Abstract: A plug-on neutral (PON) device includes a housing that defines a phase cooperation portion configured to physically cooperate with phase buses of a bus assembly. The phase cooperation portion is configured to be electrically isolated from the phase buses and stabilize the PON device when installed on the bus assembly. A neutral cooperation portion is configured to physically cooperate with the neutral bus and to physically stabilize the PON device when installed. An electrical connector disposed at the neutral cooperation portion is configured to electrically connect to the neutral bus at an external end and to electrically connect to a conductive current path at its internal end. A lug assembly has one or more conductive terminal lugs, each terminal lug configured to receive current from an external neutral source via an aperture in the lug end of the housing and to electrically connect to the current path.

Abstract: A foreign object debris (FOD) collection drill attachment for attaching to a drill includes with a drill guide bushing holder, a chip breaker bushing, an air supply line, a chip evacuation line, a chip collection hopper, and an air manifold. The drill guide bushing holder includes an inlet channel receiving air from the air supply line, an outlet channel, and a holder center channel. The inlet channel and the outlet channel each open into the holder center channel through which an end protrusion of the chip breaker bushing extends to break up FOD on a drill bit of the drill. The cross-sectional area of the inlet channel is smaller than the cross-sectional area of the outlet channel, creating a Venturi effect between the inlet channel and the outlet channel to pull FOD away from the drill bit and through the chip evacuation line to the chip collection hopper.

Abstract: A method includes receiving data indicative of a range of processing conditions associated with a plurality of substrate processing operations. The data indicative of the range of processing conditions includes a first range of values of a first property and a second range of values of a second property of the processing conditions. The method further includes receiving data indicative of processing performance associated with the plurality of processed substrates. The data includes a first set of data associated with a first indication of substrate performance and a second set of data associated with a second indication of substrate performance. The method further includes performing analysis relating the processing conditions to the processing performance. The method further includes generating a visualization presenting results of the analysis including representations of the first indication of substrate performance and the second indication of substrate performance.

Abstract: A part registration system for registering one or more parts relative to a robot having a robotic arm that defines a plane of optimal reach at a vertical position is provided. The part registration system includes a tray support rack, a tray support shelf and a tray transfer arrangement. The tray support rack is configured to support a plurality of trays for holding one or more parts. The tray support rack has a plurality of tray support regions in which one or more trays may be supported. The plurality of tray support regions are at different vertical positions. The tray support shelf is vertically adjustable relative to the tray support rack. The tray transfer arrangement transfers the trays between the tray support rack and the tray support shelf. Methods are also provided.

Abstract: A sensor (10) for inspecting a tool (28) of a machine tool (24) is provided that has a radio frequency transmitter (12) for generating a radio frequency signal, a radio frequency receiver (14) for generating a received signal from a received radio frequency signal, a coupling unit (16) to couple a radio frequency signal into the tool (28) and to decouple it from the tool (28), and a control and evaluation unit (20) to determine a time of flight of a radio frequency signal transmitted from the radio frequency transmitter (12) and received again by the radio frequency receiver (14) with reference to the received signal of the radio frequency receiver (14).

Abstract: The present invention relates to a medical device, in particular a device for extracorporeal blood treatment, having an output unit for outputting system sounds for communication with a user, wherein the output unit is additionally adapted to transmit message sounds for communication with at least one other apparatus.

Abstract: A motor is provided. The motor includes a motor body and a rotor assembly. The rotor assembly includes a magnetic core mounted to a rotor shaft. The rotor assembly may include standoffs for accurately axially locating the magnetic core relative to rotor bearings. A drive nut adjustment arrangement may be provided. A mechanical interconnection between the drive nut and rotor shaft may be provided. A trailing end lead screw support may be provided. An axial preload arrangement may be provided to axially locate the rotor assembly within the motor body.

Abstract: A nut assembly for use with lead screws is provided. The nut assembly includes a nut member and an adjustment arrangement that can independently adjust the biasing of flexible fingers of the nut member.

Abstract: A filament drive for an extruder for an additive manufacturing system is provided. A drive gear is driven by a motor. A first driven gear is operably driven by the drive gear. A first hob has a toothed outer periphery connected to the first driven gear. A second driven gear is operably driven by the drive gear. A second hob has a toothed outer periphery connected to the second driven gear. The toothed outer peripheries of the first and second hobs define a filament receiving zone therebetween. A filament extruder including a heating element operated at greater than 48 volts may be provided.

Abstract: A motor is provided. The motor includes a motor body and a rotor assembly. The rotor assembly includes a magnetic core mounted to a rotor shaft. The rotor assembly may include standoffs for accurately axially locating the magnetic core relative to rotor bearings. A drive nut adjustment arrangement may be provided. A mechanical interconnection between the drive nut and rotor shaft may be provided. A trailing end lead screw support may be provided. An axial preload arrangement may be provided to axially locate the rotor assembly within the motor body.

