Spatially-distributed antenna arrays transmit uniquely coded signals to enable self-determined platform positioning.
Extending a radio antenna above the surface enables long-range control, overcoming fiber optic length limits.
A hybrid genetic algorithm optimizes defensive weapon allocation and scheduling.
A roll control actuated canard system articulates fixed canards to adjust projectile trajectory.
A neural network reduces a global weapon system representation to determine hit probability indicators.
An all-digital line-of-sight processor architecture converts analog signals to digital for enhanced pulse detection.
Mirror-reflected light provides inertial orientation data to a segmented optical sensor, enabling accurate navigation without vulnerable GPS signals.
Adaptive thresholding and energy profile alignment reduce noise in 3D point clouds, improving signal-to-noise ratio for moving object identification.
A radar processing system extracts extended Doppler rotor features to classify potential targets as helicopters.
A non-imaging energy concentrator transmits optical signals within a predetermined acceptance angle to expand the effective field of view.
A strapdown homing device expands its viewing zone by tracing an increasing circle during the lock-on phase.
A guidance system uses a magnetometer and polarized RF link to determine projectile orientation, reducing elevation command contamination from 33% to 4%.
A protective hood for laser designator pods houses an internal detector that generates signals upon exposure to specific laser radiation wavelengths.
A Cassegrain lens incorporates a diffractive surface on the main mirror to resolve image quality degradation when imaging small targets at long distances.
Fourier transform techniques refine jamming codes to achieve optical break-lock faster while reducing power consumption against mid-wavelength infrared threats.