Abstract: Certain aspects of the present disclosure provide techniques for a front panel for a video display system. According to disclosed embodiments, a substrate is fabricated to incorporate materials having desired functional properties, such as the blocking of ultraviolet visible (UVV) laser light, and near infrared light, into the substrate material. After extrusion of the substrate with desired functional properties, an anti-glare hardcoat may be spray-coated to the front and back of the front panel to provide anti-glare as well as anti-stiction properties.

Abstract: Alkali metal secondary batteries that include anodes constructed from alkali metal foil applied to only one side of a porous current collector metal foil. Openings in the porous current collectors permit alkali metal accessibility on both sides of the anode structure. Such anode constructions enable the utilization of lower-cost and more commonly available alkali metal foil thickness, while still achieving high cell cycle life at a significantly reduced cost. Aspects of the present disclosure also include batteries with porous current collectors having increased volumetric and gravimetric energy densities, and methods of manufacturing anodes with porous current collectors.

Abstract: Certain aspects of the present disclosure provide techniques for a front panel for a video display system. According to disclosed embodiments, a substrate is fabricated to incorporate materials having desired functional properties, such as the blocking of ultraviolet visible (UW) laser light, and near infrared light, into the substrate material. After extrusion of the substrate with desired functional properties, an anti-glare hardcoat may be spray-coated to the front and back of the front panel to provide anti-glare as well as anti-stiction properties.

Abstract: Alkali metal secondary batteries that include anodes constructed from alkali metal foil applied to only one side of a porous current collector metal foil. Openings in the porous current collectors permit alkali metal accessibility on both sides of the anode structure. Such anode constructions enable the utilization of lower-cost and more commonly available alkali metal foil thickness, while still achieving high cell cycle life at a significantly reduced cost. Aspects of the present disclosure also include batteries with porous current collectors having increased volumetric and gravimetric energy densities, and methods of manufacturing anodes with porous current collectors.

Abstract: In various formats and various technologies across the health care systems/locations, there is a huge need to integrate and make it easier for the user to apply all these technologies across the board, without the need to become an IT/software expert or hire one in-house, which is very expensive and duplicative effort for other similar organizations in the health care industry to do the same exact function. This document describes a software system that allows our system (ViTelNet) to design, configure, deploy, and run sophisticated custom applications across a variety of hardware platforms, without writing any code. In one example, we describe a method/system for the telehealth platform. In one example, we describe the development tools for such a platform. Many variations and examples are also presented.

Abstract: Alkali metal secondary batteries that include anodes constructed from alkali metal foil applied to only one side of a porous current collector metal foil. Openings in the porous current collectors permit alkali metal accessibility on both sides of the anode structure. Such anode constructions enable the utilization of lower-cost and more commonly available alkali metal foil thickness, while still achieving high cell cycle life at a significantly reduced cost. Aspects of the present disclosure also include batteries with porous current collectors having increased volumetric and gravimetric energy densities, and methods of manufacturing anodes with porous current collectors.

Abstract: Alkali metal secondary batteries that include anodes constructed from alkali metal foil applied to only one side of a porous current collector metal foil. Openings in the porous current collectors permit alkali metal accessibility on both sides of the anode structure. Such anode constructions enable the utilization of lower-cost and more commonly available alkali metal foil thickness, while still achieving high cell cycle life at a significantly reduced cost. Aspects of the present disclosure also include batteries with porous current collectors having increased volumetric and gravimetric energy densities, and methods of manufacturing anodes with porous current collectors.

Abstract: Separators, for use in electrochemical devices, that each include a porous body and at least one ionic-flow-control layer that includes at least one copolymer blend tuned to melt at a design temperature so that, when melted, the copolymer blend block the flow of ions of an electrolyte through the porous separator. In some embodiments, each copolymer blend is applied to the porous body in particulate form. In some embodiments, two or more copolymer blends of differing design melting temperatures are provided to the ionic-flow-control layer. In embodiments having multiple differing copolymer blends of differing melting temperatures, the copolymer blends may be provided in the ionic-flow-control layer in discrete regions or as a mixture of un-melted particles. An ionic-flow-control layer may be provided separately from or integrally with a porous separator body. Electrochemical devices including ionic-flow-control layers are also disclosed.

