mhurhangee/ep-ind-claims huggingface dataset:
Vehicle door handle assembly comprising: - a bowl configured to be mounted in an opening of a door panel, - a bracket configured to fasten the bowl to the door panel, - a switch module which can be activated by a finger of a user introduced within a recess of the bowl to open the vehicle door, wherein the vehicle door handle assembly further comprises: - a plastic intermediate force-transmitting member inserted between the door panel and the switch module, the plastic intermediate force-transmitting member being in contact with the door panel, at least along a contact surface of the plastic intermediate force-transmitting member, in order to transmit efforts coming from the switch module to the door panel, characterized in that: - the switch module is mounted on the bracket in an opening of the bowl, - the plastic intermediate force-transmitting member prevents the deformation of the switch module. - a bowl configured to be mounted in an opening of a door panel, - a bracket configured to fasten the bowl to the door panel, - a switch module which can be activated by a finger of a user introduced within a recess of the bowl to open the vehicle door, wherein the vehicle door handle assembly further comprises: - a plastic intermediate force-transmitting member inserted between the door panel and the switch module, the plastic intermediate force-transmitting member being in contact with the door panel, at least along a contact surface of the plastic intermediate force-transmitting member, in order to transmit efforts coming from the switch module to the door panel, - a plastic intermediate force-transmitting member inserted between the door panel and the switch module, the plastic intermediate force-transmitting member being in contact with the door panel, at least along a contact surface of the plastic intermediate force-transmitting member, in order to transmit efforts coming from the switch module to the door panel, characterized in that: - the switch module is mounted on the bracket in an opening of the bowl, - the plastic intermediate force-transmitting member prevents the deformation of the switch module. - the switch module is mounted on the bracket in an opening of the bowl, - the plastic intermediate force-transmitting member prevents the deformation of the switch module.
An exhaust article, comprising: a wall flow substrate comprising an inlet end, an outlet end, having a length extending between the inlet end to the outlet end and a plurality of passages defined by the internal walls of the wall flow substrate; wherein some of the passages have an opening at the inlet end and are plugged at the outlet end, and some of the passages have an opening at the outlet end and are plugged at the inlet end; a first catalyst coating disposed on the internal walls of the wall flow substrate from the outlet end to a first coating end and extending for at least part of the length of the wall flow substrate; wherein the first catalyst coating comprises a first co-formed ceria-zirconia-praseodymia composite and a first refractory metal oxide; and a second catalyst coating disposed on the internal walls of the wall flow substrate from the inlet end to a second coating end, thereby defining an inlet zone, wherein the inlet zone is no more than 50% of the length of the wall-flow substrate; wherein the second catalyst coating comprises a second platinum group metal component, wherein the permeability of the first catalyst coating composition and the second catalyst coating composition is adjusted to assure homogeneous permeability on the internal walls along the substrate's axial length. a wall flow substrate comprising an inlet end, an outlet end, having a length extending between the inlet end to the outlet end and a plurality of passages defined by the internal walls of the wall flow substrate; wherein some of the passages have an opening at the inlet end and are plugged at the outlet end, and some of the passages have an opening at the outlet end and are plugged at the inlet end; a first catalyst coating disposed on the internal walls of the wall flow substrate from the outlet end to a first coating end and extending for at least part of the length of the wall flow substrate; wherein the first catalyst coating comprises a first co-formed ceria-zirconia-praseodymia composite and a first refractory metal oxide; and a second catalyst coating disposed on the internal walls of the wall flow substrate from the inlet end to a second coating end, thereby defining an inlet zone, wherein the inlet zone is no more than 50% of the length of the wall-flow substrate; wherein the second catalyst coating comprises a second platinum group metal component, wherein the permeability of the first catalyst coating composition and the second catalyst coating composition is adjusted to assure homogeneous permeability on the internal walls along the substrate's axial length.
