Abstract: An optical super-elevation device including an elevation follower mirror that counter-rotates with an opposite angular rate to the weapon elevation rate, thereby maintaining the line of sight to the target during the elevation process. In one example, the optical super-elevation device includes a modular housing having a mounting bracket configured to fixedly mount to at a weapon or azimuth axis of a tripod, an elevation follower mirror rotatably mounted within the housing, and a mirror actuator coupled to the elevation follower mirror and configured to counter-rotate the elevation follower mirror at an angular rate opposite to an elevation rate of the weapon to maintain a line of sight to a target during super-elevation of the weapon.

Abstract: An optical super-elevation device including an elevation follower mirror that counter-rotates with an opposite angular rate to the weapon elevation rate, thereby maintaining the line of sight to the target during the elevation process. In one example, the optical super-elevation device includes a modular housing having a mounting bracket configured to fixedly mount to at a weapon or azimuth axis of a tripod, an elevation follower mirror rotatably mounted within the housing, and a mirror actuator coupled to the elevation follower mirror and configured to counter-rotate the elevation follower mirror at an angular rate opposite to an elevation rate of the weapon to maintain a line of sight to a target during super-elevation of the weapon.

Abstract: A method includes determining a signal current based on an average current associated with one or more detectors. The method also includes determining a strip voltage based on the signal current. The method further includes biasing a strip resistance with the strip voltage. The biasing of the strip resistance creates a strip current. The method additionally includes biasing a detector array with a detector voltage. The biasing of the detector array creates a detector current. The method also includes determining levels of incident radiation from a scene based on the strip current and the detector current.

Abstract: A method includes determining a signal current based on an average current associated with one or more detectors. The method also includes determining a strip voltage based on the signal current. The method further includes biasing a strip resistance with the strip voltage. The biasing of the strip resistance creates a strip current. The method additionally includes biasing a detector array with a detector voltage. The biasing of the detector array creates a detector current. The method also includes determining levels of incident radiation from a scene based on the strip current and the detector current.