Abstract: Platform for particular use as a pet bed includes a foam core having an upper surface, a lower surface on an opposite side of the foam core from the upper surfaces, and at least one side surface between the upper and lower surfaces along a periphery of the foam core. Artificial turf extends over the upper surface and alongside each side surface. Elongate connectors extend through the foam core between the upper and lower surfaces and have opposite end regions projecting out of opposite sides of the foam core. These connectors may be rods or dowels with threaded end regions that pass through apertures in flaps of the artificial turf. Fasteners are screwed onto the threaded end regions of the dowels with the artificial turf inward of the fasteners to thereby cause the artificial turf to be urged toward and secured to the foam core.

Abstract: A cryogenic liquid conditioning system with flow driven by head pressure of liquid contained in a cryogenic storage tank, and a cryogenic liquid delivery system with flow driven by pressure in the vapor space of the cryogenic storage tank. A heat exchanger, coupled to the cryogenic storage tank located below the liquid level of the tank, operates as a portion of both the conditioning system and delivery system. A piping system moves cryogenic liquid to the heat exchanger where it is vaporized, and then moves vaporized liquid to the vapor space of the cryogenic tank and an application. The piping system includes a controller and valve(s) for controlling flow through the system. A sensor for measuring the saturated pressure of cryogenic liquid is coupled to the storage tank or piping system, and is in communication with the flow controller.

Abstract: This fluid storage and transfer system includes a first storage tank and second storage tank configured to contain cryogenic liquids. The first storage tank has a heat exchanger. A second cryogenic liquid from the second storage tank subcools a first cryogenic liquid in the first storage tank and pressurizes the first storage tank. The first storage tank is then further pressurized using the heat exchanger. The first cryogenic fluid is transferred from the first storage tank to an end point. In an example, the first cryogenic fluid is liquefied natural gas and the second cryogenic fluid is liquid nitrogen.

Abstract: A cryogenic liquid conditioning system with flow driven by head pressure of liquid contained in a cryogenic storage tank, and a cryogenic liquid delivery system with flow driven by pressure in the vapor space of the cryogenic storage tank. A heat exchanger, coupled to the cryogenic storage tank located below the liquid level of the tank, operates as a portion of both the conditioning system and delivery system. A piping system moves cryogenic liquid to the heat exchanger where it is vaporized, and then moves vaporized liquid to the vapor space of the cryogenic tank and an application. The piping system includes a controller and valve(s) for controlling flow through the system. A sensor for measuring the saturated pressure of cryogenic liquid is coupled to the storage tank or piping system, and is in communication with the flow controller.

Abstract: A cryogenic liquid conditioning system with flow driven by head pressure of liquid contained in a cryogenic storage tank, and a cryogenic liquid delivery system with flow driven by pressure in the vapor space of said cryogenic storage tank. A heat exchanger, coupled to the cryogenic storage tank located below the liquid level of said tank, operates as a portion of both the conditioning system and delivery system. A piping system moves cryogenic liquid to the heat exchanger where it is vaporized, and then moves vaporized liquid to the vapor space of the cryogenic tank and an application. The piping system includes a means for controlling flow through the system. A means for measuring the saturated pressure of cryogenic liquid is coupled to the storage tank or piping system, and is in communication with the means for controlling flow.

Abstract: A double walled vacuum insulated cryogenic vessel including a support system for the inner vessel that comprises an inner vessel support, a support bushing, and an outer vessel support. The inner vessel support is affixed to the inner vessel and the outer vessel support is affixed to the outer vessel. Between the two supports is a support bushing which is not affixed to the inner vessel support, the outer vessel support, the inner vessel, nor the outer vessel. Anti-rotational support is provided either by mechanical means, shapes, or secondary support structures.