mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a curing agent composition, comprising: (a) an initiator comprising at least one basic substance, and (b1) at least one 2-methylene-1,3-dicarbonyl compound having a molecular weight determined by the method mentioned in the specification of 180 or higher and 10,000 or lower, for curing a base resin comprising the following component (b2), (b2) at least one 2-methylene-1,3-dicarbonyl compound, wherein the 2-methylene-1,3-dicarbonyl compound is a compound comprising at least one structural unit represented by formula (I) below. (a) an initiator comprising at least one basic substance, and (b1) at least one 2-methylene-1,3-dicarbonyl compound having a molecular weight determined by the method mentioned in the specification of 180 or higher and 10,000 or lower, for curing a base resin comprising the following component (b2), (b2) at least one 2-methylene-1,3-dicarbonyl compound, wherein the 2-methylene-1,3-dicarbonyl compound is a compound comprising at least one structural unit represented by formula (I) below.
Two-wheeler assembly, in particular bicycle assembly, comprising: - a spring device , - a hydraulic brake device having a wheel brake , a brake activator and a hydraulic brake line which connects the brake activator to the wheel brake , and - a coupling device which couples the spring device and the brake device to one another, and - an arresting device which is arranged on the spring device , wherein the arresting device is configured to arrest the spring device , characterized in that the coupling device is configured in such a way that a spring operation of the spring device leads to a pressure change in the brake line of the brake device. - a spring device , - a hydraulic brake device having a wheel brake , a brake activator and a hydraulic brake line which connects the brake activator to the wheel brake , and - a coupling device which couples the spring device and the brake device to one another, and - an arresting device which is arranged on the spring device , wherein the arresting device is configured to arrest the spring device ,
An electronic device having a front surface and including an ultrasonic proximity sensor arrangement comprising: an ultrasonic transmitter recessed from the front surface; an ultrasonic receiver recessed from the front surface; the ultrasonic proximity sensor arrangement being arranged to determine proximity of an object to said front surface based on a signal received by the ultrasonic receiver , wherein the received signal is a reflection from said object of a signal transmitted from the ultrasonic transmitter ; characterised in that : the ultrasonic proximity sensor arrangement further comprises a structure disposed in front of the receiver defining at least first and second discrete signal paths having different path lengths such that signals travelling from the transmitter to the receiver via the first and second paths without passing the front surface undergo a destructive interference which is greater than a destructive interference undergone by signals travelling from the transmitter to the receiver after passing the front surface and being reflected back through the front surface by the object. an ultrasonic transmitter recessed from the front surface; an ultrasonic receiver recessed from the front surface; the ultrasonic proximity sensor arrangement being arranged to determine proximity of an object to said front surface based on a signal received by the ultrasonic receiver , wherein the received signal is a reflection from said object of a signal transmitted from the ultrasonic transmitter ; characterised in that : the ultrasonic proximity sensor arrangement further comprises a structure disposed in front of the receiver defining at least first and second discrete signal paths having different path lengths such that signals travelling from the transmitter to the receiver via the first and second paths without passing the front surface undergo a destructive interference which is greater than a destructive interference undergone by signals travelling from the transmitter to the receiver after passing the front surface and being reflected back through the front surface by the object.
Cosmetic use of a composition for external application which comprises as an effective ingredient at least one component selected from the group consisting of trehalulose and isomaltulose, for improving wrinkles or sagging.
A wireless communication method performed by a first network device in 2. a communications system comprising a first network device, a second network device, and a terminal device, wherein the terminal device is communicatively connected to the first network device and the second network device respectively during a handover procedure for handing over the terminal device from the first network device to the second network device, wherein the method comprises sending (S222), by the first network device, a first message to the terminal device, wherein the first message is used to instruct the terminal device to stop communication with the first network device, or the first message is used to instruct the terminal device to release a protocol stack and a data radio bearer that are corresponding to the first network device; wherein the first message carries a first data packet, wherein a sequence number or a count value of the first data packet is the same as or adjacent to a sequence number or a count value of a second data packet sent by the second network device. to the terminal device. sending (S222), by the first network device, a first message to the terminal device, wherein the first message is used to instruct the terminal device to stop communication with the first network device, or the first message is used to instruct the terminal device to release a protocol stack and a data radio bearer that are corresponding to the first network device; wherein the first message carries a first data packet, wherein a sequence number or a count value of the first data packet is the same as or adjacent to a sequence number or a count value of a second data packet sent by the second network device. to the terminal device.
