Ammunition Projectiles TRIZ Cases

Segmented transmitters and composite shafts reduce weight while enabling wounded animal location tracking.

Segmented blades in the core cavity resolve the contradiction between expansion capability and penetration consistency across varying barrier materials.

A fire retardant delivery apparatus uses infrared targeting to acquire thermal signatures from ground fires for precise dispenser release.

Toughened polymer matrix holds high-density particulate filler to form a cohesive projectile.

A GPS receiver derives vehicle spin rate from harmonic signal patterns to enable precise navigation.

Annular batteries power guidance systems and accelerate as fragments after detonation, increasing explosive volume.

An IR LED array replaces pyrotechnic flares to eliminate visible light and debris while ensuring long-term reliability.

Deployable canards and wings in a mortar glide kit actively guide rounds to reduce circular error probable.

Segmented chambers modulate firing speed reproducibility by controlling pressure rise characteristics.

Trapezoidal compensating grooves enable complete obturator detachment during muzzle passage, preventing mechanical damage and debris blockages.

Toy projectiles embed magnetic components to resolve scattered dart collection difficulties without compromising flight stability.

Elastic ferrule radially tightens against the projectile base, preventing gas infiltration that compromises equipment protection.

A non-pyrotechnic stun grenade generates a loud report by rapidly inflating and rupturing an inflatable bag with compressed gas.

A mechanical firing direction limitation device restricts launch angle ranges using a moveable limiting structure.

A pre-compressed ceramic penetrator element maintains structural integrity during high-velocity impact.

Cellulose fiber bodies reduce fragment mass below five grams to mitigate injury risks from petrochemical grenades.

Bulk metallic glass casings replace inert structural materials to reduce weight while generating blast energy via controlled combustion reactions.

Sequential thread shearing separates the nose cone and casing from the rear end cap, resolving unreliable sub-projectile scattering.

Digital signal processing separates overlapping acoustic waveforms to determine multiple fragment impact locations.

Reusable digital control compartment houses a disposable cartridge holding explosive agents and a primer.

Air directing indentions on the foam shaft and a rigid neck portion stabilize flight paths, resolving accuracy trade-offs against safety constraints.

A multi-module irritation device couples signal units for deployment then automatically decouples them to distribute emitters spatially.

A flow restrictor with a flange and recess controls injection dart fluid movement, preventing tissue damage from rapid ejection.

Rotating segments reconfigure a single warhead to produce jets or fragment clouds, eliminating the need for multiple specialized munitions.

Delayed panel release prevents tipoff and ensures clean separation from the payload.

Mechanical strain gauges replace fragile electronics to detect hardened target layers and voids during projectile penetration.

Irregularly spaced breaking points adapt to wall thickness variations in projectile casings for controlled fragmentation.

Internal petal structures enable controlled expansion, balancing penetration depth against damaging effect.

Elastic polyurethane projectile conforms to barrel rifling and rebounds to original shape, enabling reuse with standard reloading mechanisms.

Threaded fin assembly with longitudinal grooves separates from projectile body upon impact, preventing interference with the fuze.

A loading method for explosive devices uses inert filler materials separated by an encapsulating meniscus to control destructive capacity.

A one-piece fragmentation projectile uses a single forging process to form predetermined breaking points and segment structures directly into the frustoconical section.

A triangular cartridge housing incorporates a cam index drive to reduce cylinder rotation power while preventing gas leakage through sealed ends.

A cavitation projectile creates a gas bubble envelope to reduce skin friction drag.

A vortice-amplified diffuser section uses vortex generators and a reduction sleeve to control expanding gas bubble plumes.

Segmented projectile structure reduces rifling wear while maintaining penetration capability through high-hardness ceramic tips.

Additive manufactured lattice sabots reduce weight to enhance penetrator velocity without compromising structural integrity.

Longitudinal recesses in the main body increase area moment of inertia, enabling resistance to lateral disturbance against reactive armor targets.

Aluminum alloy vents ablate during firing to increase luminosity by 50 percent, resolving the trade-off between device weight and structural strength.

A munition design positions an inert charge between the firing device and explosive charge to direct blast energy forward.

PVA spheroid vessels launch cremated remains safely, preventing wind loss and backwash.

A remote animal injection system uses cameras to detect gender and orientation for precise dart targeting.

An expandable attaching ring secures a GPS tracking unit to an arrowhead, allowing the device to remain inside an animal after the arrow passes through.

A retroreflective infrared marker enables passive detection of moving vehicles by drone-mounted imaging sensors.

A disc-shaped wad with extendable tabs holds fragile less-lethal projectiles during gunpowder ignition.

A bolt action rifle design accommodates propellant charges with extended primer caps through a dedicated breech-side mechanism.

A dynamic text input activation target adapts its size and position on screen to streamline pen-based data entry workflows.

UVA LED feedneck charges phosphorescent ammunition, eliminating costly high-voltage circuits.