mhurhangee/ep-ind-claims huggingface dataset:
An electric motor assembly comprising: a stator core; a rotor disposed within the stator core; a circuit board proximate an end of the stator core, the circuit board including a heat-generating component (175, 180) facing away from the stator core; and an end cap coupled to the stator core and in thermal contact with the heat-generating component (175, 180) as a heat sink to remove thermal energy from the heat-generating component (175, 180), a first end of the rotor being rotatably supported by the end cap; wherein the circuit board is positioned between the end cap and the end of the stator core, characterized in that the end cap includes a protrusion extending from an inner surface of the end wall of the end cap and toward the circuit board, and wherein the protrusion is in thermal contact with the heat-generating component (175, 180); further comprising a thermal pad positioned between the protrusion and the heat-generating component (175, 180), wherein the protrusion is in direct contact with the thermal pad, and wherein the thermal pad is in direct contact with the heat-generating component (175, 180). a stator core; a rotor disposed within the stator core; a circuit board proximate an end of the stator core, the circuit board including a heat-generating component (175, 180) facing away from the stator core; and an end cap coupled to the stator core and in thermal contact with the heat-generating component (175, 180) as a heat sink to remove thermal energy from the heat-generating component (175, 180), a first end of the rotor being rotatably supported by the end cap; wherein the circuit board is positioned between the end cap and the end of the stator core, characterized in that the end cap includes a protrusion extending from an inner surface of the end wall of the end cap and toward the circuit board, and wherein the protrusion is in thermal contact with the heat-generating component (175, 180); further comprising a thermal pad positioned between the protrusion and the heat-generating component (175, 180), wherein the protrusion is in direct contact with the thermal pad, and wherein the thermal pad is in direct contact with the heat-generating component (175, 180).
An installation with a link chain, with a sliding plate on which the link chain lies and is movable, and with at least one workpiece carrier which is conveyed by the link chain and has an electrical consumer, characterised in that a secondary winding arranged, in particular fastened, on the workpiece carrier supplies power to the electrical consumer, the secondary winding being coupled inductively to a primary conductor system, so that power is supplied to the secondary winding in contactless manner and inductively from the primary conductor system, with the sliding plate lying on first and second supporting plates (27; 28), with the first supporting plates being manufactured from a less magnetisable and/or less magnetic and/or electrically conductive material than the second supporting plates, with the first supporting plates receiving the primary conductor system, in particular with the primary conductor system being arranged between a respective first supporting plate and the link chain and/or sliding plate.
A method for carving an outer surface of a vehicle wheel, comprising: a step of priming: applying a primer on an outer surface of the wheel to form a painted surface; a step of carving: carving a selected area of the primer from the wheel by laser to remove the painted surface from the selected area, the selected area having an exposed area with metallic luster, and characterized by a step of fine-polish: polishing the outer surface of the wheel to form a fine-polished area at the exposed area. a step of priming: applying a primer on an outer surface of the wheel to form a painted surface; a step of carving: carving a selected area of the primer from the wheel by laser to remove the painted surface from the selected area, the selected area having an exposed area with metallic luster, and characterized by a step of fine-polish: polishing the outer surface of the wheel to form a fine-polished area at the exposed area.
Air inlet for a motor vehicle, in particular for controlling the air to be supplied to a cooling device of an internal combustion engine, comprising a frame and at least one closing element, wherein the closing element is arranged within the frame on a housing and on side parts (2.2, 2.3) so as to be pivotable about an axis of rotation of the closing element, wherein the closing element is designed in such a way that it is connected to the frame via at least one latching mechanism which has a cylindrical extension (3.1) with a reduced-diameter peripheral groove in an end region and a receptacle in the housing, characterized in that the receptacle has a through-bore for mounting the extension (3.1) of the closing element, and in that a latching lug is provided in the region of the through-bore, wherein the latching lug of the housing can be latched into the peripheral groove of the extension (3.1) of the closing element.
An inorganic phosphor-based composition for marking metal products produced by powder metallurgy technique, said composition including a phosphor, characterized in that the composition comprises a binding/lubricating agent as which a mixture of fatty acid derivatives with polyatomic phenols, or a mixture of synthetic wax powders and/or paraffin powders added with polyatomic phenols is used, at the following component ratio in wt.%: the phosphor - no more than 50%, the binding/lubricating agent - 50 wt.% or more.
