Abstract: A corner mounting system for self-aligning and self-leveling mounting of a mounting object in a corner between a left adjoining wall and a right adjoining wall includes: a left corner mounting device with left front and rear mounting surface; a right corner mounting device with right front and rear mounting surfaces; and optionally left and right lower support members; such that the left and right corner mounting devices can be connected between respectively the left and right adjoining walls, and left and right rear sides of the mounting object, using double-sided tape or screws, which can slide into notches of the left and right left corner mounting devices.

Abstract: Dynamic allocation of power modules for charging electric vehicles is described herein. The charging system includes multiple dispensers that each include one or more power modules that can supply power to any one of the dispensers at a time. A dispenser includes a first power bus that is switchably connected to one or more local power modules and switchably connected to one or more power modules located remotely in another dispenser. The one or more local power modules are switchably connected to a second power bus in the other dispenser. The dispenser includes a control unit that is to cause the local power modules and the remote power modules to switchably connect and disconnect from the first power bus to dynamically allocate the power modules between the dispenser and the other dispenser.

Abstract: Dynamic allocation of power modules for charging electric vehicles is described herein. The charging system includes multiple dispensers that each include one or more power modules that can supply power to any one of the dispensers at a time. A dispenser includes a first power bus that is switchably connected to one or more local power modules and switchably connected to one or more power modules located remotely in another dispenser. The one or more local power modules are switchably connected to a second power bus in the other dispenser. The dispenser includes a control unit that is to cause the local power modules and the remote power modules to switchably connect and disconnect from the first power bus to dynamically allocate the power modules between the dispenser and the other dispenser.

Abstract: A battery enclosure includes a top wall, bottom wall, and side walls connected to each other, forming an inside and an outside of the battery enclosure. The battery enclosure further includes a relief vent, the relief vent extending through the top wall or side wall and a battery enclosure pressure relief, the battery enclosure pressure relief including a deflagration panel, wherein the deflagration panel is a burst disk or explosion vent.

Abstract: A corner mounting system for self-aligning and self-leveling mounting of a mounting object in a corner between a left adjoining wall and a right adjoining wall includes: a left corner mounting device with left front and rear mounting surface; a right corner mounting device with right front and rear mounting surfaces; and optionally left and right lower support members; such that the left and right corner mounting devices can be connected between respectively the left and right adjoining walls, and left and right rear sides of the mounting object, using double-sided tape or screws, which can slide into notches of the left and right left corner mounting devices.

Abstract: The methods described herein relate to the isolation of betalam pigment color compositions from crop plants. Also described are methods of pre-harvest foliar spraying of an ethylene-releasing compound to a crop plant and the uses of extracted betalam pigment color compositions from crop plant for a food or commercial product.

Abstract: In implementations of opting-in or opting-out of visual tracking, a computing device maintains digital images received for scanning, and includes an image scanning system that receives a digital image depicting one or more faces of persons captured in the digital image. The image scanning system is implemented to detect a face of a person who is depicted in the digital image from a scan of the digital image. The image scanning system can then scan the digital image for a visual tracking identifier that indicates a preference of the person for one of opting-in or opting-out of visual tracking. The image scanning system can detect the visual tracking identifier associated with the person from the scan of the digital image, and continue or discontinue the visual tracking of the person based on the visual tracking identifier indicating that the person opt-in or opts-out of visual tracking.

Abstract: Disclosed are systems for wireless energy transfer including transcutaneous energy transfer. Embodiments are disclosed for electrical connections between an implanted wireless receiver and an implanted medical device powered by the receiver. Methods for manufacturing and using the devices and system are also disclosed.

Abstract: In implementations of opting-in or opting-out of visual tracking, a computing device maintains digital images received for scanning, and includes an image scanning system that receives a digital image depicting one or more faces of persons captured in the digital image. The image scanning system is implemented to detect a face of a person who is depicted in the digital image from a scan of the digital image. The image scanning system can then scan the digital image for a visual tracking identifier that indicates a preference of the person for one of opting-in or opting-out of visual tracking. The image scanning system can detect the visual tracking identifier associated with the person from the scan of the digital image, and continue or discontinue the visual tracking of the person based on the visual tracking identifier indicating that the person opt-in or opts-out of visual tracking.

