A dynamic temperature regulating device is for use in association with a temperature-controlled container. The dynamic temperature regulating device includes at least one heat source, at least one heat sink, a heat transfer medium and a control system. At least one of the heat source and the heat sink is a PCM (phase change material). The heat transfer medium is in thermal communication with and operably connected to the at least one heat source and the at least one heat sink. The control system is for controlling the selective thermal communication with the at least one heat source and with the at least one heat sink to regulate the temperature of the temperature-controlled container. A detachable PCM contained volumes includes a sealed housing, a phase change material and a heat transfer medium and functions as a PCM thermal energy storage volume.

A dynamic temperature regulating device is for use in association with a temperature-controlled container. The dynamic temperature regulating device includes at least one heat source, at least one heat sink, a heat transfer medium and a control system. At least one of the heat source and the heat sink is a PCM (phase change material). The heat transfer medium is in thermal communication with and operably connected to the at least one heat source and the at least one heat sink. The control system is for controlling the selective thermal communication with the at least one heat source and with the at least one heat sink to regulate the temperature of the temperature-controlled container. A detachable PCM contained volumes includes a sealed housing, a phase change material and a heat transfer medium and functions as a PCM thermal energy storage volume.

Apparatus, systems, and methods for cooling fluids, for example beverages or beverage components, are presented. A cooling system or device includes a cold plate of bulk material (e.g., material of high thermal conductivity). A first sensor (preferably temperature sensor) is positioned within the bulk material and communicatively coupled to a processor. A first fluid line is at least partially disposed within the cold plate, having a first inlet entering and a first outlet exiting the cold plate. A second sensor (preferably temperature sensor) is positioned at the first fluid line proximal to the first outlet and communicatively coupled to the processor. The processor compares a sensor reading from the first sensor with a sensor reading from the second sensor, and issues an error report when the difference between the readings is above a threshold, or an individual reading from a sensor is outside of an operational parameter.

Apparatus, systems, and methods for cooling fluids, for example beverages or beverage components, are presented. A cooling system or device includes a cold plate of bulk material (e.g., material of high thermal conductivity). A first sensor (preferably temperature sensor) is positioned within the bulk material and communicatively coupled to a processor. A first fluid line is at least partially disposed within the cold plate, having a first inlet entering and a first outlet exiting the cold plate. A second sensor (preferably temperature sensor) is positioned at the first fluid line proximal to the first outlet and communicatively coupled to the processor. The processor compares a sensor reading from the first sensor with a sensor reading from the second sensor, and issues an error report when the difference between the readings is above a threshold, or an individual reading from a sensor is outside of an operational parameter.

An automated order fulfillment system is disclosed having different temperature zones and robots and containers capable of and/or configured to work in these different temperature zones.

A transport containment assembly (26) includes a refrigeration unit (36) and a container (34). The container (34) houses a plurality of boxes (52) of the transport containment assembly (26) for storage of cargo. The plurality of boxes (52) are configured in series with one-another for the flow of cooling air from the refrigeration unit (36).

A transport containment assembly (26) includes a refrigeration unit (36) and a container (34). The container (34) houses a plurality of boxes (52) of the transport containment assembly (26) for storage of cargo. The plurality of boxes (52) are configured in series with one-another for the flow of cooling air from the refrigeration unit (36).

In one aspect, food transport systems are described herein. In some embodiments, such a system comprises an interior compartment defined by a floor, one or more side walls, and optionally a lid. The lid has open and closed configurations. The lid, or a bottom surface thereof, is in facing opposition to the floor when the lid is in the closed configuration. The side walls comprise fold lines or seams substantially parallel to the floor. Further, the side walls have reduced thickness or rigidity or self-supporting ability at the fold lines. The interior compartment has an extended configuration and a folded configuration. When the interior compartment is in the extended configuration, the side walls are substantially orthogonal to the floor. When the interior compartment is in the folded configuration, the side walls are folded or collapsed onto themselves along the fold lines, in a direction orthogonal to the floor.

In one aspect, a food delivery temperature charging system, temperature charging cradle systems and food transportation system are described herein. In some embodiments, the food delivery temperature charging system contains a temperature charging cradle system including a base unit including a first temperature adjustment unit generating hot or cold air, a backing affixed to the base unit, and a channel duct affixed to the backing, wherein the first temperature adjustment unit is connected to the channel duct so that the channel duct permits free flow of the first temperature medium to a charging station. The food delivery temperature charging system further includes a charging station containing a horizontal shelf for holding a food storage system including a shelf temperature medium portal, which is connected to a channel duct so that the first temperature medium is conveyed from the fully enclosed channel duct to the temperature medium portal.

A galley refrigeration system is provided in which a galley cart is positioned in the cavity of a galley compartment comprising at least a cart-facing opening positioned in a vertically intermediate region of the back wall, the galley cart or the galley compartment having a duct-facing opening positioned adjacent to the cart-facing opening. A heat exchanger configured to generate cooling air is provided within the galley compartment, adjacent the vertically intermediate region of the back wall of the galley compartment defining the cavity. An air supply duct, provided at the cart-facing opening, is configured to guide the cooling air from the heat exchanger into the galley cart, and configured to be detachably coupled to the duct-facing opening of the cart or the galley compartment. An electronically actuated valve controls a variable flow rate of the cooling air from the air supply duct into the galley cart.