A suspension assembly for a heavy-duty vehicle, the suspension assembly configured to be supported by a frame of the heavy-duty vehicle, the suspension assembly comprising: a hanger made up of two hanger side portions configured to be fixed to the frame ; a beam including a top plate , a pair of outboard and inboard sidewalls and a bottom wall , the beam having a front end portion , a rear end portion and an extension , the front end portion being operatively connected to the hanger at a pivotal connection ; an axle supported by the front end portion of the beam for pivotal movement relative to the hanger at the pivotal connection , the front end portion of the beam being located on a first side of the pivotal connection ; an air spring configured to be connected to the frame and to the rear end portion of the beam ; and a bumper or lift bag fixed to the extension of the beam , the extension of the beam located on an opposite, second side of the pivotal connection to the front end portion, the bumper or lift bag having a portion for contacting an engagement member fixed to the hanger to limit relative pivotal movement of the beam and the axle in one direction, the configuration and relative positioning of the bumper or lift bag and the engagement member determining the range of pivotal movement of the beam , the bumper or lift bag functioning to limit the pivotal movement of the axle when exposed to compressive force in the one direction, the bumper or lift bag being spaced apart from the engagement member when the beam and axle are at neutral ride-height. a hanger made up of two hanger side portions configured to be fixed to the frame ; a beam including a top plate , a pair of outboard and inboard sidewalls and a bottom wall , the beam having a front end portion , a rear end portion and an extension , the front end portion being operatively connected to the hanger at a pivotal connection ; an axle supported by the front end portion of the beam for pivotal movement relative to the hanger at the pivotal connection , the front end portion of the beam being located on a first side of the pivotal connection ; an air spring configured to be connected to the frame and to the rear end portion of the beam ; and a bumper or lift bag fixed to the extension of the beam , the extension of the beam located on an opposite, second side of the pivotal connection to the front end portion, the bumper or lift bag having a portion for contacting an engagement member fixed to the hanger to limit relative pivotal movement of the beam and the axle in one direction, the configuration and relative positioning of the bumper or lift bag and the engagement member determining the range of pivotal movement of the beam , the bumper or lift bag functioning to limit the pivotal movement of the axle when exposed to compressive force in the one direction, the bumper or lift bag being spaced apart from the engagement member when the beam and axle are at neutral ride-height.
A machined spring comprising: opposed first and second spring bases separated apart along a longitudinal axis (A); and a spring body connecting the first and second spring bases, wherein the spring body includes a generally annular wall with a first helical spring channel defined therethrough, wherein at least one of the spring bases includes a valve cross-over configured and adapted to allow flow of liquid out from inside the generally annular wall through the valve cross-over for use in a valve. opposed first and second spring bases separated apart along a longitudinal axis (A); and a spring body connecting the first and second spring bases, wherein the spring body includes a generally annular wall with a first helical spring channel defined therethrough, wherein at least one of the spring bases includes a valve cross-over configured and adapted to allow flow of liquid out from inside the generally annular wall through the valve cross-over for use in a valve.
An optical sensing element for vapour phase detection of hydrogen peroxide, the optical sensing element comprising a sensing compound provided as a coating on a substrate, wherein the sensing compound is a compound that on exposure to hydrogen peroxide forms a luminescent reporter compound when excited with stimulating radiation at a predetermined wavelength that the sensing compound does not absorb, wherein the sensing compound is a compound of general formula: in which: each R group can be the same or different C 2-5 alkyl moiety or together with the oxygen atoms to which they are attached form a cyclic structure containing up to 5 carbon atoms, optionally substituted by one or more C 1-4 alkyl groups; Ar1 is a (hetero)aromatic moiety and/or comprises fused (hetero)aromatic rings or a chain of (hetero)aromatic or fused (hetero)aromatic rings moieties; Ar2 is an aromatic unit with electron withdrawing groups attached or a higher electron affinity heteroaromatic moiety; R' is a solubilising group; m is an integer equal to 1 or greater; n is an integer equal to 1 or greater L is a linker unit that is present when n is greater than 1. wherein the sensing compound is a compound of general formula: in which: each R group can be the same or different C 2-5 alkyl moiety or together with the oxygen atoms to which they are attached form a cyclic structure containing up to 5 carbon atoms, optionally substituted by one or more C 1-4 alkyl groups; Ar1 is a (hetero)aromatic moiety and/or comprises fused (hetero)aromatic rings or a chain of (hetero)aromatic or fused (hetero)aromatic rings moieties; Ar2 is an aromatic unit with electron withdrawing groups attached or a higher electron affinity heteroaromatic moiety; R' is a solubilising group; m is an integer equal to 1 or greater; n is an integer equal to 1 or greater L is a linker unit that is present when n is greater than 1.
