Abstract: Provided in this disclosure is a reversible power supply enclosure. A base component defines a body of the power supply enclosure. The base component includes a base surface and side surfaces formed along opposing edges of the base surface. An offset flange is formed along the base surface. A closed end component is connected to the base component and includes a second offset flange. The offset flanges displace the base component the predetermined distance from the mounting surface. A cover component includes a primary surface and a perpendicular secondary surface for enclosing the base component. A lip portion substantially surrounds the peripheries of the primary and secondary surfaces, thereby enabling the power supply enclosure to be reversibly mounted in either a vertical orientation or a horizontal orientation such that both orientations provide a moisture-resistant power supply enclosure.

Abstract: Provided in this disclosure is an electrical bus system for use with a box light. The system includes a mounting channel having a pair of bus bars that define positive and neutral electrical conductors for supplying electricity. Electrical modules are configured for variable positioning along the mounting channel. Each of the electrical modules includes an end cap configured to engage the mounting channel. A protrusion extends away from the end cap for insertion into the mounting channel and for securing the end cap to the mounting channel at a selected position. A pair of terminal sockets makes electrical contact with the bus bars. A socket receives and supports an electrical component, preferably an LED light stick. The socket supports electrical connections to the terminal sockets for receiving and supplying power to the electrical component.

Abstract: Provided in this disclosure is a reversible power supply enclosure. A base component defines a body of the power supply enclosure. The base component includes a base surface and side surfaces formed along opposing edges of the base surface. An offset flange is formed along the base surface. A closed end component is connected to the base component and includes a second offset flange. The offset flanges displace the base component the predetermined distance from the mounting surface. A cover component includes a primary surface and a perpendicular secondary surface for enclosing the base component. A lip portion substantially surrounds the peripheries of the primary and secondary surfaces, thereby enabling the power supply enclosure to be reversibly mounted in either a vertical orientation or a horizontal orientation such that both orientations provide a moisture-resistant power supply enclosure.

Abstract: Provided in this disclosure is a hand dryer including a mounting structure having a planar surface for adjoining to a planar surface of a mounting wall upon which the hand dryer is mounted. A motor is provided for rotating a fan that generates an air flow. The motor is mounted transversely upon the mounting structure such that a plane of motor rotation is parallel to the planar surface of the mounting wall, and an axis of motor rotation is perpendicular to the mounting wall. The nozzle receives the air flow from the motor, and directs the air flow toward hands of a user. The hand dryer includes air intakes, mounted along opposite sides the motor, for receiving transverse flows of air. The air intake also includes a recessed portion, configured between the air intakes, for receiving the motor, and fluidly connecting the motor to the air intakes.

Abstract: A motor assembly includes: a motor housing including: at least one brush receptacle having top and bottom ends; a locking element extending from the top end toward the bottom end; and a housing spring member; at least one brush holder apparatus including: a brush holder housing sized to be received within the brush receptacle, including: an upper surface and a lower surface; a receiving aperture; and an open end; a brush spring enclosed by the brush holder housing; and a brush located inside the brush holder housing; wherein the brush holder apparatus is inserted inside the brush receptacle; and wherein the housing spring member urges the brush holder apparatus toward the top end such that the locking element is received inside the receiving aperture.

Abstract: A motor assembly includes: a motor housing including: at least one brush receptacle having top and bottom ends; a locking element extending from the top end toward the bottom end; and a housing spring member; at least one brush holder apparatus including: a brush holder housing sized to be received within the brush receptacle, including: an upper surface and a lower surface; a receiving aperture; and an open end; a brush spring enclosed by the brush holder housing; and a brush located inside the brush holder housing; wherein the brush holder apparatus is inserted inside the brush receptacle; and wherein the housing spring member urges the brush holder apparatus toward the top end such that the locking element is received inside the receiving aperture.

Abstract: A motor assembly includes: a motor housing including: at least one brush receptacle having top and bottom ends; a locking element extending from the top end toward the bottom end; and a housing spring member; at least one brush holder apparatus including: a brush holder housing sized to be received within the brush receptacle, including: an upper surface and a lower surface; a receiving aperture; and an open end; a brush spring enclosed by the brush holder housing; and a brush located inside the brush holder housing; wherein the brush holder apparatus is inserted inside the brush receptacle; and wherein the housing spring member urges the brush holder apparatus toward the top end such that the locking element is received inside the receiving aperture.

Abstract: An icemaker control module for controlling an icemaker making ice bodies in a freezer has a base with snap fit components including an insert molded circuit board, a motor assembly, an ice level sensing system using a bail arm or a paddle, and a water fill system. Lance features in the circuit board connect switch and motor leads. The thermostat, ground wire, and heater of the icemaker electrically couple to the insert molded circuit board when the ice maker control module is joined to the ice maker. Energy may be conserved by pausing rotation and turning off the heater. There is a method for manufacturing the insert molded circuit board in a cell.

Abstract: An icemaker including an icemaker control module comprises components including an insert molded circuit board assembly, a motor assembly, an ice level sensing system using a bail arm or a paddle, and a water fill system. Lance features in the circuit board connect switch and motor leads. The thermostat, ground member, and heater of the icemaker electrically couple to the insert molded circuit board when the icemaker control module is joined to the ice maker. Energy may be conserved by pausing rotation and turning off the heater.

Abstract: An icemaker control module for controlling an icemaker making ice bodies in a freezer has a base with snap fit components including an insert molded circuit board, a motor assembly, an ice level sensing system using a bail arm or a paddle, and a water fill system. Lance features in the circuit board connect switch and motor leads. The thermostat, ground wire, and heater of the icemaker electrically couple to the insert molded circuit board when the ice maker control module is joined to the ice maker. Energy may be conserved by pausing rotation and turning off the heater. There is a method for manufacturing the insert molded circuit board in a cell.

