mhurhangee/ep-ind-claims huggingface dataset:
A control device, in particular for a domestic appliance, wherein: - the control device comprises at least one front panel, - the control device comprises at least one button panel arranged behind the front panel, - the control device comprises at least one switch being responsive to touching a switchable area on a front side of the front panel by a user, - the switch includes at least one light source element arranged at a rear side of the button panel and provided for illuminating the rear side of the front panel, - the switch includes at least one reflector element arranged behind the button panel and the at least one light source element and provided for reflecting the light from the at least one light source element to the rear side of the button panel, and - the button panel includes at least one cut-out (12, 14) corresponding with one switchable area of the switch or with more switchable areas of neighboured switches, so that the light can pass through the cut-out (12, 14) and the front panel out of the control device, wherein, the reflector element is formed as a half-shell and includes a first reflecting zone and a second reflecting zone, wherein the first reflecting zone is flat and arranged behind the at least one light source element and the second reflecting zone is concave shaped and arranged behind the cut-out (12, 14), and wherein at least one conductor track encloses the cut-out (12, 14) on a front side or rear side of the button panel, wherein the at least one conductor track is responsive to touching the switchable area in front of the cut-out. - the control device comprises at least one front panel, - the control device comprises at least one button panel arranged behind the front panel, - the control device comprises at least one switch being responsive to touching a switchable area on a front side of the front panel by a user, - the switch includes at least one light source element arranged at a rear side of the button panel and provided for illuminating the rear side of the front panel, - the switch includes at least one reflector element arranged behind the button panel and the at least one light source element and provided for reflecting the light from the at least one light source element to the rear side of the button panel, and - the button panel includes at least one cut-out (12, 14) corresponding with one switchable area of the switch or with more switchable areas of neighboured switches, so that the light can pass through the cut-out (12, 14) and the front panel out of the control device,
Operator control device having an operator control element with haptic feedback, wherein the operator control element which has one or more sensors can be activated by an operator by means of an inputting limb, by having a first and a second ferromagnetic two-dimensional component, which components are oriented with their large faces parallel to one another and can be moved relative to one another, wherein the first ferromagnetic two-dimensional component forms the operator control element or transmits its movement entirely or partially to the operator control element, having at least one flat coil which is arranged on a printed circuit board and is arranged between the ferromagnetic two-dimensional components with its plane parallel to the ferromagnetic two-dimensional components, and wherein the ferromagnetic two-dimensional components can be moved with respect to one another by energizing the flat coil, wherein the printed circuit board which bears the flat coil (5, 5') is permanently arranged on the face of the second ferromagnetic two-dimensional component facing the first ferromagnetic two-dimensional component, and wherein the printed circuit board is applied to the second ferromagnetic two-dimensional component using film technology.
A pixel arrangement with a shared blue light emitting layer, comprising m rows and n columns of first pixel units, m is a natural number larger than or equal to 2, n is a natural number larger than or equal to 2, and further comprising second pixel units, wherein each first pixel unit consists of one single blue light sub-pixel; and each second pixel unit comprises one red light sub-pixel, one green light sub-pixel and one yellow light sub-pixel arranged in a juxtaposed manner, characterised in that two columns of second pixel units are arranged between every two columns of first pixel units. each first pixel unit consists of one single blue light sub-pixel; and each second pixel unit comprises one red light sub-pixel, one green light sub-pixel and one yellow light sub-pixel arranged in a juxtaposed manner,
Screw conveyor, in particular for a separator device for dewatering moist masses, comprising - a shaft, which extends in axial direction along an axis of rotation and which is preferably not manufactured in an additive manufacturing process, wherein the shaft comprises or consists of metallic material, preferably steel, in particular stainless steel, - a screw flight (20, 30), which ∘ is arranged helically around the shaft, ∘ is connected to the shaft at the outer circumference of the shaft, ∘ and extends in an axial direction along at least a portion of the shaft, characterized in that the screw flight is a metallic structure additively manufactured on the shaft and has, on the outer circumference, an outer edge, in which a plurality of recesses spaced from each other for receiving fibrous materials are arranged, wherein the recesses are formed in the screw flight by interrupting the material application in the area of the recesses during the layer-by-layer application of metallic paths. - a shaft, which extends in axial direction along an axis of rotation and which is preferably not manufactured in an additive manufacturing process, wherein the shaft comprises or consists of metallic material, preferably steel, in particular stainless steel, - a screw flight (20, 30), which ∘ is arranged helically around the shaft, ∘ is connected to the shaft at the outer circumference of the shaft, ∘ and extends in an axial direction along at least a portion of the shaft, ∘ is arranged helically around the shaft, ∘ is connected to the shaft at the outer circumference of the shaft, ∘ and extends in an axial direction along at least a portion of the shaft, characterized in that the screw flight is a metallic structure additively manufactured on the shaft and has, on the outer circumference, an outer edge, in which a plurality of recesses spaced from each other for receiving fibrous materials are arranged, wherein the recesses are formed in the screw flight by interrupting the material application in the area of the recesses during the layer-by-layer application of metallic paths.
