mhurhangee/ep-ind-claims huggingface dataset:
Household appliance, in particular an electrical kitchen appliance, comprising a housing and an outer shell, a power cord mounted in the housing and having a portion extending outside of the outer shell, an internal storage space being arranged inside the housing to house at least partially the portion of the power cord extending outside of the outer shell, the housing comprising a housing element forming a part of the outer shell, the housing element comprising an outlet passage through which the power cord exits freely from the housing, characterised in that the outlet passage is arranged under a lower support face of the housing element, in that the lower support face comprises at least one side indentation connecting the outlet passage with the exterior when the lower support face rests on a support plane, and in that the internal space communicates through at least one intermediate passage with a main compartment arranged in the housing and housing an electric motor.
An additive manufacturing device for manufacturing a mould, wherein the additive manufacturing device comprises - a container for providing at least one mould material, - a build platform having a build surface for holding and/or supporting at least one mould being or having been manufactured by an additive manufacturing process, - a source for providing energy to selectively activate, and if required subsequently solidify, the at least one mould material in or from the container to enable additive manufacturing of the mould, and - an electronic controller adapted to selectively control the source to manufacture the mould as a one-piece sacrificial mould according to a predetermined design producing a one-piece sacrificial additively manufactured mould comprising ○ one or more outer shells circumscribing and enclosing at least a first inner volume, ○ at least one inlet being connected to the first inner volume and being adapted to receive at least one building material, and ○ at least one outlet being connected to the first inner volume and being adapted to release air from the first inner volume when the first inner volume receives the at least one building material via the at least one inlet, characterised in that, the build platform comprises one or more securing elements enabling a transportation mechanism to releasably and mechanically connect with and move the build platform into and/or out from the additive manufacturing device. - a container for providing at least one mould material, - a build platform having a build surface for holding and/or supporting at least one mould being or having been manufactured by an additive manufacturing process, - a source for providing energy to selectively activate, and if required subsequently solidify, the at least one mould material in or from the container to enable additive manufacturing of the mould, and - an electronic controller adapted to selectively control the source to manufacture the mould as a one-piece sacrificial mould according to a predetermined design producing a one-piece sacrificial additively manufactured mould comprising ○ one or more outer shells circumscribing and enclosing at least a first inner volume, ○ at least one inlet being connected to the first inner volume and being adapted to receive at least one building material, and ○ at least one outlet being connected to the first inner volume and being adapted to release air from the first inner volume when the first inner volume receives the at least one building material via the at least one inlet, ○ one or more outer shells circumscribing and enclosing at least a first inner volume, ○ at least one inlet being connected to the first inner volume and being adapted to receive at least one building material, and ○ at least one outlet being connected to the first inner volume and being adapted to release air from the first inner volume when the first inner volume receives the at least one building material via the at least one inlet,
An alignment correction system comprising (a) a base having a base surface with one or more target locations, wherein each target location is fitted to receive a light-reflective object; (b) one or more light-reflective objects, each positioned at one of the target locations; and (c) a Cartesian robotic arm with a probe that is removably or permanently attached to it, wherein the probe is a light source and a sensor to detect reflected light, the probe positioned within a probe plane substantially parallel to a plane of the base and at a distance from the plane of the base, wherein the probe is configured to illuminate each target location with a beam of light and the sensor is configured to detect reflected light from any light-reflective object located at such target location to determine a position of the light-reflective object, wherein the Cartesian robotic arm is configured to position the probe over one of the light-reflective objects at one of the target locations, reposition the probe relative to the light-reflective object until the intensity of the reflected light is at a maximum amount, and record the position of the probe at the maximum amount for each target location having a light-reflective object thereat; wherein the alignment correction system is configured to determine an alignment error based on the data gathered from said repositioning of the probe and said recording of the position of the probe and a known reference point location of the one or more light-reflective objects. (a) a base having a base surface with one or more target locations, wherein each target location is fitted to receive a light-reflective object; (b) one or more light-reflective objects, each positioned at one of the target locations; and (c) a Cartesian robotic arm with a probe that is removably or permanently attached to it, wherein the probe is a light source and a sensor to detect reflected light, the probe positioned within a probe plane substantially parallel to a plane of the base and at a distance from the plane of the base, wherein the probe is configured to illuminate each target location with a beam of light and the sensor is configured to detect reflected light from any light-reflective object located at such target location to determine a position of the light-reflective object, wherein the Cartesian robotic arm is configured to position the probe over one of the light-reflective objects at one of the target locations, reposition the probe relative to the light-reflective object until the intensity of the reflected light is at a maximum amount, and record the position of the probe at the maximum amount for each target location having a light-reflective object thereat; wherein the alignment correction system is configured to determine an alignment error based on the data gathered from said repositioning of the probe and said recording of the position of the probe and a known reference point location of the one or more light-reflective objects.
