A method of generating a desired temperature of an infused beverage within a brewing assembly that includes inducing a flow of a first solvent at a first temperature within a first solvent conduit upstream of a brewing chamber in a brewing assembly, inducing a flow of a second solvent within a second solvent conduit, separate from the first solvent conduit, upstream of the brewing chamber, and thermally modulating the second solvent to a second temperature higher and different than the first temperature. The method also includes selectively combining the first and second solvents at a resulting solvent conduit upstream of the brewing chamber to form a resulting solvent at a selectively desired temperature lower than the second temperature, receiving the resulting solvent at the brewing chamber housing a solute at the selectively desired temperature to produce an infused beverage, and discharging the infused through an outlet on the beverage assembly.

A brewing module for preparing a brewed drink from a portion capsule includes a first brewing module part and a second brewing module part which is movable relative to this between a first brewing module part position and a second brewing module part position. An operating element is further present, the operating element being able to be brought manually from a first into a second operating element position. The brewing module has an energy store which is configured, by way of moving the operating element from the first into the second position, to intermediately store energy which is coupled into the brewing module and, activated by a release, to convert it again into a movement from the first brewing module part position into the second brewing module part position.

Beverage supply apparatus (100) has milk tank (3), milk flow path (L3) connecting the milk tank to beverage delivery port (10), first pump (7), air flow path (L6) to supply air via its connection portion (Z1), and third pump (9). The apparatus drives the third pump to supply air to the milk flow path, and drives the first pump to thereby deliver and supply a mixed beverage of milk and air from the beverage delivery port. The apparatus includes path (L7) for releasing a portion of the air flowing through the air flow path, one end portion of which is connected to release point (Z8) which is a predetermined portion of the air flow path between a beverage flow path side end portion (location of a connection portion (Z6)) and the third pump. The other end portion thereof is open to the outside.

High pressure, low temperature, continuous flow extraction systems and methods are designed to produce fluid consumables, including water-based consumables such as coffee or tea. The extraction systems and methods are designed to be safer, more efficient, and more scalable than other known and conventional extraction techniques, and to have significantly quicker extraction times and higher yields.

Solvent cartridges for fluid mixture dispensing devices are disclosed. One disclosed solvent cartridge comprises a solvent chamber exposed to atmospheric pressure, a straw located in the solvent chamber and in air-tight fluid communication with a filter assembly along a line of air-tight fluid communication, a sealed device interface in air-tight fluid communication with the filter assembly along the line of air-tight fluid communication, and a filter located in the filter assembly. The filter is positioned across the line of air-tight fluid communication to filter solvent from the solvent chamber.

A reverse coffee extraction device according to an embodiment includes a pump configured to pump water upwards; and a brewing container installed above the pump to extract coffee, wherein the water pumped upwards is delivered to the brewing container and moves upwards, and the coffee in the brewing container is brewed and extracted to an outside while the water supplied down moves up.

A coffee or tea filtering device including a hollow cylinder, a basket, a cup, and a pump. The hollow cylinder may include a top end, a bottom end, and a curvate sidewall extending between the top end and bottom end. The top may be open. The bottom end may be at least partially open and include a first portion of a coupling mechanism and a retaining portion. The removable basket may be sized to be received within the top end of the hollow cylinder. The removable basket may be configured to support coffee grounds or tea leaves. The cup may releasably couple to the first portion of the coupling mechanism of the bottom end of the hollow cylinder. The pump may be configured to pump air from the cup out the opening so as to force a fluid from the hollow cylinder through the basket and into the cup.

A cold brew coffee brewing machine is provided. The cold brew coffee brewing machine may have an upper chamber and a generally identical lower chamber wherein the upper chamber and the lower chamber may be, for example, common mason jars. A filter unit may be secured between the upper chamber and the lower chamber when the coffee brewing machine is in use. A hand pump may be connected to the filter unit and may provide air pressure to the upper chamber. The lower chamber may then be secured to the filter unit and the entire device inverted. Both gravity and air pressure created by the hand pump may be used to force the water through the filter unit so that the drinkable coffee enters the lower chamber.

A beverage system for producing a beverage based on the contents of a capsule. A capsule support for accommodating a capsule and a dispensing unit for providing the beverage produced based on the contents of the capsule. The beverage system has a carbonizing source configured to provide a carbonizing gas in the beverage system, at least one liquid container for receiving a liquid, and at least one carbonizer configured to carbonize liquid from the liquid container using carbonizing gas from the carbonizing source. A liquid line is configured to conduct non-carbonized liquid directly from the liquid container to the capsule, and a liquid line is configured to conduct carbonized liquid from the carbonizer to the capsule.

The water-dispensing system with coffee maker comprises a water generation system, a condensate pump, a condensate filter, and a coffee maker. The coffee maker further comprises a water storage reservoir and a power circuit. The water generation system, the condensate pump, and the condensate filter are fluidically connected. The condensate filter fluidically connects to the water storage reservoir of the coffee maker. The water generation system and the condensate pump electrically connect to the power circuit. The water-dispensing system with coffee maker is powered using electrical energy provided by a power circuit provisioned through the coffee maker.