mhurhangee/patent-ind-claim-en huggingface dataset:
Compounds of formula ( I ) and ( II ) for use in the inhibition of colon adenocarcinoma and lymphoma cells, wherein R, R 1 , R 2 and R 3 represent; H, alkyl, aryl, vinyl, allyl, alkoxyl, halogen (F, Br, Cl), OH, CN, CHO and CO 2 H, R 4 represents a linear alkyl group with 1-6 carbons, a cycloheteroalkyl group, like: an aryl group or heteroaryl group, that includes, a substituted phenyl group (containing alkoxyl, halogen (F, Br, Cl), OH, CN, CHO, CO 2 H), 2- and 4-pyridine, pyrimidine, pyridazine, thiophene, furane, pyran, benzoyl, pyrrole; A benzyl group where R' is an alkoxyl, halogen (F, Br, Cl), OH, CN, CHO and CO 2 H, R 5 represents an aryl group. R, R 1 , R 2 and R 3 represent; H, alkyl, aryl, vinyl, allyl, alkoxyl, halogen (F, Br, Cl), OH, CN, CHO and CO 2 H, R 4 represents a linear alkyl group with 1-6 carbons, a cycloheteroalkyl group, like: an aryl group or heteroaryl group, that includes, a substituted phenyl group (containing alkoxyl, halogen (F, Br, Cl), OH, CN, CHO, CO 2 H), 2- and 4-pyridine, pyrimidine, pyridazine, thiophene, furane, pyran, benzoyl, pyrrole; A benzyl group where R' is an alkoxyl, halogen (F, Br, Cl), OH, CN, CHO and CO 2 H, R 5 represents an aryl group.
A massage roller comprising: a massage roller body comprising: a generally circular cross section; opposing first and second end portions , each convexly arcuate along a corresponding end portion length ; a convex medial portion ; a first concave lateral portion axially extending between said first end portion and said convex medial portion ; and a second concave lateral portion axially extending between said second end portion and said convex medial portion , wherein the first concave lateral portion has a minimum diameter which is greater than the minimum diameter of the second concave lateral portion. a generally circular cross section; opposing first and second end portions , each convexly arcuate along a corresponding end portion length ; a convex medial portion ; a first concave lateral portion axially extending between said first end portion and said convex medial portion ; and a second concave lateral portion axially extending between said second end portion and said convex medial portion , wherein the first concave lateral portion has a minimum diameter which is greater than the minimum diameter of the second concave lateral portion.
A method for performing root cause analysis for an assembly line including a plurality of nodes, the method comprising: receiving tracking data collected by one or more tracking sensors associated with the assembly line, the tracking data identifying a subset of the plurality of nodes processing a product produced by the assembly line characterized by the following steps: receiving approval data associated with the assembly line, the approval data identifying whether each product produced by the assembly line fails an approval metric, enumerating, with an electronic processor, a plurality of paths through the assembly line based on the tracking data, determining, with the electronic processor, a failure rate for each of the plurality of paths based on the approval data, identifying, with the electronic processor, a malfunctioning path included in the plurality of paths based on the failure rate for each of the plurality of paths, identifying, with the electronic processor, a malfunctioning node based on the malfunctioning path, and performing an automatic action to address the malfunctioning node. receiving approval data associated with the assembly line, the approval data identifying whether each product produced by the assembly line fails an approval metric, enumerating, with an electronic processor, a plurality of paths through the assembly line based on the tracking data, determining, with the electronic processor, a failure rate for each of the plurality of paths based on the approval data, identifying, with the electronic processor, a malfunctioning path included in the plurality of paths based on the failure rate for each of the plurality of paths, identifying, with the electronic processor, a malfunctioning node based on the malfunctioning path, and performing an automatic action to address the malfunctioning node.
A method of operating a gas turbine engine compressor , the engine comprising: a compressor having an environmental control system bleed port having an outlet in fluid communication with an aircraft environmental control system air duct ; and an air turbine starter configured to rotate a compressor shaft of the gas turbine engine , wherein the method comprises: determining a surge margin of the compressor ; and where the surge margin of the compressor is determined to be below a predetermined minimum surge margin, opening an air turbine valve to supply air to the air turbine starter , characterised in that the air turbine starter has an inlet in fluid communication with the environmental control system air duct via the air turbine valve . a compressor having an environmental control system bleed port having an outlet in fluid communication with an aircraft environmental control system air duct ; and an air turbine starter configured to rotate a compressor shaft of the gas turbine engine , wherein the method comprises: determining a surge margin of the compressor ; and where the surge margin of the compressor is determined to be below a predetermined minimum surge margin, opening an air turbine valve to supply air to the air turbine starter , characterised in that the air turbine starter has an inlet in fluid communication with the environmental control system air duct via the air turbine valve . determining a surge margin of the compressor ; and where the surge margin of the compressor is determined to be below a predetermined minimum surge margin, opening an air turbine valve to supply air to the air turbine starter , characterised in that the air turbine starter has an inlet in fluid communication with the environmental control system air duct via the air turbine valve .
