Abstract: A capacitive sensing system may include a fluid cup configured to receive a fluid, and processing circuitry and a capacitive sensor coupled to one another, the capacitive sensor is a distance separated from and in parallel with a top surface of the fluid in the fluid cup, the distance the capacitive sensor is separated from the top surface of the fluid being variable with a fill level of the fluid in the fluid cup. The capacitive sensor and the fluid in the fluid cup may form elements of a capacitor with a capacitance that is a function of at least the distance the capacitive sensor is separated from the top surface of the fluid. The processing circuitry may be configured to measure a change in signal corresponding to a change in capacitance of the capacitor and determine the fill level based on a magnitude of the change in signal.

Abstract: A solid-production system for producing a solid on demand is provided herein. In some aspects, the solid-production system includes a conveying mechanism; a fluid-dispensing mechanism; a pressure plate arranged to urge the fluid mold into interaction with a cooling block to form a solid; a solid-dispensing mechanism arranged to dispense the solid loosened by a solid ejector to a user; and processing circuitry configured to implement a master state machine, and slave state machines for respective ones of the fluid-dispensing mechanism, conveying mechanism, pressure plate and solid-dispensing mechanism, wherein the master state machine is configured to send commands to the slave state machines based on states of the slave state machines, and the slave state machines are configured to execute the commands to control the respective ones of the conveying mechanism, fluid-dispensing mechanism, pressure plate, and solid-dispensing mechanism.

Abstract: A capacitive sensing system may include a fluid cup configured to receive a fluid, and processing circuitry and a capacitive sensor coupled to one another, the capacitive sensor is a distance separated from and in parallel with a top surface of the fluid in the fluid cup, the distance the capacitive sensor is separated from the top surface of the fluid being variable with a fill level of the fluid in the fluid cup. The capacitive sensor and the fluid in the fluid cup may form elements of a capacitor with a capacitance that is a function of at least the distance the capacitive sensor is separated from the top surface of the fluid. The processing circuitry may be configured to measure a change in signal corresponding to a change in capacitance of the capacitor and determine the fill level based on a magnitude of the change in signal.

Abstract: A solid-production system for producing a solid on demand is provided herein. In some aspects, the solid-production system includes a conveying mechanism; a fluid-dispensing mechanism; a pressure plate arranged to urge the fluid mold into interaction with a cooling block to form a solid; a solid-dispensing mechanism arranged to dispense the solid loosened by a solid ejector to a user; and processing circuitry configured to implement a master state machine, and slave state machines for respective ones of the fluid-dispensing mechanism, conveying mechanism, pressure plate and solid-dispensing mechanism, wherein the master state machine is configured to send commands to the slave state machines based on states of the slave state machines, and the slave state machines are configured to execute the commands to control the respective ones of the conveying mechanism, fluid-dispensing mechanism, pressure plate, and solid-dispensing mechanism.

Abstract: A solid-production system for producing a solid on demand is disclosed herein. In some aspects, the solid-production system includes a cooling block arranged to interact with one or more fluid molds to reduce a first temperature of a fluid dispensed in each of the one or more fluid molds to a second temperature, the second temperature being lower than the first temperature, to solidify the fluid in each of the one or more fluid molds; wherein the cooling block has a thermal mass operable to absorb and store thermal energy transferred by the fluid in each of the one or more fluid molds so as to reduce the first temperature of the fluid to the second temperature.

Abstract: A solid production system for producing a solid on demand is provided herein. In some aspects, the solid-production system includes a solid ejector arranged to loosen a solid in each of one or more fluid molds indexed into an ejection position relative to the solid ejector, the one or more fluid molds including a bottom surface and side surfaces extending therefrom, wherein the solid ejector is actuatable so as to be urged into contact with and to apply pressure to at least one of the side surfaces of the fluid mold indexed into the ejection position so as to loosen the solid within the fluid mold in preparation for dispensing the solid from the fluid mold.

Abstract: An appliance is provided that includes a control unit, a plurality of components, and a touchscreen in which the plurality of components and touchscreen are configured to operate under control of the control unit. A graphical user interface (GUI) may be generated for display by the touchscreen. The GUI may include graphical control elements for respective components of the plurality of components. For each graphical control element of the graphical control elements, a touch gesture to drag the graphical control element may be detected for a component of the respective components. In response, a mode or setting of a plurality of modes or settings of the component may be adjusted.

Abstract: An apparatus is provided that includes a power transmitter, data receiver, and an antenna operatively coupled to the power transmitter and data receiver. The antenna being configured to switchably transmit energy from the power transmitter to power a sensor, and receive data to the data receiver from the sensor in which a frequency being used by the antenna is the same for both transmission of the energy and reception of the data.

Abstract: A self-centering mechanism for a rotatable shaft includes first and second centering members. Each centering member defines a first and second arcuate slot. A stationary pin extends through the first arcuate slots of the centering members. A rotatable shaft member extends through the centers of the centering members and is disposed between the first and second arcuate slots. A support member extends radially from and is fixed to the shaft member so as to be rotatable therewith. An actuating pin extends from the support member and through the second arcuate slots, and engages the second arcuate slots to rotate one of the first and second centering members. At least one biasing member is in communication with an anchoring structure and rotationally biases at least one of the first and second centering members to a registration position upon release of the rotatable shaft.

Abstract: A temperature sensor is provided for measuring a temperature of a liquid contained in a cooking vessel. The temperature sensor includes a first housing containing processing and wireless communication circuitry, a second housing containing a temperature probe, and a connecting member carrying wiring that connects the processing and wireless communication circuitry to the temperature probe. The temperature sensor also includes a fastener coupled to the first housing and configured to removably affix the temperature sensor to a sidewall of a cooking vessel such that the first housing is exterior to the cooking vessel, and the second housing extends over an interior bottom surface of the cooking vessel. The temperature probe is extendible from or retractable into the second housing to an adjustable height above the interior bottom surface of the cooking vessel and configured to measure a temperature of a liquid contained in the cooking vessel.

