mhurhangee/patent-ind-claim-en huggingface dataset:
A wood material panel pressing device for pressing a blank in the form of a fibrous press cake to produce an HDF panel or an MDF panel , with (a) an inspection device , which - is arranged at an intake region of the wood material panel pressing device and - is designed to monitor the blank in the intake region , so that the amount of waste caused by blow-outs can be reduced, characterised by the fact that (b) the inspection device has a camera and an evaluation unit , and (c) the evaluation unit is designed to automatically carry out a method featuring the steps: (i) continuous recording of images (B) of the intake region , (ii) continuous detection of measurement data for evaluation region pixels of images (B), which belong to a predefined evaluation region comprising at least one region bordering a target horizontal of the fibrous press cake at the top, such that evaluation data is obtained, and (iii) emission of a signal if the evaluation data change by more than a predetermined tolerance value (D T ). (a) an inspection device , which - is arranged at an intake region of the wood material panel pressing device and - is designed to monitor the blank in the intake region , so that the amount of waste caused by blow-outs can be reduced, characterised by the fact that - is arranged at an intake region of the wood material panel pressing device and - is designed to monitor the blank in the intake region , so that the amount of waste caused by blow-outs can be reduced, (b) the inspection device has a camera and an evaluation unit , and (c) the evaluation unit is designed to automatically carry out a method featuring the steps: (i) continuous recording of images (B) of the intake region , (ii) continuous detection of measurement data for evaluation region pixels of images (B), which belong to a predefined evaluation region comprising at least one region bordering a target horizontal of the fibrous press cake at the top, such that evaluation data is obtained, and (iii) emission of a signal if the evaluation data change by more than a predetermined tolerance value (D T ). (i) continuous recording of images (B) of the intake region , (ii) continuous detection of measurement data for evaluation region pixels of images (B), which belong to a predefined evaluation region comprising at least one region bordering a target horizontal of the fibrous press cake at the top, such that evaluation data is obtained, and (iii) emission of a signal if the evaluation data change by more than a predetermined tolerance value (D T ).
A method of removing a substrate, comprising: forming a growth restrict mask on or above a substrate , wherein the growth restrict mask is patterned into stripes and comprises opening areas ; growing , by epitaxial lateral overgrowth (ELO), one or more III-nitride-based semiconductor layers first in the opening areas on or above the substrate and then laterally from the opening areas in the growth restrict mask , wherein growth of the one or more III-nitride-based semiconductor layers is stopped or interrupted before the one or more III-nitride-based semiconductor layers at adjacent ones of the opening areas coalesce on top of the growth restrict mask ; etching a portion of the one or more III-nitride-based semiconductor layers on or above one or more of the opening areas in the growth restrict mask , thereby forming one or more island-like semiconductor layers from the one or more III-nitride-based semiconductor layers on or above the substrate ; bonding the one or more island-like semiconductor layers to a support substrate ; and removing the substrate from the one or more island-like semiconductor layers , using the support substrate . forming a growth restrict mask on or above a substrate , wherein the growth restrict mask is patterned into stripes and comprises opening areas ; growing , by epitaxial lateral overgrowth (ELO), one or more III-nitride-based semiconductor layers first in the opening areas on or above the substrate and then laterally from the opening areas in the growth restrict mask , wherein growth of the one or more III-nitride-based semiconductor layers is stopped or interrupted before the one or more III-nitride-based semiconductor layers at adjacent ones of the opening areas coalesce on top of the growth restrict mask ; etching a portion of the one or more III-nitride-based semiconductor layers on or above one or more of the opening areas in the growth restrict mask , thereby forming one or more island-like semiconductor layers from the one or more III-nitride-based semiconductor layers on or above the substrate ; bonding the one or more island-like semiconductor layers to a support substrate ; and removing the substrate from the one or more island-like semiconductor layers , using the support substrate .
