mhurhangee/ep-ind-claims huggingface dataset:
Measuring station (2, 2'), configured to measure air quality, for outdoor installation in urban areas, - having a stand base for setting up the measuring station (2, 2') on a ground, - having a trunk-like structure extending upwards from the stand base, and - having a treetop-like structure at the upper end of the trunk-like structure, - wherein at least one measuring sensor (12, 12', 12") is integrated into the measuring station (2, 2') in such a way that measurement values of a measuring quantity for the air quality in the region of the treetop-like structure can be measured with the measuring sensor (12, 12', 12"), characterised - in that the treetop-like structure comprises a plurality of hollow spherical elements which define the outer shape of the treetop-like structure, - in that illumination means are provided and arranged for illuminating at least one, preferably several, of the spherical elements, the illumination means being arranged in the hollow spherical elements, and - in that a control device is provided, which is configured to control the illumination means as a function of the measurement values measured by the at least one measuring sensor (12, 12', 12"). - having a stand base for setting up the measuring station (2, 2') on a ground, - having a trunk-like structure extending upwards from the stand base, and - having a treetop-like structure at the upper end of the trunk-like structure, - wherein at least one measuring sensor (12, 12', 12") is integrated into the measuring station (2, 2') in such a way that measurement values of a measuring quantity for the air quality in the region of the treetop-like structure can be measured with the measuring sensor (12, 12', 12"), - in that the treetop-like structure comprises a plurality of hollow spherical elements which define the outer shape of the treetop-like structure, - in that illumination means are provided and arranged for illuminating at least one, preferably several, of the spherical elements, the illumination means being arranged in the hollow spherical elements, and - in that a control device is provided, which is configured to control the illumination means as a function of the measurement values measured by the at least one measuring sensor (12, 12', 12").
A pixel structure (100A and 100B), disposed on a substrate, and comprising: a bump, disposed on the substrate; a first insulating layer, disposed on the substrate and covering the bump, wherein the first insulating layer has a protruding portion where the first insulating layer covers the bump; a semiconductive layer, disposed on the protruding portion; a second insulating layer, disposed on the first insulating layer and the semiconductive layer, wherein the second insulating layer has a via positioned above the protruding portion and exposing the semiconductive layer; a metal layer, disposed on the second insulating layer and electrically connected to the semiconductive layer through the via, wherein the bump is present within a vertical projection of the metal layer on the substrate; and a pixel electrode, electrically connected to the semiconductive layer and characterized in that the bump is formed of a light-shielding material. a bump, disposed on the substrate; a first insulating layer, disposed on the substrate and covering the bump, wherein the first insulating layer has a protruding portion where the first insulating layer covers the bump; a semiconductive layer, disposed on the protruding portion; a second insulating layer, disposed on the first insulating layer and the semiconductive layer, wherein the second insulating layer has a via positioned above the protruding portion and exposing the semiconductive layer; a metal layer, disposed on the second insulating layer and electrically connected to the semiconductive layer through the via, wherein the bump is present within a vertical projection of the metal layer on the substrate; and a pixel electrode, electrically connected to the semiconductive layer and characterized in that the bump is formed of a light-shielding material.
Device (1, 50, 60), at least consisting of at least one input channel (6, 51, 65) for introducing a fluid into a chamber (7, 54, 62) and at least one output channel (11, 52, 66) for discharging the fluid from the chamber (7, 54, 62), wherein the chamber (7, 54, 62) has at least two electrodes for generating an electrical field in the chamber (7, 54, 62), which are in contact with the interior (10, 53, 67) of the chamber (7, 54, 62), characterised in that the average inside diameter of the input channel (6, 51, 65) is smaller than the average inside diameter of the output channel (11, 52, 66).
A radar system that comprises processing circuitry, the processing circuitry configured to perform acts comprising: computing, for a temporal detection window and based upon a frequency-modulated continuous wave (FMCW) signal emitted by the radar system: a velocity for a detection in a scene; and a direction of the detection relative to the radar system; generating a velocity-direction histogram for the detection window, wherein the velocity-direction histogram comprises bins, and further wherein the detection is assigned to a bin in the bins based upon: the velocity assigned to the detection; and the direction of the detection relative to the radar system; identifying the detection as being caused by an interfering signal based upon a number of detections assigned to the bin in the velocity-direction histogram for the detection window; and generating, based upon the FMCW signal, output data that identifies detections in the scene, wherein the detections identified in the output data fail to include the detection identified as being caused by the interfering signal. computing, for a temporal detection window and based upon a frequency-modulated continuous wave (FMCW) signal emitted by the radar system: a velocity for a detection in a scene; and a direction of the detection relative to the radar system; a velocity for a detection in a scene; and a direction of the detection relative to the radar system; generating a velocity-direction histogram for the detection window, wherein the velocity-direction histogram comprises bins, and further wherein the detection is assigned to a bin in the bins based upon: the velocity assigned to the detection; and the direction of the detection relative to the radar system; the velocity assigned to the detection; and the direction of the detection relative to the radar system; identifying the detection as being caused by an interfering signal based upon a number of detections assigned to the bin in the velocity-direction histogram for the detection window; and generating, based upon the FMCW signal, output data that identifies detections in the scene, wherein the detections identified in the output data fail to include the detection identified as being caused by the interfering signal.
