Shared datalink navigation lets each munition hold formation without GPS, avoiding central-node failure and reducing collision risk.
Smoothed in-flight position data and trajectory models cut GPS noise and bias, enabling earlier correction and more accurate impact prediction.
On-board Mach and dynamic pressure sensing lets one guided rocket autopilot retune gains and filters for rotary and fixed wing launches.
Dynamic switching between terminal homing and target search lets a UAV retarget or abort late-stage engagements to limit collateral damage.
Variable-size end-fire elements in one planar array replace multiple apertures, cutting drag and weight while preserving wideband direction finding.
Rainfall at the predicted intercept point guides selection of infrared or RF seeker missiles to cut cost without losing interception reliability.
Spring-biased fins and spin braking adapt pitch to flight conditions, cutting energy loss while preserving projectile range and accuracy.
A concentric motor, bearing, and ferrofluid seal layout cuts gimbal mounting space while preserving rotation, stiffness, and sealing integrity.
Onboard sensors and Monte Carlo trajectory refinement enable midcourse projectile correction when GPS is jammed or spoofed.
Lateral acceleration, velocity, and turn-rate integration let guided munitions estimate roll orientation continuously during maneuvers.
Multiple inertial sensors are switched by flight phase to balance accuracy, range, cost, volume, and drift in missile navigation.
Identical mission data and unique missile IDs create offset flight paths that avoid interference while preserving near-simultaneous target arrival.