Abstract: A control unit is located under a kitchen sink. The control unit controls the timing of the power demand from each device so that they can all be run from a single electrical circuit coupled to the control unit. The control unit also accommodates sensors and other accessories such as flow meters, electronic faucets, leak detectors, shutoff valves, and state communication either wired or wireless which allows these sensors and other accessories to be added with little additional cost beyond the cost of the sensors and other accessories.

Abstract: A control unit is located under a kitchen sink. The control unit controls the timing of the power demand from each device so that they can all be run from a single electrical circuit coupled to the control unit. The control unit also accommodates sensors and other accessories such as flow meters, electronic faucets, leak detectors, shutoff valves, and state communication either wired or wireless which allows these sensors and other accessories to be added with little additional cost beyond the cost of the sensors and other accessories.

Abstract: A control unit is located under a kitchen sink. The control unit controls the timing of the power demand from each device so that they can all be run from a single electrical circuit coupled to the control unit. The control unit also accommodates sensors and other accessories such as flow meters, electronic faucets, leak detectors, shutoff valves, and state communication either wired or wireless which allows these sensors and other accessories to be added with little additional cost beyond the cost of the sensors and other accessories.

Abstract: A control unit is located under a kitchen sink. The control unit controls the timing of the power demand from each device so that they can all be run from a single electrical circuit coupled to the control unit. The control unit also accommodates sensors and other accessories such as flow meters, electronic faucets, leak detectors, shutoff valves, and state communication either wired or wireless which allows these sensors and other accessories to be added with little additional cost beyond the cost of the sensors and other accessories.

Abstract: A control unit (100) is in use located under a kitchen sink. The control unit (100) controls the timing of the power demand from each device so that they can all be run from a single electrical circuit coupled to the control unit (100). The control unit (100) also accommodates sensors and other accessories such as flow meters (134), electronic faucets (114), leak detectors (118), shutoff valves (136), and state communication either wired or wireless which allows these sensors and other accessories to be added with little additional cost beyond the cost of the sensors and other accessories. A common faucet base (302) is disposed in use on an underside of a sink. The common faucet base (302) is configured to accommodate a plurality of faucet heads (304) having different faucet styles.

Abstract: A control unit (100) is in use located under a kitchen sink. The control unit (100) controls the timing of the power demand from each device so that they can all be run from a single electrical circuit coupled to the control unit (100). The control unit (100) also accommodates sensors and other accessories such as flow meters (134), electronic faucets (114), leak detectors (118), shutoff valves (136), and state communication either wired or wireless which allows these sensors and other accessories to be added with little additional cost beyond the cost of the sensors and other accessories. A common faucet base (302) is disposed in use on an underside of a sink. The common faucet base (302) is configured to accommodate a plurality of faucet heads (304) having different faucet styles.

Abstract: A food waste disposer system has a food waste disposer and a rechargeable power source that provides power to a motor of the food waste disposer. In an aspect, the motor is a permanent magnet DC motor having a nominal no-load speed in the range of 15,000 revolutions per minute to 30,000 revolutions per minute and the motor section includes a gear reduction mechanism. In an aspect, the food waste disposer system includes a power module that communicates wirelessly with a wireless activator. In an aspect, a stopper receivable in an inlet of the food waste disposer includes or is couplable to a power source which in an aspect is a rechargeable power source and in an aspect, is disposed in a housing of the stopper. In an aspect, the stopper includes a cord for coupling the stopper to the power source which is a source of AC power.

Abstract: A counter top food waste disposer in accordance with an aspect of the present disclosure includes a food conveying section, a motor section and a grind and discharge section disposed between the food conveying section and the motor section. In an aspect, the food waste disposer also includes a discharge area in which a container is removably receivable. When the container is received in the discharge area, during operation of the food waste disposer food waste is dischargeable from a discharge outlet of a discharge section into the container. In an aspect, a hose is removably receivable in the discharge area when the container is not present and food waste is discharged through the hose when it is received in the discharge area. In an aspect, the food waste disposer includes a water reservoir from which water can be introduced into the food waste disposer.

Abstract: A food waste disposer system has a food waste disposer and a rechargeable power source that provides power to a motor of the food waste disposer. In an aspect, the motor is a permanent magnet DC motor having a nominal no-load speed in the range of 15,000 revolutions per minute to 30,000 revolutions per minute and the motor section includes a gear reduction mechanism. In an aspect, the food waste disposer system includes a power module that communicates wirelessly with a wireless activator. In an aspect, a stopper receivable in an inlet of the food waste disposer includes or is couplable to a power source which in an aspect is a rechargeable power source and in an aspect, is disposed in a housing of the stopper. In an aspect, the stopper includes a cord for coupling the stopper to the power source which is a source of AC power.

Abstract: A counter top food waste disposer in accordance with an aspect of the present disclosure includes a food conveying section, a motor section and a grind and discharge section disposed between the food conveying section and the motor section. In an aspect, the food waste disposer also includes a discharge area in which a container is removably receivable. When the container is received in the discharge area, during operation of the food waste disposer food waste is dischargeable from a discharge outlet of a discharge section into the container. In an aspect, a hose is removably receivable in the discharge area when the container is not present and food waste is discharged through the hose when it is received in the discharge area. In an aspect, the food waste disposer includes a water reservoir from which water can be introduced into the food waste disposer.

Abstract: A food waste disposer has a motor driven with pulse width modulation (“PWM”). A grinding profile is controlled based on PWM values of the PWM controller driving the motor. In an aspect, controlling the grinding profile includes varying the speed of the motor based on the PWM values. In an aspect, the grinding profile is initiated after the food waste disposer is started and a PWM value exceeds a set value indicating the presence of a grinding load in a grinding section of the food waste disposer. In an aspect, it is determined that the grinding load has been sufficiently ground once the PWM value does not exceed a first set value after the grinding profile has been initiated. In an aspect, corrective action is initiated when the PWM value exceeds the set value after a predetermined period of time.

Abstract: A shredder plate assembly for a food waste disposer includes a disk with one or more water slinging devices attached, so that water flowing into the disposer flows over the water slinging device and against the inside of the disposer housing as the disk rotates.

Abstract: A food waste disposer has a motor driven with pulse width modulation (“PWM”). A grinding profile is controlled based on PWM values of the PWM controller driving the motor. In an aspect, controlling the grinding profile includes varying the speed of the motor based on the PWM values. In an aspect, the grinding profile is initiated after the food waste disposer is started and a PWM value exceeds a set value indicating the presence of a grinding load in a grinding section of the food waste disposer. In an aspect, it is determined that the grinding load has been sufficiently ground once the PWM value does not exceed a first set value after the grinding profile has been initiated. In an aspect, corrective action is initiated when the PWM value exceeds the set value after a predetermined period of time.

Abstract: A system and method for automatically applying a de-jamming action in response to a jammed rotating member includes applying a pulsed torque in response to a detected jam, and additionally a reversal in the direction of rotation may be applied.

Abstract: An organic waste disposer 10 such as is commonly mounted to a kitchen sink 12 has mounted next to it a device 14 for injecting a predetermined quantity of bio-enzyme material into the disposer's grinding chamber each time the motor of the disposer is turned on.