The present invention relates to a non-masonry, durable plastic polymer block system comprising motarless interlocking building blocks designed for easy assembly and disassembly not requiring prior construction knowledge, trade skills or specialty tools. A plurality of modified dove tails horizontally affixed to the upper and lower portion of the blocks allow the blocks to be slideably locked to the upper and lower surfaces of four adjacent blocks. The dovetails of the present invention have been structurally modified to allow multiple drop points from which the dovetails of vertically adjacent blocks can be lowered. By sectioning the dovetails of the upper surface and lower surface of the building blocks the maximum horizontal distance necessary to adjoin two adjacent building components is minimized making construction less cumbersome while providing a secure connection.
Additionally, a resistance-locking feature is disposed on each end of each block to provide an additional end to end connection for two adjacent blocks. The dual locking features of the components allow a total of six adjacent blocks to be affixed and locked, vertically an horizontally, into place. Openings within each block component allows for the resulting temporary or permanent structures to be outfitted with electrical wiring, plumbing, additional insulation, impact absorbing material and/or support members.
The innovative building block components were designed to address problems that exist in current masonry and non-masonry block systems. Presently, a vast majority of blocks used for construction are made of concrete, terra cotta or similar substance and are joined using mortar or other bonding agent. In other prior art the weight and friction of the blocks represents the sole means of staying the individual components. Non-masonry building components that have been previously developed in a polymer form often require additional rebar or adhesives which permanently affix the components to one another. This practice limits the life of the building components to a single use that requires demolition and cleanup when the structure is no longer viable, producing waste materials for disposal.
In the prior art a single fault in the bonding material results in a loss of structural integrity for the structure as a whole. Unlike bonded masonry blocks the material of the present invention and secure dual locking connection means resists compromise from extraneous variables due to weather, earthquakes, poor construction knowledge or the stress on the materials due to the construction process.
Additionally, the proposed building block system can be used to address a long felt need in the area of military construction. By filling the hollow-bodied embodiment of the present invention with sand or similar on-site materials, the blocks create an effective insulated and bullet resistant shelter while maintaining the mobility and ease of installation necessary in wartime situations. The building components of the present invention can also be mobilized over rough terrain without risk of structural compromise.
An embodiment of the present invention is a reusable block system that provides integrated horizontal and vertical hollows for outfitting permanent or temporary structures with both electrical wiring and plumbing while leaving both the external and internal surfaces of the finished structure aesthetically pleasing. The resulting system would be comprised of components that were dimensionally equivalent to that of standard masonry blocks for smooth building plan conversion.
Three blocks make up the basic block system, which includes, a base block, a left corner block and a right corner block that are all made of a virtually indestructible polymer plastic, or equivalent material, which is both water, pest and earthquake resistant. Unlike standard masonry blocks the material of the present invention can be easily tooled without destroying the integrity of the block.
The standard blocks or, base block components, are comprised of modified sliding dovetails and resistance lock features which allow the blocks to self-align, self plumb and self level without the need for bonding agents, special tools or highly skilled labor. The ease of assembly can also be readily reversed to disassemble a structure while maintaining the structural integrity of the blocks for future use. This application is of particular interest to military and disaster relief efforts that often need fast, temporary structures that can be removed without demolition equipment.
In addition, the lack of necessity for adhesives or mortar allows the blocks to be quickly utilized in any environment or climatic conditions without the need to wait for bonding agents to dry, or set. Without bonding agents a more readily useable product is produced for the untrained consumer while limiting the amount of on-site materials, bonding application tools and time spent on a site.
In the following description, numerous specific details and options of the present invention are set forth in order to provide a more thorough understanding of the claimed invention. It will be appreciated, however, by one skilled in the art that the building block components may be practiced without such specific details or optional components and that such descriptions are merely for convenience and as such solely selected for the purpose of illustrating the invention. Reference to the figures showing embodiments of the present invention are made to describe the invention and do not limit the scope of the disclosure herein.
For this application the term building components refers to non-masonry blocks including those constructed with plastic polymers, or blends thereof that are constructed in the preferred formations of this disclosure.