A method for fabricating a microarray of plural kinds of soft materials, comprising: vapor-depositing a poly(para-xylylene) resin of a first layer on a substrate; forming a first micro pattern in the poly(para-xylylene) resin; forming a first microarray on a surface of the substrate by pouring a solution of a first soft material; freeze-drying the first soft material so as to form a micro-arrayed substrate of the first soft material; vapor-depositing and laminating a poly(para-xylylene) resin of a second layer on the micro-arrayed substrate of the first soft material; forming a second micro pattern in a place different from the first micro pattern on the micro-arrayed substrate of the first soft material by penetrating the poly(para-xylylene) resin of the first layer and the second layer; forming a second microarray on a surface of the substrate by pouring a solution of a second soft material; peeling off the poly(para-xylylene) resin of the first layer and the second layer at the same time so as to form a micro-arrayed substrate of the first and the second soft materials; and dissolving the first soft material by pouring a buffer solution to the micro-arrayed substrate of the first and the second soft materials. vapor-depositing a poly(para-xylylene) resin of a first layer on a substrate; forming a first micro pattern in the poly(para-xylylene) resin; forming a first microarray on a surface of the substrate by pouring a solution of a first soft material; freeze-drying the first soft material so as to form a micro-arrayed substrate of the first soft material; vapor-depositing and laminating a poly(para-xylylene) resin of a second layer on the micro-arrayed substrate of the first soft material; forming a second micro pattern in a place different from the first micro pattern on the micro-arrayed substrate of the first soft material by penetrating the poly(para-xylylene) resin of the first layer and the second layer; forming a second microarray on a surface of the substrate by pouring a solution of a second soft material; peeling off the poly(para-xylylene) resin of the first layer and the second layer at the same time so as to form a micro-arrayed substrate of the first and the second soft materials; and dissolving the first soft material by pouring a buffer solution to the micro-arrayed substrate of the first and the second soft materials.
A container for an energy storage apparatus, the container comprising: a passageway for a user; a container main body which defines an internal space finished by an upper plate, a lower plate, and one or more sidewalls; and an integral battery rack structure comprising: batteries; support frames which are installed on the upper plate and the lower plate of the container main body; wherein the support frames include a first support frame which is installed on the upper plate of the container main body, and a second support frame which is installed on the lower plate of the container main body, the first support frame and the second support frame are configured as a pair of frames that face each other; and vertical frames which are coupled to the support frames (110A, 110B) in a vertical direction, and configure vertical frames for the battery rack; and wherein the vertical frames provide support portions supporting the batteries. a passageway for a user; a container main body which defines an internal space finished by an upper plate, a lower plate, and one or more sidewalls; and an integral battery rack structure comprising: batteries; support frames which are installed on the upper plate and the lower plate of the container main body; wherein the support frames include a first support frame which is installed on the upper plate of the container main body, and a second support frame which is installed on the lower plate of the container main body, the first support frame and the second support frame are configured as a pair of frames that face each other; and vertical frames which are coupled to the support frames (110A, 110B) in a vertical direction, and configure vertical frames for the battery rack; and wherein the vertical frames provide support portions supporting the batteries. batteries; support frames which are installed on the upper plate and the lower plate of the container main body; wherein the support frames include a first support frame which is installed on the upper plate of the container main body, and a second support frame which is installed on the lower plate of the container main body, the first support frame and the second support frame are configured as a pair of frames that face each other; and vertical frames which are coupled to the support frames (110A, 110B) in a vertical direction, and configure vertical frames for the battery rack; and wherein the vertical frames provide support portions supporting the batteries.
Laundry treatment apparatus adapted for laundry drying, in particular condenser-type laundry dryer, exhaust-type laundry dryer, heat pump dryer or washing machine having drying function, the laundry treatment apparatus comprising: an apparatus body, a laundry storing compartment for receiving laundry to be dried by passing process air through the laundry storing compartment, a downstream channel for guiding the process air exhausted from the laundry storing compartment outside the storing compartment and within the apparatus body, an apparatus component arranged at or within the downstream channel, wherein the apparatus component is exposed to fluff conveyed in the downstream channel, a cleaning arrangement adapted to clean the apparatus component from fluff by applying liquid in a cleaning cycle, a collector tank adapted to collect the liquid used for cleaning the apparatus component, a liquid level detector (72a-b) adapted to detect the liquid level in the collector tank, and a control unit receiving the signal from the liquid level detector, characterized in that the control unit is adapted to monitor and process the signal from the liquid level detector (72a-b) for determining the flow rate and/or the amount of liquid supplied during the cleaning cycle to the apparatus component to be cleaned. an apparatus body, a laundry storing compartment for receiving laundry to be dried by passing process air through the laundry storing compartment, a downstream channel for guiding the process air exhausted from the laundry storing compartment outside the storing compartment and within the apparatus body, an apparatus component arranged at or within the downstream channel, wherein the apparatus component is exposed to fluff conveyed in the downstream channel, a cleaning arrangement adapted to clean the apparatus component from fluff by applying liquid in a cleaning cycle, a collector tank adapted to collect the liquid used for cleaning the apparatus component, a liquid level detector (72a-b) adapted to detect the liquid level in the collector tank, and a control unit receiving the signal from the liquid level detector, characterized in that the control unit is adapted to monitor and process the signal from the liquid level detector (72a-b) for determining the flow rate and/or the amount of liquid supplied during the cleaning cycle to the apparatus component to be cleaned.
