mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor structure comprising: a mass airflow measurement element that measures a mass airflow flowing in an intake pipe , a humidity sensing element that senses humidity of air flowing in the intake pipe , a housing structural component having a connector that carries out input/output to/from outside and a terminal component of the connector, a bypass passage that is composed by using part of the housing structural component and takes in part of the air that flows in the intake pipe , the mass airflow measurement element being mounted in the bypass passage ; and an open space provided in the housing structural component in the vicinity of the bypass passage , the open space being in communication with the bypass passage , wherein the open space does not have a structure sealed by an adhesive, a seal material , or the like, the sensor structure further comprising: a first air communication channel communicating between the open space and the bypass passage , and a second air communication channel communicating between the open space and the bypass passage , the sensor structure characterized in that : the humidity sensing element is mounted in the open space at a position away from a path of a main flow including the first air communication channel , the open space , and the second air communication channel . a mass airflow measurement element that measures a mass airflow flowing in an intake pipe , a humidity sensing element that senses humidity of air flowing in the intake pipe , a housing structural component having a connector that carries out input/output to/from outside and a terminal component of the connector, a bypass passage that is composed by using part of the housing structural component and takes in part of the air that flows in the intake pipe , the mass airflow measurement element being mounted in the bypass passage ; and an open space provided in the housing structural component in the vicinity of the bypass passage , the open space being in communication with the bypass passage , wherein the open space does not have a structure sealed by an adhesive, a seal material , or the like, the sensor structure further comprising: a first air communication channel communicating between the open space and the bypass passage , and a second air communication channel communicating between the open space and the bypass passage , a first air communication channel communicating between the open space and the bypass passage , and a second air communication channel communicating between the open space and the bypass passage , the sensor structure characterized in that : the humidity sensing element is mounted in the open space at a position away from a path of a main flow including the first air communication channel , the open space , and the second air communication channel .
A method comprising: receiving, at a content item value provider , a content item value request from a publisher server , the content item value corresponding to a communicated content item and being the basis for an amount of compensation; providing, from the content item value provider , a plurality of content item value requests to a plurality of value predictors including at least a first value predictor and a second value predictor, the first value predictor providing responses within a first average duration of time, the second value predictor providing responses within a second average duration of time greater than the first average duration of time, the first value predictor providing responses based on a cache of content item values previously provided to the publisher server within a period of time preceding receiving the content item value request; receiving, at the content item value provider , one or more responses from the plurality of value predictors, each response having a content item value; selecting, at the content item value provider , a content item value of a response of the one or more responses; providing, from the content item value provider , the selected content item value to the publisher server . receiving, at a content item value provider , a content item value request from a publisher server , the content item value corresponding to a communicated content item and being the basis for an amount of compensation; providing, from the content item value provider , a plurality of content item value requests to a plurality of value predictors including at least a first value predictor and a second value predictor, the first value predictor providing responses within a first average duration of time, the second value predictor providing responses within a second average duration of time greater than the first average duration of time, the first value predictor providing responses based on a cache of content item values previously provided to the publisher server within a period of time preceding receiving the content item value request; receiving, at the content item value provider , one or more responses from the plurality of value predictors, each response having a content item value; selecting, at the content item value provider , a content item value of a response of the one or more responses; providing, from the content item value provider , the selected content item value to the publisher server .
A holding device for sample carriers for use in cryo-microscopy comprising: - a body with at least one sample carrier receptacle which has at least one sample carrier support surface on which at least one sample carrier can be placed, - at least a first sample carrier holding means , and - at least a second sample carrier holding means adapted to apply force to the sample carrier against the first sample carrier holding means , wherein the at least one first sample carrier holding means has at least one first recess , in the form of an undercut, into which the sample carrier can be partially inserted, characterised in that the at least one first sample carrier holding means and the at least one second sample carrier holding means are formed in such a way that the sample carrier , when it rests against the first sample carrier holding means and against the second sample carrier holding means , is pressed against the sample carrier supporting surface by the first sample carrier holding means and by the second sample carrier holding means . - a body with at least one sample carrier receptacle which has at least one sample carrier support surface on which at least one sample carrier can be placed, - at least a first sample carrier holding means , and - at least a second sample carrier holding means adapted to apply force to the sample carrier against the first sample carrier holding means , wherein the at least one first sample carrier holding means has at least one first recess , in the form of an undercut, into which the sample carrier can be partially inserted, characterised in that the at least one first sample carrier holding means and the at least one second sample carrier holding means are formed in such a way that the sample carrier , when it rests against the first sample carrier holding means and against the second sample carrier holding means , is pressed against the sample carrier supporting surface by the first sample carrier holding means and by the second sample carrier holding means .