Method for the preparation of EPD or an analogue thereof according to formula I wherein R 1 and R 2 are independently selected from R 3 , SR 3 , SO 2 R 3 , N(R 3 ) 2 , C(O)NR 3 , NC(O)R 3 , OR 3 , CO 2 R 3 , OC(O)R 3 , Cl, F, Br or I, preferably OR 3 or R 3 and; R 3 is selected from H, C 1 -C 8 hydrocarbyl or poly(alkene oxide), preferably from H or methyl; said method comprising converting a intermediate compound of formula II to EPD or an analogue of formula I by one or more steps comprising methylenation. R 3 is selected from H, C 1 -C 8 hydrocarbyl or poly(alkene oxide), preferably from H or methyl; said method comprising converting a intermediate compound of formula II
A gradient change detection system for a moving body for detecting a change in a gradient of a traveling path, the gradient change detection system comprising: a posture detection unit that detects a posture change amount in a rotation direction about a left-right direction with respect to a traveling direction of a moving body ; and a gradient change detector that detects a change in a gradient of the traveling path based on a variation amount in predetermined unit time of the posture change amount, wherein the gradient change detector detects that a posture change of the moving body is started due to a gradient change of the traveling path by detecting that an absolute value of the variation amount becomes in a state of being larger than a predetermined first threshold value from a state of being equal to or less than the predetermined first threshold value, and upon detecting that the posture change of the moving body is started, the gradient change detector detects that a posture change of the moving body due to a gradient change is completed by detecting that the absolute value of the variation amount is equal to or less than a predetermined second threshold value during the posture change of the moving body due to the gradient change of the traveling path path , wherein the second threshold value is smaller than the first threshold value. a posture detection unit that detects a posture change amount in a rotation direction about a left-right direction with respect to a traveling direction of a moving body ; and a gradient change detector that detects a change in a gradient of the traveling path based on a variation amount in predetermined unit time of the posture change amount, wherein the gradient change detector detects that a posture change of the moving body is started due to a gradient change of the traveling path by detecting that an absolute value of the variation amount becomes in a state of being larger than a predetermined first threshold value from a state of being equal to or less than the predetermined first threshold value, and upon detecting that the posture change of the moving body is started, the gradient change detector detects that a posture change of the moving body due to a gradient change is completed by detecting that the absolute value of the variation amount is equal to or less than a predetermined second threshold value during the posture change of the moving body due to the gradient change of the traveling path path , wherein the second threshold value is smaller than the first threshold value.
