Abstract: A process of applying a conductive material to a substrate includes positioning a plurality of first conductive sheets between the substrate and a second conductive sheet. The first conductive sheets are heated to melt the first conductive sheets. The first conductive sheets have a lower melting point than the substrate and the second conductive sheet; the substrate and the second conductive sheet remain in a solid state when the first conductive sheets melt. A force is applied on the second conductive sheet toward the substrate, and the first conductive sheets are cooled to an attached state in which the first conductive sheets mechanically connect the second conductive sheet with the substrate.

Abstract: A connection assembly includes a substrate formed of a non-conductive material, a first current collector disposed on a first side of the substrate, and a second current collector disposed on a second side of the substrate. The substrate has a via extending through the substrate from the first side of the substrate to the second side of the substrate opposite the first side. A connection element is disposed in the via between the first current collector and the second current collector. The connection element mechanically and electrically connects the first current collector and the second current collector through the via.

Abstract: A bulk acoustic wave (BAW) resonator comprises: a first electrode; a second electrode comprising a plurality of sides, wherein at least one of the sides is a connection side; a piezoelectric layer disposed between the first and second electrodes, and an acoustic reflective element disposed beneath the first electrode, the second electrode and the piezoelectric layer, wherein an overlap of the reflective element, the first electrode, the second electrode, and the piezoelectric layer defines an active area of the acoustic resonator; a bridge adjacent to a termination of the active area of the BAW resonator; and a discontinuity disposed in the bridge.

Abstract: An acoustic resonator comprises a first electrode and second electrode comprising a plurality of sides. At least one of the sides of the second electrode comprises a cantilevered portion. A piezoelectric layer is disposed between the first and second electrodes. A bridge is disposed adjacent to one of the sides of the second electrode.

Abstract: A bipolar battery plate is utilized for production of a bipolar battery. The bipolar battery plate includes a frame, a substrate, first and second lead layers, and positive and negative active materials. The substrate includes insulative plastic with conductive particles homogeneously dispersed throughout the insulative plastic and exposed along surface of the substrate, the substrate positioned within the frame. The first lead layer is positioned on one side of the substrate, while the second lead layer is positioned on another side of the substrate. The first and second lead layer are electrically connected to each through the conductive particles. The positive active material is positioned on a surface of the first lead layer, and the negative active material positioned on a surface of the second lead layer.

Abstract: A bicycle training system for bicycle training includes a bicycle that has a rear tire and a seat post. A yoke is provided and the yoke is removably coupled to the bicycle. The yoke may be gripped by a first user. Thus, the first user stabilizes the bicycle when a second user is learning to ride the bicycle.

Abstract: A bulk acoustic wave (BAW) resonator comprises: a first electrode; a second electrode comprising a plurality of sides, wherein at least one of the sides is a connection side; a piezoelectric layer disposed between the first and second electrodes, and an acoustic reflective element disposed beneath the first electrode, the second electrode and the piezoelectric layer, wherein an overlap of the reflective element, the first electrode, the second electrode, and the piezoelectric layer defines an active area of the acoustic resonator; a bridge adjacent to a termination of the active area of the BAW resonator; and a discontinuity disposed in the bridge.

Abstract: A bipolar battery plate is utilized for production of a bipolar battery. The bipolar battery plate includes a frame, a substrate, first and second lead layers, and positive and negative active materials. The substrate includes a plurality of perforations through the substrate, and the substrate is positioned within the frame. The first lead layer is positioned on one side of the substrate, while the second lead layer is positioned on another side of the substrate. The first and second lead layers are electrically connected to each through the plurality of perforations. The positive active material is positioned on a surface of the first lead layer, while the negative active material is positioned on a surface of the second lead layer.

Abstract: An acoustic resonator comprises a first electrode and second electrode comprising a plurality of sides. At least one of the sides of the second electrode comprises a cantilevered portion. A piezoelectric layer is disposed between the first and second electrodes. A bridge is disposed adjacent to one of the sides of the second electrode.

Abstract: A bipolar battery plate is utilized for production of a bipolar battery. The bipolar battery plate includes a frame, a substrate, a conductor, a filler, first and second lead layers, and positive and negative active materials. The substrate is positioned within the frame and includes a plurality of perforations that are sealed by a filler, with the conductor positioned in the perforation and held by the filler. The conductor connects to the plurality of perforations. The first lead layer positioned on one side of the substrate, while the second lead layer positioned on another side of the substrate. The first and second lead layers electrically connected to each other through the filler. The positive active material (PAM) positioned on a surface of the first lead layer, while the negative active material (NAM) positioned on a surface of the second lead layer.