A process for preparing a compound of the formula 1 wherein each of R 1 and R 2 is independently selected from the group consisting of H, F, Cl, Br, I, C 1 -C 6 alkyl and trifluoromethyl, R 3 is H or C 1 -C 6 alkyl, and R 4 is H or -C(O)C 1 -C 6 alkyl; comprising a. contacting a compound of the formula wherein each of R 1 and R 2 is independently selected from the group consisting of H, F, Cl, Br, I, C 1 -C 6 alkyl and trifluoromethyl, R 3 is H or C 1 -C 6 alkyl, and R 4 is H or -C(O)C 1 -C 6 alkyl; with a 3-halopyridine in the presence of a copper catalyst, a ligand, a base, a solvent and optionally an additive; wherein the ligand is selected from the group consisting of triethylenetetramine (TETA), N , N '-bis(2-hydroxyethyl)ethylenediamine (BHEEA), 8-hydroxyquinoline, and dimethylethane-1,2-diamine (DMEDA), , and the ligand is used in 0.08 to 0.2 molar equivalents compared to the pyrazole starting material or, when DMEDA is used as ligand in the presence of an additive, in 0.05 to 0.2 molar equivalents of DMEDA compared to the pyrazole starting material. a. contacting a compound of the formula wherein each of R 1 and R 2 is independently selected from the group consisting of H, F, Cl, Br, I, C 1 -C 6 alkyl and trifluoromethyl, R 3 is H or C 1 -C 6 alkyl, and R 4 is H or -C(O)C 1 -C 6 alkyl; with a 3-halopyridine in the presence of a copper catalyst, a ligand, a base, a solvent and optionally an additive; wherein the ligand is selected from the group consisting of triethylenetetramine (TETA), N , N '-bis(2-hydroxyethyl)ethylenediamine (BHEEA), 8-hydroxyquinoline, and dimethylethane-1,2-diamine (DMEDA), , and the ligand is used in 0.08 to 0.2 molar equivalents compared to the pyrazole starting material or, when DMEDA is used as ligand in the presence of an additive, in 0.05 to 0.2 molar equivalents of DMEDA compared to the pyrazole starting material.
A phase tracking reference signal, PTRS, sending method, comprising: obtaining (S101), by a communications apparatus, uplink grant information, wherein the uplink grant information comprises precoding matrix information; determining (S103), by the communications apparatus based on the uplink grant information and a preset rule, an antenna port associated with a to-be-sent PTRS, wherein the antenna port associated with the to-be-sent PTRS is selected from an antenna port set, wherein the antenna port set is a scheduling antenna port set, and the to-be-sent PTRS is one or more of all available PTRSs, wherein the preset rule comprises: each column of a precoding matrix corresponding to the precoding matrix information and each antenna port in the antenna port set are in a one-to-one correspondence, and antenna ports in the antenna port set that correspond to columns in which non-zero elements in a same row of the precoding matrix are located correspond to a same PTRS; and sending (S104), by the communications apparatus, the to-be-sent PTRS on the antenna port. obtaining (S101), by a communications apparatus, uplink grant information, wherein the uplink grant information comprises precoding matrix information; determining (S103), by the communications apparatus based on the uplink grant information and a preset rule, an antenna port associated with a to-be-sent PTRS, wherein the antenna port associated with the to-be-sent PTRS is selected from an antenna port set, wherein the antenna port set is a scheduling antenna port set, and the to-be-sent PTRS is one or more of all available PTRSs, wherein the preset rule comprises: each column of a precoding matrix corresponding to the precoding matrix information and each antenna port in the antenna port set are in a one-to-one correspondence, and antenna ports in the antenna port set that correspond to columns in which non-zero elements in a same row of the precoding matrix are located correspond to a same PTRS; and sending (S104), by the communications apparatus, the to-be-sent PTRS on the antenna port.
