Abstract: A solid electrolyte material comprises Li, T, X and A wherein T is at least one of P, As, Si, Ge, Al, Sb, W, and B; X is one or more halogens and/or N; A is one or more of S or Se. The solid electrolyte material has peaks at 14.9°±0.50°, 20.4°±0.50°, and 25.4°±0.50° in X-ray diffraction measurement with Cu—K?(1,2)=1.5418? and may include glass ceramic and/or mixed crystalline phases.

Abstract: A solid electrolyte material comprising Li, T, X and A wherein T is at least one of P, As, Si, Ge, Al, and B; X is BH4; A is S, Se, or N. The solid electrolyte material may include glass ceramic and/or mixed crystalline phases, and exhibits high ionic conductivity and compatibility with high voltage cathodes and lithium metal anodes.

Abstract: A motor stop mechanism for a motor including an output shaft includes a motor mounting surface to which the motor is attachable and a threaded drive shaft fixed to and rotatable with the motor output shaft. A trunnion threaded on the threaded drive shaft is displaceable between a retracted position and an extended position by forward and reverse rotation of the threaded drive shaft. A housing surrounds the threaded drive shaft and the trunnion, and a stop limit fixed to the housing defines the extended position of the trunnion. In use, when the trunnion reaches the stop limit, the motor is stopped.

Abstract: A wirelessly electrically-coupled deployable apparatus comprising a deployable structure supported on a supporting structure for motion between a stowed position and a deployed position, an electrically-powered device carried by the deployable structure, a wireless electrical power receiving circuit carried by the deployable structure and connected between the device and a wireless electrical power receiver, and a wireless electrical power transmitting circuit carried by the supporting structure and connected between an electrical power supply and a wireless electrical power transmitter. The wireless electrical power transmitter is carried by the supporting structure, and the wireless electrical power receiver is carried by the deployable structure, in respective positions where wireless electrical power transfer between the wireless electrical power transmitter and receiver powers the device via the receiving circuit when the deployable structure is in its deployed position.

Abstract: A motor stop mechanism serves as a stop limit for a motor including an output shaft. The motor stop mechanism includes a motor mounting surface to which the motor is attachable, where the motor output shaft is positionable through the motor mounting surface. A coupler is fixable to and rotatable with the output shaft, and a threaded drive shaft is fixed to and rotatable with the coupler. A trunnion threaded on the threaded drive shaft is displaceable on the threaded drive shaft with rotation of the threaded drive shaft. The trunnion is displaceable between a retracted position and an extended position by forward and reverse rotation of the threaded drive shaft. A stop limit defines the extended position of the trunnion. In use, when the trunnion reaches the stop limit, the motor is stopped.

Abstract: A folding bed system includes a bed frame having a head section, a center section, and a foot section. The center section is connected to first and second slide mechanisms, and the head section is connected to first and second guide mechanisms. The slide and guide mechanisms are connectable to opposed walls of a structure. In some embodiments, a hinge assembly for a folding structure includes a center post securable to the center section, and a connecting bracket movably coupled with the center post that is vertically displaceable on the center post between a down position and an up position. A forward bracket is secured at one end to the connecting bracket and is securable at an opposite end to the head section, and an aft bracket is secured at one end to the connecting bracket and is securable at an opposite end to the foot section.

Abstract: A motor stop mechanism for a motor including an output shaft includes a motor mounting surface to which the motor is attachable and a threaded drive shaft fixed to and rotatable with the motor output shaft. A trunnion threaded on the threaded drive shaft is displaceable between a retracted position and an extended position by forward and reverse rotation of the threaded drive shaft. A housing surrounds the threaded drive shaft and the trunnion, and a stop limit fixed to the housing defines the extended position of the trunnion. In use, when the trunnion reaches the stop limit, the motor is stopped.

Abstract: A wirelessly electrically-coupled deployable apparatus comprising a deployable structure supported on a supporting structure for motion between a stowed position and a deployed position, an electrically-powered device carried by the deployable structure, a wireless electrical power receiving circuit carried by the deployable structure and connected between the device and a wireless electrical power receiver, and a wireless electrical power transmitting circuit carried by the supporting structure and connected between an electrical power supply and a wireless electrical power transmitter. The wireless electrical power transmitter is carried by the supporting structure, and the wireless electrical power receiver is carried by the deployable structure, in respective positions where wireless electrical power transfer between the wireless electrical power transmitter and receiver powers the device via the receiving circuit when the deployable structure is in its deployed position.

Abstract: A folding bed system includes a bed frame having a head section, a center section, and a foot section. The center section is connected to first and second slide mechanisms, and the head section is connected to first and second guide mechanisms. The slide and guide mechanisms are connectable to opposed walls of a structure. In some embodiments, a hinge assembly for a folding structure includes a center post securable to the center section, and a connecting bracket movably coupled with the center post that is vertically displaceable on the center post between a down position and an up position. A forward bracket is secured at one end to the connecting bracket and is securable at an opposite end to the head section, and an aft bracket is secured at one end to the connecting bracket and is securable at an opposite end to the foot section.

Abstract: A motor stop mechanism serves as a stop limit for a motor including an output shaft. The motor stop mechanism includes a motor mounting surface to which the motor is attachable, where the motor output shaft is positionable through the motor mounting surface. A coupler is fixable to and rotatable with the output shaft, and a threaded drive shaft is fixed to and rotatable with the coupler. A trunnion threaded on the threaded drive shaft is displaceable on the threaded drive shaft with rotation of the threaded drive shaft. The trunnion is displaceable between a retracted position and an extended position by forward and reverse rotation of the threaded drive shaft. A stop limit defines the extended position of the trunnion. In use, when the trunnion reaches the stop limit, the motor is stopped.