Abstract: A bipolar battery plate is utilized for production of a bipolar battery. The bipolar battery plate includes a frame, a substrate, a conductive filler, first and second lead layers, and positive and negative active materials. The substrate includes a plurality of perforations through the substrate, and the substrate is positioned within the frame. The conductive filler seals the perforations. The first lead layer is positioned on one side of the substrate, while the second lead layer is positioned on another side of the substrate. The first and second lead layers are electrically connected to each through the conductive filler sealing the perforations. The positive active material is positioned on a surface of the first lead layer, while the negative active material is positioned on a surface of the second lead layer.

Abstract: A bipolar battery plate is utilized for production of a bipolar battery. The bipolar battery plate includes a frame, a substrate, first and second lead layers, and positive and negative active materials. The substrate includes insulative plastic with conductive particles homogeneously dispersed throughout the insulative plastic and exposed along surface of the substrate, the substrate positioned within the frame. The first lead layer is positioned on one side of the substrate, while the second lead layer is positioned on another side of the substrate. The first and second lead layer are electrically connected to each through the conductive particles. The positive active material is positioned on a surface of the first lead layer, and the negative active material positioned on a surface of the second lead layer.

Abstract: A bipolar battery plate is utilized for production of a bipolar battery. The bipolar battery plate includes a frame, a substrate, a conductor, a filler, first and second lead layers, and positive and negative active materials. The substrate is positioned within the frame and includes a plurality of perforations that are sealed by a filler, with the conductor positioned in the perforation and held by the filler. The conductor connects to the plurality of perforations. The first lead layer positioned on one side of the substrate, while the second lead layer positioned on another side of the substrate. The first and second lead layers electrically connected to each other through the filler. The positive active material (PAM) positioned on a surface of the first lead layer, while the negative active material (NAM) positioned on a surface of the second lead layer.

Abstract: A bipolar battery plate is utilized for production of a bipolar battery. The bipolar battery plate includes a frame, a substrate, first and second lead layers, and positive and negative active materials. The substrate includes a plurality of perforations through the substrate, and the substrate is positioned within the frame. The first lead layer is positioned on one side of the substrate, while the second lead layer is positioned on another side of the substrate. The first and second lead layers are electrically connected to each through the plurality of perforations. The positive active material is positioned on a surface of the first lead layer, while the negative active material is positioned on a surface of the second lead layer.

Abstract: A low profile integrated solar roofing tile connecting system for the formation of a solar roof. The system is aesthetically appealing because the tiles lay relatively flat with a very low profile without any bulges or ridges because all wires and connectors embedded in the tiles. This low profile optimizes the roof's ability to withstand wind loads as well as minimizes cracking or breaking of the tiles due to external load forces. The connectors produce uniform spaces between adjacent tiles as well as providing an easy way to extend or exchange tiles. An integrated shunting or bypasses diode provides a current shunt path in the event of a modules' impedance upsurge cause by shading or by non-functioning tiles. This also allows for the flexible arrangement of the PV roofing tiles for a variety of system configurations, e.g. grid-tied, and off-grid systems, while maintaining system reliability and a modularized design.

Abstract: A low profile integrated solar roofing tile connecting system for the formation of a solar roof. The system is aesthetically appealing because the tiles lay relatively flat with a very low profile without any bulges or ridges because all wires and connectors embedded in the tiles. This low profile optimizes the roof's ability to withstand wind loads as well as minimizes cracking or breaking of the tiles due to external load forces. The connectors produce uniform spaces between adjacent tiles as well as providing an easy way to extend or exchange tiles. An integrated shunting or bypasses diode provides a current shunt path in the event of a modules' impedance upsurge cause by shading or by non-functioning tiles. This also allows for the flexible arrangement of the PV roofing tiles for a variety of system configurations, e.g. grid-tied, and off-grid systems, while maintaining system reliability and a modularized design.

Abstract: A system and method is provided for administering a tax-managed, buy-write investment fund having a plurality of units available for sale to the public. An index representing a first portfolio of assets having desired performance characteristics is identified. A second portfolio of assets is configured to have performance characteristics similar to those of the index, while having less than 70 percent overlap therewith. Shares of the second portfolio are purchased, while call options against the index are written.

Abstract: Roofing tiles, sheet rubber, and other rubber-based articles are formed from devulcanized crumb rubber by compounding the rubber with sulfur, a compound containing bound water, and a flame retardant. The articles have a high rubber content and are moldable and formable without the need for added polymeric binders, and are self-extinguishing upon exposure to flame.