A method for generating virtual content in a three-dimensional, 3D, physical environment of a user of a head-mounted device, the method comprising: under control of a hardware processor of the head-mounted device: analyzing data acquired from a pose sensor to identify a pose of a user; identifying a wall in a 3D physical environment of the user based at least partly on the pose; receiving an indication to initiate an interaction with the wall; determining contextual information associated with the wall; determining a number of user interface options that can legibly fit in a virtual menu on the wall; selecting, based on the number of user interface options that can legibly fit in the virtual menu, a subset of user interface operations from a set of available user interface operations on the wall; generating the virtual menu including the subset of user interface options; and generating an instruction for presenting the virtual menu containing the subset of user interface operations that can legibly fit in the virtual menu in a 3D view to the user. analyzing data acquired from a pose sensor to identify a pose of a user; identifying a wall in a 3D physical environment of the user based at least partly on the pose; receiving an indication to initiate an interaction with the wall; determining contextual information associated with the wall; determining a number of user interface options that can legibly fit in a virtual menu on the wall; selecting, based on the number of user interface options that can legibly fit in the virtual menu, a subset of user interface operations from a set of available user interface operations on the wall; generating the virtual menu including the subset of user interface options; and generating an instruction for presenting the virtual menu containing the subset of user interface operations that can legibly fit in the virtual menu in a 3D view to the user.
A single stage, straight forward simultaneous extraction and SCF-CO 2 multiple-three separator refining and separation process of Lutein esters of high purity from marigold flower meal that comprises the steps of: a) feeding of ground dry marigold flower meal into the extractors maintained within a pressure range of above 500 bar and up to 625 bar and a temperature of up to 75°C; b) maintaining the flow rate of supercritical fluid carbon dioxide (SCF-CO 2) into the extractors loaded with raw marigold flower powder meal is at the rate of 10kg/min initially and then increased up to 30 kg/min; c) processing of extractor feed into an SCF-CO 2 system possessing the three separators namely high pressure (H.P), medium pressure (M.P) and low pressure (L.P) separators in series by variable simulation of the pressure and temperature individually between 275 to 350 bar and 60°C, 70 to 130 bar and 40 to 60°C, 40 bar and 12°C, respectively; d) high purity Lutein ester is collected from H.P Separator having purity content of 40-70%, lower color lutein ester fraction is collected from M.P Separator and waxes and oil extracted are collected from L.P Separator. a) feeding of ground dry marigold flower meal into the extractors maintained within a pressure range of above 500 bar and up to 625 bar and a temperature of up to 75°C; b) maintaining the flow rate of supercritical fluid carbon dioxide (SCF-CO 2) into the extractors loaded with raw marigold flower powder meal is at the rate of 10kg/min initially and then increased up to 30 kg/min; c) processing of extractor feed into an SCF-CO 2 system possessing the three separators namely high pressure (H.P), medium pressure (M.P) and low pressure (L.P) separators in series by variable simulation of the pressure and temperature individually between 275 to 350 bar and 60°C, 70 to 130 bar and 40 to 60°C, 40 bar and 12°C, respectively; d) high purity Lutein ester is collected from H.P Separator having purity content of 40-70%, lower color lutein ester fraction is collected from M.P Separator and waxes and oil extracted are collected from L.P Separator.