A rear surface structure configured to be positioned at a rear portion of an oven such that it contacts lower and upper surfaces as well as side surfaces of the cooking chamber, wherein said rear surface structure comprises an air duct in the form of a round gap positioned right at the middle portion of the rear surface structure, a fan located on a point around the air duct such that it is close to the air duct and configured to suck the air to be heated from inside the cooking chamber, a circumferential helical duct provided on the surface at a rear side of the air duct, positioned such that it completely surrounds edge surface of the air duct and having a helix gap shaped inner structure having a diameter big enough for passage of air, an end of the circumferential helical duct being connected to the fan and enclosing it such that the air to be heated, sucked by the fan from inside the cooking chamber enters into the circumferential helical duct, wherein the helix inner structure of the circumferential helical duct is such that the air performs a cyclonic motion while passing through the circumferential helical duct, a resistor located inside the circumferential helical duct close to the fan such that air to be heated, sucked by fan passes through the resistor immediately before entering into the inner structure, in the form of helix gap, of the circumferential helical duct and ensuring that air is heated, a distribution hole located on an inner surface at an inner side of the circumferential helical duct, such that air sucked by the fan exits from the distribution hole by passing through the circumferential helical duct and continues to perform a cyclonic motion towards the center of the cooking chamber after being discharged from the distribution hole.
Non-track-bound, electrically driven vehicle comprising - a current collector for feeding electrical energy from a two-pole overhead line, which has an articulated support linkage which supports a contact rocker with a contact strip on the contact wire side and which on the vehicle side is coupled to a lift drive for setting up the support linkage and for pressing the contact rocker onto a contact wire of the overhead line system, - a recording facility for recording a lateral position of a contact point of the contact wire on the contact strip and - a driver assistance system for executing an automatic steering intervention as a function of the recorded lateral position of the contact point, characterised in that - the contact strip is braced against the contact rocker via at least two spring elements, and - the recording facility has two path sensors for measuring compression paths (15L, 15R) of the spring elements and an evaluation unit connected to the path sensors for ascertaining the lateral position of the contact point from sensor signals representing the measured compression paths (15L, 15R). - a current collector for feeding electrical energy from a two-pole overhead line, which has an articulated support linkage which supports a contact rocker with a contact strip on the contact wire side and which on the vehicle side is coupled to a lift drive for setting up the support linkage and for pressing the contact rocker onto a contact wire of the overhead line system, - a recording facility for recording a lateral position of a contact point of the contact wire on the contact strip and - a driver assistance system for executing an automatic steering intervention as a function of the recorded lateral position of the contact point, - the contact strip is braced against the contact rocker via at least two spring elements, and - the recording facility has two path sensors for measuring compression paths (15L, 15R) of the spring elements and an evaluation unit connected to the path sensors for ascertaining the lateral position of the contact point from sensor signals representing the measured compression paths (15L, 15R).
A method of providing a building material consumption information in the context of a manufacturing of at least one three-dimensional object by means of a layer-wise additive manufacturing device, wherein in the layer-wise additive manufacturing device the at least one object is manufactured layer by layer by applying a layer of a building material in powder form layer-wise on a support or an already existing layer of the building material by means of a recoater and by solidifying the building material in parts by a supply of heat to those positions of the layer that correspond to the cross-section of an object by selectively scanning the layer with energy radiation, wherein the method comprises at least the following steps: a step of accessing data of a layer to be applied in a first dataset, in which first dataset for each layer to be applied during the manufacturing it is indicated, whether in such layer there shall be a selective solidification of building material and, if that is the case, at which positions in such layer building material shall be solidified, a step of dividing the area of the layer to be applied into subareas, a step of assigning weighting factors (w ij) to the subareas, a step of specifying an amount of building material to be supplied to the recoater for the application of the layer, wherein the amount of building material is determined based on the weighting factors (w ij) assigned to the individual subareas and is provided as building material consumption information wherein the subareas are covering the area of the layer to be applied without gaps in the form of a tessellation. a step of accessing data of a layer to be applied in a first dataset, in which first dataset for each layer to be applied during the manufacturing it is indicated, whether in such layer there shall be a selective solidification of building material and, if that is the case, at which positions in such layer building material shall be solidified, a step of dividing the area of the layer to be applied into subareas, a step of assigning weighting factors (w ij) to the subareas, a step of specifying an amount of building material to be supplied to the recoater for the application of the layer, wherein the amount of building material is determined based on the weighting factors (w ij) assigned to the individual subareas and is provided as building material consumption information wherein the subareas are covering the area of the layer to be applied without gaps in the form of a tessellation.