Abstract: A self-centering mechanism for a rotatable shaft includes first and second centering members. Each centering member defines a first and second arcuate slot. A stationary pin extends through the first arcuate slots of the centering members. A rotatable shaft member extends through the centers of the centering members and is disposed between the first and second arcuate slots. A support member extends radially from and is fixed to the shaft member so as to be rotatable therewith. An actuating pin extends from the support member and through the second arcuate slots, and engages the second arcuate slots to rotate one of the first and second centering members. At least one biasing member is in communication with an anchoring structure and rotationally biases at least one of the first and second centering members to a registration position upon release of the rotatable shaft.

Abstract: An apparatus is provided that includes a power transmitter, data receiver, and an antenna operatively coupled to the power transmitter and data receiver. The antenna being configured to switchably transmit energy from the power transmitter to power a sensor, and receive data to the data receiver from the sensor in which a frequency being used by the antenna is the same for both transmission of the energy and reception of the data.

Abstract: An appliance is provided that includes a control unit, a plurality of components, and a touchscreen in which the plurality of components and touchscreen are configured to operate under control of the control unit. A graphical user interface (GUI) may be generated for display by the touchscreen. The GUI may include graphical control elements for respective components of the plurality of components. For each graphical control element of the graphical control elements, a touch gesture to drag the graphical control element may be detected for a component of the respective components. In response, a mode or setting of a plurality of modes or settings of the component may be adjusted.

Abstract: An induction stirring apparatus for an apparatus such as a cooktop appliance is provided. The cooking surface is equipped with a transmitter coil, and the induction stirring apparatus comprises a stirring paddle, motor, receiver coil and transformer. The motor is configured to drive a gear to turn the stirring paddle. The receiver coil is inductively coupleable with the transmitter coil of the cooking surface to transfer electrical energy from the transmitter coil to the receiver coil. The transformer is coupled to and between the motor and the receiver coil. The transformer is configured to transfer the electrical energy from the receiver coil to the motor and thereby power the motor to drive the gear.

Abstract: A vacuum cleaner suction head having a housing with a support for movement in the fore-aft direction on a surface. A suction inlet extends through the housing, and has a front edge and a rear edge. A sealing plate is pivotally mounted on the bottom of the housing to rotate about a pivot axis extending in a transverse direction. The sealing plate is movable between a raised position and a lowered position. The sealing plate is mounted in a trailing configuration in which, when the sealing plate is in the lowered position, the pivot axis is at the front of the sealing plate with respect to a fore-aft direction, and a lowermost point on the lower surface of the sealing plate is located behind the pivot axis with respect to the fore-aft direction.

Abstract: A knob assembly is provided that includes a knob having a rotatable shaft, a rotatable first circuit board rigidly attached to the rotatable shaft, and a fixed second circuit board positioned near the first circuit board. The first circuit board includes an encoding portion configured to provide positioning data of the knob, and an eccentric rotating mass (ERM) motor mounted to the rotatable, first circuit board with a shaft of the ERM motor perpendicular to the rotatable shaft of the knob. The ERM motor is configured to produce and transfer vibration to the rotatable shaft of the knob. The second circuit board includes a sensor configured to determine a position of the first circuit board and thereby the knob at least in part from the positioning data provided by the encoding portion.

Abstract: A vacuum cleaner suction head having a housing with a support for movement in the fore-aft direction on a surface. A suction inlet extends through the housing, and has a front edge and a rear edge. A sealing plate is pivotally mounted on the bottom of the housing to rotate about a pivot axis extending in a transverse direction. The sealing plate is movable between a raised position and a lowered position. The sealing plate is mounted in a trailing configuration in which, when the sealing plate is in the lowered position, the pivot axis is at the front of the sealing plate with respect to a fore-aft direction, and a lowermost point on the lower surface of the sealing plate is located behind the pivot axis with respect to the fore-aft direction.

Abstract: A vacuum cleaner suction head having a housing, one or more support to support the housing on a surface to be cleaned, a suction inlet and front and rear sealing plates. The front and rear sealing plates extend along the front and rear edges of the suction inlet, respectively. the sealing plates are movable between raised positions in which the lower surfaces of the plates are close to the housing, and lowered positions in which the lower surfaces of the plates are remote from the housing. The front and rear plates are movable from the lowered position to the raised position by contact with debris on the surface to be cleaned.

Abstract: A vacuum cleaner lint brush accessory system having a lint brush and cradle. The lint brush has longitudinally opposed handle and brush portions. The brush portion has a brush material adapted to remove fibrous substances from a surface to be cleaned. The cradle has a chamber opening leading to a chamber. The chamber extends in the longitudinal direction and is adapted to longitudinally receive at least the brush portion of the lint brush, the chamber has at least one brush cleaning pad adapted to engage the brush material and remove the fibrous substances from the brush material. The chamber further includes an air outlet spaced from the chamber opening. The air outlet is selectively connectable to a vacuum passage of a vacuum cleaner.

Abstract: A vacuum cleaner suction head having a housing, one or more support to support the housing on a surface to be cleaned, a suction inlet and front and rear sealing plates. The front and rear sealing plates extend along the front and rear edges of the suction inlet, respectively. the sealing plates are movable between raised positions in which the lower surfaces of the plates are close to the housing, and lowered positions in which the lower surfaces of the plates are remote from the housing. The front and rear plates are movable from the lowered position to the raised position by contact with debris on the surface to be cleaned.