A multi-turn magnetic sensor, comprising: a nanowire forming a plurality of loops (411, 413, 415); a plurality of domain orientation sensors configured to detect locations of a pair of domain walls within the nanowire; and an initialization circuit configured to inject the pair of domain walls into the nanowire, wherein the nanowire forms a closed-loop via a bridge crossing connecting two of the loops (411, 415), characterized in that the initialization circuit comprises a first set of metal traces that cross each loop of the plurality of loops (411, 413, 415) at a first crossing and a second crossing, a first spacing between the first set of metal traces at the first crossing being different than a second spacing between the first set of metal traces at the second crossing. a nanowire forming a plurality of loops (411, 413, 415); a plurality of domain orientation sensors configured to detect locations of a pair of domain walls within the nanowire; and an initialization circuit configured to inject the pair of domain walls into the nanowire, wherein the nanowire forms a closed-loop via a bridge crossing connecting two of the loops (411, 415), characterized in that the initialization circuit comprises a first set of metal traces that cross each loop of the plurality of loops (411, 413, 415) at a first crossing and a second crossing, a first spacing between the first set of metal traces at the first crossing being different than a second spacing between the first set of metal traces at the second crossing.
A LED driver system comprising: a current source for supplying a power supply current (i) to a parallel arrangement of a parallel switch and a LED, the parallel switch for short-circuiting the LED when the parallel switch is closed, a controller configured for generating during use: a first control signal to control the current source to change from a regulating mode wherein the power supply (i) current is regulated to have a non-zero average level into a decaying mode wherein the power supply current (i) decays during a decay period (Td), and a second control signal to control the parallel switch to open during an open period (To) comprising a sub-period of the decay period (Td). a current source for supplying a power supply current (i) to a parallel arrangement of a parallel switch and a LED, the parallel switch for short-circuiting the LED when the parallel switch is closed, a controller configured for generating during use: a first control signal to control the current source to change from a regulating mode wherein the power supply (i) current is regulated to have a non-zero average level into a decaying mode wherein the power supply current (i) decays during a decay period (Td), and a second control signal to control the parallel switch to open during an open period (To) comprising a sub-period of the decay period (Td). a first control signal to control the current source to change from a regulating mode wherein the power supply (i) current is regulated to have a non-zero average level into a decaying mode wherein the power supply current (i) decays during a decay period (Td), and a second control signal to control the parallel switch to open during an open period (To) comprising a sub-period of the decay period (Td).
A food processing appliance comprising: a container having a rotational processing assembly that includes a follower rotor having a first magnetic feature; a base having a drive system for providing a rotational drive force; and a magnetic coupler having a drive rotor that selectively transfers the rotational drive force to the follower rotor, characterized in that the drive rotor includes a plurality of drive-magnetic members that form a generally cylindrical space that receives and surrounds the follower rotor in an engaged position, and wherein at least one of the drive and follower rotors (40, 26) includes a magnet configuration that directs a respective magnetic field of inner and outer magnetic fields (48, 50) in a direction of a gap defined between the drive and follower rotors (40, 26). a container having a rotational processing assembly that includes a follower rotor having a first magnetic feature; a base having a drive system for providing a rotational drive force; and a magnetic coupler having a drive rotor that selectively transfers the rotational drive force to the follower rotor, characterized in that the drive rotor includes a plurality of drive-magnetic members that form a generally cylindrical space that receives and surrounds the follower rotor in an engaged position, and wherein at least one of the drive and follower rotors (40, 26) includes a magnet configuration that directs a respective magnetic field of inner and outer magnetic fields (48, 50) in a direction of a gap defined between the drive and follower rotors (40, 26).
