mhurhangee/ep-ind-claims huggingface dataset:
A method implemented by a control system of an ego-vehicle, the method comprising: receiving (700, 800) sensor signal data comprising stationary and non-stationary detections from a surrounding environment of the ego-vehicle; determining at least one group of stationary detections which meet one or more lateral position selection criteria based on the lateral position of each stationary detection from a direction faced by the ego-vehicle; determining at least one group of stationary detections which meet one or more group regularity selection criteria based on the regularity of the differences in position between pairs of sequentially positioned stationary detections in the group in the direction faced by the ego vehicle; determining one or more groups of stationary detections which meet the lateral selection criteria and the group regularity selection criteria for being a group of stationary detections corresponding to at least one stationary object; and characterized by removing the stationary detections meeting both selection criteria and corresponding to at least one pre-determined type of stationary object from the sensor signal data output to one or more data processing components of the control system. receiving (700, 800) sensor signal data comprising stationary and non-stationary detections from a surrounding environment of the ego-vehicle; determining at least one group of stationary detections which meet one or more lateral position selection criteria based on the lateral position of each stationary detection from a direction faced by the ego-vehicle; determining at least one group of stationary detections which meet one or more group regularity selection criteria based on the regularity of the differences in position between pairs of sequentially positioned stationary detections in the group in the direction faced by the ego vehicle; determining one or more groups of stationary detections which meet the lateral selection criteria and the group regularity selection criteria for being a group of stationary detections corresponding to at least one stationary object; and characterized by removing the stationary detections meeting both selection criteria and corresponding to at least one pre-determined type of stationary object from the sensor signal data output to one or more data processing components of the control system.
A structural steel having excellent brittle crack propagation resistance, the structural steel consisting of, by wt%, 0.02 to 0.12% of C, 0.01 to 0.8% of Si, 1.7 to 2.5% of Mn, 0.005 to 0.5% of Al, and optionally further including, by wt%, one or two or more of 0.02% or less of P, 0.01% or less of S, 0.005 to 0.10% of Nb, 0.001% or less of B, 0.005 to 0.1% of Ti, 0.0015 to 0.015% of N, 0.05 to 1.0% of Cr, 0.01 to 1.0% of Mo, 0.01 to 2.0% of Ni, 0.01 to 1.0% of Cu, 0.005 to 0.3% of V, and 0.006% or less of Ca and the balance of Fe and inevitable impurities, wherein a surface part and a center part thereof are microstructurally distinguished in a thickness direction, wherein the surface part includes tempered bainite as a basic structure, fresh martensite as a second structure, and austenite as a residual structure, the basic structure and the second structure being included in a volume fraction of 95% or greater in the surface part, wherein the center part includes, by volume fraction, 95% or more of acicular ferrite, wherein the steel has 2% or greater of a Mn equivalent represented by Mn eq of Equation 1 below: Mn eq = Mn + 1.5 Cr + 3 Mo + Si / 3 + Ni / 3 + Cu / 2 + 124 B wherein [Mn], [Cr], [Mo], [Si], [Ni], [Cu] and refer to contents of Mn, Cr, Mo, Si, Ni, Cu, and B, respectively, and are 0 when the corresponding element is not included, wherein the surface part is divided into a first surface part and a second surface part, the center part being located between the first surface part and the second surface part and the first surface part and the second surface part each having a thickness of 3 to 10% of a thickness of the steel, wherein a tensile strength of the steel is 570MPa or greater, and a Kca value of the surface part based on -10°C in a temperature gradient ESSO test is 6000N/mm 3/2 or greater, and wherein a high angle grain boundary fraction of the surface part is 45% or greater.
An inkjet image forming method, comprising: coating a film base material with a precoat liquid; drying the precoat liquid with which the film base material is coated, thereby forming a precoat layer; applying an ink comprising at least a colorant, an organic solvent, and water to the precoat layer by an inkjet method; and drying the ink applied to the precoat layer, thereby forming an image, characterized in that the precoat layer comprises a curing agent, a resin having a functional group that reacts with the curing agent, and water; and a highest drying temperature T1 in drying the precoat liquid and a highest drying temperature T2 in drying the ink satisfy a relationship of T2>T1. coating a film base material with a precoat liquid; drying the precoat liquid with which the film base material is coated, thereby forming a precoat layer; applying an ink comprising at least a colorant, an organic solvent, and water to the precoat layer by an inkjet method; and drying the ink applied to the precoat layer, thereby forming an image, characterized in that the precoat layer comprises a curing agent, a resin having a functional group that reacts with the curing agent, and water; and a highest drying temperature T1 in drying the precoat liquid and a highest drying temperature T2 in drying the ink satisfy a relationship of T2>T1.
