Weapon Control Systems TRIZ Cases

A rotating support and hemispherical sensor reduce blind zones and parallax while delivering stabilized 360° real-time imaging.

Sensors and fire-control logic automate target choice, aim compensation, and munition selection to improve hit rate with fewer rounds.

Clocked coherent light and a neuromorphic camera enable continuous gun angular deviation correction during motion without manual adjustment.

A dual-trigger control setup uses sensors and firing logic to release a shot only when aim and target alignment meet the threshold.

A second elevation axis separates recoil movement from the magazine, supporting rapid reloads, stable direct fire, and curved shots.

SDR transceivers replace wired links for secure remote weapons operation, using acknowledgments and sequence tracking to support reliable wireless control.

A half waveplate and birefringent lenses adjust beam divergence while avoiding boresight and wavefront errors from lens movement.

Birefringent lenses and a rotating half waveplate adjust beam divergence without introducing boresight or wavefront errors.

A space-based detection system forms multiple beams to measure signal profiles for identifying hypersonic vehicles.

Digital bus communication manages drift correction offsets between manual and automatic modes to reduce analog noise interference.

Weapon station uses separate drive mechanisms to rotate sensors independently, reducing shock impact on sighting devices.

An unmanned mobile intermodal container weapon system provides self-sustaining remote defense capabilities.

Aligns active agent units using multidimensional target descriptors extracted from image key points.

A back-up aiming control unit generates alignment signals to orient artillery drive units via setpoint torque and speed.

A master unit establishes a coordinate system using a guide beam, enabling slave units to converge power beams and overcome boresight errors.

Segmented inner and outer gimbals resolve the contradiction between operator safety and stabilization accuracy on mobile platforms.

Acoustic arrays measure initial bullet velocity and time of flight to calculate precise ballistic coefficients, resolving errors from assumed drag functions.

Gyroscope-based closed-loop control dynamically adjusts spring force to stabilize an eccentrically-pivoted weapon barrel.

Segmenting pointing into coarse and fine stages corrects atmospheric turbulence while reducing servo complexity.

A shooting system controller moves a gun platform to maintain target alignment when obstacles block the line of sight.

A three-axis platform tracking controller uses a Kalman filter to estimate target motion and generate positioning commands for precise aiming.

Computational subsystem adjusts aim and selects munitions to resolve operator skill limits and reduce ammunition weight.

Brake calipers engage rotors to restrict muzzle movement, resolving recoil-induced aim errors.

Replacing wired connections with a wireless RDP data link eliminates physical cable damage risks while maintaining full operator control over the weapon system.

Decoupling camera and cradle elevation positions allows ballistic super-elevation calculations without losing target visibility on screen.

An adjustment device dynamically modifies torsion bar torque based on sensor feedback to maintain weapon stability on uneven terrain.

An extendable arm stabilizes the mount to resolve speed versus stability trade-offs in manual aiming.

A motor-driven movement mechanism rotates a weapon mount relative to a sensor system.

A history-based acceleration limiting system filters carrier movement data to suppress recoil disturbances during firing sequences.

Automated weapon systems replace manual operator skill with computational targeting and positioning subsystems to resolve accuracy versus weight trade-offs.

Flight control computer merges targeting functions with aircraft orientation to reduce turret complexity while maintaining pilot trajectory authority.

A computational subsystem adjusts a movably mounted barrel position using neural network algorithms for precise target aiming.

Independent rotating plates enable simultaneous multi-weapon operation by eliminating mechanical interference and overlapping shooting ranges.

A vehicle turret controller detects manual crank attachment and disables motor drive to prevent high-speed rotation hazards.

An optical-mechanical aiming system compensates for physical offsets and vibrations by dynamically adjusting the sight orientation relative to the weapon.

An electromagnetic beam heats incoming projectiles to a disruption temperature, causing controlled deflagration rather than mechanical impact.

Electrical motion control actuators stabilize aim points, reducing collateral damage and ammunition usage.

A control device adjusts weapon barrel positioning using sensor feedback to maintain alignment accuracy.

A control unit calculates remaining ammunition rounds and target accuracy rates to determine optimal firing strategies.

Reference measurement sensor detects retroreflector direction and range to correct ship flexure induced misalignment.

An automated weapon subsystem compensates for operator skill limits by adjusting aim via sensors, reducing miss rates.

Multipoint wind prediction model tracks projectile trajectory to adjust fire-control aiming, reducing dispersion from changing aircraft states.

A processor filters range measurement values using image correlation data from a tracking gate to validate target lock status.