A component mounting device head unit comprising: a head main body; a nozzle configured to pick up a component, the nozzle being provided on the head main body; a drive source (58, 60, 61) configured to transfer moving power to at least one of the head main body and the nozzle; a cover covering the drive source (58, 60, 61); and a member connecting the cover to the drive source (58, 60, 61) or a frame of the drive source (58, 60, 61), the member being configured to allow heat generated by the drive source (58, 60, 61) to escape to the cover characterized by: said member is a heat transfer member; a camera configured to image a component held by the nozzle, the camera being provided at a location covered by the cover, wherein the heat transfer member connects a surface of the cover except for a surface facing the camera to the drive source (58, 60, 61) or the frame of the drive source (58, 60, 61). a head main body; a nozzle configured to pick up a component, the nozzle being provided on the head main body; a drive source (58, 60, 61) configured to transfer moving power to at least one of the head main body and the nozzle; a cover covering the drive source (58, 60, 61); and a member connecting the cover to the drive source (58, 60, 61) or a frame of the drive source (58, 60, 61), the member being configured to allow heat generated by the drive source (58, 60, 61) to escape to the cover said member is a heat transfer member; a camera configured to image a component held by the nozzle, the camera being provided at a location covered by the cover, wherein the heat transfer member connects a surface of the cover except for a surface facing the camera to the drive source (58, 60, 61) or the frame of the drive source (58, 60, 61).
A method for optimizing performance of one or more communication units (201, 202 1, 202 2, 202 N) by a remote server, the method comprising: collecting data from the one or more communication units (201, 202 1, 202 2, 202 N); generating a policy, for each of the one or more communication units (201, 202 1, 202 2, 202 N), based on the collected data, wherein the policy comprises conditions for when to implement one of two or more adaptation algorithms at the one or more communication units (201, 202 1, 202 2, 202 N); and sending the policy to each of the one or more communication units (201, 202 1, 202 2, 202 N), wherein the one or more communication units (201, 202 1, 202 2, 202 N) are arranged to execute the policy, according to the conditions and time-varying data, by implementing the adaptation algorithm. collecting data from the one or more communication units (201, 202 1, 202 2, 202 N); generating a policy, for each of the one or more communication units (201, 202 1, 202 2, 202 N), based on the collected data, wherein the policy comprises conditions for when to implement one of two or more adaptation algorithms at the one or more communication units (201, 202 1, 202 2, 202 N); and sending the policy to each of the one or more communication units (201, 202 1, 202 2, 202 N), wherein the one or more communication units (201, 202 1, 202 2, 202 N) are arranged to execute the policy, according to the conditions and time-varying data, by implementing the adaptation algorithm.
A computer-implemented method comprising: receiving multiple, partial incremental speech recognition hypotheses that each represent an incremental speech recognizer's top incremental speech recognition hypothesis at a different point in time; identifying a segment from one of the multiple, partial incremental speech recognition hypotheses; characterized by determining, from the multiple, partial incremental speech recognition hypotheses, how long the segment has persisted in the incremental speech recognizer's top incremental speech recognition hypothesis; and assigning, by one or more computers, a stability metric to the segment based on how long the segment has persisted in the incremental speech recognizer's top incremental speech recognition hypothesis. receiving multiple, partial incremental speech recognition hypotheses that each represent an incremental speech recognizer's top incremental speech recognition hypothesis at a different point in time; identifying a segment from one of the multiple, partial incremental speech recognition hypotheses; characterized by determining, from the multiple, partial incremental speech recognition hypotheses, how long the segment has persisted in the incremental speech recognizer's top incremental speech recognition hypothesis; and assigning, by one or more computers, a stability metric to the segment based on how long the segment has persisted in the incremental speech recognizer's top incremental speech recognition hypothesis.