A method of locating a secondary intracorporeal device after performing imaging with an intravascular or intracardiac imaging catheter , wherein the imaging catheter comprises an ultrasonic imaging device, and wherein the imaging catheter is configured for three-dimensional scanning, and wherein the secondary intracorporeal device comprises one or more ultrasonic beacon transducers having a combined broad angular response, the method comprising, after performing a scanning operation with the imaging catheter to scan a three-dimensional imaging volume and detect signals associated with received ultrasound imaging energy and communication signals emitted by one or more of the ultrasound beacon transducers : processing signals associated with the received ultrasonic imaging energy to generate an image; processing the signals to identify a communication signal that was received, when a given imaging A-scan vector was directed towards a given ultrasound beacon transducer on the secondary intracorporeal device ; and processing the communication signal to locate the secondary intracorporeal device relative to the imaging catheter , based on the direction of the given imaging A-scan vector and a time delay associated with the communication signal. processing signals associated with the received ultrasonic imaging energy to generate an image; processing the signals to identify a communication signal that was received, when a given imaging A-scan vector was directed towards a given ultrasound beacon transducer on the secondary intracorporeal device ; and processing the communication signal to locate the secondary intracorporeal device relative to the imaging catheter , based on the direction of the given imaging A-scan vector and a time delay associated with the communication signal.
A DNA sequence encoding a pyruvate carboxylase with at least 85% identity to the sequence No. 1, wherein the triplet, in position 394-396, encodes alanine.
A self-administered tamper-evident drug detection system comprising: a biometric detection surface for each of a user's right and left hands, configured to identify the user and prevent tamper by continuously capturing biometric information from each of the user's right and left hands while the system is administering a drug detection test; a housing with an opening; a plurality of collection devices to administer the drug detection test by exposing a sample collection device to the user's mouth to collect a saliva sample; and a collection device mechanism including a cartridge with the plurality of sample collection devices that are configured to be exposed to the user for a period of time by ejecting one of said collection devices through the opening in the housing and then to be mechanically retracted into the collection device mechanism to be tested for indications of drugs or illegal substances. a biometric detection surface for each of a user's right and left hands, configured to identify the user and prevent tamper by continuously capturing biometric information from each of the user's right and left hands while the system is administering a drug detection test; a housing with an opening; a plurality of collection devices to administer the drug detection test by exposing a sample collection device to the user's mouth to collect a saliva sample; and a collection device mechanism including a cartridge with the plurality of sample collection devices that are configured to be exposed to the user for a period of time by ejecting one of said collection devices through the opening in the housing and then to be mechanically retracted into the collection device mechanism to be tested for indications of drugs or illegal substances.
A lighting device comprising: a light engine comprising at least one solid state lighting element ; a controller for controlling a dimming level of the light engine; a wireless communication module communicatively coupled to the controller for receiving a wireless dimming instruction from a wireless controller ; and a further communication module communicatively coupled to the controller for connecting to a wired communication channel and for receiving a further dimming instruction from a further controller wired to the further communication module through the wired communication channel; wherein the controller is adapted to independently control the dimming level of the light engine in response to the wireless dimming instruction and the further dimming instruction; characterized in that the controller is adapted to enter a sleep mode in response to a sleep mode instruction, in said sleep mode, at least the wireless communication module is disabled. a light engine comprising at least one solid state lighting element ; a controller for controlling a dimming level of the light engine; a wireless communication module communicatively coupled to the controller for receiving a wireless dimming instruction from a wireless controller ; and a further communication module communicatively coupled to the controller for connecting to a wired communication channel and for receiving a further dimming instruction from a further controller wired to the further communication module through the wired communication channel; wherein the controller is adapted to independently control the dimming level of the light engine in response to the wireless dimming instruction and the further dimming instruction; characterized in that the controller is adapted to enter a sleep mode in response to a sleep mode instruction, in said sleep mode, at least the wireless communication module is disabled.