Method for selecting a network slice instantiation (S0,S1,S2) in a communication network for the transmission of uplink data from a user terminal (UE), the method comprising the following steps, subsequent to the receipt (E20) of an uplink packet (Pi) by a communication module (COM) of the user terminal: verifying (E30), by means of the communication module (COM), the correspondence between the uplink packet and at least one rule (R1,R2) designating a network slice instantiation able to transmit the uplink packet in the communication network; when the uplink packet corresponds to a rule designating a network slice instantiation, transmitting (E54), by means of the communication module (COM), the uplink packet to an entity for access to the user plane (ANUP 1 ) of the designated network slice instantiation; and when no rule designating a network slice instantiation corresponds to the uplink packet, transmitting (E41), by means of the communication module (COM), the uplink packet to an entity for access to the user plane (ANUP 0 ) of a default network slice instantiation (S0). verifying (E30), by means of the communication module (COM), the correspondence between the uplink packet and at least one rule (R1,R2) designating a network slice instantiation able to transmit the uplink packet in the communication network; when the uplink packet corresponds to a rule designating a network slice instantiation, transmitting (E54), by means of the communication module (COM), the uplink packet to an entity for access to the user plane (ANUP 1 ) of the designated network slice instantiation; and when no rule designating a network slice instantiation corresponds to the uplink packet, transmitting (E41), by means of the communication module (COM), the uplink packet to an entity for access to the user plane (ANUP 0 ) of a default network slice instantiation (S0).
A device for inspecting and cleaning a conduit or pipe section, comprising a camera apparatus arranged at the end of a cable and a propulsion apparatus which is connected to a hose for supplying fluid to at least one nozzle oriented at an angle to a main propulsion direction, wherein the nozzle is formed in or on an annular body which is rotatably mounted on a base body of the propulsion apparatus which is formed in one or more parts, characterized in that the cable connected to the camera apparatus is guided separately from the hose , the cable being accommodated in the base body in sections and being arranged eccentrically with respect to a central longitudinal axis of the base body which defines the main propulsion direction.
A method of identifying a signal source in a Peripheral Component Interconnect, PCI express, PCIe system , comprising: receiving at a host from a PCIe endpoint (104 - 104(M)) a signal having a requester identifier in header and a source identifier in a body wherein the body comprises first sixteen reserved bits, and wherein the source identifier is in at least one of the first sixteen reserve bits; at a root complex of the host, removing the requester identifier; extracting the body to form a message signaled interrupt, MSI vector with the source identifier still in a body of the MSI vector; and passing over a System Network on a Chip, SNoC , the MSI vector to an interrupt controller in the host with the source identifier still in the body of the MSI vector. receiving at a host from a PCIe endpoint (104 - 104(M)) a signal having a requester identifier in header and a source identifier in a body wherein the body comprises first sixteen reserved bits, and wherein the source identifier is in at least one of the first sixteen reserve bits; at a root complex of the host, removing the requester identifier; extracting the body to form a message signaled interrupt, MSI vector with the source identifier still in a body of the MSI vector; and passing over a System Network on a Chip, SNoC , the MSI vector to an interrupt controller in the host with the source identifier still in the body of the MSI vector.
An ink for three-dimensional printing, comprising: a curable material and a gellant, wherein the curable material comprises a polymerizable component comprising at least one ethylenically unsaturated moiety; and wherein the gellant is formed from the reaction of compound (A) with compound (B) or (B') and compound (C) or (C'): OCN-R 1 -NCO (A), HO-R 2 -OH (B), R 2 -OH (B'), and wherein R 1 , R 2 , and R 3 are each independently a linear or branched alkyl, aryl, alkylaryl, or arylalkyl moiety having from 1 to 50 carbon atoms; R 4 is -H or -CH 3 ; and X is -O-, -OCH 2 -, -OC(O)-, or -CH 2 -; wherein the ink has a gelation rate of 1.7 to 20 min. -1 . wherein the curable material comprises a polymerizable component comprising at least one ethylenically unsaturated moiety; and wherein the gellant is formed from the reaction of compound (A) with compound (B) or (B') and compound (C) or (C'): OCN-R 1 -NCO (A), HO-R 2 -OH (B), R 2 -OH (B'), and wherein R 1 , R 2 , and R 3 are each independently a linear or branched alkyl, aryl, alkylaryl, or arylalkyl moiety having from 1 to 50 carbon atoms; R 4 is -H or -CH 3 ; and X is -O-, -OCH 2 -, -OC(O)-, or -CH 2 -; wherein R 1 , R 2 , and R 3 are each independently a linear or branched alkyl, aryl, alkylaryl, or arylalkyl moiety having from 1 to 50 carbon atoms; R 4 is -H or -CH 3 ; and X is -O-, -OCH 2 -, -OC(O)-, or -CH 2 -; wherein the ink has a gelation rate of 1.7 to 20 min. -1 .