A method for spectroscopic detection comprising: contacting a sensing component (104, 204, 304, 404, 504) of a sensor (100, 200, 300, 500, 602, 604, 606) with a fluid comprising a reactive component, the sensing component (104, 204, 304, 404, 504) comprising a reactive surface (110, 210, 310, 410, 510) on a substrate (108, 208, 308, 408, 508); wherein a composition of the substrate (108, 208, 308, 408, 508) is transparent to wavelengths of light and interacted light necessary for detecting a physisorption or chemisorption of the reactive component and the composition of the substrate (108, 208, 308, 408, 508) is inert to the reactive component; physisorbing, chemisorbing, or both the reactive component to the reactive surface (110, 210, 310, 410, 510) thereby causing a change to a band gap of the reactive surface (110, 210, 310, 410, 510); measuring one selected from the group consisting of the change to the band gap of the reactive surface (110, 210, 310, 410, 510), a rate of the change to the band gap of the reactive surface (110, 210, 310, 410, 510), and a combination thereof; and deriving a concentration of the reactive component based on the one selected from the group consisting of the change to the band gap of the reactive surface (110, 210, 310, 410, 510), the rate of the change to the band gap of the reactive surface (110, 210, 310, 410, 510), and the combination thereof. contacting a sensing component (104, 204, 304, 404, 504) of a sensor (100, 200, 300, 500, 602, 604, 606) with a fluid comprising a reactive component, the sensing component (104, 204, 304, 404, 504) comprising a reactive surface (110, 210, 310, 410, 510) on a substrate (108, 208, 308, 408, 508); wherein a composition of the substrate (108, 208, 308, 408, 508) is transparent to wavelengths of light and interacted light necessary for detecting a physisorption or chemisorption of the reactive component and the composition of the substrate (108, 208, 308, 408, 508) is inert to the reactive component; physisorbing, chemisorbing, or both the reactive component to the reactive surface (110, 210, 310, 410, 510) thereby causing a change to a band gap of the reactive surface (110, 210, 310, 410, 510); measuring one selected from the group consisting of the change to the band gap of the reactive surface (110, 210, 310, 410, 510), a rate of the change to the band gap of the reactive surface (110, 210, 310, 410, 510), and a combination thereof; and deriving a concentration of the reactive component based on the one selected from the group consisting of the change to the band gap of the reactive surface (110, 210, 310, 410, 510), the rate of the change to the band gap of the reactive surface (110, 210, 310, 410, 510), and the combination thereof.
A compact centrifugal air blower, configured for elevating an air cushion cargo shuttle of an aircraft cargo loading system, the compact centrifugal air blower comprising: an outlet; a first heat diffuser; a stator coupled to the first heat diffuser; an impeller concentrically surrounding the stator, wherein a magnet is physically coupled to the impeller; and a second heat diffuser coupled to the first heat diffuser and concentrically surrounding the impeller, the second heat diffuser comprising a vaned centrifugal compressor diffuser. an outlet; a first heat diffuser; a stator coupled to the first heat diffuser; an impeller concentrically surrounding the stator, wherein a magnet is physically coupled to the impeller; and a second heat diffuser coupled to the first heat diffuser and concentrically surrounding the impeller, the second heat diffuser comprising a vaned centrifugal compressor diffuser.
A gas turbine engine comprising: an engine core comprising a compressor; a compressor bleed valve (50, 51, 52) in communication with the compressor and configured to release bleed air from the compressor; at least one component provided at the inlet of the engine core having a de-icing conduit, configured to receive the bleed air; and a flow controller, configured to provide the bleed air to the de-icing conduit of the at least one component in response to either or both of a requirement to de-ice the component and a requirement to release bleed air from the compressor to optimise operation of the core; wherein the flow controller is configured to provide a first mass flow rate of bleed air when the bleed air is provided in response to a requirement to de-ice the component and a second mass flow rate of bleed air, different from the first mass flow rate, when the bleed air is provided in response to a requirement to release bleed air from the compressor to optimise operation of the core; wherein the flow controller is configured to provide the higher of the first and second mass flow rates of bleed air when the bleed air is required both for de-icing the component and to optimise operation of the core, wherein the flow controller comprises first and second valves (61, 62; 51, 52), the first and second valves (61, 62; 51, 52) arranged in parallel in the flow path of the bleed air; characterised in that each of the valves is configured to be set only to an open position or a closed position. an engine core comprising a compressor; a compressor bleed valve (50, 51, 52) in communication with the compressor and configured to release bleed air from the compressor; at least one component provided at the inlet of the engine core having a de-icing conduit, configured to receive the bleed air; and a flow controller, configured to provide the bleed air to the de-icing conduit of the at least one component in response to either or both of a requirement to de-ice the component and a requirement to release bleed air from the compressor to optimise operation of the core; wherein the flow controller is configured to provide a first mass flow rate of bleed air when the bleed air is provided in response to a requirement to de-ice the component and a second mass flow rate of bleed air, different from the first mass flow rate, when the bleed air is provided in response to a requirement to release bleed air from the compressor to optimise operation of the core; wherein the flow controller is configured to provide the higher of the first and second mass flow rates of bleed air when the bleed air is required both for de-icing the component and to optimise operation of the core, wherein the flow controller comprises first and second valves (61, 62; 51, 52), the first and second valves (61, 62; 51, 52) arranged in parallel in the flow path of the bleed air; characterised in that each of the valves is configured to be set only to an open position or a closed position.
