Abstract: A shock absorber includes a first end configured to be mechanically fastened to a first component, a second end configured to be mechanically fastened to a second component, a main body, a main shaft, and a primary piston. The primary piston configured to move within the main body and further configured to provide a first damping force by movement of a fluid through the primary piston while the main shaft moves a first distance. The shock absorber also includes a deformable solid material arranged in the main body. The primary piston configured to further move within the main body and further configured to provide a second damping force by deforming the deformable solid material after the main shaft moves the first distance.

Abstract: A shock absorber includes a first end configured to be mechanically fastened to a first component, a second end configured to be mechanically fastened to a second component, a main body, a main shaft, and a primary piston. The primary piston configured to move within the main body and further configured to provide a first damping force by movement of a fluid through the primary piston while the main shaft moves a first distance. The shock absorber also includes a deformable solid material arranged in the main body. The primary piston configured to further move within the main body and further configured to provide a second damping force by deforming the deformable solid material after the main shaft moves the first distance.

Abstract: Various connection interfaces are disclosed. In some embodiments, the connection interface includes a receptacle and a connector. The receptacle can be configured to be positioned in the wall of an electrical device. The receptacle can comprise a first set of electrical contacts and a channel. The connector can be configured to be matingly engaged with the receptacle in an engaged state and to be separated from the receptacle in a disengaged state. The connector can comprise a second set of electrical contacts. Some embodiments are configured such that angled surfaces of the channel and boss interact as the connector is moved into engagement with the receptacle. This can guide the connector into the receptacle such that the first and second sets of electrical contacts are in electrical communication with each other.

Abstract: A shock absorber includes a first end configured to be mechanically fastened to a first component, a second end configured to be mechanically fastened to a second component, a main body, a main shaft, and a primary piston. The primary piston configured to move within the main body and further configured to provide a first damping force by movement of a fluid through the primary piston while the main shaft moves a first distance. The shock absorber also includes a deformable solid material arranged in the main body. The primary piston configured to further move within the main body and further configured to provide a second damping force by deforming the deformable solid material after the main shaft moves the first distance.

Abstract: Various connection interfaces are disclosed. In some embodiments, the connection interface includes a receptacle and a connector. The receptacle can be configured to be positioned in the wall of an electrical device. The receptacle can comprise a first set of electrical contacts and a channel. The connector can be configured to be matingly engaged with the receptacle in an engaged state and to be separated from the receptacle in a disengaged state. The connector can comprise a second set of electrical contacts. Some embodiments are configured such that angled surfaces of the channel and boss interact as the connector is moved into engagement with the receptacle. This can guide the connector into the receptacle such that the first and second sets of electrical contacts are in electrical communication with each other.

Abstract: Various connection interfaces are disclosed. In some embodiments, the connection interface includes a receptacle and a connector. The receptacle can be configured to be positioned in the wall of an electrical device. The receptacle can comprise a first set of electrical contacts and a channel. The connector can be configured to be matingly engaged with the receptacle in an engaged state and to be separated from the receptacle in a disengaged state. The connector can comprise a second set of electrical contacts. Some embodiments are configured such that angled surfaces of the channel and boss interact as the connector is moved into engagement with the receptacle. This can guide the connector into the receptacle such that the first and second sets of electrical contacts are in electrical communication with each other.

Abstract: A pointing device for use with computers and other electronic systems incorporates an array of resistive strain gauges on the surface of a substrate. The strain gauges exhibit resistance changes in response to stress or strain applied to the substrate by the movement of a joystick attached to the substrate, the resistance changes being proportional to the extent of movement of the joystick The strain gauges are electrically connected to control circuitry that successively establishes a series of voltage dividers across different ones of the strain gauges to measure the resistance of each of the strain gauges. From those measurements the position of the pointing device may be determined by comparing the measured resistances with known resistance values that correspond to a neutral stick position.