Construction Material TRIZ Cases

Fiber-reinforced polymeric wall panels use angled fiber schedules to deliver high crush resistance while maintaining lightweight construction.

A spacing layer beneath the substrate increases shingle thickness without adding asphalt weight.

Interlocking tongue and groove profiles on building boards eliminate puttying steps, removing long drying times and buffer stock requirements.

Alternating porous fibre and thermoplastic layers form a self-supporting laminate via melt penetration.

A prefabricated support frame with integral retaining members aligns slip tubes to prevent buckling and unevenness at cold joints.

Spaced metal foils reinforce the plastic body without cracking during bending, preserving gas diffusion tightness and thermal insulation performance.

Segmented fixed and sliding bearing modules distribute shear forces and accommodate thermal expansion in long wall structures.

A plaster coating apparatus deposits cementitious material onto block substrates using a vibrating mold and pressurized manifold system.

Spheroidal cell walls distribute stress across inverted receptacles, resolving the trade-off between load-bearing capacity and manufacturing complexity.

Pre-molded thermoplastic foam holds reinforcing materials to prevent rattling and shrinkage distortion.

A hemp concrete panel uses a siliceous interface layer to bond natural fiber insulation to structural concrete faces.

Pre-assembled log wall panels reduce on-site construction time by drying wood logs under load in a kiln, minimizing settling and compression issues.

Interlocking panel tabs reduce joint stress from differential floor movement during installation.

Pultruded fiber reinforced polymer building assemblies utilize composite materials for structural components.

A polymer layer on the back cover sheet improves adhesion between the gypsum board core and paper despite high chloride salt concentrations.

Segmented panels with universal connectors adapt to varying structural geometries without custom fabrication.

Tensioning safety ropes against protruding steel bars prevents sideways displacement of the anchor mast base on low friction concrete slabs.

Assembling prefabricated floor panels with mixed widths reduces construction time and material waste in modular building projects.

Interlocking foam panel blocks with protective cladding streamline wall retrofitting, reducing installation time and labor costs.

Tongue-and-groove pre-insulated panels embed vertical c-channels in EPS foam, creating integrated wiring chases that reduce on-site assembly time.

A foam wall structure combines a polyiso board with expanding spray foam to create a unified insulation layer.

Modular fiberglass wall panels resolve acoustic reflection and installation complexity by integrating porous insulation with a replaceable glass textile facer.

Magnesium oxide board eliminates silicate health hazards while providing fire and water resistance through composite material formulation.

Direct bolt fixation eliminates splice plates, extending steel pipe length to increase rigidity while simplifying installation.

A trapezoidal cross-section tongue reduces insertion force during assembly.

A rice hull composite panel combines unground, ground, and powdered rice hulls with a recycled plastic binder to form durable construction materials.

A panel casting system pours concrete vertically into inserts onsite to eliminate heavy panel transport.

A hybrid composite beam uses a fiber-reinforced plastic shell to reduce self-weight while maintaining structural integrity.

An acoustic modular segment isolates fixing component receivers from the insulating material, resolving sound leakage while enabling flexible assembly.

A prefabricated module couples a foamed matrix to a metal structure for self-supporting construction.

Segmentation separates light transmission from thermal insulation, resolving the trade-off between illumination intensity and insulating performance.

Organic-inorganic foaming synergy creates even foam structure for sound reduction while stabilizer prevents thermal decomposition.

Composite fabric laminate replaces release paper in cement panel manufacturing, eliminating single-use waste and enhancing production efficiency.

An intermediary frame with cross members and clips supports PET felt panels in legacy grids, lowering modernization costs while preserving acoustic performance.

Porous coatings increase surface friction by 10% to reduce slipping risks during roof installation while preserving vapor diffusion.

Slip lock tabs engage slots in arcuate panels to form tubular structures, reducing assembly time.

Resinous coating joins basalt-fiberglass yarns to boost flexural strength despite alkaline degradation.

High-density sintered expanded polystyrene embeds a steel box structure to resolve the contradiction between reinforced concrete strength and excessive weight.

A fire-resistant glass block assembly uses a thermal break channel to separate glass portions and mitigate radiant heat transfer.

Continuous unitary layer with linearly interlocked ribs and slidably interfitted studs resists shear, racking, and impact forces.

Radiation curable material penetrates fiber cement pores to form a mechanically interlocking network that resists environmental degradation.

Mechanical anchoring in air voids secures high-pressure laminate layers, resolving the trade-off between panel stability and weight.

Cementitious panel with factory-applied polymeric membrane unifies sheathing and barrier installation.

Layered precast pervious concrete panels achieve improved strength and durability while minimizing environmental impact through controlled factory production.

Transparent tapered rods embedded in concrete transmit light from protected sources, preventing weather damage to electronic components.

Segmented hollow chambers with variable web thickness improve structural integrity while minimizing heat loss through reduced thermal bridging.

Modular carbon steel base units with detachable axles enable rapid border wall assembly, eliminating extensive foundation work and reducing construction time.

Hierarchical webs in a fractalgrid design resolve the trade-off between local buckling prevention and structure weight, achieving over 11% savings.

Insulating base and filling portions within the connector resist heat flow between concrete panels and steel frames, achieving U-values below 0.06 W/m2K.