A compound of the Formula or a pharmaceutically acceptable salt thereof, wherein B is pyridyl or quinolinyl; wherein B is unsubstituted or substituted by 1 to 3 R 3 moieties, wherein each R 3 moiety is independently selected from the group consisting of C 1 -C 3 alkyl, C 1 -C 3 alkoxy, C 1 -C 3 fluoroalkyl, C 1 -C 3 hydroxyalkyl, halo, hydroxy, amino, (C 1 -C 3 alkyl)amino, di(C 1 -C 3 alkyl)amino, and E; wherein E is a 5-membered heteroaryl containing 1 to 3 N atoms, wherein E is unsubstituted or substituted by 1 to 2 moieties independently selected from the group consisting of C 1 -C 3 alkyl; A is selected from the group consisting of: (a) wherein Y is -CH 2 - or -O-; R 11 and R 12 are independently H or F; and n' is 0 or 1; and (b) wherein R a and R b are independently H or C 1 -C 6 alkyl; R c is H, C 1 -C 6 alkyl, C 1 -C 3 fluoroalkyl, C 3 -C 6 cycloalkyl, or -(CH 2) r OR 13, wherein R 13 is H or C 1 -C 3 alkyl; and r is 1 or 2; R d is H or C 1 -C 6 alkyl, or R c and R d together with the carbon atom to which they are attached form a group of the formula wherein p is 1 or 2. wherein B is unsubstituted or substituted by 1 to 3 R 3 moieties, wherein each R 3 moiety is independently selected from the group consisting of C 1 -C 3 alkyl, C 1 -C 3 alkoxy, C 1 -C 3 fluoroalkyl, C 1 -C 3 hydroxyalkyl, halo, hydroxy, amino, (C 1 -C 3 alkyl)amino, di(C 1 -C 3 alkyl)amino, and E; wherein E is a 5-membered heteroaryl containing 1 to 3 N atoms, wherein E is unsubstituted or substituted by 1 to 2 moieties independently selected from the group consisting of C 1 -C 3 alkyl; (a) wherein Y is -CH 2 - or -O-; R 11 and R 12 are independently H or F; and n' is 0 or 1; and Y is -CH 2 - or -O-; R 11 and R 12 are independently H or F; and n' is 0 or 1; and (b) wherein R a and R b are independently H or C 1 -C 6 alkyl; R c is H, C 1 -C 6 alkyl, C 1 -C 3 fluoroalkyl, C 3 -C 6 cycloalkyl, or -(CH 2) r OR 13, wherein R 13 is H or C 1 -C 3 alkyl; and r is 1 or 2; R d is H or C 1 -C 6 alkyl, or R c and R d together with the carbon atom to which they are attached form a group of the formula wherein p is 1 or 2. R a and R b are independently H or C 1 -C 6 alkyl; R c is H, C 1 -C 6 alkyl, C 1 -C 3 fluoroalkyl, C 3 -C 6 cycloalkyl, or -(CH 2) r OR 13, wherein R 13 is H or C 1 -C 3 alkyl; and r is 1 or 2; R d is H or C 1 -C 6 alkyl, or R c and R d together with the carbon atom to which they are attached form a group of the formula wherein p is 1 or 2.
A method for eliminating echoes, characterized by comprising: estimating at least one echo path characteristic parameter of an echo signal; taking a source signal of the echo signal as a reference signal, and generating an echo estimation signal according to the at least one echo path characteristic parameter; and subtracting the echo estimation signal from a speech signal to be processed, wherein estimating the at least one echo path characteristic parameter of the echo signal comprises: obtaining a time delay of an echo signal in the speech signal to be processed; obtaining a power error between a power of the speech signal to be processed at a previous moment and a power of the speech signal to be processed at a current moment; and estimating the at least one echo path characteristic parameter of the echo signal according to the time delay and the power error. estimating at least one echo path characteristic parameter of an echo signal; taking a source signal of the echo signal as a reference signal, and generating an echo estimation signal according to the at least one echo path characteristic parameter; and subtracting the echo estimation signal from a speech signal to be processed, wherein estimating the at least one echo path characteristic parameter of the echo signal comprises: obtaining a time delay of an echo signal in the speech signal to be processed; obtaining a power error between a power of the speech signal to be processed at a previous moment and a power of the speech signal to be processed at a current moment; and estimating the at least one echo path characteristic parameter of the echo signal according to the time delay and the power error.
