US2025034872A1PendingUtilityA1
Reinforcement structure for forming a triangular concrete floor or ceiling slab
Est. expiryJul 24, 2043(~17 yrs left)· nominal 20-yr term from priority
Inventors:Ilan Shemesh
E04C 5/06E04C 2/06E04B 5/29E04B 5/43E04C 3/293E04C 5/0645
55
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Claims
Abstract
A reinforcement structure for forming a concrete slab having a triangular circumferential beam and a plurality of central ribs. Each of the central ribs are attached between two sides of the three sides of the triangular circumferential beam. The structure also includes a plurality of reinforcing bars included in the triangular circumferential beam. Each of the reinforcing bars are tensionally attached between two corners of the triangular circumferential beam.
Claims
exact text as granted — not AI-modifiedWhat is claimed:
1 . A reinforcement structure for forming a concrete slab, the reinforcement structure comprising:
a triangular circumferential beam; a plurality of central ribs, wherein each of the central ribs are attached between two sides of the three sides of the triangular circumferential beam; and a plurality of reinforcing bars included in the triangular circumferential beam, wherein each of the reinforcing bars are tensionally attached between two corners of the triangular circumferential beam.
2 . The reinforcement structure of claim 1 , further comprising:
a plurality of conduits to house at least the plurality of reinforcing bars; a mould that houses a reinforcement cage, wherein the reinforcement cage surrounds at least the triangular circumferential beam and the plurality of reinforcing bars; and at least one reinforcement mesh placed on top of the reinforcement cage and on the bottom of the mould, wherein pouring concrete into the mould and allowing a setting of the concrete, a tensile force applied to the plurality of reinforcing bars between two corners of the triangular circumferential beam responsive to the setting, forms the concrete slab as a compressed concrete slab.
3 . The reinforcement structure of claim 2 , wherein a casting pattern of the mould enables the routing, attachment of the plurality of conduits in the concrete slab, and the connection between at least one of another adjacent concrete slab or another building element.
4 . The reinforcement structure of claim 2 , wherein the mould is constructed from at least one of steel, carbon fibre, aluminum and fiberglass, wherein the mould is further attached to a moveable platform to enable a level casting of concrete into the mould is located in at least one of a factory, at a construction site and a mobile factory, wherein the utilization of the mobile factory enables the fabrication of the reinforcement structure, plurality of conduits, and the at least one reinforcement mesh to be attached to the mould prior to pouring of concrete.
5 . The reinforcement structure of claim 2 , wherein the plurality of conduits house and route at least one of electrical cables, water lines, and gas lines to various locations on or in the reinforcement structure, wherein the plurality of conduits are connectable to other respective conduits included in a vertical column that attaches to the reinforcement structure.
6 . The reinforcement structure of claim 2 , wherein the tensile force is applied prior to the concrete setting, thereby forming the concrete slab as a pre-stressed concrete slab.
7 . The reinforcement structure of claim 1 , further comprising:
a plurality of fasteners disposed about each of the sides the triangular circumferential beam to enable mechanical attachment of one side of the triangular circumferential beam to another corresponding side of another adjacent triangular circumferential beam.
8 . The reinforcement structure of claim 1 , further comprising:
at least one plate section included at each corner of the triangular circumferential beam to enable at least one of an attachment of the triangular circumferential beam perpendicular to a vertical column, attachment of the triangular circumferential beam to another triangular circumferential beam, attachment to a walls of a building, and attachment to the shell of a building.
9 . The reinforcement structure of claim 8 , wherein at least one cantilever beam is attached to perpendicular the at least one plate section, the vertical column, and a side between each corner of the triangular circumferential beam to enable a balcony or a canopy on the exterior of a building structure.
10 . The reinforcement structure of claim 8 , further comprising:
an eye attached to a least one plate section to enable the lifting by a hook and placing of the reinforcement structure adjacent to another structural member or another adjacent triangular circumferential beam, wherein the eye is attachable to the least one plate section prior to pouring and setting of concrete or post pouring and setting of concrete.
11 . The reinforcement structure of claim 1 , wherein the triangular circumferential beam (B 2 sides, B 1 hypotenuse) is at least one of a right triangle, an isosceles right triangle, 30 degrees (°)-60°-90° triangle, oblique triangle, or irregular triangular shape.
12 . A method of manufacturing a reinforcement structure for forming a concrete slab, the method comprising:
constructing a triangular circumferential beam; attaching the plurality of central ribs between two sides of the three sides of the triangular circumferential beam; and tensionally attaching a plurality of reinforcing bars between two corners of the triangular circumferential beam.
13 . The method of claim 12 , further comprising:
housing the plurality of reinforcing bars with a plurality of conduits; attaching a bottom reinforcement mesh into a mould, placing the reinforcement structure into the mould, wherein the mould includes a reinforcement cage that surrounds and attaches to at least the triangular circumferential beam and the plurality of reinforcing bars; attaching a top reinforcement mesh on top of the reinforcement cage; pouring concrete into the mould and allowing the setting of the concrete; and applying a tensile force to the plurality of reinforcing bars between two corners of the triangular circumferential beam responsive to the setting forms the concrete slab as a compressed concrete slab, wherein the applying is enabled by the housing.
14 . The method of claim 12 , wherein the tensile force is applied prior to the concrete setting, thereby forming the concrete slab as a pre-stressed concrete slab.
15 . The method of claim 12 further comprising:
housing in at least some of the plurality of conduits house at least one of electrical cables, water lines and gas lines, wherein the at least some of the plurality of conduits are connectable to other respective conduits included in a vertical column that attaches to the stressed concrete slab.
16 . The method of claim 12 , wherein the placing and the pouring are performed prior to transportation of the stressed concrete slab to a construction site.
17 . The method of claim 12 , wherein the placing and the pouring are performed onsite at a construction site.
18 . The method of claim 12 , wherein a casting pattern of the mould enables the routing and attachment of the plurality of conduits in the concrete slab and the connection between at least one of another adjacent concrete slab or another building element.
19 . The method of claim 12 , wherein the mould is constructed from at least one of steel, carbon fibre, aluminum and fiberglass, wherein the mould is further attached to a moveable platform to enable a level casting of concrete into the mould located in at least one of a factory, at a construction site and a mobile factory, wherein the utilization of the mobile factory enables the fabrication of the reinforcement structure, plurality of conduits, and the at least one reinforcement mesh to be attached to the mould prior to pouring of concrete.Join the waitlist — get patent alerts
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