Device for emitting and/or receiving signals intended to be transmitted in at least two symmetrical transmission frequency bands (1004, 1006) in relation to a first frequency of symmetry F CA and such that each one of the two transmission frequency bands (1004, 1006) comprises at least two channels (10, 12), or groups of channels (20, 22, 24, 26), symmetrical in relation to second frequencies of symmetry F CLA, F CUA, comprising at least: - first means (102, 116) able to generate a periodic signal of frequency F A, a periodic signal of frequency F B = F A /N1, a periodic signal of frequency F 1 equal to |F CA - F CLA | and a periodic signal of frequency F 2 equal to the difference between a central frequency of one of the channels or groups of channels and the second frequency of symmetry associated with said one of the channels or groups of channels, and wherein F A = N1.(F CLA + F 1)/(N1 + 1) with N1 a number greater than 1; - second means (130-152, 156-164) able to carry out a first non-linear operation between the periodic signals of frequencies F A and F 1 generating a first multitone signal of which the frequency spectrum comprises two main lines at frequencies F A -F 1 and F A +F 1, and able to carry out a second non-linear operation between the periodic signals of frequencies F B and F 2 generating a second multitone signal of which the frequency spectrum comprises two main lines at frequencies F B -F 2 and F B +F 2. - first means (102, 116) able to generate a periodic signal of frequency F A, a periodic signal of frequency F B = F A /N1, a periodic signal of frequency F 1 equal to |F CA - F CLA | and a periodic signal of frequency F 2 equal to the difference between a central frequency of one of the channels or groups of channels and the second frequency of symmetry associated with said one of the channels or groups of channels, and wherein F A = N1.(F CLA + F 1)/(N1 + 1) with N1 a number greater than 1; - second means (130-152, 156-164) able to carry out a first non-linear operation between the periodic signals of frequencies F A and F 1 generating a first multitone signal of which the frequency spectrum comprises two main lines at frequencies F A -F 1 and F A +F 1, and able to carry out a second non-linear operation between the periodic signals of frequencies F B and F 2 generating a second multitone signal of which the frequency spectrum comprises two main lines at frequencies F B -F 2 and F B +F 2.
A method of assembling a connecting package for a compressor, the method comprising: providing a base that has an exterior side and an interior side, the exterior side having a substantially planar surface that extends in an x-axis direction and in y-axis direction, the interior side having a first electric motor starter circuit support structure extending in a z-axis direction; via use of automated robotic equipment, placing circuit elements, of an electric motor starter circuit, along the z-axis direction into a first electric motor starter circuit support structure, the circuit elements comprising a triac, a positive temperature coefficient element, and a terminal for connection to the compressor; creating the electric motor starter circuit by welding circuit element leads within the first electric motor starter circuit support structure; and coupling a cover to the base, the cover including a second electric motor starter circuit support structure and a second overload protector mounting section, the cover and base together forming an enclosure of the electric motor starter circuit such that the electric motor starter circuit is firmly secured between the first electric motor starter circuit support structure and the second electric motor starter circuit support structure by action of opposing force from the electric motor starter circuit support structures when the cover is coupled to the base. providing a base that has an exterior side and an interior side, the exterior side having a substantially planar surface that extends in an x-axis direction and in y-axis direction, the interior side having a first electric motor starter circuit support structure extending in a z-axis direction; via use of automated robotic equipment, placing circuit elements, of an electric motor starter circuit, along the z-axis direction into a first electric motor starter circuit support structure, the circuit elements comprising a triac, a positive temperature coefficient element, and a terminal for connection to the compressor; creating the electric motor starter circuit by welding circuit element leads within the first electric motor starter circuit support structure; and coupling a cover to the base, the cover including a second electric motor starter circuit support structure and a second overload protector mounting section, the cover and base together forming an enclosure of the electric motor starter circuit such that the electric motor starter circuit is firmly secured between the first electric motor starter circuit support structure and the second electric motor starter circuit support structure by action of opposing force from the electric motor starter circuit support structures when the cover is coupled to the base.
A kit comprising a package and at least one cleaning article therein; said at least one cleaning article comprising tow fibers and at least one nonwoven sheet joined thereto to form a laminate duster; said package comprising flaccid material, said flaccid material defining at least one sidewall, said at least one sidewall comprising a dispensing sidewall having a first dispensing aperture therein for dispensing cleaning articles therethrough; said package further comprising a rigid dispensing panel joined to said dispensing sidewall, said dispensing panel having a second dispensing aperture aligned with said first dispensing aperture, whereby said laminate dusters are simultaneously dispensed through said first aperture and said second aperture.