Abstract: Disclosed is an automatic throttle arrangement utilizing a servo which receives commands from a controller on an aircraft and responsively rotates a mechanical device that is linked by a cable arrangement with the aircraft’s throttle lever enabling automated throttle control. The mechanical device can be fixed to the throttle lever assembly using rivets designed to fail in case the servo/cable arrangement jams. This leaves the lever able to continue manual function.

Abstract: Disclosed is a throttle quadrant arrangement utilizing a throttle lever mechanically connected to three Rotary Variable Differential Transformers (RVDTs). The signals from the RVDTs are monitored by a process where the processing component. More specifically, RVDT outputs are monitored by the engine control system to determine if they are outside a predetermined range of operability. If an RVDT is not operable, the engine control system establishes a thrust output using the signal from one of the functional two. If only one or none are within the range, the system moves on to a default mode.

Abstract: An aircraft flap lever is disclosed. The lever is included in a housing, and is supported on an axle. The lever also has a protruding pin that is biased upwards towards four optional radially-spaced notches. Each notch results in a different lever setting, and thus different flap position. The system includes a rocker mechanism that is pivotally mounted on the axle, and prevents skipping over notches when the lever is activated.

Abstract: Disclosed is a throttle quadrant arrangement having a throttle lever which is independently mechanically connected to different Rotary Variable Differential Transformers (RVDTs). A friction lever selectively creates and releases friction from the throttle lever to enable it to be selectively positioned. The system is configured such that the mechanical connections existing between the throttle lever and the RVDTs are shielded from the friction created by the friction lever.

Abstract: Disclosed is a throttle quadrant arrangement utilizing a single throttle lever. The single lever is independently mechanically connected to three Rotary Variable Differential Transformers (RVDTs). Failure points are engineered into the design such that when one of the mechanical jams, the mechanical connection to the other two RVDTs will not be compromised.

Abstract: Disclosed is a throttle quadrant arrangement having a throttle lever which is independently mechanically connected to different Rotary Variable Differential Transformers (RVDTs). A friction lever selectively creates and releases friction from the throttle lever to enable it to be selectively positioned. The system is configured such that the mechanical connections existing between the throttle lever and the RVDTs are shielded from the friction created by the friction lever.

Abstract: An aircraft flap lever is disclosed. The lever is included in a housing, and is supported on an axle. The lever also has a protruding pin that is biased upwards towards four optional radially-spaced notches. Each notch results in a different lever setting, and thus different flap position. The system includes a rocker mechanism that is pivotally mounted on the axle, and prevents skipping over notches when the lever is activated.

Abstract: Disclosed is a throttle quadrant arrangement utilizing a throttle lever mechanically connected to three Rotary Variable Differential Transformers (RVDTs). The signals from the RVDTs are monitored by a process where the processing component. More specifically, RVDT outputs are monitored by the engine control system to determine if they are outside a predetermined range of operability. If an RVDT is not operable, the engine control system establishes a thrust output using the signal from one of the functional two. If only one or none are within the range, the system moves on to a default mode.

Abstract: A combination tent and backpack. In the tent mode of operation, the tent is assembled with a floor framework having two or more framework pieces which are connected together. The floor framework is assembled within an envelope or other structure which surrounds and holds the floor framework together. The floor framework also acts as a supporting layer upon which the person and his gear rest. The floor framework is suspended from a tree or other supporting structure using a plurality of suspension lines which extend from a common connection point to points about the floor framework. A tent shroud can be installed over the suspension lines and tent floor to provide waterproof cover. In the backpack mode of operation the envelope is folded. Shoulder straps are drawn from the back of the backpack, up and over and through slip-fittings and then about the shoulders of the individual to be finally connected to the front of the backpack at a point near the wearer's waist.