A method for manufacturing a bioprosthetic heart valve , characterized by the method comprising: contouring at least a portion of a valve leaflet formed from a biological tissue with a predetermined pattern, the predetermined pattern comprising a plurality of ridges or depressions oriented in the same or different directions; and coupling one or more leaflets to a support frame; wherein adjacent ridges or depressions are at least 10 microns apart to prevent or at least impede the migration of fibroblasts transversely across the ridges or depressions. contouring at least a portion of a valve leaflet formed from a biological tissue with a predetermined pattern, the predetermined pattern comprising a plurality of ridges or depressions oriented in the same or different directions; and coupling one or more leaflets to a support frame; wherein adjacent ridges or depressions are at least 10 microns apart to prevent or at least impede the migration of fibroblasts transversely across the ridges or depressions.
A method for transmitting a signal on a channel of an unlicensed band by a base station of a mobile communication system, the method comprising: transmitting a discovery signal without data during a first slot duration and maintaining a counter for the first slot duration; decreasing the counter and sensing the channel during a second slot duration ; and transmitting data on the channel in case that the channel is sensed to be idle during the second slot duration and a value of the decreased counter is zero, wherein the discovery signal is transmitted using a first parameter set, and the data is transmitted using a second parameter set, and wherein each of the first parameter set and the second parameter set includes i) a maximum value for a contention window, ii) a minimum value for the contention window, and iii) a length of the second slot duration. transmitting a discovery signal without data during a first slot duration and maintaining a counter for the first slot duration; decreasing the counter and sensing the channel during a second slot duration ; and transmitting data on the channel in case that the channel is sensed to be idle during the second slot duration and a value of the decreased counter is zero, wherein the discovery signal is transmitted using a first parameter set, and the data is transmitted using a second parameter set, and wherein each of the first parameter set and the second parameter set includes i) a maximum value for a contention window, ii) a minimum value for the contention window, and iii) a length of the second slot duration.
A deuterated chenodeoxycholic acid derivative represented by formula (I) or a crystal form, a pharmaceutically acceptable salt, a hydrate or a solvate thereof: wherein: R 1 , R 3 , R 4 , R 5 and R 6 are each independently hydrogen or deuterium and R 2 is deuterium. R 1 , R 3 , R 4 , R 5 and R 6 are each independently hydrogen or deuterium and R 2 is deuterium.
Stator cooling housing for a stator of a rotary electric motor, comprising: a cylindrical frame adapted to be mounted around an iron core and having an outer lateral surface with cylindrical grooves or fins , the cylindrical frame comprising a recess on a portion of the outer lateral surface, the recess having a bottom part and a border surrounding the bottom part, at least one inlet channel (17a; 16a, 16b) and at least one outlet channel (17b; 18a, 18b) in fluid communication with the recess , an add-on piece mounted into said recess , and a cylindrical jacket arranged against the outer lateral surface of the cylindrical frame to form with said cylindrical grooves or fins cylindrical cooling channels , wherein the add-on piece comprises a fluid cooling arrangement in fluid communication, on the one hand, with said at least one inlet channel (17a; 16a, 16b) and said at least one outlet channel (17b; 18a, 18b) and, on the other hand, with said cylindrical cooling channels to form at least one cooling circuit characterized in that the perimeter of the add-on piece is arranged against the border of the recess . a cylindrical frame adapted to be mounted around an iron core and having an outer lateral surface with cylindrical grooves or fins , the cylindrical frame comprising a recess on a portion of the outer lateral surface, the recess having a bottom part and a border surrounding the bottom part, at least one inlet channel (17a; 16a, 16b) and at least one outlet channel (17b; 18a, 18b) in fluid communication with the recess , an add-on piece mounted into said recess , and a cylindrical jacket arranged against the outer lateral surface of the cylindrical frame to form with said cylindrical grooves or fins cylindrical cooling channels , wherein the add-on piece comprises a fluid cooling arrangement in fluid communication, on the one hand, with said at least one inlet channel (17a; 16a, 16b) and said at least one outlet channel (17b; 18a, 18b) and, on the other hand, with said cylindrical cooling channels to form at least one cooling circuit
Method of producing cellulose carbamate in an aqueous phase comprising the steps of a) providing a cellulose raw-material; b) providing urea; c) mixing cellulose and urea to provide a mixture; d) subjecting the mixture to a reduced pressure of no more than 350 mbar(a); e) heating the mixture to a temperature of 130 to 150 °C to subject cellulose to reaction with urea to form cellulose carbamate, provided the reaction is carried out in the absence of liquid ammonia; f) releasing the pressure; g) recovering the cellulose carbamate, and h) washing the cellulose carbamate with water to remove water soluble nitrogenous compounds wherein the water-soluble nitrogeneous compounds make up at the most 12 %, preferably 6 % or less, of the total weight of cellulose carbamate and water-soluble nitrogenous compounds. a) providing a cellulose raw-material; b) providing urea; c) mixing cellulose and urea to provide a mixture; d) subjecting the mixture to a reduced pressure of no more than 350 mbar(a); e) heating the mixture to a temperature of 130 to 150 °C to subject cellulose to reaction with urea to form cellulose carbamate, provided the reaction is carried out in the absence of liquid ammonia; f) releasing the pressure; g) recovering the cellulose carbamate, and h) washing the cellulose carbamate with water to remove water soluble nitrogenous compounds wherein the water-soluble nitrogeneous compounds make up at the most 12 %, preferably 6 % or less, of the total weight of cellulose carbamate and water-soluble nitrogenous compounds.
