A water dispenser for hot drinks comprises a water inlet, a hot water tank for storing water from the water inlet, a water heater for heating water in the tank, a hot water outlet for dispensing hot water, and a controller for operating the water heater to ensure that water dispensed is at a temperature suitable for a hot drink. The controller has a Sabbath and festival operational mode in which, at a predetermined time prior to a Sabbath onset time, the tank is filled and heated, and over a duration extending from the Sabbath or festival onset time until the corresponding end time, a water temperature in said tank is maintained by operating the water heater at predetermined intervals. A sensor detects a tank empty condition of the hot water tank, and the Sabbath operation mode provides a function to stop operating the heater under the tank empty condition.

A method for operating a water dispenser, the water dispenser having a water supply, a carbon dioxide supply, an outlet for pouring water into a container placed below the outlet, a controller and a user interface, the method including the following steps, which are executed in response to an activation of the water dispenser via the user interface: determining a nominal value of a water volume (V) that is to be filled into the container determining a nominal value of a waiting period (WP) by means of the controller determining nominal values of a first partial volume (V1) and a second partial volume (V2) by means of the controller (V1+V2=V), in particular by determining a volume ratio (R) with R=V1/V for dividing the water volume (V) into the partial volumes (V1, V2) pouring the first partial volume (V1) through the outlet waiting through the waiting period (WP) pouring the second partial volume (V2) through the outlet.

A contactless interface for a beverage dispenser including a sensor and circuitry. The sensor has a field of view and is configured to sense an object located in a detection zone of the sensor. The detection zone is an area within the field of view and at a distance less than a maximum detection distance from the sensor. The circuitry is configured to output a detection signal while the object is sensed within the detection zone. The detection signal is an electrical signal.

A water ejecting apparatus includes a case and a water ejection unit coupled to one side of the case. The water ejection unit includes a rotator rotatably seated on an inner side of the front of the case, a first lifting cover coupled to one side of the rotator and allowing a lifting gear extending in an up-down direction to be fixed thereto, a second lifting cover movably accommodated inside the first lifting cover, a lifting motor coupled to the second lifting cover and configured to interwork with the lifting motor, a water ejection nozzle installed at a lower end of the second lifting cover and configured to eject water, and a water ejection pipe having one end accommodated in the second lifting cover and connected to the water ejection nozzle and the other end extending to the inside of the case by way of the rotator.

A contactless interface for a beverage dispenser including a sensor and circuitry. The sensor has a field of view and is configured to sense an object located in a detection zone of the sensor. The detection zone is an area within the field of view and at a distance less than a maximum detection distance from the sensor. The circuitry is configured to output a detection signal while the object is sensed within the detection zone. The detection signal is an electrical signal.

A master control device in the configuration of a wand may control pre-programmed aspects of the user's environment using RFID/NFC tags and RFID/NFC readers to initiate pre-programmed behavior in a computer database. This pre-programmed behavior be the control of items that rely on electricity and/or gas, such as lights, electric fireplaces, electric valves, activating the listening feature on a home assistant, accruing a balance, paying for items with a topped-up balance, and locking and unlocking doors. This master control device can be used in the connected home or business, such as a pub, restaurant, hotel, or immersive experience.

A master control device in the configuration of a wand may control pre-programmed aspects of the user's environment using RFID/NFC tags and RFID/NFC readers to initiate pre-programmed behavior in a computer database. This pre-programmed behavior be the control of items that rely on electricity and/or gas, such as lights, electric fireplaces, electric valves, activating the listening feature on a home assistant, accruing a balance, paying for items with a topped-up balance, and locking and unlocking doors. This master control device can be used in the connected home or business, such as a pub, restaurant, hotel, or immersive experience.

A dispenser for a shippable container is provided, where the shippable container has a hollow body, an opening, a collar adjacent the opening, and a closure sealing the opening. The dispenser has a collar engagement portion configured to engage the collar of the shippable container, a closure engagement portion configured to engage the closure of the shippable container, and a body engagement portion configured to engage a portion of the hollow body of the shippable container. An aperture in the dispenser is configured to dispense contents from the hollow body of the shippable container. The dispenser can be configured to dispense contents from the hollow body of the shippable container when the shippable container is in an inverted position.

According to an embodiment of the present invention, a method for controlling a water purifier delays the operating time of an agitator at an early stage of a current refrigerating cycle operation when a supercooled state has occurred in an immediately previous refrigerating cycle operation step.

A liquid dispenser includes a first lifting cover, a second lifting cover, a lifting motor, a gear module, and a dispenser nozzle. The first lifting cover includes a lifting gear extending in a vertical direction. The gear module includes a gear bracket coupled to the second lifting cover and a gear. The gear is rotated along the lifting gear by the operation of the lifting motor, and the second lifting cover is relatively moved with respect to the first lifting cover in the vertical direction.