Abstract: This invention relates to a removable cap which is metallic to facilitate recovery and recycling. The removable metal cap is for a container, such as tin or jar which may contain supplements or foodstuffs. The metallic removable cap has a thread for screwing the metal cap onto a threaded opening of a container. A retaining bead is provided on its inner surface and retains a two-piece wad. The two-piece wad is formed from an upper (cap) layer and a lower (container) layer. When installed the lower layer seals the container and the retaining bead retains the two-piece wad until removal of the metal cap from the container whereupon the upper layer of the wad separates from the lower layer of the wad and is held inside the metal cap by the retaining bead.

Abstract: This invention relates to a removable cap which is metallic to facilitate recovery and recycling. The removable metal cap is for a container, such as tin or jar which may contain supplements or foodstuffs. The metallic removable cap has a thread for screwing the metal cap onto a threaded opening of a container. A retaining bead is provided on its inner surface and retains a two-piece wad. The two-piece wad is formed from an upper (cap) layer and a lower (container) layer. When installed the lower layer seals the container and the retaining bead retains the two-piece wad until removal of the metal cap from the container whereupon the upper layer of the wad separates from the lower layer of the wad and is held inside the metal cap by the retaining bead.

Abstract: An immersion cooling system is configured for uniform fluid distribution across computing devices and includes a tank defining an open interior volume, a distribution pipe having a plurality of ports, a distribution plate having a pattern of holes is positioned over the distribution pipe. A siphon wall divides the open interior volume into a first chamber and a second chamber, and the distribution plate and the distribution pipe are in the first chamber. The dielectric cooling fluid enters the first chamber of the tank through the plurality of ports in the distribution pipe, and flows through the pattern of holes in the distribution plate to contact the at least one computing device. The heat dissipates from the at least one computing device into the dielectric cooling fluid, which flows through the siphon wall into the second chamber via a transfer port that is located below a dielectric cooling fluid surface.

Abstract: An immersion cooling system is configured for uniform fluid distribution across computing devices and includes a tank defining an open interior volume, a distribution pipe having a plurality of ports, a distribution plate having a pattern of holes is positioned over the distribution pipe. A siphon wall divides the open interior volume into a first chamber and a second chamber, and the distribution plate and the distribution pipe are in the first chamber. The dielectric cooling fluid enters the first chamber of the tank through the plurality of ports in the distribution pipe, and flows through the pattern of holes in the distribution plate to contact the at least one computing device. The heat dissipates from the at least one computing device into the dielectric cooling fluid, which flows through the siphon wall into the second chamber via a transfer port that is located below a dielectric cooling fluid surface.

Abstract: Various aspects include devices, systems, and methods for cooling electronic equipment immersed in an immersion coolant tank with a fluid delivery wand. The fluid delivery wand may include a coolant conduit and an aperture cover. The coolant conduit may extend from a support base of the immersion coolant tank. The coolant conduit may include a lumen configured to receive dielectric fluid, wherein the coolant conduit includes at least one conduit aperture extending through a sidewall of the coolant conduit. The aperture cover may be in sliding engagement with an outer surface of the sidewall of the coolant conduit. The aperture cover may be configured to selectively restrict flow of dielectric fluid through the at least one conduit aperture by sliding along the outer surface of the outer of the sidewall.

Abstract: Various aspects include devices, systems, and methods for cooling a heatsink of electronic equipment immersed in an immersion coolant tank with a coolant shroud. The coolant shroud includes side walls and a covering wall. The side walls mounted on a mounting surface within the immersion coolant tank and on which the heatsink is secured and at least one of the side walls includes a fluid port and a fluid aperture. The covering wall extends from and between the side walls, wherein the side walls and the covering wall together form a cooling chamber that receives the heatsink. Dielectric fluid inside the cooling chamber is in fluid communication with dielectric fluid outside the cooling chamber via the fluid aperture. The fluid port is in fluid communication with a dielectric fluid pump disposed outside the cooling chamber.

Abstract: Various aspects include devices, systems, and methods for cooling a heatsink of electronic equipment immersed in an immersion coolant tank with a coolant shroud. The coolant shroud includes side walls and a covering wall. The side walls mounted on a mounting surface within the immersion coolant tank and on which the heatsink is secured and at least one of the side walls includes a fluid port. The covering wall extends from and between the side walls, wherein the side walls and the covering wall together form a cooling chamber that receives the heatsink. The covering wall includes a fluid aperture separate from the fluid port, wherein dielectric fluid inside the cooling chamber is in fluid communication with dielectric fluid outside the cooling chamber via the fluid aperture. The fluid port is in fluid communication with a dielectric fluid pump disposed outside the cooling chamber.

Abstract: Various aspects include devices, systems, and methods for cooling electronic equipment immersed in an immersion coolant tank with a fluid delivery wand. The fluid delivery wand may include a coolant conduit and an aperture cover. The coolant conduit may extend from a support base of the immersion coolant tank. The coolant conduit may include a lumen configured to receive dielectric fluid, wherein the coolant conduit includes at least one conduit aperture extending through a sidewall of the coolant conduit. The aperture cover may be in sliding engagement with an outer surface of the sidewall of the coolant conduit. The aperture cover may be configured to selectively restrict flow of dielectric fluid through the at least one conduit aperture by sliding along the outer surface of the outer of the sidewall.