Abstract: In various formats and various technologies across the health care systems/locations, there is a huge need to integrate and make it easier for the user to apply all these technologies across the board, without the need to become an IT/software expert or hire one in-house, which is very expensive and duplicative effort for other similar organizations in the health care industry to do the same exact function. This document describes a software system that allows our system (ViTelNet) to design, configure, deploy, and run sophisticated custom applications across a variety of hardware platforms, without writing any code. In one example, we describe a method/system for the telehealth platform. In one example, we describe the development tools for such a platform. Many variations and examples are also presented.

Abstract: The dustpan with garbage bag supporting frame, filter, and running boards includes a dustpan of hollowed construction from which the garbage bag supporting frame attaches to a rear of said dustpan. The dustpan includes a plurality of interchangeable filters that can attach to a front opening and/or rear opening in order to sift or filter out debris swept into and through said dustpan. The garbage bag supporting frame attaches onto opposing exterior surfaces of said dustpan. Both the garbage bag supporting frame and the dustpan include running boards that attach there under, and which enable mobilization there to. The running board for use with the garbage bag supporting frame may further include an according-styled cover that extends to cover the garbage bag supporting frame as well as a trash bag contained therein.

Abstract: A gutter cover comprising a sheet having a front portion, a rear portion, and a central portion extending between said front portion and said rear portion; said central portion having a plurality of openings for passage of water therethrough, said front portion comprising an upper wall segment, a bend segment, and a lower wall segment, wherein said upper wall segment extends forwardly from said central portion to said bend segment, said bend segment joins said upper wall segment and said lower wall segment, and said lower wall segment extends rearwardly from said bend segment and underneath said upper wall segment, wherein a space is formed between said upper wall segment and said lower wall segment, wherein a first fastener extends through openings in said upper wall segment and said lower wall segment, and wherein a distance between an upper surface of said upper wall segment and an upper surface of said lower wall segment is greater than or equal to an axial height of a head portion of said first fastener.

Abstract: A gutter cover comprising a sheet having a front portion, a rear portion, and a central portion extending between said front portion and said rear portion; said central portion having a plurality of openings for passage of water therethrough, said front portion comprising an upper wall segment, a bend segment, and a lower wall segment, wherein said upper wall segment extends forwardly from said central portion to said bend segment, said bend segment joins said upper wall segment and said lower wall segment, and said lower wall segment extends rearwardly from said bend segment and underneath said upper wall segment, wherein a space is formed between said upper wall segment and said lower wall segment, wherein a first fastener extends through openings in said upper wall segment and said lower wall segment, and wherein a distance between an upper surface of said upper wall segment and an upper surface of said lower wall segment is greater than or equal to an axial height of a head portion of said first fastener.

Abstract: A three dimensional model of an urban area is produced by processing a stereo aerial view of the urban area to obtain a three dimensional map, identifying city units by correlation with a geographical database and obtaining ground level image data relating to city units from photographic or laser scan image data. Data from the various sources is correlated to provide a high resolution geographically accurate three dimensional model of the urban area. The viewpoints from which ground level data is obtained are shown on the model and are linked to the underlying image data such that the model further provides an integrated database. As a result an accurate, rapidly processed and easily updateable three dimensional model is provided.

Abstract: A method and architecture for efficiently solving complex distributed problems uses coevolutionary agents incorporating evolutionary algorithms located at different nodes in a distributed network. The coevolutionary agents conduct localized database searches and evolve at their respective nodes while sharing information with other coevolutionary agents working the same problem. Results or solutions to the problem posed are available at each network node containing a coevolutionary agent working the problem.

Abstract: A method and architecture for efficiently solving complex distributed problems uses coevolutionary agents incorporating evolutionary algorithms located at different nodes in a distributed network. The coevolutionary agents conduct localized database searches and evolve at their respective nodes while sharing information with other coevolutionary agents working the same problem. Results or solutions to the problem posed are available at each network node containing a coevolutionary agent working the problem.