Fitted Gigacubes Snap-Interlocking Building Blocks
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Solution Overview
Problem
Existing building blocks and containers lack versatility in space-saving designs that allow for easy assembly, disassembly, and multifunctionality, failing to efficiently utilize space and material resources.
Innovation Solution
The development of flexible and rigid building blocks with 's' snaps that can interlock in various configurations, allowing for compact storage, easy assembly, and versatile use as containers for food and objects, using snap, hook, and lock mechanisms, as well as magnetic and screw affixations, to create a wide range of structures and constructions.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Strength
If building blocks use traditional connection methods (screws, nails, adhesives), then structural strength is improved, but material consumption and assembly complexity increase
Solution Approach 1:
The connection mechanism is segmented into separate functional elements: recesses in one block and corresponding protrusions in another block. This segmentation allows each block to have built-in connection features without requiring additional fastening materials, thereby reducing material consumption while maintaining structural strength through the interlocking geometry of the segmented connection elements.
Solution Approach 2:
The connection features (recesses and protrusions) are merged directly into the building blocks themselves during manufacturing. This merging eliminates the need for separate fasteners, adhesives, or joining materials, reducing overall material consumption while ensuring that the connection strength is integrated into the block structure rather than added as a separate component.
2Strength
If building blocks use traditional connection methods, then structural strength is improved, but assembly ease and disassembly ease deteriorate
Solution Approach 1:
The connection system is segmented into simple geometric features (recesses and protrusions) that can be easily aligned and engaged without complex tools or procedures. This segmentation into basic shapes makes the assembly process intuitive and easy to perform while maintaining structural strength through the interlocking geometry of the segmented connection elements.
Solution Approach 2:
Instead of using protruding fasteners that must be driven into place, the design inverts the approach by using recesses that receive and hold the protrusions from other blocks. This inversion makes assembly easier as the blocks naturally guide themselves into the correct position through the recess-protrusion interface, while still providing strong structural connection.
3Volume of moving object
If building blocks are designed for compact storage (fitting into themselves), then space efficiency is improved, but structural strength and connection versatility worsen
Solution Approach 1:
The building blocks are designed with recesses that allow smaller blocks to nest within larger blocks, creating a compact storage configuration similar to nested dolls. This nesting capability achieves space-efficient storage while the interlocking recess-protrusion geometry maintains structural strength during the nesting process and when blocks are connected in various configurations.
Solution Approach 2:
The recess and protrusion features serve multiple functions: they enable compact nesting for storage, provide strong structural connections when blocks are assembled, and allow versatile configuration options. This multi-functionality resolves the contradiction by making the same geometric features serve both space-saving and strength-providing roles.
4Adaptability or versatility
If building blocks include multiple connection mechanisms (snaps, hooks, locks, magnets), then connection versatility is improved, but device complexity increases
Solution Approach 1:
The recess and protrusion geometry serves as a universal connection interface that can accommodate multiple connection modes (snapping, hooking, locking) depending on the specific block configuration. This universal interface provides connection versatility without requiring separate mechanisms for each connection type, as the same basic geometry enables all connection variations.
Solution Approach 2:
Multiple connection functions (snapping, hooking, locking) are merged into a single recess-protrusion interface system. Instead of having separate mechanisms for each connection type, the design combines all connection capabilities into one integrated geometric feature set, reducing device complexity while maintaining connection versatility.
Data Source
AI summary
The Invention is a collection of snap, knob and other interfaces on basic shapes comprised of cubes, boxes and cups (cylinders) that fit together in versatile ways to empower builders with compact pieces. The basic shapes can fit into themselves a variety of different ways to make their constructions stronger, to make them store in a more compact and strong manner, or to occupy more space or hold food or liquids. The snaps, knobs and hooks, and the basic shapes of the pieces themselves, are all designed to maximize versatile utility that can be made with flexible pieces (like rubber or flexible plastic), rigid materials (like ceramics, cast iron or glass), and combinations of flexible and rigid materials. The combinations can also be made at different strengths because the hardness of the interfaces can be adjusted to have a secure fit, a loose fit, or a moderately strong fit.