The coffee dispenser disclosed herein may serve a single serving of coffee. The coffee dispenser may including a coffee concentrate fluid line which intersects with a water fluid line at a junction to allow mixing of coffee concentrate with water as the respective fluids flow through the coffee dispenser.

A machine system and method provide to allow for the reconstituting of a powdered material into a juice blend. The machine including a cartridge having a cavity for the placement of the powder. The cartridge adapted to dispense the powder into a container for mixing with a fluid. The machine system including a controller and human machine interface allowing a user of the machine to customize and generally select the contents of more than one cartridge for the formation of beverage mixed from multiple beverages.

A beverage brewing assembly includes a mixing chamber configured to receive a first beverage material and defining an aperture configured to be selectively opened. A hot water source is operably coupled with the mixing chamber and is configured to selectively provide a predetermined quantity of hot water to the mixing chamber and thereby form a mixture comprising the first beverage material and the predetermined quantity of hot water. A brew basket is positioned below the mixing chamber and includes an outlet at a bottom of the brew basket. The brew basket is configured to house a second brewing material and is configured to receive the mixture from the aperture of the mixing chamber to interact with the second brewing material. A receptacle is positioned below the brew basket and is configured to receive a brewed beverage from the outlet of the brew basket.

An automatic cooking apparatus includes a main housing, a drinking water supply unit, a cooking apparatus and a controller. The drinking water supply unit includes a drinking water tank and a drinking water supplying apparatus including a water delivering unit connected to the drinking water tank. At least one drinking water outlet is provided on the main housing and is connected to the water delivering unit. The cooking apparatus includes a food storage tank and a cooking unit. The cooking unit includes a pot and a heater thermally communicated with the pot. The controller is electrically connected to the drinking water supply unit and the cooking apparatus, and operates the automatic cooking apparatus on at least one of a water supplying mode and a cooking mode.

A digital scale for optimizing coffee brewing, and pour-over brewing in particular, is provided. Specifically, the present disclosure relates to a scale configured to determine the target amount of water to add based on any amount of coffee grounds used, compare an actual pour rate to a target pour rate when adding the target amount of water over a specific target pour time, and clearly communicate the same to the user.

A milk powder brewing machine comprising a shell, a mixing bin, a milk powder box, a water storage tank, a constant-temperature bin, a drip tray, a thick-film heater, a spiral cooling pipe and a controller. An air extraction port is provided on the mixing bin, and a moisture-proof assembly is arranged above the air extraction port. The moisture-proof assembly comprises a draught fan and a wind-shield cover. Water outlet of the water storage tank is connected to a cooling pipe, and a spiral pipe is arranged in the cooling pipe. A normal-temperature water outlet is connected with the cooling pipe, which is further connected with the thick-film heater. The thick-film heater is connected with a spiral cooling pipe, which is further connected with the constant-temperature bin through a spiral pipe. The present disclosure is moisture-proof, may be conveniently disassembled, and is capable of improving the cooling effect.

A beverage supply apparatus includes: a grinder configured to grind an ingredient; a hot-water supply unit configured to supply hot water; an extractor, to which the ingredient ground by the grinder, the hot water supplied by the hot-water supply unit, and pressurized air to stir the ingredient and the hot water are supplied; and a control unit configured to perform control to supply the pressurized air to the extractor to stir the ingredient and the hot water and, after the stirring, further supply pressurized air for extraction to the extractor to extract and supply beverage to a container. Further, the control unit controls the hot-water supply unit to add the hot water to the extractor during extraction of the beverage when a supply amount of the beverage to the container is equal to or larger than a volume of the extractor.

An appliance for making a drink individually. The appliance includes a storage rack defining a plurality of housings configured to each receive a container containing an ingredient of the drink, and being provided with a housing outlet. The appliance includes a funnel including an outlet orifice. The appliance includes structure for transferring, into the funnel, through the housing outlets of the housings, ingredients contained in the containers. The appliance includes an emulsifier including an emulsifier shaft that is movable between positions in which it closes and leaves free the outlet orifice of the funnel.

The invention concerns a beverage preparation apparatus (10), said apparatus having at least one chamber (1) for receiving and mixing an aqueous liquid and at least one soluble beverage ingredient, said chamber having: a cylindrical lateral side wall (11) having a liquid inlet (2), a bottom wall (12) having a beverage outlet (3), and wherein the liquid inlet (2) is positioned close to the bottom of the chamber, and wherein the liquid inlet (2) is configured so that the liquid is introduced in the chamber as a straight jet of liquid, and wherein said chamber includes a first bump (4) separating the bottom wall in two areas (121, 122), and wherein said chamber includes a second bump (5) rising from the bottom and lateral side walls of the chamber and presenting a shape designed to convert the jet of liquid into a swirl and to guide said swirl so that it flows along the line L in front of the liquid inlet.

The disclosure concerns a system including a modular dispensing system comprising a first module comprising a cold engine assembly, and a second module comprising a hot engine assembly. The system comprises a carbonator configured to dissolve carbon dioxide in water to form carbonated water. The cold engine assembly comprises a cold bath. A cold liquid mixer is configured to mix a concentrate and the carbonated water to form a cold ready-to-drink liquid. The hot engine assembly comprises a hot tank. A hot liquid mixer is configured to mix the hot water from the hot tank and a powder to form a hot ready-to-drink liquid. In an aspect, the cold engine assembly and the hot engine assembly form a single dispensing unit.