Abstract: A method includes controlling a power limit of a computing system based on a determined skin temperature of at least one location on an outer surface of a device housing the computing system. A processor includes a processing unit and a power management controller to control a power limit of the processing unit based on a determined skin temperature of at least one location on an outer surface of a device housing the processor.

Abstract: Anti-angiogenic treatments, treatments of hyperpermeability disorders, treatments of neuropathic and neurodegenerative disorders, pain treatments, methods of reducing the risk of pre-eclampsia and compounds for use in such methods are described.

Abstract: Anti-angiogenic treatments, treatments of hyperpermeability disorders, treatments of neuropathic and neurodegenerative disorders, pain treatments, methods of reducing the risk of pre-eclampsia and compounds for use in such methods are described.

Abstract: Anti-angiogenic treatments, treatments of hyperpermeability disorders, treatments of neuropathic and neurodegenerative disorders, pain treatments, methods of reducing the risk of pre-eclampsia and compounds for use in such methods are described.

Abstract: Anti-angiogenic treatments, treatments of hyperpermeability disorders, treatments of neuropathic and neurodegenerative disorders, pain treatments, methods of reducing the risk of pre-eclampsia and compounds for use in such methods are described.

Abstract: Anti-angiogenic treatments, treatments of hyperpermeability disorders, treatments of neuropathic and neurodegenerative disorders, pain treatments, methods of reducing the risk of pre-eclampsia and compounds for use in such methods are described.

Abstract: A solar thermal control system includes a membrane configured to receive solar energy, wherein the membrane is configured to form a cavity between the membrane and an outer surface of a structure by coupling to the outer surface, and wherein the solar energy is configured to heat air within the cavity. The control system also includes a thermal collection unit configured to connect to the cavity and receive and direct air from the cavity, and a ducting system coupled to the thermal collection unit and configured to direct air from the thermal collection unit to at least one of the interior of the structure and a vent.

Abstract: Anti-angiogenic treatments, treatments of hyperpermeability disorders, treatments of neuropathic and neurodegenerative disorders, pain treatments, methods of reducing the risk of pre-eclampsia and compounds for use in such methods are described.

Abstract: A rotary milking platform has: a) a deck 1 suitable for supporting cows for milking; b) an beam 2 arranged to support the deck 1; and c) a plurality of rollers 4 arranged to take at least a substantial amount of the weight of the beam 2 as it moves in a generally rotary fashion; characterised in that each roller 4 is adapted to automatically orient itself to distribute the weight of the beam 2 generally evenly over the roller 4 to avoid or substantially reduce point loading between the beam 2 and the roller 4 in the event that a least part of the beam 2 is not level.

Abstract: The invention provides a method of selectively pro-oranti-angiogenic treatment of a mammalian subject, comprising site-specific control of alternative splicing during processing of VEGF pre-mRNA transcribed from the C terminal exon 8 of the VEGF gene using controlling agents for the splicing, wherein one or more controlling agent which favors proximal splice site (PSS) splicing in said processing is used in the pro-angiogenic treatment and one or more controlling agent which favors distal splice site (DSS) splicing in said processing is used in the anti-angiogenic treatment.

Abstract: A method includes adjusting a maximum skin temperature threshold of a device based on a device state, adjusting a power limit for the device based on the adjusted maximum skin temperature threshold, and operating the device based on the adjusted power limit. A processor includes a processing unit and a power management controller to adjust a maximum skin temperature threshold based on a device state and adjust a power limit for the processing unit based on the adjusted maximum skin temperature threshold.

Abstract: A method includes controlling a power limit of a computing system based on a determined skin temperature of at least one location on an outer surface of a device housing the computing system. A processor includes a processing unit and a power management controller to control a power limit of the processing unit based on a determined skin temperature of at least one location on an outer surface of a device housing the processor.

Abstract: Techniques for forming a header for an implantable medical device via a two-shot molding process are described. The two-shot molding processes may include a first molding step that creates a first-shot assembly and a second molding step that creates a second-shot assembly. The first-shot assembly may be formed to include one or more protrusions configured to interact with a second-shot mold and/or molding material in the second molding step. The second molding step may be configured to overmold the first-shot assembly. The header may include an attachment plate at least partially embedded in molding material and configured to be mechanically coupled to a body of the implantable medical device.

Abstract: A moulded module for a rotary milking platform comprising or including a core of filler material (for example foamed plastics) surrounded by layers of fibre reinforced materials and optionally also with steel reinforcements, all components having been applied in-mould.

Abstract: Techniques for forming a header for an implantable medical device via a two-shot molding process are described. The two-shot molding processes may include a first molding step that creates a first-shot assembly and a second molding step that creates a second-shot assembly. The first-shot assembly may be formed to include one or more protrusions configured to interact with a second-shot mold and/or molding material in the second molding step. The second molding step may be configured to overmold the first-shot assembly. The header may include an attachment plate at least partially embedded in molding material and configured to be mechanically coupled to a body of the implantable medical device.

Abstract: A connector assembly for an implantable medical device with hardware components placed in established physical locations within the polymer of the connector, and a method of making the assembly. One embodiment includes a method that involves forming a first shot, coupling at least one hardware component to the first shot to form a subassembly, placing the subassembly between a set of opposing areas of a mold, moving at least one of the areas of the set of opposed areas of the mold to constrain the subassembly within the mold, and introducing a second shot over at least a portion of the subassembly to form the connector.

Abstract: Techniques for forming a header for an implantable medical device via a two-shot molding process are described. The two-shot molding processes may include a first molding step that creates a first-shot assembly and a second molding step that creates a second-shot assembly. The first-shot assembly may be formed to include one or more protrusions configured to interact with a second-shot mold and/or molding material in the second molding step. The second molding step may be configured to overmold the first-shot assembly. The header may include an attachment plate at least partially embedded in molding material and configured to be mechanically coupled to a body of the implantable medical device.

Abstract: Techniques for forming a header for an implantable medical device via a two-shot molding process are described. The two-shot molding processes may include a first molding step that creates a first-shot assembly and a second molding step that creates a second-shot assembly. The first-shot assembly may be formed to include one or more protrusions configured to interact with a second-shot mold and/or molding material in the second molding step. The second molding step may be configured to overmold the first-shot assembly. The header may include an attachment plate at least partially embedded in molding material and configured to be mechanically coupled to a body of the implantable medical device.

Abstract: A connector assembly for an implantable medical device with hardware components placed in established physical locations within the polymer of the connector, and a method of making the assembly. One embodiment includes a method that involves forming a first shot, coupling at least one hardware component to the first shot to form a subassembly, placing the subassembly between a set of opposing areas of a mold, moving at least one of the areas of the set of opposed areas of the mold to constrain the subassembly within the mold, and introducing a second shot over at least a portion of the subassembly to form the connector.

Abstract: A robotic milking system suitable for use with conventional milking clusters. Clusters are withdrawn to a generally known position upon release from a cow with the cups hanging down below the bowl. The cups are then located in a confined region from where they are picked up by a robotic arm and attached to teats of a cow. The cups may be located into recesses or slots or be drawn through a guide. The arrangement allows a single robotic arm to service multiple bales of a rotary milking parlor. The application of a vacuum to milking cups may be controlled by applying sufficient pressure to the pulsation line of a cup to collapse the cup liner when that cup is not attached to a teat or by bending a feed line to a cup to close the flow path.