Uploaded July 2019 | Updated September 2026, 1 week ago
Horizon-marker stabilization reveals: All Gimbal-target rotations start simultaneous with an upward bump of the field-of-view (FOV) scene, as if the camera was jolted. The target starts to rotate if and only if there is a FOV bump, ie, Bump ⟺ Rotation.
Most target rotations correspond immediately with roll-axis rotations of the ATFLIR jet (center icon) such that one target rotation immediately follows a roll-axis rotation and a second target rotation is simultaneous with a roll-axis rotation and both stop simultaneously.
So there are tight correlations between bumps, Gimbal-target rotations and roll-axis rotations of the ATFLIR-mounted jet. All these correlations suggest that Gimbal-target rotations are directly tied to camera events.
Horizon-marker stabilization reveals: All Gimbal-target rotations start simultaneous with an upward bump of the field-of-view (FOV) scene, as if the camera was jolted. The target starts to rotate if and only if there is a FOV bump, ie, Bump ⟺ Rotation.
Most target rotations correspond immediately with roll-axis rotations of the ATFLIR jet (center icon) such that one target rotation immediately follows a roll-axis rotation and a second target rotation is simultaneous with a roll-axis rotation and both stop simultaneously.
So there are tight correlations between bumps, Gimbal-target rotations and roll-axis rotations of the ATFLIR-mounted jet. All these correlations suggest that Gimbal-target rotations are directly tied to camera events.