Abstract: Disclosed are systems for wireless energy transfer including transcutaneous energy transfer. Embodiments are disclosed for electrical connections between an implanted wireless receiver and an implanted medical device powered by the receiver. Methods for manufacturing and using the devices and system are also disclosed.

Abstract: An apparatus and method for wrapping a palletized load are provided. The apparatus preferably includes a film dispenser for dispensing a film web, at least one guide rollers configured to engage the width of the film web, and at least one roping element. The at least one roping element may be a cable rolling roper configured to roll a portion of the film web into a rolled cable of film. The apparatus may also include means for providing relative rotation between the load and the dispenser to wrap a roped portion of the film web around a base of the load/top portion of a pallet supporting the load.

Abstract: Cleaning of an ion implantation system or components thereof, utilizing temperature and/or a reactive cleaning reagent enabling growth/etching of the cathode in an indirectly heated cathode for an ion implantation system by monitoring the cathode bias power and taking corrective action depending upon compared values to etch or regrow the cathode.

Abstract: Disclosed are systems for wireless energy transfer including transcutaneous energy transfer. Embodiments are disclosed for electrical connections between an implanted wireless receiver and an implanted medical device powered by the receiver. Methods for manufacturing and using the devices and system are also disclosed.

Abstract: Disclosed are systems for wireless energy transfer including transcutaneous energy transfer. Embodiments are disclosed for electrical connections between an implanted wireless receiver and an implanted medical device powered by the receiver. Methods for manufacturing and using the devices and system are also disclosed.

Abstract: Disclosed are systems for wireless energy transfer including transcutaneous energy transfer. Embodiments are disclosed for electrical connections between an implanted wireless receiver and an implanted medical device powered by the receiver. Methods for manufacturing and using the devices and system are also disclosed.

Abstract: Disclosed are systems for wireless energy transfer including transcutaneous energy transfer. Embodiments are disclosed for electrical connections between an implanted wireless receiver and an implanted medical device powered by the receiver. Methods for manufacturing and using the devices and system are also disclosed.

Abstract: A method and apparatus for cleaning residue from components of semiconductor processing systems used in the fabrication of microelectronic devices. To effectively remove residue, the components are contacted with a gas-phase reactive material for sufficient time and under sufficient conditions to at least partially remove the residue. When the residue and the material from which the components are constructed are different, the gas-phase reactive material is selectively reactive with the residue and minimally reactive with the materials from which the components of the ion implanter are constructed. When the residue and the material from which the components are constructed is the same, then the gas-phase reactive material may be reactive with both the residue and the component part.

Abstract: Cleaning of an ion implantation system or components thereof, utilizing temperature and/or a reactive cleaning reagent enabling growth/etching of the cathode in an indirectly heated cathode for an ion implantation system by monitoring the cathode bias power and taking corrective action depending upon compared values to etch or regrow the cathode.

Abstract: Cleaning of an ion implantation system or components thereof, utilizing a reactive cleaning reagent enabling growth/etching of the filament in an ion source of the arc chamber, by appropriate control of temperature in the arc chamber to effect the desired filament growth or alternative filament etching. Also described is the use of reactive gases such as XeFx, WFx, AsFx, PFx and TaFx, wherein x has a stoichioimetrically appropriate value or range of values, for cleaning regions of ion implanters, or components of implanters, in in situ or ex situ cleaning arrangements, under ambient temperature, elevated temperature or plasma conditions. Among specific reactive cleaning agents, BrF3 is described as useful for cleaning ion implant systems or component(s) thereof, in in situ or ex situ cleaning arrangements.

Abstract: A method and apparatus for cleaning residue from components of semiconductor processing systems used in the fabrication of microelectronic devices. To effectively remove residue, the components are contacted with a gas-phase reactive material for sufficient time and under sufficient conditions to at least partially remove the residue. When the residue and the material from which the components are constructed are different, the gas-phase reactive material is selectively reactive with the residue and minimally reactive with the materials from which the components of the ion implanter are constructed. When the residue and the material from which the components are constructed is the same, then the gas-phase reactive material may be reactive with both the residue and the component part.