Abstract: A wireless electrostimulation system can comprise a wireless energy transmission source, and an implantable cardiovascular wireless electrostimulation node. A receiver circuit comprising an inductive antenna can be configured to capture magnetic energy to generate a tissue electrostimulation. A tissue electrostimulation circuit, coupled to the receiver circuit, can be configured to deliver energy captured by the receiver circuit as a tissue electrostimulation waveform. Delivery of tissue electrostimulation can be initiated by a therapy control unit.

Abstract: A tread for a tire includes a first circumferential main groove, a second circumferential main groove, a third circumferential main groove, and a fourth circumferential main groove. The fourth main groove has a stabilizing structure for increasing tread stiffness. The stabilizing structure has a circumferentially extending wavy subgroove in a radially innermost bottom of the fourth circumferential main groove.

Abstract: A wireless electrostimulation system can comprise a wireless energy transmission source, and an implantable cardiovascular wireless electrostimulation node. A receiver circuit comprising an inductive antenna can be configured to capture magnetic energy to generate a tissue electrostimulation. A tissue electrostimulation circuit, coupled to the receiver circuit, can be configured to deliver energy captured by the receiver circuit as a tissue electrostimulation waveform. Delivery of tissue electrostimulation can be initiated by a therapy control unit.

Abstract: Described are techniques for creating acoustic inlet manifolds for a microphone that utilize existing flex or printed circuit board (PCB) technology to create an ultra-low profile manifold. The described techniques: take advantage of the ability to allow reflow connection. By embedding an acoustic path between the layers or creating an acoustic path on the surface of a flex or PCB assembly, the microphone can be reflowed onto the manifold assembly.

Abstract: A wireless electrostimulation system can comprise a wireless energy transmission source, and an implantable cardiovascular wireless electrostimulation node. A receiver circuit comprising an inductive antenna can be configured to capture magnetic energy to generate a tissue electrostimulation. A tissue electrostimulation circuit, coupled to the receiver circuit, can be configured to deliver energy captured by the receiver circuit as a tissue electrostimulation waveform. Delivery of tissue electrostimulation can be initiated by a therapy control unit.

Abstract: A wireless electrostimulation system can comprise a wireless energy transmission source, and an implantable cardiovascular wireless electrostimulation node. A receiver circuit comprising an inductive antenna can be configured to capture magnetic energy to generate a tissue electrostimulation. A tissue electrostimulation circuit, coupled to the receiver circuit, can be configured to deliver energy captured by the receiver circuit as a tissue electrostimulation waveform. Delivery of tissue electrostimulation can be initiated by a therapy control unit.

Abstract: An apparatus for changing a light bulb that is out of reach for a person even with the use of a six foot ladder includes a substantially hollow elongated member and an extendable member which is disposed within the substantially hollow elongated member. A locking member is engageable with the hollow member and the extendable member for adjusting the length of the apparatus. A replaceable vacuum cup having a predetermined shape is disposed on a first end of the extendable member for attachment to such light bulb. A vacuum pump is disposed adjacent a bottom portion of the hollow elongated member, such pump is engageable with the cup for creating a vacuum in the cup for securing such light bulb therein. A vacuum release assembly is disposed on the pump for releasing such vacuum.

Abstract: Described is a solid wax mitigation barrier for a hearing aid that is cleanable via a simple wiping motion, is not a cause of irritation within the ear canal, and is acoustically transparent. In one embodiment, a wax barrier function is provided by a tube cap for fitting over the acoustic port tube of a hearing aid receiver. The tube cap may be constructed of an elastomeric high tear strength material so as create a small flexible acoustic tube cap that prevents direct ingress of wax into the hearing aid receiver. The design of the cap may also include a bridge that spans an acoustic port inlet so as to block direct material ingress.

Abstract: Described are techniques for creating acoustic inlet manifolds for a microphone that utilize existing flex or printed circuit board (PCB) technology to create an ultra-low profile manifold. The described techniques: take advantage of the ability to allow reflow connection. By embedding an acoustic path between the layers or creating an acoustic path on the surface of a flex or PCB assembly, the microphone can be reflowed onto the manifold assembly.

Abstract: Insulated package systems, components for such systems, and methods for their assembly and use. The systems include insert panels that are configured to be disposed within an interior volume of a container alongside walls thereof so as to define and enclose an insulated shipping compartment within the interior volume. At least one of insert panels includes a tray portion having a base wall that defines an inner face of the insert panel, and a lid portion having a base wall that optionally defines a recessed pocket exposed at an outer face of the insert panel. An enclosed pocket is disposed between the base walls of the tray and lid portions, and may be filled with an insulation material.

Abstract: A wireless electrostimulation system can comprise a wireless energy transmission source, and an implantable cardiovascular wireless electrostimulation node. A receiver circuit comprising an inductive antenna can be configured to capture magnetic energy to generate a tissue electrostimulation. A tissue electrostimulation circuit, coupled to the receiver circuit, can be configured to deliver energy captured by the receiver circuit as a tissue electrostimulation waveform. Delivery of tissue electrostimulation can be initiated by a therapy control unit.

Abstract: A wireless electrostimulation system can comprise a wireless energy transmission source, and an implantable cardiovascular wireless electrostimulation node. A receiver circuit comprising an inductive antenna can be configured to capture magnetic energy to generate a tissue electrostimulation. A tissue electrostimulation circuit, coupled to the receiver circuit, can be configured to deliver energy captured by the receiver circuit as a tissue electrostimulation waveform. Delivery of tissue electrostimulation can be initiated by a therapy control unit.

Abstract: A method and system are provided for delivering digital content. A first cataloged list of content is delivered from a user operated device to a media storage device, and attributes of the first cataloged list are determined. A second cataloged list of content is delivered from a content provider to the media storage device. The first cataloged list is modified based upon the second cataloged list and the attributes, and the modified first cataloged list is delivered to the user operated device. Content from the modified first cataloged list is delivered to the user operated device for storage and subsequent playback.

Abstract: A method and system are provided for delivering digital content. A first catalogued list of content is delivered from a user operated device to a media storage device, and attributes of the first catalogued list are determined. A second catalogued list of content is delivered from a content provider to the media storage device. The first catalogued list is modified based upon the second catalogued list and the attributes, and the modified first catalogued list is delivered to the user operated device. Content from the modified first catalogued list is delivered to the user operated device for storage and subsequent playback.

Abstract: A wireless electrostimulation system can comprise a wireless energy transmission source, and an implantable cardiovascular wireless electrostimulation node. A receiver circuit comprising an inductive antenna can be configured to capture magnetic energy to generate a tissue electrostimulation. A tissue electrostimulation circuit, coupled to the receiver circuit, can be configured to deliver energy captured by the receiver circuit as a tissue electrostimulation waveform. Delivery of tissue electrostimulation can be initiated by a therapy control unit.

Abstract: A wireless electrostimulation system can comprise a wireless energy transmission source, and an implantable cardiovascular wireless electrostimulation node. A receiver circuit comprising an inductive antenna can be configured to capture magnetic energy to generate a tissue electrostimulation. A tissue electrostimulation circuit, coupled to the receiver circuit, can be configured to deliver energy captured by the receiver circuit as a tissue electrostimulation waveform. Delivery of tissue electrostimulation can be initiated by a therapy control unit.

Abstract: A method, apparatus, and structure are provided for implementing selective rework for chip stacks. A backside metal layer to create resistive heating is added to a chip backside in a chip stack. A rework tool applies a predefined current to the backside metal layer to reflow solder connections and enables separating selected chips in the chip stack.