A beverage maker and a method for operating a beverage maker are provid-ed, wherein the. beverage maker includes a discharge channel having a sensor configured to detect a cleaning agent in water and a control unit configured to receive measured values from the sensor and to take the received measured values as a basis for regu-lating a water intake from the water source. The method includes regulating water intake from the water source based upon the measured values from the sensor in the dis-charge channel to ensure that only an amount of water necessary for re-moving remaining cleaning agent from the beverage maker is utilized for flushing.

An infused beverage brewing assembly and system operably configured to receive a desired dispensed infused solution mass and a total infusion time utilized in an infusion algorithm to generate an infused solution. The system includes an electronic controller operably configured to initiate a time counter associated with an inducement of the flow of the solvent to generate a running infusion time and a first and second portions separated by a triggering condition, and to generate, in the second portion and dynamically, a remaining infusion time and a remaining dispensed infused solution mass, The electronic controller is also operable to execute the infusion algorithm in the second portion of the running infusion time to generate the solvent flow rate change sufficient to provide the remaining dispensed infused solution mass in the remaining infusion time based on the running infusion time, the desired dispensed infused solution mass, and the total infusion time.

A beverage maker, in particular an electrically operated coffee machine having a water tank, which can be filled with water which can be used to prepare a beverage by means of the beverage maker, wherein the beverage maker is configured as connectable to a drinking water network via an inflow, characterized in that the water tank can be manually removed from the beverage maker by a user of the beverage maker in a state in which the beverage maker is connected to the drinking water network via the inflow and/or can be filled with the water selectively by manual filling of water by a/the user of the beverage maker or by introducing drinking water from the drinking water network via the inflow.

Temperature control for extracted beverages, including coffee, via controlled vacuum, and associated systems and methods are shown. A representative system includes a brew chamber, a beverage chamber in fluid communication with the brew chamber, a vacuum source in fluid communication with the beverage chamber, and a flow control device positioned to vary the force applied by the vacuum chamber on the brew chamber via the beverage chamber.

The present disclosure provides systems, methods and machine readable programs. In some implementations, the systems, methods and machine readable programs can be used for selecting coffee cups or mugs of particular shapes with the objective of accentuating particular flavor notes in coffee as experienced by a user. In further implementations, the systems, methods and machine readable programs can be used for recommending an infusible extract based on a drinking vessel.

A system and method for producing an extract from an extraction material by means of an extraction agent comprises a supply line for the extraction agent, a heating device, a brewing device for the extraction material and an extract collection container. The supply line contains a measuring element and at least one volumetric flow control element for the volumetric flow of the extraction agent. In addition, the temperature of the heated extraction agent can be measured by means of the measuring element. The system comprises a control unit, the control unit containing a dosage regime for the heated extraction agent for the brewing device. The dosage regimen can be selected by means of an input device, whereby the volumetric flow control element can be set according to the dosage regimen and is monitored via the measuring element.

An automated beverage generating system is provided. The system comprises a dispensing mechanism from an ingredient for producing a specified beverage is dispensed, one or more electromechanical actuators operatively coupled to the dispensing mechanism and configured to effect movement of the dispensing mechanism in one or more directions, and a controller electrically connected to the one or more electromechanical actuators and configured to control the operation thereof. In response to receiving a request to produce a specified beverage, the controller is configured to control the operation of at least one of the one or more electromechanical actuators to cause the dispensing mechanism to move in at least one of the one or more directions.

A liquid dispensing system includes a reservoir, a spout above a receiving space, and a fluid channel. The fluid channel is configured to permit flow of liquid from the reservoir through the spout upon detection of contemporaneous presence of a first object in a user space other than the receiving space and presence of a second object within the receiving space. The system also includes a first sensor configured to detect the presence of the first object in the user space, and a second sensor discrete from the first sensor and configured to detect the presence of the second object in the receiving space.

A water outlet device includes a containment unit including a containment seat for containing liquid and having a water outlet hole, and a stopper movably disposed in the water outlet hole and capable of blocking the water outlet hole for preventing the liquid from flowing out thereof. A water outlet gate unit is disposed below the containment unit and includes a drive member that drives the stopper to move between a water stop position to block the water outlet hole and a water discharge position for allowing the liquid to flow through the water outlet hole. An automatic water dispenser having the water outlet device is also disclosed.

A capsule coffee machine includes a base, a capsule channel formed at a top surface of the base, a gate, an optics lens, a guiding unit, a drip container, a collecting groove, a water injection unit connected with the guiding unit, a driving unit connected with the guiding unit, and an actuator. A bottom of the capsule channel is equipped with the gate. An inside of the capsule channel is equipped with the optics lens. The guiding unit is disposed under the gate and accommodated in the base. The drip container is connected with the guiding unit. The drip container has a mouth, a stopping wall opposite to the mouth, and a peripheral wall extended between the mouth and the stopping wall. The collecting groove is recessed towards a downward direction and in the peripheral wall of the drip container. The actuator is connected with the gate.