A leak detection system, comprising: a high voltage leak detection (HVLD) testing system comprising an inspection electrode and a detection electrode, wherein the inspection electrode and the detection electrode are configured to scan a surface of a package to inspect the package; a grounding system comprising a grounding element, wherein the grounding system is configured to remove, significantly reduce, or conduct away electric charge accumulation on the package by moving the grounding element to an effective distance from a surface of the package; and a controller configured to operate and coordinate the operation of the grounding system with the operation of the HVLD testing system, wherein the effective distance is determined based on one or more factors comprising material of the grounding element, shape of the grounding element, ambient environment, and humidity of the ambient environment. a high voltage leak detection (HVLD) testing system comprising an inspection electrode and a detection electrode, wherein the inspection electrode and the detection electrode are configured to scan a surface of a package to inspect the package; a grounding system comprising a grounding element, wherein the grounding system is configured to remove, significantly reduce, or conduct away electric charge accumulation on the package by moving the grounding element to an effective distance from a surface of the package; and a controller configured to operate and coordinate the operation of the grounding system with the operation of the HVLD testing system, wherein the effective distance is determined based on one or more factors comprising material of the grounding element, shape of the grounding element, ambient environment, and humidity of the ambient environment.
A sliding door panel system, comprising: at least one sliding door panel moveable between closed and open positions; a lock arranged to lock the at least one sliding door panel in the closed position, the lock including a release mechanism; the release mechanism comprising first (106a, 124a, 128, 130) and second (106b, 124b, 128, 130) release actuators, including a first handle assembly and a second handle assembly, configured and positioned to unlock the lock and permit sliding of the at least one sliding door panel from its left and right hand sides, respectively; characterized in that the first handle assembly and the second handle assembly are mounted on opposite stiles (103a, 103b) of the sliding door panel, and the first release actuator (106a, 124a, 128, 130) comprises a first handle and a first vertical linkage operably attached to the first handle, and the second release actuator (106b, 124b, 128, 130) comprises a second handle and a second vertical linkage attached to the second handle. at least one sliding door panel moveable between closed and open positions; a lock arranged to lock the at least one sliding door panel in the closed position, the lock including a release mechanism; the release mechanism comprising first (106a, 124a, 128, 130) and second (106b, 124b, 128, 130) release actuators, including a first handle assembly and a second handle assembly, configured and positioned to unlock the lock and permit sliding of the at least one sliding door panel from its left and right hand sides, respectively; characterized in that the first handle assembly and the second handle assembly are mounted on opposite stiles (103a, 103b) of the sliding door panel, and the first release actuator (106a, 124a, 128, 130) comprises a first handle and a first vertical linkage operably attached to the first handle, and the second release actuator (106b, 124b, 128, 130) comprises a second handle and a second vertical linkage attached to the second handle.