A signal enhancer, comprising: an input configured to receive an audio signal X; a processor configured to: generate n different filters based on the audio signal X of a current frame, wherein n≥2; generate n filtered signals by applying each of the n filters to the audio signal of the current frame respectively; generate an enhanced audio signal Y for the current frame by merging the n filtered signals; and generate the enhanced audio signal as a weighted sum of the n filtered signals, wherein for each filtered signal one weight value is used for the calculation of the weighted sum; wherein the n weight values are based on a detected probability of speech presence in the audio signal of the current frame. an input configured to receive an audio signal X; a processor configured to: generate n different filters based on the audio signal X of a current frame, wherein n≥2; generate n filtered signals by applying each of the n filters to the audio signal of the current frame respectively; generate an enhanced audio signal Y for the current frame by merging the n filtered signals; and generate n different filters based on the audio signal X of a current frame, wherein n≥2; generate n filtered signals by applying each of the n filters to the audio signal of the current frame respectively; generate an enhanced audio signal Y for the current frame by merging the n filtered signals; and generate the enhanced audio signal as a weighted sum of the n filtered signals, wherein for each filtered signal one weight value is used for the calculation of the weighted sum; wherein the n weight values are based on a detected probability of speech presence in the audio signal of the current frame.
A rechargeable accumulator comprising one or more metal-air cells, each cell comprising - a first terminal and a second terminal, - a metal negative electrode for a metal-air cell, connected to the first terminal, - a first positive oxygen-releasing electrode, - a second positive electrode, which is a porous air electrode containing at least one oxygen reducing catalyst, and - an electrolyte, characterized in that it furthermore comprises - control means adapted to continuously compare the measured voltage (V m) between the terminal and the terminal to a setpoint value (V c) and to send a switch signal to switching means when the measured voltage (V m) falls below the setpoint value (V c), - the switching means adapted to receive a switch signal originating from the control means and to connect and disconnect the air electrode from the second terminal. - a first terminal and a second terminal, - a metal negative electrode for a metal-air cell, connected to the first terminal, - a first positive oxygen-releasing electrode, - a second positive electrode, which is a porous air electrode containing at least one oxygen reducing catalyst, and - an electrolyte, - control means adapted to continuously compare the measured voltage (V m) between the terminal and the terminal to a setpoint value (V c) and to send a switch signal to switching means when the measured voltage (V m) falls below the setpoint value (V c), - the switching means adapted to receive a switch signal originating from the control means and to connect and disconnect the air electrode from the second terminal.
A primer coating composition for enhancing the adhesion of a metallized coating to a polymeric substrate, said primer coating composition comprising: (a) from 5 to 15% by weight of an amorphous polyvinyl alcohol, (b) from 0.01 to 0.15% by weight of a polyethyleneimine, and (c) the balance water. (a) from 5 to 15% by weight of an amorphous polyvinyl alcohol, (b) from 0.01 to 0.15% by weight of a polyethyleneimine, and (c) the balance water.
A method of transmitting uplink data in a mobile telecommunication system, the method comprising the steps of: if the uplink data becomes available for transmission, transmitting a scheduling request for requesting uplink resources for the uplink data and transitioning to an active state after sending the scheduling request; monitoring control channel in the active state; transmitting the uplink data if the uplink resources are allocated; maintaining the active state during a first period after the uplink resources are allocated; maintaining the active state during a second period to receive an acknowledgement message corresponding to the uplink data; and ending (330, 335) the active state if downlink data is not received until the second period is over or a command for ending the active state is received. if the uplink data becomes available for transmission, transmitting a scheduling request for requesting uplink resources for the uplink data and transitioning to an active state after sending the scheduling request; monitoring control channel in the active state; transmitting the uplink data if the uplink resources are allocated; maintaining the active state during a first period after the uplink resources are allocated; maintaining the active state during a second period to receive an acknowledgement message corresponding to the uplink data; and ending (330, 335) the active state if downlink data is not received until the second period is over or a command for ending the active state is received.
