Abstract: Household appliance (2) with a user interface (20) comprising: •—a display (64), •—a switch element (56) associated to said display (64) comprising at least one capacitive sensing element (58) with a sensing surface, •—a capacitive sensing circuit (62), •—a control unit (68) connected to said display (64) and to said capacitive sensing circuit (62), configured to control said household appliance (2) and/or said display (64) in function of a signal received from said capacitive sensing circuit (62) after a user interaction on the capacitive sensing element (58) of said switch element (56), whereby said capacitive sensing element (58) is built as a PCB (60) where the capacitive sensing circuit (62) is provided.

Abstract: A refrigerating appliance (100) is provided. The refrigerating appliance (100) comprises: —at least one storage compartment (110) for storing goods to be refrigerated; —a pressure sensor (180), —a control unit (172) configured to control operation of the refrigerating appliance (100), the control unit (172) being in signal communication with said pressure sensor (180); wherein: —said pressure sensor (180) is a MEMS pressure sensor configured to measure the pressure inside said at least one storage compartment (110) and to transmit to the control unit (172) a corresponding pressure signal proportional to said measured pressure, the control unit (172) being configured to control the operation of the refrigerating apparatus (100) based on the pressure signal received from the pressure sensor (180).

Abstract: A refrigerating appliance (100) is provided, which comprises: —at least one storage compartment (110) for storing goods to be refrigerated; —a refrigeration circuit comprising at least one evaporator (170) associated with said at least one storage compartment (110); —a control unit (172) configured to control operation of the refrigerating appliance (100); —at least one fan (171), configured to promote heat exchange between said at least one evaporator (170) and the at least one storage compartment (110), said at least one fan (171) being further configured to be switched between a first operative condition in which said at least one fan (171) is commanded to rotate, and a second operative condition in which said at least one fan (171) is commanded to not rotate; —a MEMS pressure sensor (180) configured to measure the pressure inside said at least one storage compartment (110) and in signal communication with the control unit (172) for providing a pressure signal proportional to the measure of the pressure in

Abstract: Methods, systems, and computer program products for processing a search query store the search query in one or more persistent storage devices in response to the search query being received. Periodically and automatically thereafter, the search query is retrieved from the one or more persistent storage devices, and source data that relates to the search query is retrieved, using an iterative optimization algorithm, from one or more backend data sources. Responses for the search query are generated based on the source data, and a determination is made of whether each of the responses is notification eligible. A user is notified of each response determined notification eligible.

Abstract: A domestic or commercial electric appliance having at least one electric load, an AC power supply input for receiving electric power from an AC power source to be supplied to the at least one electric load, and a current sensor for sensing an AC current absorbed by the electric appliance from the AC power source. The electric appliance has a processing unit for carrying out a harmonic analysis on a sensed AC current sensed by the current sensor and for driving the at least one electric load based on an outcome of the harmonic analysis.

Abstract: Methods, systems, and computer program products for processing a search query store the search query in one or more persistent storage devices in response to the search query being received. Periodically and automatically thereafter, the search query is retrieved from the one or more persistent storage devices, and source data that relates to the search query is retrieved, using an iterative optimization algorithm, from one or more backend data sources. Responses for the search query are generated based on the source data, and a determination is made of whether each of the responses is notification eligible. A user is notified of each response determined notification eligible.

Abstract: Methods, systems, and computer program products for processing a search query store the search query in one or more persistent storage devices in response to the search query being received. Periodically and automatically thereafter, the search query is retrieved from the one or more persistent storage devices, and source data that relates to the search query is retrieved, using an iterative optimization algorithm, from one or more backend data sources. Responses for the search query are generated based on the source data, and a determination is made of whether each of the responses is notification eligible. A user is notified of each response determined notification eligible.

Abstract: Methods, systems, and computer program products for processing a search query store the search query in one or more persistent storage devices in response to the search query being received. Periodically and automatically thereafter, the search query is retrieved from the one or more persistent storage devices, and source data that relates to the search query is retrieved, using an iterative optimization algorithm, from one or more backend data sources. Responses for the search query are generated based on the source data, and a determination is made of whether each of the responses is notification eligible. A user is notified of each response determined notification eligible.