Interlocking Building Blocks with Cap Attachments for Thermal Stability
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Solution Overview
Problem
Existing non-masonry interlocking mortarless building blocks are costly to produce, not reusable, require clean assembly to interlock successfully, and do not account for expansion and shrinkage due to temperature changes, leading to structural instability.
Innovation Solution
A system of eleven hollow prefabricated, non-masonry, mortarless interlocking building blocks made of polymer plastic or composite materials with threaded rods for vertical reinforcement, featuring male and female French dovetail joints for easy assembly and disassembly, and cap attachments for structural integrity and versatility in angles.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If traditional non-masonry interlocking mortarless building blocks are used, then assembly speed is improved, but manufacturing cost increases and reusability is lost
Solution Approach 1:
The building block is divided into a base portion and a cap portion that can be separately manufactured and then assembled. This segmentation allows each part to be produced independently using cost-effective methods while maintaining the interlocking functionality, thereby reducing manufacturing costs without sacrificing assembly speed
Solution Approach 2:
The cap portion is designed as a removable component that can be detached and reused on different base portions. This recoverability feature eliminates waste, allows repeated use of the same cap across multiple blocks, and significantly reduces long-term manufacturing costs while maintaining rapid assembly capabilities
2Ease of operation
If traditional interlocking building blocks are used, then assembly simplicity is improved, but structural stability deteriorates due to expansion and shrinkage
Solution Approach 1:
The cap portion is designed with flexible attachment mechanisms that allow it to accommodate thermal expansion and contraction of the base portion. The dynamic connection enables the structure to adapt to temperature changes without compromising stability, while maintaining simple interlocking assembly procedures
Solution Approach 2:
The design explicitly accounts for thermal expansion by creating clearance and flexible connection points between the cap and base portions. This allows the material to expand and contract with temperature changes without creating excessive stress that would destabilize the structure, thereby maintaining both assembly simplicity and structural stability
3Productivity
If traditional interlocking building blocks are used, then construction speed is improved, but reusability is lost due to permanent filling
Solution Approach 1:
By separating the block into removable cap and base portions, the design enables complete disassembly and reuse of components. The cap can be detached and transferred to another base portion for continued use, eliminating the need for permanent filling and allowing rapid reconstruction in different locations
Solution Approach 2:
The cap portion is designed as a reusable component that can be recovered and reused on different base portions after disassembly. This recoverability feature maintains construction speed while enabling multiple cycles of use, thereby achieving both rapid construction and reusability
4Ease of operation
If traditional interlocking building blocks are used, then assembly ease is improved, but manufacturing precision requirements increase
Solution Approach 1:
Dividing the block into cap and base portions allows each component to be manufactured with relaxed tolerances independently. The segmentation reduces the cumulative precision requirements compared to manufacturing a single complex interlocking block, while still achieving easy assembly through the simplified cap-to-base attachment mechanism
Data Source
AI summary
A building block system of a plurality of transportable, lightweight, and reusable hollow prefabricated non-masonry interlocking mortarless building blocks that have corresponding mating formations being protuberances and concavities that run vertically up the building blocks being joined together and when aligned in a staggered manner upwardly are held together with threaded reinforcement rods extending vertically between and connected to the top and bottom channels through connectable couplings and capped off with complementary cap attachments.


