Abstract: A system for reducing a temperature of a braking assembly includes the braking assembly of a wheel assembly, an airflow amplifier, and a conduit. The braking assembly may include a plurality of friction disks. The airflow amplifier may be coupled to the wheel assembly, and the conduit may extend from a compressed gas source to the airflow amplifier. Generally, the airflow amplifier is configured to entrain ambient air (“entrained air”) in response to compressed gas from the compressed gas source flowing to the airflow amplifier via the conduit, according to various embodiments. The airflow amplifier may be configured to direct the entrained air and the compressed gas to the braking assembly to reduce the temperature of the braking assembly.

Abstract: A temperature compensating shock strut health indicator system for use with a shock strut comprises a visual indicator comprising a plurality of sectors and a pointer configured to rotate with respect to the visual indicator to point to one of the plurality of sectors. The sector to which the pointer points to is dependent on the shock strut stroke (i.e., the position of the piston with respect to the cylinder). In various embodiments, the visual indicator includes various rings that correspond to a different temperature compensated ideal stroke whereby a crew member can correspond the pointer to the appropriate ring depending on ambient temperature. In various embodiments, the pointer comprises a temperature sensitive material configured to cause the pointer to rotate with respect to the visual indicator to actively compensate for temperature.

Abstract: A shock strut is disclosed. The shock strut may include a shock strut cylinder, a shock strut piston that is slidably disposed within the shock strut cylinder, a metering pin, and a percolation seal configured to restrict a flow of liquid between the shock strut cylinder and the shock strut piston.

Abstract: A temperature compensating shock strut health indicator system for use with a shock strut comprises a visual indicator comprising a plurality of sectors and a pointer configured to rotate with respect to the visual indicator to point to one of the plurality of sectors. The sector to which the pointer points to is dependent on the shock strut stroke (i.e., the position of the piston with respect to the cylinder). In various embodiments, the visual indicator includes various rings that correspond to a different temperature compensated ideal stroke whereby a crew member can correspond the pointer to the appropriate ring depending on ambient temperature. In various embodiments, the pointer comprises a temperature sensitive material configured to cause the pointer to rotate with respect to the visual indicator to actively compensate for temperature.

Abstract: A shimmy damper assembly may comprise: a damper piston including a piston head, the piston head comprising a first permanent magnet, a shimmy cylinder including a second permanent magnet disposed on an axial surface of the shimmy cylinder, and a gland nut coupled to the shimmy cylinder, the gland nut including a third permanent magnet spaced apart axially from the second permanent magnet, the piston head disposed between the first permanent magnet and the second permanent magnet.

Abstract: A system for reducing a temperature of a braking assembly includes the braking assembly of a wheel assembly, an airflow amplifier, and a conduit. The braking assembly may include a plurality of friction disks. The airflow amplifier may be coupled to the wheel assembly, and the conduit may extend from a compressed gas source to the airflow amplifier. Generally, the airflow amplifier is configured to entrain ambient air (“entrained air”) in response to compressed gas from the compressed gas source flowing to the airflow amplifier via the conduit, according to various embodiments. The airflow amplifier may be configured to direct the entrained air and the compressed gas to the braking assembly to reduce the temperature of the braking assembly.

Abstract: A shock strut is disclosed. The shock strut may include a shock strut cylinder, a shock strut piston that is slidably disposed within the shock strut cylinder, a metering pin, and a percolation seal configured to restrict a flow of liquid between the shock strut cylinder and the shock strut piston.