A method for allowing an access point, AP, to perform frame exchange with a station, STA, in a wireless LAN system, comprising: receiving information regarding a maximum awake time of the STA from the STA; when it is expected that the frame exchange will be completed within the maximum awake time, performing the frame exchange (S1920, S1930); and when it is expected that the frame exchange will exceed the maximum awake time, stopping the frame exchange, and performing a new backoff process (S1920, S1940), wherein the STA is an energy limited STA, and the new backoff process is invoked after completion of battery charge recovery for the STA. receiving information regarding a maximum awake time of the STA from the STA; when it is expected that the frame exchange will be completed within the maximum awake time, performing the frame exchange (S1920, S1930); and when it is expected that the frame exchange will exceed the maximum awake time, stopping the frame exchange, and performing a new backoff process (S1920, S1940), wherein the STA is an energy limited STA, and the new backoff process is invoked after completion of battery charge recovery for the STA.
Device for cooling a flat product, with transport means (5, 5') for continuous transport of the flat product in the direction of passage, at least one upper nozzle body exhibiting at least one first nozzle outlet opening for applying a liquid coolant to the upper side of the flat product across its width, at least one lower nozzle body exhibiting at least one second nozzle outlet opening for applying the liquid coolant to the underside of the flat product across its width, an upper passage gap which extends across the width of the flat product and through which the liquid coolant on the upper side of the flat product can flow in the direction of passage during the cooling process, the upper passage gap being delimited by an upper element, a lower passage gap which extends across the width of the flat product and through which the liquid coolant on the underside of the flat product can flow in the direction of passage during the cooling process, the lower passage gap being delimited by a lower element, the upper passage gap of the first nozzle outlet opening being arranged on the upper side and the lower passage gap of the second nozzle outlet opening being arranged on the underside of the flat product in the direction of passage, and the upper and the lower element (6, 6') exhibiting grooves which are spaced apart from one another by means of webs.
A thermoform packaging machine comprising a forming station for producing packaging troughs from a bottom film, a sealing station for closing the packaging troughs with a top film by means of a sealing process as well as a cutting station for separating sealed packaging troughs from one another, wherein the cutting station comprises at least one cutting unit which is adapted to be relocated within the cutting station between different positions (P1, P2) in the production direction, characterized in that the cutting station further comprises a support by means of which respective bottoms of the sealed packaging troughs conveyed into the cutting station for the purpose of separation can, at least sectionwise, be supported from below, wherein the support comprises a plurality of support elements, which are arranged in a horizontal bearing plane and which, according to the position of the cutting unit, form a predetermined gap at a position in the support at which a cutting operation takes place, said gap being adapted to be formed, by redistributing the support elements within the bearing plane, also at a different position in the support for using the cutting unit at a different position within the cutting station.
A squeeze foamer, comprising: a compressible container comprising an opening and an interior for containing a liquid and air, a foam-forming assembly mounted on or in the opening of the container, and a sealing cap arranged on the foam-forming assembly, wherein the foam-forming assembly comprises a dispensing passage to dispense a foam and a return air inlet passage for the introduction of air into the interior of the container to replace dispensed liquid and air, wherein the dispensing passage comprises a dispensing passage opening and wherein the return air inlet passage comprises a return air inlet opening, and wherein the foam-forming assembly further comprises a first screw thread, wherein the sealing cap comprises a second screw thread to cooperate with the first screw thread, wherein the sealing cap is rotatable about a screw axis defined by the first screw thread and the second screw thread between an open position and a closed position, and wherein, in the closed position, the dispensing passage opening and the return air inlet opening are sealingly closed by the sealing cap, and wherein, in the open position, the dispensing passage opening and the return air inlet opening are not sealingly closed by the sealing cap, characterized in that the return air inlet opening is a substantially radial opening with respect to the screw axis. a compressible container comprising an opening and an interior for containing a liquid and air, a foam-forming assembly mounted on or in the opening of the container, and a sealing cap arranged on the foam-forming assembly, wherein the foam-forming assembly comprises a dispensing passage to dispense a foam and a return air inlet passage for the introduction of air into the interior of the container to replace dispensed liquid and air, wherein the dispensing passage comprises a dispensing passage opening and wherein the return air inlet passage comprises a return air inlet opening, and wherein the foam-forming assembly further comprises a first screw thread, wherein the sealing cap comprises a second screw thread to cooperate with the first screw thread, wherein the sealing cap is rotatable about a screw axis defined by the first screw thread and the second screw thread between an open position and a closed position, and wherein, in the closed position, the dispensing passage opening and the return air inlet opening are sealingly closed by the sealing cap, and wherein, in the open position, the dispensing passage opening and the return air inlet opening are not sealingly closed by the sealing cap, characterized in that the return air inlet opening is a substantially radial opening with respect to the screw axis.