bulge 196 projecting from a top, flat locking surface 198 of the socket coupler 190, and configured for snappingly arresting within a depression 200 configured at a bottom face of arresting wall 202 of the tab socket 192. The arrangement is such that once rotated into the locked position (arrow 210 in FIG. 16C) the locking surface 198 snugly bears against arresting wall 202 and the bulge 196 snappingly arrests within depression 200, whereby the socket coupler 190 is prevented from rotating beyond 90° and the two elements are arrested at the locked position to prevent spontaneous unlocking.

(97) FIGS. 17A to 17E illustrate a construction system, namely an L-like shaped shelving system generally designated 220, wherein principal elements are identical with those illustrated and described with reference to pervious figures. The shelving system 220 comprises two co-extending shelve sections 222 and 224 and a third section 226 articulated at a right angle to the shelve section 224, as will be discussed.

(98) Shelve sections 222 and 224 share a common set of support posts 228, wherein central side bars 16′ (identical with side bar 16 discussed hereinabove) facilitates for coupling a socket coupler at each side thereof, along the Y axis. In FIG. 17A the shelve section 224 is supported at its right side by only one support post 232 at a rear right side thereof, though it is appreciated that a front right side support post can be configured as well.

(99) Shelve section 226 is articulated to shelve section 224 by coupling a socket coupler 232 of support beam 234 to a front-facing tab coupler 238 of side bar 16″ (i.e. tab coupler disposed along the Z axis) similarly as discussed hereinabove. The front support beam 240 is articulated to the support beam 242 of shelve section 224 by socket coupler 246 (fixed at the end of support beam 240) which in turn is coupled to a tab mounting unit 250 in the form of a solid sheet element bent to embrace the support bar 242 and configured with a tab coupler (not seen) to which the socket coupler 246 is coupled.

(100) The system is modular and versatile. For example, if required, an additional shelve (or any other construction element) can be articulated to the front tab coupler 252 of central side bar 16′ (FIG. 17C).