Abstract: A system and method for generating customized information views is disclosed.

Abstract: A curable adhesive applied between teeth of a gear rack forms a gear rack travel stop. The curable adhesive is applied between teeth of the gear rack in fluid form and cured to a solid form.

Abstract: By adding light reflective and/or transparent and/or translucent material within a micro-electronic circuit housing, improved light transfer is achieved between a light generation source and a light utilization device. In one embodiment, the reflective material is placed on the inside surface of a non-metallic housing lid and the light from the light source (typically an LED) reflects from the reflective material and impacts the device (typically an FET). In another embodiment, the LED and FET are encased in a clear (low light-loss) material (typically silicone overcoat) so as to allow the light from the LED to reflect from the top of the clear material onto the FET. If desired, an opaque encapsulant surrounds the clear material and fills out the volume within the housing.

Abstract: The present invention includes a system for applying floor finish. The system can include a back or other pack configured to hold one or more containers of liquid floor finish, a wand applicator, and metering valve. The wand applicator can include handle and conduit. The conduit can provide fluid communication of floor finish from the container to a floor. The metering valve can be configured to controllably provide fluid communication of floor finish through the conduit and to release floor finish onto the floor. In an embodiment the system also includes a cleanout coupler. In an embodiment the system also includes a filter configured to filter the floor finish. In an embodiment, the backpack includes a grip configured for carrying the backpack. In an embodiment, the backpack includes positioning portion or surface configured to support portions of the container. In an embodiment, the backpack includes padded attachment apparatus configured to support the backpack on a wearer.

Abstract: The present invention includes a system for applying floor finish. The system can include a back or other pack configured to hold one or more containers of liquid floor finish, a wand applicator, and metering valve. The wand applicator can include handle and conduit. The conduit can provide fluid communication of floor finish from the container to a floor. The metering valve can be configured to controllably provide fluid communication of floor finish through the conduit and to release floor finish onto the floor. In an embodiment the system also includes a cleanout coupler. In an embodiment the system also includes a filter configured to filter the floor finish. In an embodiment, the backpack includes a grip configured for carrying the backpack. In an embodiment, the backpack includes positioning portion or surface configured to support portions of the container. In an embodiment, the backpack includes padded attachment apparatus configured to support the backpack on a wearer.

Abstract: A system for the formation of a thick robust transparent floor finish layer from a high solids formulation with an applicator device utilizing micro fiber technology. A micro fiber applicator device can be configured to apply a sufficient amount of an aqueous high solids floor finish to obtain a thick robust finish layer in a single application. One system for applying the floor finish can comprise a source of aqueous floor finish and an applicator wand comprising an application nozzle and application surface. Application surface can comprise micro fiber technology in a pad structure comprising a reservoir foam and a micro fiber applicator surface.

Abstract: The present invention includes a system for applying floor finish. The system can include a back or other pack configured to hold one or more containers of liquid floor finish, a wand applicator, and metering valve. The wand applicator can include handle and conduit. The conduit can provide fluid communication of floor finish from the container to a floor. The metering valve can be configured to controllably provide fluid communication of floor finish through the conduit and to release floor finish onto the floor. In an embodiment the system also includes a cleanout coupler. In an embodiment the system also includes a filter configured to filter the floor finish. In an embodiment, the backpack includes a grip configured for carrying the backpack. In an embodiment, the backpack includes positioning portion or surface configured to support portions of the container. In an embodiment, the backpack includes padded attachment apparatus configured to support the backpack on a wearer.

Abstract: By adding light reflective and/or transparent and/or translucent material within a micro-electronic circuit housing, improved light transfer is achieved between a light generation source and a light utilization device. In one embodiment, the reflective material is placed on the inside surface of a non-metallic housing lid and the light from the light source (typically an LED) reflects from the reflective material and impacts the device (typically an FET). In another embodiment, the LED and FET are encased in a clear (low light-loss) material (typically silicone overcoat) so as to allow the light from the LED to reflect from the top of the clear material onto the FET. If desired, an opaque encapsulant surrounds the clear material and fills out the volume within the housing.

Abstract: The present invention includes a system for applying floor finish. The system can include a back or other pack configured to hold one or more containers of liquid floor finish, a wand applicator, and metering valve. The wand applicator can include handle and conduit. The conduit can provide fluid communication of floor finish from the container to a floor. The metering valve can be configured to controllably provide fluid communication of floor finish through the conduit and to release floor finish onto the floor. In an embodiment the system also includes a cleanout coupler. In an embodiment the system also includes a filter configured to filter the floor finish. In an embodiment, the backpack includes a grip configured for carrying the backpack. In an embodiment, the backpack includes positioning portion or surface configured to support portions of the container. In an embodiment, the backpack includes padded attachment apparatus configured to support the backpack on a wearer.

Abstract: The transfer of data through a modem can be blocked in the modem during a safe mode unless the data includes predefined communications such as a request for a network address to maintain access to the network for the host system or a response to the request that includes the network address. Accordingly, the safe mode can protect a host system from unauthorized access from the network, while allowing the network service to be maintained for the host system. In particular, requests for renewals of leases, such as Dynamic Host Configuration Protocol (DHCP) requests and responses thereto, on Internet Protocol (IP) addresses used by the host system may not be blocked by the modem during safe mode. Furthermore, requests and response for addresses of systems on the network to which the DHCP requests are transmitted, such as Address Resolution Protocol (ARP) requests and responses thereto, may also not be blocked during safe mode.