Armour Plates TRIZ Cases

Welded angled profiles are hot-formed and hardened into a zigzag protective element, avoiding bending radii that weaken ballistic resistance.

Controlled porosity in a silica fiber thermoset damping plate improves impact energy absorption and limits dynamic deformation at lower armor mass.

A textured sintered armor face deflects and absorbs projectile energy, improving ballistic protection without excessive surface density.

A stitched edge binding layer secures selected ballistic plies to stop peripheral separation and improve projectile resistance at panel edges.

High-silica fiber yarns and controlled porosity help an armor plate absorb impact energy and limit dynamic deformation without added mass.

Geometrical protrusions in carbon-filled thermoplastic ballistic panels induce projectile yaw, cut weight, and disperse blunt force trauma energy.

Layered films, foam tape, polycarbonate, and silicone sealing add ballistic protection to existing windows without costly frame changes.

A tough adhesive interface links ceramic, carbon fiber, and UHMWPE layers to limit back projection and preserve armor load capacity after impact.

Flexible textile-matrix armor improves vehicle ballistic protection while lowering areal density and reducing installation time on complex surfaces.

Controlled cold rolling and stretching help thick Al-Mg armor plate keep strength, elongation balance, and corrosion resistance above 3 inches.

Folded top-edge layers form pockets that capture oblique and upward bullets, helping protect the wearer's face and neck.

Individually fabricated titanium MMC layers use TiC or TiB reinforcement before HIP joins the laminate, reducing residual porosity and achieving hardness above 500 HV.

Elastic cavities distribute and dampen impact energy while controlled gas escape helps reduce blunt trauma behind resistant outer layers.

This case uses segmented Kevlar blankets, gravity deployment, and an integrated lock to protect standard doors without electricity.

A ballistic-resistant layer, decorative outer layer, and locking mount enable movable wall protection while preserving usability.

This case uses modular protective panels and mobile braking to balance ballistic defense, communication, and disease containment.

Non-laminate graphene-polymer composites resist impacts while enabling integrity monitoring.

An inflatable bladder unfolds ballistic panels into a rigid shield while tensile filaments distribute projectile impact forces.

Folded top-edge layers create nested pockets that contain 9 mm and Magnum bullets during ballistic testing.

Heating activates blocked isocyanate to cross-link the resin matrix, strengthening layers while preserving composite formability.

This body armor case combines ceramic tiles, polyolefin layers, prepreg bonding, and autoclave curing to reduce blunt trauma risk.

Embedding unpolished ceramics in a matching-index matrix eliminates costly polishing steps while maintaining optical transparency and ballistic reliability.

Tie layers segment Kevlar plies to overcome sewing limits, enabling thick armor with easy installation.

Lightweight hexagonal fabric net with angled hard points prevents RPG detonation, reducing vehicle weight compared to rigid armor.

Isostatic pressing forces curable polymer into ceramic surface cavities, securing wrappers to prevent edge chipping during projectile impacts.

Segmented armor plates combine rigid strike plates with compliant mesh layers that deform to absorb backside energy, preventing injury while reducing weight.

A decoupling layer on an armor plate absorbs splinter shock waves while letting armor-piercing projectiles penetrate undisturbed.

A composite armor structure embeds geometric solids in a light alloy matrix to distort projectile flight paths and weaken kinetic energy.

Replacing heavy binders with a titanium nickel aluminum matrix reduces density while maintaining binding strength and ballistic performance.

Segmented chevron plates increase edged surfaces to disintegrate projectiles, resolving the trade-off between protection level and vehicle weight.

Non-parallel ceramic surfaces attenuate destructive shock wave interactions that fracture conventional evenly thick tiles.

Perforated flat bars with inclined surfaces and toothed edges intercept cumulative projectiles, balancing low weight with high protection effectiveness.

Molten metal infiltration encapsulates dense ceramic plates and energy-absorbing posts, resolving spallation issues while maintaining structural integrity.

Metal grid fragments projectiles and polymer layer absorbs energy to reduce weight while maintaining protection.

Segmented serrated and louvered plates induce projectile yaw to reduce kinetic energy while minimizing areal density.

Segmented monolithic ceramic armor plate restricts crack propagation through interconnected regions, maintaining seamless ballistic stopping power.

A deformable expansible layer between strike plate and fabric backing increases stopping power while reducing back-face deformation.

Inclined connector walls pivot outward upon impact to fragment grenade shells, solving insufficient penetration depth in existing ballistic net modules.

Segmented flexible shields protect exposed hands from projectiles while preserving weapon handling mobility.

Elongated silicon carbide grains enhance ballistic resistance while reducing weight and thickness compared to conventional dense ceramics.

A ballistic block joins multiple tempered glass panes via an ionoplast layer to create a self-supporting transparent shield.

Replace damaged active elements in composite armor plates with higher hardness units to restore kinetic energy absorption capacity.

A three-dimensional architected armor structure uses impact members, joint members, and a matrix to distribute energy.

Shaping thick aluminum magnesium alloy plates at 200 to 400 degrees Celsius preserves ballistic properties while eliminating weak weld points.

Offset submunitions within composite armor layers accommodate surface protrusions for continuous ballistic coverage.

Squeeze-casting permeates molten metal into ceramic granules, resolving insufficient ceramic restriction and improving impact resistance.

Consolidating L12 aluminum alloy powders with coherent dispersoids produces armor plates exceeding 100 ksi yield strength for ballistic resistance.

A hybrid slat armor uses angled piercing elements to penetrate warhead envelopes while maintaining structural integrity.

Segmented ceramic tiles fracture upon impact to dissipate energy, allowing the composite armor to sustain multiple ballistic strikes without excessive weight.

Chemical surface pretreatment enhances adhesion properties on ballistic armor plates without mechanical material removal.