A method for differentially detecting C. difficile based on virulence, the method comprising: (i) performing a first immunoassay to detect toxin B of C. difficile in a sample obtained from a subject having or suspected of having C. difficile infection, wherein the first immunoassay involves a first antibody and a second antibody, both of which bind toxin B of both highly virulent and less virulent C. difficile strains; (ii) performing a second immunoassay to detect toxin B of C. difficile in the sample, wherein the second immunoassay involves the second antibody and a third antibody, wherein the third antibody differentially binds toxin B of highly virulent C. difficile strains as relative to toxin B of less virulent C. difficile strains; (iii) comparing results obtained from step (i) and step (ii); and (iv) determining whether the sample comprises a highly virulent C. difficile strain or a less virulent C. difficile strain based on the comparing result of step (iii). (i) performing a first immunoassay to detect toxin B of C. difficile in a sample obtained from a subject having or suspected of having C. difficile infection, wherein the first immunoassay involves a first antibody and a second antibody, both of which bind toxin B of both highly virulent and less virulent C. difficile strains; (ii) performing a second immunoassay to detect toxin B of C. difficile in the sample, wherein the second immunoassay involves the second antibody and a third antibody, wherein the third antibody differentially binds toxin B of highly virulent C. difficile strains as relative to toxin B of less virulent C. difficile strains; (iii) comparing results obtained from step (i) and step (ii); and (iv) determining whether the sample comprises a highly virulent C. difficile strain or a less virulent C. difficile strain based on the comparing result of step (iii).
A fuel cell power generation system comprising: a desulfurizer configured to eliminate a sulfur component from a raw gas serving as a raw material of a fuel gas containing hydrogen for power generation of a fuel cell as a main component; an auxiliary device (4, 17), selected from a flow sensor, a shutoff valve and a pressure sensor, disposed upstream from the desulfurizer; and a raw material pipe having one end connected to an upstream side of the desulfurizer and another end connected to the auxiliary device (4, 17), wherein the raw gas flows through an inside of the desulfurizer, wherein the desulfurizer is detachably connected to the raw material pipe, wherein a trap portion configured to accumulate catalyst powder of the desulfurizer or dust, which enters from the one end of the raw material pipe, is provided at a portion of the raw material pipe between the one end thereof and the another end thereof, and wherein the raw material pipe is configured to be in a J shape such that the trap portion is situated at a lowermost position of the raw material pipe. a desulfurizer configured to eliminate a sulfur component from a raw gas serving as a raw material of a fuel gas containing hydrogen for power generation of a fuel cell as a main component; an auxiliary device (4, 17), selected from a flow sensor, a shutoff valve and a pressure sensor, disposed upstream from the desulfurizer; and a raw material pipe having one end connected to an upstream side of the desulfurizer and another end connected to the auxiliary device (4, 17), wherein the raw gas flows through an inside of the desulfurizer, wherein the desulfurizer is detachably connected to the raw material pipe, wherein a trap portion configured to accumulate catalyst powder of the desulfurizer or dust, which enters from the one end of the raw material pipe, is provided at a portion of the raw material pipe between the one end thereof and the another end thereof, and wherein the raw material pipe is configured to be in a J shape such that the trap portion is situated at a lowermost position of the raw material pipe.
A crankcase ventilation device for a vehicle comprising: a crankcase; and a cam cover situated on the upper side of the crank case to seal the crankcase, wherein the cam cover comprises: a fresh air inflow control valve situated in the cam cover, one side of which is connected to the cam cover and an opposite side of which is connected to a fresh air inflow hose so that fresh air is introduced into the crank case; and a pressure control valve situated on the upper side of the cam cover to control a pressure in the crankcase, wherein a nozzle is situated in the interior of the fresh air inflow hose of the fresh air inflow control valve, and the nozzle controls inflows of the fresh air into the crankcase according to a control of the pressure in the crankcase of the pressure control valve and wherein a diaphragm is situated on the lower side of the nozzle to prevent backward flows of a blow-by gas to the fresh air inflow hose. a crankcase; and a cam cover situated on the upper side of the crank case to seal the crankcase, wherein the cam cover comprises: a fresh air inflow control valve situated in the cam cover, one side of which is connected to the cam cover and an opposite side of which is connected to a fresh air inflow hose so that fresh air is introduced into the crank case; and a pressure control valve situated on the upper side of the cam cover to control a pressure in the crankcase, a fresh air inflow control valve situated in the cam cover, one side of which is connected to the cam cover and an opposite side of which is connected to a fresh air inflow hose so that fresh air is introduced into the crank case; and a pressure control valve situated on the upper side of the cam cover to control a pressure in the crankcase, wherein a nozzle is situated in the interior of the fresh air inflow hose of the fresh air inflow control valve, and the nozzle controls inflows of the fresh air into the crankcase according to a control of the pressure in the crankcase of the pressure control valve and wherein a diaphragm is situated on the lower side of the nozzle to prevent backward flows of a blow-by gas to the fresh air inflow hose.
A method for controlling a change in damping in an artificial knee joint of an orthosis or prosthesis, wherein the artificial knee joint has an upper part, a lower part which is mounted on said upper part pivotably about a pivot axis, and a resistance unit which is fastened to the upper part at an upper articulation point and to the lower part at a lower articulation point for the purposes of providing a resistance to a flexion or extension of the artificial knee joint, wherein the resistance unit is assigned an adjustment device for changing the flexion resistance, wherein the resistance of the resistance unit is increased with increasing knee angle (α) above a knee angle threshold value, characterized in that that knee angle (α) at which the spacing of the connecting line between the upper articulation point and the lower articulation point to the pivot axis is at a maximum is set as a knee angle threshold value (α s), above which the resistance of the resistance unit is increased.
