A refrigeration device, including a cabinet, a door body, a drawer, a first snap assembly, and a second snap assembly. The door body is provided to the cabinet in a drawable manner; the drawer is detachably provided to the door body, the first snap assembly is adapted to limit the door body at a first position where the door body can be fixed to the cabinet, the second snap assembly is adapted to limit the door body at a second position where the door body can be fixed to the cabinet, during the process that the door body is pulled out of the cabinet, the door body passes through the first position and the second position in sequence, when the first snap assembly fails, the drawer is adapted to be taken out of the door body, and when the second snap assembly fails, the door body is adapted to be separated from the cabinet.

This disclosure is related to a refrigerator and a method of controlling the same. The refrigerator includes a dispenser passage, a water supplier for supplying sterilizing water or rinsing water to the dispenser passage, a drain for draining the sterilizing water or the rinsing water that is supplied to the dispenser passage, and a controller for performing a sterilization cycle and controlling the water supplier and the drain to perform a rinsing cycle after completing the sterilization cycle, wherein the sterilization cycle is a cycle of keeping the sterilizing water in the dispenser passage and then draining the sterilizing water, and the rinsing cycle is a cycle of supplying the rinsing water to the dispenser passage and draining the rinsing water therefrom.

A refrigeration appliance contains an ice water dispenser with a housing which is built into a wall or door of the refrigeration appliance and defines a dispenser niche for the introduction of a container for receiving ice and/or water. The ice water dispenser further has a dcor panel which defines a rear side of the dispenser niche where the rear side is visible from outside the refrigeration appliance. The ice water dispenser additionally has a retaining element which is arranged in the housing and is configured to engage with the dcor panel in such a way that the dcor panel is detachably mounted in the housing.

The specification discloses a method for containing spills on shelving and the like, and the resulting support members made in accordance with the method, by providing the generally flat top surface of a support with a hydrophobic surface which is arranged in a spill containment pattern and which is generally in the plane of the top surface of the support. The majority of the top surface of the support consists of one or more spill containment areas which are of a non-hydrophobic nature and which are bounded by the hydrophobic surfaces, such that spills on the shelving collect in the non-hydrophobic spill containment area or areas and are prevented from spreading by the hydrophobic surfaces.

This disclosure is related to a refrigerator and a method of controlling the same. The refrigerator includes a dispenser passage, a water supplier for supplying sterilizing water or rinsing water to the dispenser passage, a drain for draining the sterilizing water or the rinsing water that is supplied to the dispenser passage, and a controller for performing a sterilization cycle and controlling the water supplier and the drain to perform a rinsing cycle after completing the sterilization cycle, wherein the sterilization cycle is a cycle of keeping the sterilizing water in the dispenser passage and then draining the sterilizing water, and the rinsing cycle is a cycle of supplying the rinsing water to the dispenser passage and draining the rinsing water therefrom.

A shelf assembly includes a shelf panel and a hydrophobic surface applied in a spill containment pattern on the top surface of the shelf panel adjacent to at least one of the left side, right side, front, and rear edges. The shelf panel has a top surface for supporting articles, opposite left and right side edges, and opposite front and rear edges. The spill containment pattern defines at least a portion of a boundary of a central portion of the top surface of the shelf panel. The spill containment pattern includes an outer edge containment strip disposed adjacent to at least one of the left side, right side, front, and rear edges of the shelf panel, an inner edge containment strip spaced inward from the outer edge containment strip, and a non-hydrophobic spill catch area disposed between the outer and inner edge containment strips.

There is disclosed a plate freezer apparatus. The plate freezer apparatus comprises a first frame member configured to support a plurality of vertically disposed freezing plate members arranged to define a freezing cavity therebetween and a flooring system configured to extend below the freezing plate members to form a base for the freezing cavities, wherein the flooring system is configured to be raised so as to lift any frozen material present in freezing cavities out of the freezing cavities so that the frozen material extends from the freezing cavities to project above an upper edge of the freezing plate members. A second frame member is mounted above said first frame member so as to extend substantially a length of the first frame member, the second frame member having a plurality of paddle members mounted therein that are individually actuable to extend between a horizontal axis where the paddle members extend substantially parallel with the second frame member, and a vertical axis where the paddle members extend from the second frame member to be received between the frozen material raised from the freezing cavities. The first frame member further comprises a lifting mechanism adjacent a proximal end thereof, the lifting mechanism being actuable to raise the proximal end of the first frame member so as to tilt the first frame member towards a distal end and wherein the paddle members are actuable to facilitate controlled release of the frozen material such that upon release the frozen material is able to slide along the upper edges of the plates and off the distal end of the first frame member for collection.

A method and a device for disinfecting inner surfaces, for example, of freezers and the like includes the production of a microfilm of sanitizing solution on the inner surfaces and on the devices contained in the freezers and the like, by a method which comprises two sequential steps, a first step in which 100% of the inner surface of the internal environment of the freezer or the like is completely saturated with a mist of sanitizing solution, which is then condensed, and a second step in which the air containing this mist is passed through a filter provided with means that absorb the sanitizing solution, both steps being implemented by closed-loop recirculation means (looping).

A self-contained food processor is provided for treating a food flow path in the food processor with a solution. The food flow path can be treated without requiring disassembly and reassembly of the food processor and without requiring direct operator input. The food processor includes a controller for directing passage of a solution through at least portions of the food flow path without requiring constant operator oversight. The food processor can employ available positive pressure water supply, such as public utility water pressure to selectively and automatically push solutions, including rinses, backwards or forwards through the food flow path in the food processor.

A freezer structure (12) includes a floor structure (20), side walls (22) and a ceiling (24), each of which includes a substantially hollow inner or upper layer or zone (30) behind or beneath which is disposed an intermediate layer or zone (32) substantially filled with insulating filler material and a bottom or outer layer or zone (34) that is substantially hollow. A monitoring system (16) monitors the temperature, moisture level and pressure of a substantially dry gas circulating through the first layer or zone to maintain the first layer or zone in substantially dry condition.