An ear-worn electronic device (100, 200) configured to be worn by a wearer, comprising: a housing (102, 202) configured to be supported in, on or about an ear of the wearer; electronic circuitry (104, 204) disposed in the housing (102, 202) and comprising a processor (106, 206); a power source (108, 208) and a receiver or a speaker (110, 210) respectively disposed in or on the housing (102, 202); and a microphone array (120, 220) disposed in or on the housing (102, 202) and operatively coupled to the electronic circuitry (104,204), the microphone array (120, 220) comprises a plurality of microphones (122, 222); wherein the processor (106, 206) is configured to: operate a set of two or more of the microphones (122, 222) in a directional mode; detect degradation in performance of any microphone of the microphone set (122, 222); and switch microphone operation from the directional mode to a safe mode in response to detecting the microphone performance degradation, wherein the safe mode is a second directional mode that uses at least two non-degraded microphones of the microphone set (122, 222). a housing (102, 202) configured to be supported in, on or about an ear of the wearer; electronic circuitry (104, 204) disposed in the housing (102, 202) and comprising a processor (106, 206); a power source (108, 208) and a receiver or a speaker (110, 210) respectively disposed in or on the housing (102, 202); and a microphone array (120, 220) disposed in or on the housing (102, 202) and operatively coupled to the electronic circuitry (104,204), the microphone array (120, 220) comprises a plurality of microphones (122, 222); wherein the processor (106, 206) is configured to: operate a set of two or more of the microphones (122, 222) in a directional mode; detect degradation in performance of any microphone of the microphone set (122, 222); and switch microphone operation from the directional mode to a safe mode in response to detecting the microphone performance degradation, wherein the safe mode is a second directional mode that uses at least two non-degraded microphones of the microphone set (122, 222). operate a set of two or more of the microphones (122, 222) in a directional mode; detect degradation in performance of any microphone of the microphone set (122, 222); and switch microphone operation from the directional mode to a safe mode in response to detecting the microphone performance degradation, wherein the safe mode is a second directional mode that uses at least two non-degraded microphones of the microphone set (122, 222).
Fastening system for an integrated sliding rail of a door drive, for fastening the sliding rail in a cutout provided in the door frame or in the door leaf, comprising at least one clamping unit which comprises a clamping element which can be inserted into a terminal end of the sliding rail, characterized in that a clamping jaw, which is mounted so as to be displaceable generally in the longitudinal direction of the sliding rail, and actuating means are arranged in the clamping element, via which actuating means the clamping jaw can be pressed against the adjacent end side of the cutout.
A curved display apparatus comprising: a display panel to display an image thereon; and a rear chassis arranged at a rear side of the display panel, wherein the rear chassis is curved about a central portion so that left and right portions either side of the central portion are configured further forward towards a viewer than the central portion, and the rear chassis includes a backplate; the rear chassis comprises an upper edge member removably coupled to an upper edge of the backplate, and a lower edge member removably coupled to a lower edge of the backplate, characterised in that: when uncoupled the curved shape of either the backplate or the upper and lower edge members (162,163) do not correspond to the curvature of the rear chassis. a display panel to display an image thereon; and a rear chassis arranged at a rear side of the display panel, wherein the rear chassis is curved about a central portion so that left and right portions either side of the central portion are configured further forward towards a viewer than the central portion, and the rear chassis includes a backplate; the rear chassis comprises an upper edge member removably coupled to an upper edge of the backplate, and a lower edge member removably coupled to a lower edge of the backplate, characterised in that: when uncoupled the curved shape of either the backplate or the upper and lower edge members (162,163) do not correspond to the curvature of the rear chassis.
Method for designing, configuring and maintaining a drive device, wherein a central database is provided for application programs (4 to 7) used for designing, configuring and maintaining the drive device, in which database data is stored as temporal data and can be read and supplemented by the application programs (4 to 7), characterised in that configuration rules, dependent on a life cycle phase of the drive device, for an execution and/or an extent of a configuration change to the configuration of the drive device are defined and a simulation program is provided from which the data stored in the central database is read and used for a drive simulation of the drive device and the operation thereof.