A multiway switch, comprising: six throw, T, ports and 2 n pole, P, ports, the six T ports comprising two first T ports, and each of the two first T ports being coupled with all of the 2 n P ports; n being an integer and n ≥2; and the multiway switch being configured to be coupled with, through said T ports, a radio frequency circuit and, through said P ports, with an antenna system of a wireless communication device operable in a dual-frequency single-transmit mode, to implement a preset function of the wireless communication device, the antenna system comprising 2 n antennas corresponding to the 2 n P ports, each of the 2 n P ports being configured to be coupled with a corresponding antenna of the 2 n antennas, characterized in that the preset function is a function of transmitting a sounding reference signal, SRS, through the 2 n antennas in turn; the six T ports further comprise four second T ports; each of the four second T ports is coupled with only one of the 2 n P ports and T ports at the same frequency band in the four second T ports are coupled with different P ports; the two first T ports at least support a transmission function; and the four second T ports support only a reception function. six throw, T, ports and 2 n pole, P, ports, the six T ports comprising two first T ports, and each of the two first T ports being coupled with all of the 2 n P ports; n being an integer and n ≥2; and the multiway switch being configured to be coupled with, through said T ports, a radio frequency circuit and, through said P ports, with an antenna system of a wireless communication device operable in a dual-frequency single-transmit mode, to implement a preset function of the wireless communication device, the antenna system comprising 2 n antennas corresponding to the 2 n P ports, each of the 2 n P ports being configured to be coupled with a corresponding antenna of the 2 n antennas, characterized in that the preset function is a function of transmitting a sounding reference signal, SRS, through the 2 n antennas in turn; the six T ports further comprise four second T ports; each of the four second T ports is coupled with only one of the 2 n P ports and T ports at the same frequency band in the four second T ports are coupled with different P ports; the two first T ports at least support a transmission function; and the four second T ports support only a reception function.
Fuel pressure regulator assembly for an automotive vehicle comprising a fuel pressure regulator which is mounted in an adaptor housing along a main axis, said adaptor housing comprising an intermediate chamber which is closed at its bottom part by the fuel pressure regulator and which is provided with at least one opening (26, 28) for communication with a fuel supply line, said fuel pressure regulator comprising a casing having at least one fuel inlet in its upper portion for communication with the intermediate chamber and having at least one fuel outlet in its bottom portion, characterized by a water collector inserted in the intermediate chamber, above the fuel inlet of the fuel pressure regulator, said water collector comprising a recess portion facing the opening (26, 28) in order to retain water flowing down by gravity from the opening (26, 28) while the fuel pump is idle.
Decoder supporting wedgelet-based decoding of coding blocks, comprising a prefix reader configured to read, for a current coding block, a prefix of a variable-length coded syntax element from a data stream; a suffix length determiner configured to determine a length of a suffix of the variable-length coded syntax element from the prefix and a size of the current coding block; a suffix reader configured to read, using the length determined, the suffix of the variable-length coded syntax element from the data stream; a wedgelet bi-partitioner configured to determine a bi-partitioning of the current coding block into two wedgelets (108a, 108b) using the variable-length coded syntax element; and a reconstructor configured to reconstruct the current coding block using the bi-partitioning.
A contactless web support comprising a perforated arcuate surface having perforations for floatingly supporting a running web, said arcuate surface having a first maximum diameter, and a bottom arcuate portion having a second maximum diameter less than said first maximum diameter, said perforated arcuate surface and said bottom arcuate portion defining therebetween a plenum, whereby pressurized gas in said plenum is discharged through the perforations to float said web about said perforated arcuate surface, characterised in that the perforations comprise a plurality of spaced, rectangular perforations (3, 32 to 36).
An installation protocol generation device, set up for generating an installation protocol for a tub support, in particular a bathtub support and/or shower tub support, comprising: a sensor device, set up for detecting geometric installation conditions of the surroundings of the planned installation position of the tub support and detecting installation data of the tub support installed thereafter; a control unit, set up for generating the installation protocol using the recorded installation data; a storage unit, set up for storing the installation protocol. a sensor device, set up for detecting geometric installation conditions of the surroundings of the planned installation position of the tub support and detecting installation data of the tub support installed thereafter; a control unit, set up for generating the installation protocol using the recorded installation data; a storage unit, set up for storing the installation protocol.