An electrocardiogram analyzer comprising: a first acquiring section that acquires a body surface electrocardiogram of a subject; a second acquiring section that acquires an intracardiac electrocardiogram of a ventricle of a heart of the subject; and an analyzing section that performs a frequency analysis on the intracardiac electrocardiogram and includes: a range setting section that sets an analysis time range of the frequency analysis in the intracardiac electrocardiogram based on a beat appearing in the body surface electrocardiogram, wherein the analysis time range is set by means of a predetermined period of time before and after the QRS waveform in each beat of the body surface electrocardiogram; and a calculating section that, in the analysis time range, performs the frequency analysis on the intracardiac electrocardiogram, and that calculates an index value indicating a ratio of local abnormal ventricular activities in the intracardiac electrocardiogram. a first acquiring section that acquires a body surface electrocardiogram of a subject; a second acquiring section that acquires an intracardiac electrocardiogram of a ventricle of a heart of the subject; and an analyzing section that performs a frequency analysis on the intracardiac electrocardiogram and includes: a range setting section that sets an analysis time range of the frequency analysis in the intracardiac electrocardiogram based on a beat appearing in the body surface electrocardiogram, wherein the analysis time range is set by means of a predetermined period of time before and after the QRS waveform in each beat of the body surface electrocardiogram; and a calculating section that, in the analysis time range, performs the frequency analysis on the intracardiac electrocardiogram, and that calculates an index value indicating a ratio of local abnormal ventricular activities in the intracardiac electrocardiogram. a range setting section that sets an analysis time range of the frequency analysis in the intracardiac electrocardiogram based on a beat appearing in the body surface electrocardiogram, wherein the analysis time range is set by means of a predetermined period of time before and after the QRS waveform in each beat of the body surface electrocardiogram; and a calculating section that, in the analysis time range, performs the frequency analysis on the intracardiac electrocardiogram, and that calculates an index value indicating a ratio of local abnormal ventricular activities in the intracardiac electrocardiogram.
A concentrated laundry detergent composition premix comprising water, 20 to 40% wt. surfactant, 1.3 to 3.0% wt. fatty acid, a hydrotrope, alkyl amidopropyl betaine and a salt selected from sodium and potassium chloride, and having a pH of from 6 to 7.4.
A coating composition comprising, by dry weight based on total dry weight of the coating composition, i) from 20 wt.% to 45 wt.% of an emulsion copolymer being a copolymerization product of a monomer mixture comprising, based on the total dry weight of the emulsion copolymer, from 30 wt.% to 80 wt.% of ethyl acrylate; from 20 wt.% to 70 wt.% of styrene; and from 1 wt.% to 4 wt.% of an ethylenically unsaturated carboxylic acid monomer or a salt thereof; ii) from 0.5% to 5% of a paraffin wax; iii) from 30% to 55% of a pigment; and iv) from 0.003% to 0.5% of lithium hydroxide. i) from 20 wt.% to 45 wt.% of an emulsion copolymer being a copolymerization product of a monomer mixture comprising, based on the total dry weight of the emulsion copolymer, from 30 wt.% to 80 wt.% of ethyl acrylate; from 20 wt.% to 70 wt.% of styrene; and from 1 wt.% to 4 wt.% of an ethylenically unsaturated carboxylic acid monomer or a salt thereof; ii) from 0.5% to 5% of a paraffin wax; iii) from 30% to 55% of a pigment; and iv) from 0.003% to 0.5% of lithium hydroxide.