Abstract: A delivery system for delivering an implantable stented device to a lumen of a patient, the delivery system including an elongated body having a proximal end and a distal end, a driver mechanism positioned at the proximal end of the elongated body, an elongated threaded rod located axially distal to the driver mechanism, and a sheath including an elongated tubular portion having a hollow interior portion with a first diameter that is sized for compression and retention of the implantable stented device in a compressed configuration for delivery to a body lumen.

Abstract: A method of applying a wear-resistant coating to aluminum sliding contact wear surfaces is disclosed. The method includes providing a plurality of parts having sliding contact wear surfaces and thermal spray coating at least one of a composite aluminum oxide and PTFE or a blend of aluminum oxide and PTFE. The disclosed method may be used to repair aluminum parts subject to sliding contact wear as well as in the design of new aluminum parts subject to sliding contact wear. Improved compressor bleed valves for gas turbine engines and improved fan exit case assemblies are also disclosed.

Abstract: An electronic tracking device includes a processor in communication with a global positioning system (GPS) device, a motion tracking unit, a data storage unit, and one or more communication devices. The GPS device receives GPS signals, if available, and generates GPS data corresponding to a location of the electronic device. The motion tracking unit generates motion data based on movement of the electronic device. The data storage device stores the GPS data and the motion data at a plurality of different times. The processor generates a data packet including the GPS data and the motion data stored in the data storage device at the plurality of different times. The one or more communication devices transmit the data packet to a remote server for monitoring the location of the electronic device based on at least one of the GPS data and the motion data.

Abstract: Implementations of the present invention relate to systems, methods, and apparatus for providing marketing materials related to recommended service, maintenance, repair, and combinations thereof for a particular vehicle. In at least one implementation, a vehicle diagnostics monitor can read various parameters from the vehicle's OBD connection. The vehicle parameters then can be used to identify and recommend services and repairs to be performed on a vehicle as well as to provide marketing materials related to such services and repairs.

Abstract: Inter-frame blanking involves blanking the transition period between two video frames of a three-dimensional video signal. One implementation includes receiving a three-dimensional video signal and determining a frame overlap interval. The frame overlap interval is the time period in which a display device will concurrently display at least one portion of a first video frame and at least one portion of a second video frame during a transition period. The implementation also includes, based on the frame overlap interval, generating an inter-frame blanking signal that instructs a blanking device to filter the display of the three-dimensional video signal.

Abstract: An electronic tracking device includes a processor in communication with a global positioning system (GPS) device, a motion tracking unit, a data storage unit, and one or more communication devices. The GPS device receives GPS signals, if available, and generates GPS data corresponding to a location of the electronic device. The motion tracking unit generates motion data based on movement of the electronic device. The data storage device stores the GPS data and the motion data at a plurality of different times. The processor generates a data packet including the GPS data and the motion data stored in the data storage device at the plurality of different times. The one or more communication devices transmit the data packet to a remote server for monitoring the location of the electronic device based on at least one of the GPS data and the motion data.

Abstract: Controlling a shuttering device. A method includes detecting from a use environment a set of encoded signals for use in controlling a shuttering device. The set of encoded signals are analyzed to determine an encoding scheme for the set of encoded signals. The encoded signals are prospectively decoded in the environment according to the determined encoding scheme to control the shuttering device.

Abstract: Displaying three-dimensional (3D) video content to low frame-rate display devices can involve sending 3D video content to a display device. One implementation includes sending a first image for viewing by a user's first eye to the display device via first video frame(s) and sending a second image for viewing by the user's second eye via second video frame(s). Additionally, the implementation includes transmitting an inter-frame blanking signal to a blanking device. The inter-frame blanking signal instructs the blanking device to blank concurrently both of the user's eyes during a transition period of the display device. During the transition period, the display device concurrently displays both a portion of the first video frame(s) and a portion of the second video frame(s).

Abstract: Inter-frame blanking involves blanking the transition period between two video frames of a three-dimensional video signal. One implementation includes receiving a three-dimensional video signal and determining a frame overlap interval. The frame overlap interval is the time period in which a display device will concurrently display at least one portion of a first video frame and at least one portion of a second video frame during a transition period. The implementation also includes, based on the frame overlap interval, generating an inter-frame blanking signal that instructs a blanking device to filter the display of the three-dimensional video signal.

Abstract: A video conversion device that converts 3D content for viewing on low frame-rate display devices can include a video signal input device for receiving a 3D content, and a video signal output device for sending an output video signal to a display device. The video conversion device can also include processing units that convert 3D content to an output signal adapted for the display device. The processing units can also generate a shuttering signal, which instructs a shuttering device to occlude a user's view of the output signal, and a transmitter for transmitting the shuttering signal. Additionally, an accessory device that enables a computing system to convert and send 3D content can include a computing system interface device, and a shuttering signal transmitter. The accessory device can also include instructions for converting a 3D video signal for a display device, and for generating a shuttering signal.

Abstract: A shuttering device can improve a viewer's perception of displayed three-dimensional (3D) content by concurrently shuttering both of the viewer's eyes during frame transitions. One implementation includes the shuttering device receiving a shuttering signal synchronized to a display of 3D content at a display device. In response to the shuttering signal, the shuttering device can shutter the display of the 3D content. The shuttering can include shuttering a first shuttering component during a first time period corresponding to display of second eye 3D content. The shuttering can also include shuttering both the first shuttering component and a second shuttering component concurrently during a second time period corresponding to display of a transition from the second eye 3D content to first eye 3D content. Additionally, the shuttering can include shuttering the second shuttering component during a third time period corresponding to display of the first eye 3D content.

Abstract: Converting three-dimensional (3D) video content for use by a variety of different display devices of different capabilities involves decoding a 3D video signal into two frame buffers. One implementation includes receiving an input 3D video signal that comprises video frames having image data for viewing by a first eye and image data for viewing by a second eye. The implementation includes generating, from the input 3D signal, a first and second frame buffer. The first frame buffer can store a complete first image for viewing by the first eye, while the second frame buffer can store a complete second image for viewing by the second eye. The implementation can further comprise encoding the complete first image into a first video frame and encoding the complete second image into a second video frame of an output 3D video signal.

Abstract: A potentiometer and logic circuitry attached to a common substrate. In one aspect the potentiometer and logic circuitry is an integrated potentiometer mounted on an upper surface of a circuit board with circuitry on a lower surface of the circuit board. The circuitry conducts the position and movement of the potentiometer into potentiometer output signals.

Abstract: A potentiometer and logic circuitry attached to a common subtrate.

Abstract: An integrated digital electronic encoder that converts mechanical movement of a device input into a signal that can be applied to particular purposes is described. The encoder and associated signal conditioning and processing circuitry are embedded together as a single unit for simplicity of assembly into particular applications, and reliability. The integrated digital electronic encoder includes a substrate with first and second substantially opposed major surfaces, and a digital encoder formed on the first major surface of the substrate. The encoder comprises an actuation shaft, and the encoder is configured to generate electrical signals in response to movement of the actuation shaft. Electronic circuitry is attached to the second major surface of the substrate, preferably using surface mount technology. The electronic circuitry is electrically connected with the digital encoder to process the signals produced by the encoder.