A unit is disclosed for sterilizing and disinfecting an object, and particularly, a drink or beverage. The unit includes a housing with a set of retractable doors. The unit includes an interior chamber in which an object, including a drink or beverage, can be placed for sterilization and disinfection. The unit includes ultraviolet lights that can be activated when the drink or object is placed within the interior chamber. The ultraviolet lights are configured to emit ultraviolet wavelengths that sterilize and disinfect the surfaces of the drink or object. The unit includes sensors to detect motion in front of the unit and to open and close the set of retractable doors automatically. The unit further includes a drip tray and removable base that houses the electronics of the unit.

A partial-freezing meat fresh-preservation control method, a controller and a refrigerator are provided. The control method includes: S1 (101), acquiring a current temperature of meat food in a compartment of a refrigerator in real time; S2 (102), judging whether the current temperature of the meat food is greater than or equal to a first temperature threshold to, and if yes, performing S3 (103); S3 (103), controlling the compartment to perform a cooling operation; S4 (104), judging whether the meat food is frozen during the cooling operation, and if yes, performing S5 (105), S5 (105), starting timing once the freezing occurs, and performing S6 (106) after the timing reaches a first preset time period; S6 (106), controlling the compartment to perform a heating operation; wherein, after the performance of the step S6 (106) is completed, the performance of the step S1 (101) is continued. The partial-freezing fresh-preservation control method provided by the embodiment of the present disclosure can maintain the meat food in a fresh and easy-to-cut state for a long time, and make up for the technical gap in the field.

A line for processing and packaging food. The line has at least one processing station for processing the food and at least one packaging station for packaging the processed food. The processing station and the packaging station are housed in an interior of a common housing.

An overcooled meat fresh-preservation control method, a controller and a refrigerator are provided. The control method comprises: S1 (101), acquiring a current temperature of meat food in a compartment of a refrigerator in real time; S2 (102), judging whether the current temperature of the meat food is greater than or equal to a first temperature threshold to, and if yes, performing step S3 (103); S3 (103), controlling the compartment to perform a cooling operation; S4 (104), judging whether the meat food has been cooled down to a phase transformation point temperature tl during the cooling operation, and if yes, performing step S5 (105), the phase transformation point temperature tl being the temperature of a critical point at which the phase transformation of the meat food occurs; S5 (105), starting timing once the temperature has been cooled down to the phase transformation point temperature tl, and performing step S6 (106) after the timing reaches a first preset time period; and S6 (106), controlling the compartment to perform a low-temperature stable operation according to a third target temperature T.sub.3, the third target temperature T.sub.3 being a freezing point temperature of the meat food. The overcooled meat fresh-preservation control method provided by the present disclosure may prolong the fresh-preservation period as much as possible while ensuring that the meat food is not frozen.

An automated robotic food handling or preparation apparatus includes one or more food contact surfaces and an antimicrobial lighting fixture. The antimicrobial lighting fixture includes an enclosure forming a sanitization chamber and one or more antimicrobial lighting elements, wherein each element emits light at a wavelength, irradiance, and direction sufficient to inactivate one or more microorganisms on a target surface(s) within the sanitization chamber. The automated food handling apparatus subjects itself to an antimicrobial lighting treatment within the sanitization chamber upon detection of one or more conditions. The systems and/or methods of the present disclosure may sanitize food contact surfaces of automated robotic food equipment and help reduce the frequency at which such food contact surfaces need to be manually sanitized to keep microbial growth below acceptable levels.

The embodiments disclose a method including harvesting fresh bamboo leaves from an organic certified bamboo forest, using hot air to sterilize and dry bamboo leaves, shredding and packing the dry bamboo leaves, mixing sterilized water steam and the shredded dry bamboo leaves for extracting the dry bamboo leaves essence into a bamboo leaf condensate, filtering the bamboo leaf condensate through sterile filters and devices, mixing in purified water and additives to the filtered bamboo leaf condensate for creating bamboo leaf extract based products for human consumption and use, and packaging the bamboo leaf extract based products including bottled beverages, cosmetics, pharmaceuticals, and foods, food additives and dietary supplements.

The present invention relates to a method and a device for treating and/or transporting food items. The apparatus and method are designed to facilitate treating food items in liquid. The device of the present invention is designed as a spiral pump with a tubing that is wound around a frame structure which rotates around a horizontal axis. The apparatus of the present invention and the use thereof provides a method to treat food items in a spiral pump, where the food items are treated cycle by cycle in the pump.

A defrosting apparatus has a foundation unit having a top surface and sidewalls, housing an electrically-powered water pump with an inlet and an outlet, with an opening in a sidewall enabling water to pass from outside the foundation unit to inside, a vertically oriented conduit extending from the top surface of the foundation unit, with a lower end connected to the outlet of the water pump, and an upper end, a horizontally-oriented conduit having a first and a second end, connected proximate the first end to the upper end of the vertically-oriented conduit, a vertically-oriented downspout connected at the second end of the horizontally-oriented, telescoping conduit assembly, the downspout open at a lower end, and a control unit comprising a CPU, a digital memory and wireless communication circuitry, the control unit coupled to a temperature sensor in contact with the flowing water, and to pump control inputs.

In at least one illustrative embodiment, an electromagnetic filter may include a transfer pipe and multiple electromagnetic filter elements positioned in an interior volume of the pipe. Each electromagnetic filter element includes a support comb, a solenoid coupled to the support comb, and multiple magnetic members arranged in a planar array positioned within an opening of the support comb. Each magnetic member may rotate about an end that is coupled to the support comb. The magnetic members may be magnetostrictive sensors and may include a biorecognition element to bind with a target microorganism. A method for fluid filtration includes coupling the electromagnetic filter between a fluid source and a fluid destination, energizing the solenoids of each electromagnetic filter elements, and flowing a fluid media through the transfer pipe of the electromagnetic filter. The fluid media may be liquid food such as fruit juice. Other embodiments are described and claimed.

A device for processing bulk grain products includes a housing with a plurality of modules stacked on top of each other; wherein the modules are at an equal distance from each other, such that the distance is adjustable, wherein each module has horizontal ultraviolet lamps, whose position relative to each is adjustable, and each ultraviolet lamp has a protective coating for protection from mechanical damage and a protective shield above it; each module having an ultraviolet intensity sensor aimed at one of the plurality of lamps; each module having a device for cleaning the ultraviolet lamps from contamination; and each module including a vibrating mechanism; wherein the bulk grain products move from top to bottom, past the ultraviolet lamps under a force of gravity. Optionally, the device may include a bipolar ionizer and/or an infrared heater. Optionally the protective coating is made of polytetrafluoroethylene.