A temperature controlled container comprises exterior wall structure, interior wall structure positioned within the exterior wall structure, the interior wall structure at least partially defining an interior space configured to hold one or more products for shipping, and a chamber defined between the interior and exterior wall structure, the chamber configured to retain thermal storage medium to provide a thermally insulative layer at least partially protecting the interior space.

A heated slurry transport system for receiving, transporting and unloading a cuttings slurry in a non-frozen manner in cold weather environments. The heated slurry transport system generally includes a portable tank having an interior surface, at least one wall, and a rear door. A layer of insulation surrounds at least a portion of the portable tank to help retain heat within the portable tank. A heating unit is attached to the portable tank and adapted to heat a fluid that is transferred through at least one heat loop attached to the portable tank to heat the interior of the portable tank and the contents of the portable tank.

A container suitable for use in a shipment of a cargo by air may include a container body having a top wall, a bottom wall, a front wall, a rear wall and oppositely disposed side walls and defining a cargo space within the container. The container body may be fabricated as a structure that is a compliant unit load device (ULD) container meeting specified aviation authority structural requirements. A passive temperature control system is located within the cargo space and may have a plurality of insulation panels connected to inner surfaces of the walls of the container body, at least one rack proximate a corresponding wall of the container body, and a plurality of refrigerant bottles filled with a thermal medium and received by the at least one rack to passively maintain a cargo space temperature in the cargo space during the shipment of the cargo.

The invention refers to an equipment (1) including a container (19) for the storage of a liquid (2) as well as thermal insulation panels (12,13), wherein none of the thermal insulation panels (12,13) is mounted directly on or even in contact with an outer surface of the container (19), wherein a chamber (5) housing the container (19) is delimited by an enclosure (6) consisting of walls (7), a floor (8) and a ceiling (9), and which is accessible through an access opening, either in the form of an entrance opening in one of the walls (7) closeable by a door or in the form of a manhole (11) eccentric to the center of the ceiling (9) and closeable by a lid (10), wherein the lid (10) or the door is thermally insulated at the inner side and is provided with an air-tight sealing all around, and wherein an inner surface of the chamber (5) except the access opening is entirely covered with the thermal insulation panels (12,13) in such a way that a volume of space occupied by the container (19) is smaller than a volume of space delimited by the inner sides of the thermal insulation panels (12,13) at the inner side of the walls (7), the ceiling (9) and the floor (8), leaving a space for maintenance between the outer surface of the container (19) and the thermal insulation panels (12,13) mounted to the inner surface of the chamber (5), which is only filled with air and is free of any liquid or bulk material in order to keep the container and the bottom of the chamber visible for inspection, and wherein the only way for heat to leave the air-filled space for maintenance between the outer surface of the container (19) and the thermal insulation panels (12,13) is through these thermal insulation panels (12,13) and neither besides such thermal insulation panels (12,13) nor through any kind of air duct or acitve or passive venting.

A concrete container for a food liquid, particularly for making and aging wine and spirits, includes a container body which exhibits symmetry of revolution. The body includes an interior wall delimiting the storage volume of the container, an external peripheral wall, a first body part and a second body part, which parts are superposed and assembled to close the body, each body part includes an assembly surface for assembly with the other body part. The assembly surfaces include at least: first assembly surfaces placed on the side of the interior wall, the first surfaces exhibiting profiles that mate with one another to ensure continuous contact between the first surfaces, and the first assembly surfaces being extended in the direction toward the outside of the container by second assembly surfaces configured to define between them an interior space that may or may not open onto said the external peripheral wall.

A modular subsea fluid storage unit has a variable-volume inner tank having a rigid top panel and a peripheral wall that is flexible by virtue of concertina formation. The peripheral wall is extensible and retractable vertically while the horizontal width of the tank remains substantially unchanged. A side wall of a lower housing part surrounds and is spaced horizontally from the peripheral wall of the inner tank to define a floodable gap between the peripheral wall and the side wall that surrounds the tank. An upper housing part extends over and is vertically spaced from the top panel of the inner tank and overlaps the side wall to enclose the inner tank. The floodable gap and the upper housing part enhance thermal insulation and trap any fluids that may leak from the inner tank.

An insulating container comprises a container body and a container cover connected to the container body. The container body and the container cover each comprises a frame and a plate arranged on the frame. The plate comprises, from inside out, an external high strength sheet, an extruded polystyrene sheet, phase-change insulating sheets made of phase-change material, and an internal sheet. A phase-change process of the phase-change insulating sheets cooperates with a refrigeration system of the transportation device to precisely control the temperature of the insulating container and a refrigerator truck to be near a phase-change temperature. In the present disclosure, the phase-change insulating sheets made of the phase-change material remain to be in a solid state before or after occurrence of a phase change, so that the structure of the insulating container does not change with the phase change and a leakage problem of the phase-change material does not exist.

A hydrocarbon fluid storage structure has a storage vessel containing hydrocarbon fluids therein and a containment vessel fully surrounding the storage vessel so as to provide secondary containment to the storage vessel. A heater is surrounded by heat exchanger fluid within a heat exchanger vessel within the storage vessel. The exterior of the containment vessel is insulated. The heat exchanger fluid is passively circulated within a closed loop path defined by the heat exchanger vessel. Connecting valves providing external access to the contents of the storage vessel are received within a valve housing in heat exchanging relation with a containment space between the containment vessel and the storage vessel.

The invention is for a heating pad for a container to lie against at least one external surface of the container, and apply thermal energy to the container, and any material therein, when needed. The pad consists of a foamed resilient substrate with a first presenting major surface substantially equal in area to the at least one external surface of the container. A heating cable is located on the first presenting major surface to form an electrical circuit that when energised provides the thermal energy. A planar sheet material is above the first presenting major surface, and below a second presenting major surface of the substrate, the planar sheet material extends past the first and second presenting major surfaces and sealed at a periphery to form an encapsulation of the substrate and heating cable. There is an electrical connection from the heating cable internally of the encapsulation to external of the encapsulation. Such that the heating pad can be located against the at least one external surface of the container to move with that container, and when connected to a source of electricity can supply thermal energy to the container and any material contained therein.

An insulating container comprises a container body and a container cover connected to the container body. The container both and the container cover each comprises a frame and a plate arranged on the frame. The plate comprises, from inside out, an external high strength sheet, an extruded polystyrene sheet, phase-change insulating sheets made of phase-change material, and an internal sheet. A phase-change process of the phase-change insulating sheets cooperates with a refrigeration system of the transportation device to precisely control the temperature of the insulating container and a refrigerator truck to be near a phase-change temperature. In the present disclosure, the phase-change insulating sheets made of the phase-change material remain to be in a solid state before or after occurrence of a phase change, so that the structure of the insulating container does not change with the phase change and a leakage problem of the phase-change material does not exist.