A refractory object used in forming a glass object, the refractory object comprises: at least 90 % by weight Al 2 O 3; and no greater than 5 % by weight of a first dopant; wherein the refractory object has a property including: a percentage of grains of the refractory object having an aspect ratio of at least 2.0 is no greater than 30%; in a cross-sectional cut through the refractory object a percentage area occupied by the grains having an aspect ratio of at least 2.0 is no greater than 30%, a D10 value of an aspect ratio of grains of the refractory object is no greater than 1.2; a D50 value of the aspect ratio is no greater than 1.6; a D90 value of the aspect ratio is no greater than 2.7; or any combination thereof. at least 90 % by weight Al 2 O 3; and no greater than 5 % by weight of a first dopant; wherein the refractory object has a property including: a percentage of grains of the refractory object having an aspect ratio of at least 2.0 is no greater than 30%; in a cross-sectional cut through the refractory object a percentage area occupied by the grains having an aspect ratio of at least 2.0 is no greater than 30%, a D10 value of an aspect ratio of grains of the refractory object is no greater than 1.2; a D50 value of the aspect ratio is no greater than 1.6; a D90 value of the aspect ratio is no greater than 2.7; or any combination thereof. a percentage of grains of the refractory object having an aspect ratio of at least 2.0 is no greater than 30%; in a cross-sectional cut through the refractory object a percentage area occupied by the grains having an aspect ratio of at least 2.0 is no greater than 30%, a D10 value of an aspect ratio of grains of the refractory object is no greater than 1.2; a D50 value of the aspect ratio is no greater than 1.6; a D90 value of the aspect ratio is no greater than 2.7; or any combination thereof.
A plant for producing a tissue paper web, said plant comprising a transmission roller disposed underneath the web for driving out the web in the course of formation and a web stabilizing apparatus housed upstream of said roller to eliminate a formation of air between the web and an outer surface of said roller, characterized in that the stabilizing apparatus comprises at least a movable element disposed in correspondence of the web, wherein the said movable element comprises a wedge-like portion having a continuous upper surface of contact with a lower face of the web, and a lower surface associated therewith for intercepting a first fluid thread carried by said lower face and diverting said first thread along a direction transverse to the feeding direction of the web, wherein said lower surface of the wedge-like portion exhibits an aerodynamic profile to divert said first fluid thread and create a depression in correspondence of the lower face of the weo, wherein said upper surface of the wedge-like portion is flat and said wedge-like portion has a leading edge disposed between said upper surface and said lower surface, said lower surface, upper surface and leading edge all defining a continuous surface, wherein said flat upper surface has a first end associated with said leading edge and a second end opposite to the first end and bent away from the lower face of the web, said second end defining, in cooperation with the outer surface of the transmission roller, a section for the passage of a second fluid thread carried by said roller, and wherein said movable element further comprises a support arm having a first end associated with said wedge-like portion, and a second end opposite to the first end; said first end of the support arm exhibiting a substantially U-shaped development which defines a concave region, said first end of the support arm exhibiting an extension shaped like a lamina and abutted against the outer surface of the transmission roller in order to divert most of the second fluid thread towards the second end of said arm.
A manufacturing process of a gas turbine for use in manufacturing, wherein based on a base plant comprising a gas turbine designed for one desired gas turbine cycle and including a compressor to compress a fluid flowing inside a casing to which stator vanes are fixed a gas turbine for another different gas turbine cycle is manufactured, said process comprising the steps of: - forming a channel in said compressor such that a mass flow of the fluid passing through said compressed channel changes compared to the mass flow of the fluid of said base plant, wherein said compressor channel for the fluid is formed such as to have an inner surface defined by an outer circumferential surface of each of compressor rotor disks and an outer surface defined by an inner circumferential surface of a casing; and - changing the distance between said inner surface and said outer surface in comparison with the corresponding distance in said base plant, the process characterized by the step of - using stator vanes having a cut root portion such that a length of the stator vanes is reduced compared to the length of the stator vanes of said base plant; wherein the manufacturing process further comprises the step of using rotor blades in which the tip portion of said rotor blades is cut compared with said base plant. - forming a channel in said compressor such that a mass flow of the fluid passing through said compressed channel changes compared to the mass flow of the fluid of said base plant, wherein said compressor channel for the fluid is formed such as to have an inner surface defined by an outer circumferential surface of each of compressor rotor disks and an outer surface defined by an inner circumferential surface of a casing; and - changing the distance between said inner surface and said outer surface in comparison with the corresponding distance in said base plant, - using stator vanes having a cut root portion such that a length of the stator vanes is reduced compared to the length of the stator vanes of said base plant;