Abstract: Cam-operated timers for various appliances, such as a clothes washer and a dryer, wherein the timers that are nearly identical from the user's standpoint. For example, the timer may be provided on both a clothes washer and a dryer. Each timer may be set and started in a same or similar manner. The timers each include a rotatable cam-carrying member having cam surfaces thereon, a timing motor, a drive mechanism, a plurality of cam-actuated switches and members generating a motion pattern, audible and/or tactile feedback, and both timers in response to actions by an operator setting the timer.

Abstract: A cam-operated timer 10 for a household appliance includes an interval type delay drive system to provide variable delay speeds to the rotation of a program cam. The timer 10 includes a rotatable cam-carrying member 16 having a control profile 60 of teeth and plateaus. A rotatable delay wheel 18 also includes a series of delay teeth 73 with at least one tooth 76 being of substantially greater depth than the remaining standard delay teeth 74. A delay pawl 22 is operatively connected to the drive mechanism of the timer 10 and includes at least first and second prongs 80, 82 spaced approximately the distance between the cam-carrying member 16 and the delay wheel 18, with the first prong 80 being substantially shorter than the second prong 82.

Abstract: A timer for controlling an appliance includes a housing. The timer also includes a camstack having a plurality of cam surfaces defined therein. The plurality of cam surfaces are positioned within the housing. The timer further includes a switch block which cooperates with the plurality of cam surfaces to provide switching operations for the appliance. Moreover, the timer includes an auxiliary member having a circuit pattern positioned on a side thereof. Rotation of the camstack causes rotation of the auxiliary member. The auxiliary member is positioned outside of the housing. The timer yet further includes a first switch arm positioned in contact with the side of the auxiliary member. Rotation of the auxiliary member causes the circuit pattern to be advanced into contact with the first switch arm. A method of controlling an appliance is also disclosed.

Abstract: A timer for controlling an appliance includes a housing. The timer also includes a camstack having a plurality of cam surfaces defined therein. The plurality of cam surfaces are positioned within the housing. The timer further includes a switch block which cooperates with the plurality of cam surfaces to provide switching operations for the appliance. Moreover, the timer includes an auxiliary member having a circuit pattern positioned on a side thereof. Rotation of the camstack causes rotation of the auxiliary member. The auxiliary member is positioned outside of the housing. The timer yet further includes a first switch arm positioned in contact with the side of the auxiliary member. Rotation of the auxiliary member causes the circuit pattern to be advanced into contact with the first switch arm. A method of controlling an appliance is also disclosed.

Abstract: A timer for controlling an appliance includes a housing. The timer also includes a camstack having a plurality of cam surfaces defined therein. The plurality of cam surfaces are positioned within the housing. The timer further includes a switch block which cooperates with the plurality of cam surfaces to provide switching operations for the appliance. Moreover, the timer includes an auxiliary member having a circuit pattern positioned on a side thereof. Rotation of the camstack causes rotation of the auxiliary member. The auxiliary member is positioned outside of the housing. The timer yet further includes a first switch arm positioned in contact with the side of the auxiliary member. Rotation of the auxiliary member causes the circuit pattern to be advanced into contact with the first switch arm. A method of controlling an appliance is also disclosed.

Abstract: A timer for controlling an appliance includes a top subinterval circuit which is used to control an appliance function. The top subinterval circuit has electrical circuit blades which are movable to open and to close the top subinterval circuit. The timer also includes a subinterval lever which contacts a subinterval cam. The subinterval lever is movable in response to the subinterval cam to impart motion to the circuit blades. This movement acts to open and to close the top subinterval circuit. Moreover, the timer includes a masking lever that engages the circuit blades to prevent the closing of the top subinterval circuit. Thereby the motion of the subinterval lever is masked.

Abstract: A timer for controlling an appliance includes a cam having a first cam surface and a second cam surface defined therein. The first cam surface is distinct from the second cam surface. The timer also includes a first circuit blade which cooperates with the first cam surface so as to moved between a first neutral position and a first actuated position. The timer further includes a second circuit blade which cooperates with the second cam surface so as to moved between a second neutral position and a second actuated position. Moreover, the timer includes a third circuit blade which is positionable in a first offset position and a second offset position. The third circuit blade is positioned at the first offset position when the first circuit blade is positioned at the first actuated position. The third circuit blade is moved from the first offset position to the second offset position when the first circuit blade is moved from the first actuated position to the first neutral position.

Abstract: A dryness sensing printed circuit board carried inside a cam-operated timer housing is accomplished by bonding a printed circuit board inside a timer housing cover plate. Electrical connections between the printed circuit board and timer components are provided by conductive pads on the printed circuit board that contact an electrical connecting means attached to timer components when the timer housing coverplate is installed on the timer housing.

Abstract: An anti-rotational device for a cam-operated timer is used in appliances with timer control knobs that recess when the appliance is operating. A spring biased axially displaceable shaft that carries a circular disc having teeth peripherally disposed around its circumference is provided. When the shaft is axially displaced by pressure on the timer control knob, the teeth on the circular disc engage raised tabs on the timer's housing, and the engagement prevents the shaft from rotating.

Abstract: A uni-direction rotation device in a cam-operated timer is accomplished by coupling the timer control shaft to the camstack with a semi-circular tang and semi-circular slot connection. When the timer control knob is rotated in the biased or right direction, the slot is coupled to the tang, and the timer can be set. But when the timer control knob is rotated in the unbaised or wrong direction, the slot is uncoupled from the tang and the timer control knob rotates freely, so the timer cannot be set.