A radiation image acquisition system for acquiring a radiation image of an object (A), comprising: a radiation source for outputting radiation toward the object (A); a scintillator having an input surface to which the radiation transmitted through the object (A) is input and for converting the input radiation into scintillation light, the scintillator exhibiting a light transmittance of 80% or less at the wavelength of scintillation light by scattering or absorbing the scintillation light inside the scintillator ; image capturing means including a lens portion focused on the input surface and for imaging the scintillation light output from the input surface and an image capturing unit for capturing an image of the scintillation light imaged by the lens portion and outputting radiation image data of the object (A); an image generating unit for generating a radiation image of the object (A) based on the radiation image data, and a conveyance apparatus configured to convey the object (A) in a predetermined conveying direction (D) at a constant speed, wherein the image capturing means is a line scan camera configured to perform image capturing in accordance with a movement of the object (A), a conveying timing and a conveying speed are set in advance for the object (A) in the conveyance apparatus , and the scintillator is disposed such that the input surface is inclined at a predetermined angle with respect to an optical axis (L) of the lens portion of the image capturing means . a radiation source for outputting radiation toward the object (A); a scintillator having an input surface to which the radiation transmitted through the object (A) is input and for converting the input radiation into scintillation light, the scintillator exhibiting a light transmittance of 80% or less at the wavelength of scintillation light by scattering or absorbing the scintillation light inside the scintillator ; image capturing means including a lens portion focused on the input surface and for imaging the scintillation light output from the input surface and an image capturing unit for capturing an image of the scintillation light imaged by the lens portion and outputting radiation image data of the object (A); an image generating unit for generating a radiation image of the object (A) based on the radiation image data, and a conveyance apparatus configured to convey the object (A) in a predetermined conveying direction (D) at a constant speed, wherein the image capturing means is a line scan camera configured to perform image capturing in accordance with a movement of the object (A), a conveying timing and a conveying speed are set in advance for the object (A) in the conveyance apparatus , and the scintillator is disposed such that the input surface is inclined at a predetermined angle with respect to an optical axis (L) of the lens portion of the image capturing means .
A turbine pump system, comprising: a turbine pump assembly including: a housing ; a pump disposed in the housing; a turbine disposed in the housing and operably connected to the pump; a hydraulic fluid load and a heat exchanger disposed between the pump and the hydraulic fluid load, the heat exchanger configured to reduce a temperature of the hydraulic fluid flow output by the pump and directed to the hydraulic fluid load; characterized in that : the heat exchanger is operably connected to a turbine gas flow and utilizes the turbine gas flow to cool the hydraulic fluid flow at the heat exchanger. a turbine pump assembly including: a housing ; a pump disposed in the housing; a turbine disposed in the housing and operably connected to the pump; a housing ; a pump disposed in the housing; a turbine disposed in the housing and operably connected to the pump; a hydraulic fluid load and a heat exchanger disposed between the pump and the hydraulic fluid load, the heat exchanger configured to reduce a temperature of the hydraulic fluid flow output by the pump and directed to the hydraulic fluid load; characterized in that : the heat exchanger is operably connected to a turbine gas flow and utilizes the turbine gas flow to cool the hydraulic fluid flow at the heat exchanger.
A traffic signal system on a road vehicle , the road vehicle having a determined width, the traffic signal being configured to be seen by people behind the road vehicle , said system including two main display sets , a first sign board set and a second light display set , the first sign board set remaining within the width size of the road vehicle and including two sections, a bottom section , vertical and fixed over the width of the road vehicle and a top section able to swing about a horizontal transverse axis between an unfolded position in which it is vertical and parallel to the bottom section , the horizontal lower edge of the top section then being substantially level with the horizontal upper edge of the bottom section , and a folded position in which it is folded forward and tilted with respect to the plane of the bottom section , and the second light display set including two parts, a first fixed part integral with the bottom section of the first sign board set, and a second part integral with the top section of the first sign board set, the first fixed part being essentially arranged towards the top of the bottom section and parallel to the upper edge of said bottom section and remaining within the width size of the vehicle , characterized in that the second part is mobile in horizontal lateral translation parallel to the plane of the top section in such a way as to be able to laterally go out of the width size of the vehicle , between a rest position in which the second part is positioned opposite the top section within the width size of the vehicle and a laterally protruding position in which the second part has been laterally translated to laterally protrude out of the width size of the vehicle , and in that the first fixed part of the light display set is a horizontal alignment of light points , and the second part of the light display set includes a horizontal lower line of light points (52 + 53b) arranged at the level of the horizontal alignment of light points of the first fixed part and towards the rear of the vehicle with respect to this first part when the top section is in unfolded position. characterized in that the second part is mobile in horizontal lateral translation parallel to the plane of the top section in such a way as to be able to laterally go out of the width size of the vehicle , between a rest position in which the second part is positioned opposite the top section within the width size of the vehicle and a laterally protruding position in which the second part has been laterally translated to laterally protrude out of the width size of the vehicle , and in that the first fixed part of the light display set is a horizontal alignment of light points , and the second part of the light display set includes a horizontal lower line of light points (52 + 53b) arranged at the level of the horizontal alignment of light points of the first fixed part and towards the rear of the vehicle with respect to this first part when the top section is in unfolded position.