A plating equipment comprising: a jig holding a wafer, to be plated at a center of a plating bath such that the wafer is vertically immersed into a plating solution in the plating bath; a first plating unit including a plurality of anode members performing electroplating; and a second plating unit including a light source receiving unit physically blocked from the first plating unit, on both side surfaces of the plating bath, the second plating unit performing light-induced plating by using a light emitting diode lamp irradiating light onto the wafer, characterized in that the plurality of anode members are symmetrically disposed on both sides of the plating bath facing the wafer, the second plating unit is disposed behind the anode members, the plurality of anode members have the same width and spaced apart from one another at the same distance as the width of each of the anode members in the plating bath, and when the light-induced plating is performed, the jig is controlled to move the wafer in a direction parallel to that of the anode member in the plating solution so that an area on which reception of light emitted from the light emitting diode lamp is disrupted due to a position of the anode member is uniformly distributed on the surface of the wafer. a jig holding a wafer, to be plated at a center of a plating bath such that the wafer is vertically immersed into a plating solution in the plating bath; a first plating unit including a plurality of anode members performing electroplating; and a second plating unit including a light source receiving unit physically blocked from the first plating unit, on both side surfaces of the plating bath, the second plating unit performing light-induced plating by using a light emitting diode lamp irradiating light onto the wafer, characterized in that the plurality of anode members are symmetrically disposed on both sides of the plating bath facing the wafer, the second plating unit is disposed behind the anode members, the plurality of anode members have the same width and spaced apart from one another at the same distance as the width of each of the anode members in the plating bath, and when the light-induced plating is performed, the jig is controlled to move the wafer in a direction parallel to that of the anode member in the plating solution so that an area on which reception of light emitted from the light emitting diode lamp is disrupted due to a position of the anode member is uniformly distributed on the surface of the wafer.
Pulse controlled linear actuator comprising a working cylinder for receiving a medium introduced through a valve system by a compressor/pump, a piston moving freely in the working cylinder, the piston shank of the piston represents the output of the actuator, said actuator further comprising a central solenoid, the actuator characterized in that, positioned at least above and under said central solenoid upper and lower separated iron cores are arranged in pairs which are moved alternately by means of said central solenoid and by means of upper and lower solenoids which are arranged in pairs, said central solenoid and said iron cores are arranged between said upper and lower solenoids, said iron cores form a compressor/pump having two separate medium spaces (14, 15), from the space being between said upper and lower iron cores said first medium space is led through a first inlet of an upper controlled dual inlet valve into the portion of said working cylinder which is above said piston, and in addition it is led through a first inlet of a lower controlled dual inlet valve into the portion of said working cylinder which is under said piston; the second medium space is separated from the space being between said upper and lower iron cores by said iron cores, and is led through a second inlet of said upper controlled dual inlet valve into the portion of said working cylinder which is above said piston, and in addition it is led through the second inlet of said lower controlled dual inlet valve into the portion of said working cylinder which is under said piston; and said upper and lower controlled valves (4, 8) are counter-phase or phase pulse controlled.
A utility vehicle superstructure with an air or gas delivery means, which comprises an inflow region and an outflow region, wherein downstream of the outflow region an air diffuser and downstream of the same an air outflow device provided in the region of the roof is arranged, wherein the air diffuser comprises multiple diffuser ducts, which are connected to the air outflow device, characterized in that the diffuser ducts are arranged fanlike in the air diffuser.
