Linked from

The 43 pages that link to Inertial navigation system, each with the reason it gives.

• Unmanned aerial vehicleRelated: It can estimate an aircraft's movement when satellite navigation is unavailable.

• KinematicsRelated: It reconstructs motion by integrating measured acceleration and orientation.

• Rigid bodyRelated: Its equations track a platform's rigid-body pose from inertial sensors.

• GyroscopeRelated: Its gyroscopes track changes in orientation between external position fixes.

• Kalman filterRelated: Filtering helps control drift by combining inertial predictions with external fixes.

• Ballistic missileRelated: It guides the missile without relying on external signals during flight.

• AccelerometerRelated: Accelerometers provide its measured specific force for estimating changes in velocity.

• InertiaRelated: It infers changing motion from measurements against an inertial baseline.

• Rotating reference frameRelated: It must transform sensor motion between rotating body, Earth, and inertial frames.

• Cruise missileRelated: It lets a missile navigate without continuous external signals.

• Intercontinental ballistic missileRelated: It guides an ICBM without requiring an external signal during flight.

• Precision bombingRelated: It can guide a weapon when satellite signals are unavailable or disrupted.

• Orbital rendezvousRelated: It tracks spacecraft motion between measurements from external references.

• Lunar roverRelated: Dead reckoning helps a rover track movement when landmarks or satellite navigation are unavailable.

• Precision-guided munitionRelated: Inertial navigation can guide a munition without relying on continuous external signals.

• Air-to-air missileRelated: Inertial navigation can carry a missile toward an expected target position before terminal homing.

• AutopilotRelated: Its motion estimates can supply the autopilot with attitude and navigation data.

• Submarine-launched ballistic missileRelated: The missile needs autonomous guidance after launch, without relying on external signals.

• Earth's gravity fieldRelated: Accurate gravity models improve the interpretation of measured acceleration.

• AvionicsRelated: It provides position and attitude estimates without relying on external signals.

• Flight management systemRelated: It supplies position estimates when external navigation signals are unavailable or limited.

• Beyond-visual-range missileRelated: It guides the missile during midcourse flight before terminal target tracking.

• Missile guidanceRelated: Its autonomy avoids some external vulnerabilities but allows errors to accumulate over time.

• Flight instrumentsRelated: It extends instrument sensing into a continuously estimated aircraft position.

• Glass cockpitRelated: It supplies position and motion estimates when cockpit displays show inertial navigation data.

• ARINC 429Related: It can transmit aircraft motion and position data to other avionics over the bus.

• History of navigationRelated: It enabled aircraft and vessels to navigate without continuous external signals.

• Malaysia Airlines Flight 370Related: Its autonomous operation offered a way for the aircraft to continue navigating without external signals.

• MissileRelated: Some missiles use inertial measurements to navigate without continuous external signals.

• Satellite navigation deviceRelated: It can bridge short gaps when satellite signals are blocked or unreliable.