Abstract: An adjustable seat (1) incorporates a moveable squab element (4). The squab element may be moved from an initial position in which the squab element is flush with the remaining parts of the vehicle seat to a first intermediate position and then to a subsequent second position. The squab is mounted on a first linkage (7) which carries an intermediate support. A second linkage (10) extends from the intermediate support to a seat mount (9) incorporated with the squab element.

Abstract: An adjustable seat (1) incorporates a moveable squab element (4). The squab element may be moved from an initial position in which the squab element is flush with the remaining parts of the vehicle seat to a first intermediate position and then to a subsequent second position. The squab is mounted on a first linkage (7) which carries an intermediate support. A second linkage (10) extends from the intermediate support to a seat mount (9) incorporated with the squab element.

Abstract: A method for connecting optical signals carried by optical fibers between an optical encoder readhead and an optical signal processing IC having a plurality of photodetector portions arranged in a photodetector configuration. The optical signal processing IC is fixed to a substrate at a first position and orientation. Then, a reference-surface block including at least one reference surface is fixed to the substrate in a second orientation and position based on the first position and orientation. A fiber-optic end piece is provided, which has at least one corresponding-reference surface and a plurality of optical fiber locating features that are arranged relative to the corresponding-reference surface. A plurality of the optical fibers are fixed to the plurality of optical fiber locating features to provide a coupling configuration of optical fiber ends that nominally matches the photodetector configuration.

Abstract: A drive circuit for driving the transmitter windings of an inductive position transducer includes an oscillating power source. A resonator section is connected to the power source. The resonator section includes an impedance transforming section, a transmitter winding of the inductive position transducer, and feedback loops which cause the power source to oscillate at the resonator frequency. The resonator operating frequency and the load impedance imposed on the power source by the resonator can be independently selected. In various exemplary configurations of the drive circuit, the resonator operating frequency adapts to variations in the impedance of the transmitter windings. The drive circuit is particularly well-suited for driving low-impedance and/or miniaturized inductive position transducers with enhanced efficiency and accuracy. In various exemplary configurations of the drive circuit, the peak operating voltage of the transmitter windings can exceed the power supply voltage.