A base block 10 of the current invention consists of a front face 11, rear face 12, left end 13, right end 14, upper surface 15 and a lower surface 16. The upper surface 15 and lower surface 16 contain a horizontal concave channel 22 as shown in
The front face 11 and the rear face 12 in one embodiment of the block components are essentially smooth planar surfaces. An additional embodiment includes the addition of textures or designs to allow for an aesthetically pleasing finished result both internally and externally of a finished structure. As illustrated in
As shown in
The thickness of the flexible proximal ends 30 can be modified to adjust the overall resistance of the resistance locking feature 28, 29, 30 of the base block 10 components and to ensure proper functionality. Unlike bonded masonry units the flexibility of the resistance locking feature and the block material precludes the components from breaking or cracking during stress related to the environment or the construction and deconstruction process. One embodiment of the resistance locking feature 28, 29, 30 includes dividing the bulbous distal ends 29 into a plurality of smaller tab-like projections 31, as shown in the perspective view of
Additionally, the vertical concave channel 21 running from the upper surface 15 to the lower surface 16 produces a vertical cylindrical opening 20 when additional building components are affixed to one of the respective ends 13,14 as shown in
Between the horizontal ledge 25 and the upper surface 15 of the front face 11 and the rear face 12, multiple modified horizontal dovetails 23 project outwardly from the base block 10. Complimentary lower surface modified horizontal dovetails 24 are disposed on the bottom surface overhang 26 projecting inwardly as in
The upper base block 10 can then be slideably coupled to the lower base block 10 by traversing the lower surface dovetails 24 of the upper base block over the upper surface dovetails 23 of the of the lower block until the dovetails 23,24 are vertically aligned. When affixed in the desired position each base block above the lower-most blocks will be vertically adjacent to four additional base blocks, two from above and two from below. With the dovetails aligned a watershed, air tight, seal is created by the lower surface overhang 26 in addition to a locking means preventing vertical movement of the coupled blocks.
The vertical cylindrical openings 20 of vertically adjacent blocks also become aligned to create an elongated cylindrical opening that traverses the height of the structure. Additionally, the horizontal concave channels 22 of the upper surface 15 and lower surface 16 of each vertically affixed block creates a horizontal cylindrical opening 48 which traverses the width of the wall or structure, as is shown in
A left corner block and a right corner block 40 can be incorporated into the use of the present invention to complete the perimeter of the external walls of a resulting structure. The corner blocks being of equivalent size and structure of the base blocks 10 possess modifications necessary to complete the ninety degree turn and allow for a vertical connection which is a necessity due to the lack of horizontal space remaining when base blocks 10 have been disposed on either side of the final block. The left end 13 or right end 14 as described in the base block components, and the equivalent structures found therein, are turned ninety degrees placing the turning end 41 on what was previously described as the front face 11 of the base block, as shown in
The modified dovetails 23 and the previously defined resistance locking feature 28, 29, 30 of the base block 10 are also present on the corner blocks with some modifications due to the unavailability of space when affixing the final block. The lower surface dovetails 24, as described in the base block 10, are removed on the corner blocks and rectangular voids 45 in the lower surface overhang 26 are disposed in their place with the exception of the dovetail 24 that would be located nearest the turning end 41, which is removed as illustrated in
The resistance locking feature 28, 29, 30 of the base blocks 10 are also present on the corner blocks 40 and are engaged by vertically coupling, with a mallet or similar tool, the corner blocks 40 to the existing resistance locking feature 28,29,30 of two adjacent base blocks 10. When the corner block is fully engaged to the resistance lock of each adjacent block, the rectangular voids 43 disposed on the bottom surface of the corner block will enclose the dovetails 23 of the corner block located beneath it to further prevent horizontal movement.
An additional stabilizing modification to the corner block is the inclusion of a partial circular projection 46 which extends from the lower surface 16 of the block which partially traverses the cylindrical opening 20 nearest the turning end 40 of the corner block. The partial circular projection 46 terminates at the horizontal concave channel 22 of the lower surface 16 of the corner block 40. A corresponding upper surface circular indentation forms a circular ledge 47 in which the partial circular projection 46 can be lowered therein. The horizontal concave channel 22 of the corner block 40 follows the turning end ninety degrees to create an essentially L-shaped channel in which plumbing, electrical conduit or strengthening materials can be disposed therein. For additional support rebar or equivalent structures can be placed through the aligned cylindrical openings 20 of the stacked corner blocks.
This application was funded by an award from the Kentucky Science and Technology Corporation under Contract #146-403-207.
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