A method of communication, comprising: configuring an access terminal to receive data on at least one first carrier; determining that the access terminal is to conduct a pilot measurement on at least one second carrier; determining whether the access terminal can concurrently receive on the at least one first carrier and the at least one second carrier; and conducting the pilot measurement in a manner that is based on the determination of whether the access terminal can concurrently receive on the at least one first carrier and the at least one second carrier, wherein, if the access terminal cannot concurrently receive on the at least one first carrier and the at least one second carrier, the pilot measurement is conducted on the at least one second carrier while using a measurement gap on the at least one first carrier; wherein, if the access terminal can concurrently receive on the at least one first carrier and the at least one second carrier, the pilot measurement is conducted on the at least one second carrier while receiving data on the at least one first carrier. configuring an access terminal to receive data on at least one first carrier; determining that the access terminal is to conduct a pilot measurement on at least one second carrier; determining whether the access terminal can concurrently receive on the at least one first carrier and the at least one second carrier; and conducting the pilot measurement in a manner that is based on the determination of whether the access terminal can concurrently receive on the at least one first carrier and the at least one second carrier, wherein, if the access terminal cannot concurrently receive on the at least one first carrier and the at least one second carrier, the pilot measurement is conducted on the at least one second carrier while using a measurement gap on the at least one first carrier; wherein, if the access terminal can concurrently receive on the at least one first carrier and the at least one second carrier, the pilot measurement is conducted on the at least one second carrier while receiving data on the at least one first carrier.
An isolated monoclonal antibody, which binds to human glucocorticoid-inducible TNF receptor (GITR), comprising heavy chain CDR1, CDR2, and CDR3 sequences comprising SEQ ID NOs: 20, 21, and 22, respectively, and light chain CDR1, CDR2, and CDR3 sequences comprising SEQ ID NOs: 23, 24, and 25, respectively.
A method of producing a β-sialon fluorescent material, comprising: a step of preparing a calcined product having a composition of β-sialon containing an activating element; a step of grinding the calcined product together with a compound containing the activating element to obtain a ground product; wherein the ground product includes the calcined product and the compound containing the activating element; and a step of heat-treating the ground product to obtain a heat-treated product, the step of obtaining a ground product and the step of obtaining a heat-treated product being repeated two times or more in this step order, and in the at least one step of obtaining a ground product, an average particle diameter of the ground product being 40 μm or less, and a specific surface area of the ground product is 0.29 m 2 /g or more, and a particle diameter D90 of the ground product, at which the volume cumulative frequency reaches 90% from the small diameter side in the particle size distribution, is 15 μm or more and 50 μm or less. a step of preparing a calcined product having a composition of β-sialon containing an activating element; a step of grinding the calcined product together with a compound containing the activating element to obtain a ground product; wherein the ground product includes the calcined product and the compound containing the activating element; and a step of heat-treating the ground product to obtain a heat-treated product, the step of obtaining a ground product and the step of obtaining a heat-treated product being repeated two times or more in this step order, and in the at least one step of obtaining a ground product, an average particle diameter of the ground product being 40 μm or less, and a specific surface area of the ground product is 0.29 m 2 /g or more, and a particle diameter D90 of the ground product, at which the volume cumulative frequency reaches 90% from the small diameter side in the particle size distribution, is 15 μm or more and 50 μm or less.