Fuel cell for carrying out transmission X-ray absorption measurements, comprising a first (planar) electrode with a first catalyst and a second (planar) electrode with a second catalyst as well as an electrolyte membrane with a layer thickness l m arranged between the electrodes, characterised in that - the first electrode has at least one catalyst-free, circular area with a radius R 1 max and - the second electrode has at least one catalyst-free, circular area with a radius R 2 < R 1 max, in which R 2 ≥R 1 max - l m and R 2 > 0. - the first electrode has at least one catalyst-free, circular area with a radius R 1 max and - the second electrode has at least one catalyst-free, circular area with a radius R 2 < R 1 max,
A display apparatus (1000, 1001, 1002) formed by a display module (DPM, DPM-1, DPM-2) and a set module, the display module (DPM, DPM-1, DPM-2) comprising: a display panel, a window member on the display panel and having an area greater than an area of the display panel, and a magnetic member (300, 301, 302) attached to at least one of the display panel and the window member; and the set module comprising: a set bracket; an electro magnet (500, 501, 502) fixed to a front surface of the set bracket, and a rear case located at a rear surface of the set bracket opposed to the front surface and coupled to the window member wherein the set module is configured to be coupled to the display module (DPM, DPM-1, DPM-2) in a first mode and decoupled from the display module (DPM, DPM-1, DPM-2) in a second mode, wherein the display apparatus (1000, 1001, 1002) is configured to enter the second mode from the first mode if an impact equal to or greater than a reference value is detected or is expected to be applied to the display apparatus (1000, 1001, 1002) after a period of time. a display panel, a window member on the display panel and having an area greater than an area of the display panel, and a magnetic member (300, 301, 302) attached to at least one of the display panel and the window member; a set bracket; an electro magnet (500, 501, 502) fixed to a front surface of the set bracket, and a rear case located at a rear surface of the set bracket opposed to the front surface and coupled to the window member
A silicon carbide semiconductor device comprising: an insulation film, and a silicon carbide layer having a surface covered with said insulation film and having a trench formed at said surface, said trench including a first side face, said first side face having a first plane orientation at least partially, an off orientation of said first plane orientation to a plane being within a range of ± 5° to a <1-100> direction, an off angle of said first plane orientation to a plane in the <1-100> direction being greater than or equal to - 3° and less than or equal to 3°, and an inclination of said first plane orientation to a plane being less than 90°, said trench including a second side face adjacent to said first side face, said second side face having a second plane orientation different from said first plane orientation, at least partially, an off orientation of said second plane orientation to a plane being within the range of ± 5° to a <1-100> direction, an off angle of said second plane orientation to a plane in the <1-100> direction being greater than or equal to - 3° and less than or equal to 3°, and an inclination of said second plane orientation to a plane being less than 90°, characterised in that: a main surface (TS, MS) of the silicon carbide layer has an off angle within 5° to the plane. an insulation film, and a silicon carbide layer having a surface covered with said insulation film and having a trench formed at said surface, said trench including a first side face, said first side face having a first plane orientation at least partially, an off orientation of said first plane orientation to a plane being within a range of ± 5° to a <1-100> direction, an off angle of said first plane orientation to a plane in the <1-100> direction being greater than or equal to - 3° and less than or equal to 3°, and an inclination of said first plane orientation to a plane being less than 90°, said trench including a second side face adjacent to said first side face, said second side face having a second plane orientation different from said first plane orientation, at least partially, an off orientation of said second plane orientation to a plane being within the range of ± 5° to a <1-100> direction, an off angle of said second plane orientation to a plane in the <1-100> direction being greater than or equal to - 3° and less than or equal to 3°, and an inclination of said second plane orientation to a plane being less than 90°, characterised in that: a main surface (TS, MS) of the silicon carbide layer has an off angle within 5° to the plane.
A system comprising an encoder and a decoder for conveying the sound of an audio capture, wherein the encoder is adapted to furnish a digital audio signal at a transmission sample rate from a signal representing the audio capture, and the decoder is adapted to receive the digital audio signal and furnish a reconstructed signal, wherein the encoder comprises a downsampler adapted to receive the signal representing the audio capture at a first sample rate which is a multiple of the transmission sample rate and to downsample the signal to furnish the digital audio signal; and, wherein an impulse response of the encoder and decoder in combination is characterised by a duration for its cumulative absolute response to rise from 1% to 95% of its final value not exceeding five sample periods at the transmission sample rate, wherein the cumulative absolute response is a time integration of the absolute magnitude of the impulse response. wherein the encoder comprises a downsampler adapted to receive the signal representing the audio capture at a first sample rate which is a multiple of the transmission sample rate and to downsample the signal to furnish the digital audio signal; and, wherein an impulse response of the encoder and decoder in combination is characterised by a duration for its cumulative absolute response to rise from 1% to 95% of its final value not exceeding five sample periods at the transmission sample rate, wherein the cumulative absolute response is a time integration of the absolute magnitude of the impulse response.