A surface card antenna apparatus , comprising: a single circuit board having a major side surface ; a horizontal polarization antenna portion mounted on the major side surface of the single circuit board; a vertical polarization antenna portion mounted on the major side surface of the single circuit board, and a plurality of feedlines interconnecting the horizontal polarization antenna portion and the vertical polarization antenna portion and configured to feed the horizontal polarization antenna portion and the vertical polarization antenna portion; wherein the horizontal polarization antenna portion is mounted at one end portion of the single circuit board, and the vertical polarization antenna portion is mounted at an opposite end portion of the single circuit board. a single circuit board having a major side surface ; a horizontal polarization antenna portion mounted on the major side surface of the single circuit board; a vertical polarization antenna portion mounted on the major side surface of the single circuit board, and a plurality of feedlines interconnecting the horizontal polarization antenna portion and the vertical polarization antenna portion and configured to feed the horizontal polarization antenna portion and the vertical polarization antenna portion; wherein the horizontal polarization antenna portion is mounted at one end portion of the single circuit board, and the vertical polarization antenna portion is mounted at an opposite end portion of the single circuit board.
A system, comprising: a hydraulic turbocharger configured to handle fluids and comprising a bearing assembly ; and a monitoring system configured to monitor an operational parameter of the bearing assembly , wherein the monitoring system comprises one or more sensors extending into the hydraulic turbocharger to monitor a relative position or operational parameter of one or more rotating components of the bearing assembly , wherein at least one of the one or more sensors is configured to be exposed to a process liquid that lubricates the bearing assembly and that is handled by the hydraulic turbocharger . a hydraulic turbocharger configured to handle fluids and comprising a bearing assembly ; and a monitoring system configured to monitor an operational parameter of the bearing assembly , wherein the monitoring system comprises one or more sensors extending into the hydraulic turbocharger to monitor a relative position or operational parameter of one or more rotating components of the bearing assembly , wherein at least one of the one or more sensors is configured to be exposed to a process liquid that lubricates the bearing assembly and that is handled by the hydraulic turbocharger .
A backwash suction device for a disc-shaped fibrous filter including fleeces (F) on a surface of the disc-shaped filter (D), comprising: - a suction body having a container shape and including a drain hole to discharge content from inside the suction body outward; and - a suction plate mounted in the suction body to close an inlet part thereof and to be installed, in use, to be almost pressed against the disc-shaped filter (D), the suction plate including a slit formed on an outer surface of the suction plate which is exposed outward to perform backwash of the fleeces (F) on the disc-shaped filter (D); characterized in that an incised surface is formed in the suction plate by cutting to a predetermined thickness (W) one side of the outer surface on the basis of the slit that is surpassed by the fleeces (F) which have been backwashed in the slit , in that a room is provided in the incised surface , and a pattern roller is mounted in the room to rotate in place while being partially exposed and protruding outward from the incised surface so as to form patterns on a surface of fleeces (F) which have passed through the slit , and in that the incised surface is formed such that, when the suction plate is installed to be almost pressed against the disc-type filter (D), a post-gap (b) between the incised surface and the disc-type filter (D) is wider than a pre-gap (a) between the outer surface of the suction plate and the disc-type filter (D) before the slit by as much as the thickness (W). - a suction body having a container shape and including a drain hole to discharge content from inside the suction body outward; and - a suction plate mounted in the suction body to close an inlet part thereof and to be installed, in use, to be almost pressed against the disc-shaped filter (D), the suction plate including a slit formed on an outer surface of the suction plate which is exposed outward to perform backwash of the fleeces (F) on the disc-shaped filter (D); characterized in that an incised surface is formed in the suction plate by cutting to a predetermined thickness (W) one side of the outer surface on the basis of the slit that is surpassed by the fleeces (F) which have been backwashed in the slit , in that a room is provided in the incised surface , and a pattern roller is mounted in the room to rotate in place while being partially exposed and protruding outward from the incised surface so as to form patterns on a surface of fleeces (F) which have passed through the slit , and in that the incised surface is formed such that, when the suction plate is installed to be almost pressed against the disc-type filter (D), a post-gap (b) between the incised surface and the disc-type filter (D) is wider than a pre-gap (a) between the outer surface of the suction plate and the disc-type filter (D) before the slit by as much as the thickness (W).