A method for detecting Listeria spp. in an environmental sample, the method comprising the steps of: (i) collecting an environmental sample with a collection device; (ii) without prior enrichment or incubation contacting the collection device with lysis buffer to break open bacterial cells and release into the lysis buffer RNA from any Listeria spp. in the environmental sample, wherein the lysis buffer contains a detergent, enzyme, or denaturing salt; and (iii) performing in the lysis buffer a pathogen diagnostic assay that targets bacterial RNA sequences for amplification and detection of RNA from any Listeria spp.. (i) collecting an environmental sample with a collection device; (ii) without prior enrichment or incubation contacting the collection device with lysis buffer to break open bacterial cells and release into the lysis buffer RNA from any Listeria spp. in the environmental sample, wherein the lysis buffer contains a detergent, enzyme, or denaturing salt; and (iii) performing in the lysis buffer a pathogen diagnostic assay that targets bacterial RNA sequences for amplification and detection of RNA from any Listeria spp..
The compound 3-ethyl-4-{3-isopropyl-4-(4-(1-methyl-1H-pyrazol-4-yl)-1H-imidazol-1-yl)-1H-pyrazolo[3,4-b]pyridin-1-yl}benzamide or a salt thereof for use in treating a tumor by administration in combination with another antitumor agent.
A device for avoiding brake dragging in a conformity of emission test of a motor vehicle, comprising: a vacuum pump ; and a power supply capable of providing electric power to the vacuum pump ; a controller controlling the power supply to selectively provide electric power to the vacuum pump , characterized in that the device further comprises: a hose extending from an outlet of the vacuum pump , wherein an adjustable pressure-regulating valve is connected in series to the hose , and an end of the hose is provided with a connection port liquid-tightly and removably connectable to a brake fluid storage container of a brake drive unit of the motor vehicle; and an outer shell in which the power supply , the vacuum pump , and the adjustable pressure-regulating valve are installed. a vacuum pump ; and a power supply capable of providing electric power to the vacuum pump ; a controller controlling the power supply to selectively provide electric power to the vacuum pump , characterized in that the device further comprises: a hose extending from an outlet of the vacuum pump , wherein an adjustable pressure-regulating valve is connected in series to the hose , and an end of the hose is provided with a connection port liquid-tightly and removably connectable to a brake fluid storage container of a brake drive unit of the motor vehicle; and an outer shell in which the power supply , the vacuum pump , and the adjustable pressure-regulating valve are installed. a hose extending from an outlet of the vacuum pump , wherein an adjustable pressure-regulating valve is connected in series to the hose , and an end of the hose is provided with a connection port liquid-tightly and removably connectable to a brake fluid storage container of a brake drive unit of the motor vehicle; and an outer shell in which the power supply , the vacuum pump , and the adjustable pressure-regulating valve are installed.
A fitting for use with a metal, corrugated tubing having peaks and valleys, the fitting comprising: a nut configured to receive the tubing ; a sealing member made from metal, for placement in a valley of the tubing , the sealing member including a sealing surface ; and an adaptor configured to be press fit into the nut , the adaptor including an adaptor sealing surface ; wherein upon assembly, the adaptor is press fit into the nut and the tubing is compressed and flared between the adaptor sealing surface and the sealing surface . a nut configured to receive the tubing ; a sealing member made from metal, for placement in a valley of the tubing , the sealing member including a sealing surface ; and an adaptor configured to be press fit into the nut , the adaptor including an adaptor sealing surface ; wherein upon assembly, the adaptor is press fit into the nut and the tubing is compressed and flared between the adaptor sealing surface and the sealing surface .
A method for wireless communications by an apparatus, comprising: generating a frame for transmission on at least one channel, the frame having: first information for processing by first and second types of devices, an extended header information intended for processing by only a second type of device that is a targeted recipient of the frame, and a data portion; and outputting the frame for transmission via the at least one channel; wherein: the frame further comprises, for each of first and second spatial streams, second information comprising at least one of a training field or channel estimation information for processing by the targeted recipient of the frame; and wherein the second information for the first spatial stream is output for transmission with a delay relative to transmission of an end of the first information for the first spatial stream in order to time align the second information for the first spatial stream with the second information for the second spatial stream. first information for processing by first and second types of devices, an extended header information intended for processing by only a second type of device that is a targeted recipient of the frame, and a data portion; and outputting the frame for transmission via the at least one channel; the frame further comprises, for each of first and second spatial streams, second information comprising at least one of a training field or channel estimation information for processing by the targeted recipient of the frame; and wherein the second information for the first spatial stream is output for transmission with a delay relative to transmission of an end of the first information for the first spatial stream in order to time align the second information for the first spatial stream with the second information for the second spatial stream.