A hydraulic circuit for a construction machine, comprising: a hydraulic pump (17, 18) that discharges hydraulic oil; a hydraulic cylinder having a head-side chamber and a rod-side chamber and configured to be extended and retracted by hydraulic oil supplied from the hydraulic pump (17, 18) to the head-side chamber and the rod-side chamber; a control valve disposed between the hydraulic pump (17, 18) and the hydraulic cylinder and operated to control supply and discharge of the hydraulic oil to and from the hydraulic cylinder; a head-side pipeline connecting the head-side chamber of the hydraulic cylinder to the control valve; a rod-side pipeline connecting the rod-side chamber of the hydraulic cylinder to the control valve; a return pipeline connecting the control valve to a tank; a back-pressure valve provided to the return pipeline; an oil cooler provided to the return pipeline; and a tank direct-communication line other than the return pipeline, the tank direct-communication line providing direct communication between the control valve and the tank, characterized in that the control valve has a first return flow path that leads return oil flowed from the head-side chamber of the hydraulic cylinder to the tank direct-communication line and a second return flow path that leads return oil flowed from the rod-side chamber of the hydraulic cylinder to the return pipeline. a hydraulic pump (17, 18) that discharges hydraulic oil; a hydraulic cylinder having a head-side chamber and a rod-side chamber and configured to be extended and retracted by hydraulic oil supplied from the hydraulic pump (17, 18) to the head-side chamber and the rod-side chamber; a control valve disposed between the hydraulic pump (17, 18) and the hydraulic cylinder and operated to control supply and discharge of the hydraulic oil to and from the hydraulic cylinder; a head-side pipeline connecting the head-side chamber of the hydraulic cylinder to the control valve; a rod-side pipeline connecting the rod-side chamber of the hydraulic cylinder to the control valve; a return pipeline connecting the control valve to a tank; a back-pressure valve provided to the return pipeline; an oil cooler provided to the return pipeline; and a tank direct-communication line other than the return pipeline, the tank direct-communication line providing direct communication between the control valve and the tank, characterized in that the control valve has a first return flow path that leads return oil flowed from the head-side chamber of the hydraulic cylinder to the tank direct-communication line and a second return flow path that leads return oil flowed from the rod-side chamber of the hydraulic cylinder to the return pipeline.
An information processing apparatus, comprising: a control unit which performs a control for switching a display state of a display screen for operating an imaging apparatus (100, 101) based on a relative position relationship with the imaging apparatus, wherein the control unit performs a control for switching the display state of the display screen based on a distance between the information processing apparatus and the imaging apparatus, and wherein when the distance between the imaging apparatus and the information processing apparatus is a threshold or more, the control unit is adapted to cause an over-threshold display screen to be displayed, wherein when the distance between the imaging apparatus and the information processing apparatus is less than the threshold, the control unit causes an under-threshold display screen to be displayed, wherein each of the over-threshold display screen and the under-threshold display screen comprise operation objects for operating the imaging apparatus, and wherein a number, type or position of operation objects for performing an operation input on the display screen is dependent on the display state.
A turbine engine component (100; 200; 300) comprising: a fore edge (112; 212; 340) connected to an aft edge (114; 214; 342) via a first surface (118; 218; 350) and a second surface (116; 216); a plurality of cooling passages (240; 320) defined within the turbine engine component; a skin core passage (250; 310) defined immediately adjacent said first surface (118; 218; 350); and a plurality of pedestals (262; 360) distributed through said skin core passage (250; 310) and interrupting a flow path through said skin core passage (250; 310), wherein at least one pedestal (262; 360) in said plurality of pedestals (262; 360) includes a film cooling hole (260; 362) defined at least partially within the pedestal (262; 360), the film cooling hole (260; 362) connecting one of said plurality of cooling passages (240; 320) to said first surface (118; 218; 350); characterised in that: said film cooling hole (260; 362) connects a first cooling air flow path internal to said turbine engine component to said first surface (118; 218; 350); said skin core passage (250; 310) receives cooling air from a second cooling air flow path internal to said turbine engine component; and said second cooling air flow path is a low pressure cooling air flow path relative to said first cooling air flow path. a fore edge (112; 212; 340) connected to an aft edge (114; 214; 342) via a first surface (118; 218; 350) and a second surface (116; 216); a plurality of cooling passages (240; 320) defined within the turbine engine component; a skin core passage (250; 310) defined immediately adjacent said first surface (118; 218; 350); and a plurality of pedestals (262; 360) distributed through said skin core passage (250; 310) and interrupting a flow path through said skin core passage (250; 310), wherein at least one pedestal (262; 360) in said plurality of pedestals (262; 360) includes a film cooling hole (260; 362) defined at least partially within the pedestal (262; 360), the film cooling hole (260; 362) connecting one of said plurality of cooling passages (240; 320) to said first surface (118; 218; 350); said film cooling hole (260; 362) connects a first cooling air flow path internal to said turbine engine component to said first surface (118; 218; 350); said skin core passage (250; 310) receives cooling air from a second cooling air flow path internal to said turbine engine component; and said second cooling air flow path is a low pressure cooling air flow path relative to said first cooling air flow path.