Armour Plates TRIZ Cases

Extrusion aligns ceramic armor elements within a metal casing to reduce manufacturing complexity while enabling load-bearing vehicle integration.

A lightweight bulletproof shield uses raw carbon fiber bonded with epoxy resin to resist high velocity projectiles.

Stab-in armor member bonds within aircraft panel edges to resolve weight and cost trade-offs while maintaining structural integrity.

Nanostructured ballistic armor integrates carbon fiber capacitors to detect projectile impacts via capacitance variation.

Reactive sintering creates a porous boron carbide and silicon carbide armor composite that reduces surface density while maintaining ballistic protection.

A laser safety wall uses ceramic fiber composite material to absorb radiation energy.

Overlapping shell layers seal the ballistics arresting core, preventing fluid damage and improving inter-laminar strength.

A ballistic protection material uses a metal mesh embedded in compacted ceramic particulate bound by an epoxy resin matrix to arrest projectiles.

Embedded ceramic spheres in light alloy matrix distort projectile paths and absorb kinetic energy, reducing armor weight while maintaining ballistic protection.

A knitted covering encloses laminates to prevent edge projectile escape while balancing weight.

A flexible blast surface dissipates impact energy using pinned entangled staples and particulate assemblies.

A multilayered composite ballistic article incorporates intermediate stress mitigation panels between adjacent layers to isolate impact forces.

A coupling element tension-couples ballistic bars to an outer surface, enabling elastic deformation that absorbs blast forces.

Segmented armor uses a flyer plate accelerated by impact energy to expand the penetrator tip, reducing vehicle weight while maintaining protection.

Optimized foam density and thickness short-circuit the piezoelectric sensor voltage pathway, preventing detonation upon impact.

Telescopic arms extend and retract to position protective grids away from walls, reducing lateral bulk while preserving interior access.

Pivotal hard points on a spaced net dig into warheads to prevent detonation and reduce vehicle weight.

Composite aluminum and ballistic material layers trap bullets and prevent ricochets without altering the exterior appearance of standard garage doors.

Composite shield body uses washer assemblies with ballistic cones and springs to absorb impact shock while maintaining structural integrity.

Manganese-rich cast steel fills a porous foam interlayer between ceramic and metal layers, eliminating gaps that cause splintering.

Hot pressing a calcium boride matrix with silicon carbide and boron carbide resolves the hardness density tradeoff in protective armor components.

Grooves in the upper plate hold geometric solids embedded in a light alloy matrix to dissipate projectile kinetic energy.

Embedding basalt fiber mesh within a cast aluminum alloy substrate resolves the weight-strength trade-off in personnel armor systems.

Gapped Aramid layers deflect 9 mm projectiles, resolving the trade-off between full-body coverage and rapid deployment speed.

Staggered rod joints in composite armor plates distribute impact energy, preventing premature fracture from hard projectile cores.

High aspect ratio tape stacks with minimal matrix material resolve the trade-off between areal weight reduction and delamination reliability.