Abstract: A motor is provided. The motor includes a motor body and a rotor assembly. The rotor assembly includes a magnetic core mounted to a rotor shaft. The rotor assembly may include standoffs for accurately axially locating the magnetic core relative to rotor bearings. A drive nut adjustment arrangement may be provided. A mechanical interconnection between the drive nut and rotor shaft may be provided. A trailing end lead screw support may be provided. An axial preload arrangement may be provided to axially locate the rotor assembly within the motor body.

Abstract: In order to detect a correct sorting and a correct passing of an object through an assigned opening of a plurality of openings, a sorting detection system for detecting a passage of the object through the opening of the plurality of openings is provided. Each opening is assigned to a container. The containers receive the object; at least a first sensor identifies the object and generates an identification signal. A control unit receives the identification signal of the first sensor and assigns the identified object to a container based on the identification signal. At least one second sensor having a field of view directed towards the openings and includes at least one detection surface. The detection surface is located within the respective container at a predetermined distance from an edge of a respective opening, and an object passing the detection surface triggers a detection signal of the second sensor.

Abstract: A nut assembly for use with lead screws is provided. The nut assembly includes a nut member and an adjustment arrangement that can independently adjust the biasing of flexible fingers of the nut member.

Abstract: An electro-pneumatic de-icer for an airfoil includes an electrically-powered compressor for compressing air, an air-storage tank for storing compressed air, a source of negative pressure, an airfoil pneumatic boot, and a control valve located between 1) the air-storage tank, 2) the source of negative pressure, and 3) the pneumatic boot for cycling between compressed air to inflate the pneumatic boot and negative pressure to deflate the pneumatic boot for cracking accumulated ice on the airfoil. An airfoil de-icing method lacking engine bleed air extraction includes compressing air with an electrically-powered compressor, storing high-pressure air from the compressor in an air-storage tank, delivering high-pressure air from the air-storage tank to inflate a pneumatic boot located along an airfoil, providing a negative-pressure source, deflating the pneumatic boot with the negative-pressure source, and alternating between inflating and deflating the pneumatic boot for cracking accumulated ice on the airfoil.

Abstract: A sensor (10) for inspecting a tool (28) of a machine tool (24) is provided that has a radio frequency transmitter (12) for generating a radio frequency signal, a radio frequency receiver (14) for generating a received signal from a received radio frequency signal, a coupling unit (16) to couple a radio frequency signal into the tool (28) and to decouple it from the tool (28), and a control and evaluation unit (20) to determine a time of flight of a radio frequency signal transmitted from the radio frequency transmitter (12) and received again by the radio frequency receiver (14) with reference to the received signal of the radio frequency receiver (14).

Abstract: A motor is provided. The motor includes a motor body and a rotor assembly. The rotor assembly includes a magnetic core mounted to a rotor shaft. The rotor assembly may include standoffs for accurately axially locating the magnetic core relative to rotor bearings. A drive nut adjustment arrangement may be provided. A mechanical interconnection between the drive nut and rotor shaft may be provided. A trailing end lead screw support may be provided. An axial preload arrangement may be provided to axially locate the rotor assembly within the motor body.

Abstract: In order to detect a correct sorting and a correct passing of an object through an assigned opening of a plurality of openings, a sorting detection system for detecting a passage of the object through the opening of the plurality of openings is provided. Each opening is assigned to a container. The containers receive the object; at least a first sensor identifies the object and generates an identification signal. A control unit receives the identification signal of the first sensor and assigns the identified object to a container based on the identification signal. At least one second sensor having a field of view directed towards the openings and includes at least one detection surface. The detection surface is located within the respective container at a predetermined distance from an edge of a respective opening, and an object passing the detection surface triggers a detection signal of the second sensor.

Abstract: A filament drive for an extruder for an additive manufacturing system is provided. A drive gear is driven by a motor. A first driven gear is operably driven by the drive gear. A first hob has a toothed outer periphery connected to the first driven gear. A second driven gear is operably driven by the drive gear. A second hob has a toothed outer periphery connected to the second driven gear. The toothed outer peripheries of the first and second hobs define a filament receiving zone therebetween. A filament extruder including a heating element operated at greater than 48 volts may be provided.

Abstract: An additive and subtractive manufacturing system and method of manufacturing is provided. The system includes a print bed and both an additive machine and a subtractive machine. The additive machine will dispense material onto the print bed and the additive machine will be able to perform subtractive manufacturing on the material dispensed onto the print bed. The additive machine and subtractive machine will be mounted to actuators for moving the machines in three-dimensions within a working zone adjacent the print bed. The system may include placement machines for placing pre-made components in the product during the manufacturing process.

Abstract: A cartridge for selectively dispensing an additive to water that includes a housing, a bladder disposed within the housing, and a pump connected to the housing and in fluid communication with the bladder. The bladder is configured to contain a consumable additive such as a flavor, for water. The pump is operable to selectively dispense an amount of the additive into water. The cartridge may be connected to a water filtration system such that the cartridge may dispense the additive into filtered water.