Abstract: Various aspects include devices, systems, and methods for cooling a heatsink of electronic equipment immersed in an immersion coolant tank with a coolant shroud. The coolant shroud includes side walls and a covering wall. The side walls mounted on a mounting surface within the immersion coolant tank and on which the heatsink is secured and at least one of the side walls includes a fluid port. The covering wall extends from and between the side walls, wherein the side walls and the covering wall together form a cooling chamber that receives the heatsink. The covering wall includes a fluid aperture separate from the fluid port, wherein dielectric fluid inside the cooling chamber is in fluid communication with dielectric fluid outside the cooling chamber via the fluid aperture. The fluid port is in fluid communication with a dielectric fluid pump disposed outside the cooling chamber.

Abstract: A pesticidal coating composition is provided which comprises an aqueous dispersion of at least one film-forming binder and at least one microencapsulated pesticide; wherein a coating prepared from such composition is substantially water-impermeable upon curing. The present invention further provides methods of coating substrates with the pesticidal coating composition, as well as substrates coated with the composition. The pesticidal coating compositions of the invention can be applied to substrates by professionals or non-professionals by spraying, painting, rolling, or brushing, before, during, or after construction.

Abstract: A system on a module and techniques for use and operation in multiple different smart grid devices and/or nodes are described herein. One example of a system on a module includes a processor, a flash memory device in communication with the processor, and a RAM memory device in communication with the processor. A connector provides an interface to the smart grid device, and includes a plurality of metrology and communications interfaces.

Abstract: In a charged particle beam device, such as an electron microscope, a beam generating apparatus generates a focussed charged particle beam e? that is incident on a specimen in a specimen chamber which holds the specimen in a gaseous environment. A pressure limiting aperture provides partial gaseous isolation of the specimen chamber from the beam generating means, and is located in a lens of the latter. The device includes a conduit, such as an intermediate chamber in the lens, through which, in use, gas is supplied to set up a flow of gas from the region of the lens towards the specimen, thereby to prevent material released from the specimen from impinging on the pressure limiting aperture, to prevent contamination of the latter. The device can be used in a method of scanning a specimen with a charged particle beam, for example in a method of electron microscopy.

Abstract: A system on a module and techniques for use and operation in multiple different smart grid devices and/or nodes are described herein. One example of a system on a module includes a processor, a flash memory device in communication with the processor, and a RAM memory device in communication with the processor. A connector provides an interface to the smart grid device, and includes a plurality of metrology and communications interfaces.

Abstract: A heating element (1) for a cooking apparatus comprises a heating body (11) having a heat transfer loop (12) encased within the heating body (11); and a housing (10) made of corrosion resistant steel. The housing (10) has a cooking side and side surfaces extending from the cooking side. The heating body (11) is disposed within the housing (10) for allowing the heat transfer from the heating body (11) to the housing (10.

Abstract: Sprockets (22) and (42) are engaged with a conveyor belt (18) itself or a chain (28) coupled to the belt. An encoder is used to determine the differential of the rotation of the sprockets. From that information, the instantaneous pitch of the conveyor belt located between the first and second rotational axes can be determined, and from that information the speed of the belt can be determined. This information can be used to control work tools or other devices that act on work products being carried by the conveyor belt.

Abstract: A pesticidal coating composition is provided which comprises an aqueous dispersion of at least one film-forming binder and at least one microencapsulated pesticide; wherein a coating prepared from such composition is substantially water-impermeable upon curing. The present invention further provides methods of coating substrates with the pesticidal coating composition, as well as substrates coated with the composition. The pesticidal coating compositions of the invention can be applied to substrates by professionals or non-professionals by spraying, painting, rolling, or brushing, before, during, or after construction.

Abstract: There is disclosed a method for reconditioning an intermediate transfer member and the reconditioned intermediate transfer member. The method comprises stripping off an outer layer of the intermediate transfer member. A mixture of a polymer, conductive particles and a solvent is coated over the outer surface of a seamless intermediate transfer member. The mixture is heated to form a layer on the outer surface of the intermediate transfer belt. An apparatus for reconditioning an intermediate transfer member is also described.

Abstract: In a charged particle beam device, such as an electron microscope, a beam generating apparatus generates a focussed charged particle beam e—that is incident on a specimen in a specimen chamber which holds the specimen in a gaseous environment. A pressure limiting aperture provides partial gaseous isolation of the specimen chamber from the beam generating means, and is located in a lens of the latter. The device includes a conduit, such as an intermediate chamber in the lens, through which, in use, gas is supplied to set up a flow of gas from the region of the lens towards the specimen, thereby to prevent material released from the specimen from impinging on the pressure limiting aperture, to prevent contamination of the latter. The device can be used in a method of scanning a specimen with a charged particle beam, for example in a method of electron microscopy.