A method for the calibration of a laboratory instrument comprising: providing an optical system capable of imaging florescence emission from a plurality of sample wells and acquiring a fluorescence image of the plurality of sample wells, the optical system comprising pairs of excitation and emission filters; estimating an initial region of interest, ROI, from fluorescence thresholds from each sample well in the fluorescence image; estimating center locations of each ROI; estimating a size of each ROI; determining an average size of the ROIs from the plurality of sample wells; deriving global gridding models, wherein the deriving comprises analyzing the estimated center locations of each ROI to determine adjacent ROIs by comparing a center-to-center distance between ROIs to grid coordinates of a well plate layout and determining an X and Y grid coordinate for each of the ROI center locations; applying the global gridding models to the ROIs by determining and applying mapping functions that map the X or Y grid coordinates to the center locations of each ROI in the X or Y direction, the mapping functions being a pair of 2-dimensional quadratic polynomial functions; recovering missing ROIs with the mapping functions; for each filter pair of the instrument, incrementally extending the radius of each of the ROIs, and calculating a signal-to-noise ratio for each increment, wherein an optimized radius for each of the ROIs is determined as the extended radius of the ROIs that provides the most improved signal-to-noise ratio of the optical system. providing an optical system capable of imaging florescence emission from a plurality of sample wells and acquiring a fluorescence image of the plurality of sample wells, the optical system comprising pairs of excitation and emission filters; estimating an initial region of interest, ROI, from fluorescence thresholds from each sample well in the fluorescence image; estimating center locations of each ROI; estimating a size of each ROI; determining an average size of the ROIs from the plurality of sample wells; deriving global gridding models, wherein the deriving comprises analyzing the estimated center locations of each ROI to determine adjacent ROIs by comparing a center-to-center distance between ROIs to grid coordinates of a well plate layout and determining an X and Y grid coordinate for each of the ROI center locations; applying the global gridding models to the ROIs by determining and applying mapping functions that map the X or Y grid coordinates to the center locations of each ROI in the X or Y direction, the mapping functions being a pair of 2-dimensional quadratic polynomial functions; recovering missing ROIs with the mapping functions; for each filter pair of the instrument, incrementally extending the radius of each of the ROIs, and calculating a signal-to-noise ratio for each increment, wherein an optimized radius for each of the ROIs is determined as the extended radius of the ROIs that provides the most improved signal-to-noise ratio of the optical system.
Steam and gas turbine device comprising a gas turbine unit (A) and a steam turbine unit (B), wherein the gas turbine unit (A) is partly composed of at least the following: - a gas compressor positioned on a compressor axle , a combustion chamber and a gas turbine positioned on a gas turbine axle ; and wherein the steam turbine unit (B) is partly composed of the following: - a closed steam line in which at least the following are accommodated: - a pump ; a steam converter (8; 50), which, in operation, is in heat-exchanging contact with the gases coming from the gas turbine ; a steam turbine positioned on a steam turbine axle ; as well as a condenser and wherein, in operation, the steam turbine drives the gas compressor of the gas turbine unit (A), wherein the gas turbine unit (A) furthermore comprises at least one heat exchanger which brings the combustible flue gases coming from the combustion chamber into heat-exchanging contact with the gases coming from the gas compressor characterized in that the gas turbine unit (A) comprises a blow-off valve which is arranged upstream of the gas turbine and upstream of the at least one heat exchanger for blowing off the gases coming from the gas compressor . - a gas compressor positioned on a compressor axle , a combustion chamber and a gas turbine positioned on a gas turbine axle ; and wherein the steam turbine unit (B) is partly composed of the following: - a closed steam line in which at least the following are accommodated: - a pump ; a steam converter (8; 50), which, in operation, is in heat-exchanging contact with the gases coming from the gas turbine ; a steam turbine positioned on a steam turbine axle ; as well as a condenser and wherein, in operation, the steam turbine drives the gas compressor of the gas turbine unit (A), wherein the gas turbine unit (A) furthermore comprises at least one heat exchanger which brings the combustible flue gases coming from the combustion chamber into heat-exchanging contact with the gases coming from the gas compressor characterized in that the gas turbine unit (A) comprises a blow-off valve which is arranged upstream of the gas turbine and upstream of the at least one heat exchanger for blowing off the gases coming from the gas compressor .
A human T cell comprising a nucleic acid sequence encoding a chimeric antigen receptor (CAR), wherein the CAR comprises a CD19 antigen binding domain comprising the amino acid sequence of SEQ ID NO:37, wherein the antigen binding fragment is a scFv and the CAR further comprises a transmembrane domain, and an intracellular domain and a signaling domain of a costimulatory molecule.
A bumper beam arrangement for a vehicle, comprising an elongated beam having a central flange and webs on each side of the central flange , wherein the webs of the elongated beam at a central section of the elongated beam with regard to the length of the elongated beam have a first extension (e1), wherein the webs of the elongated beam at outer sections of the elongated beam with regard to the length of the elongated beam have a second extension (e2), wherein the second extension (e2) is less than the first extension (e1), the extension of the webs of the elongated beam gradually decreasing between the central section of the elongated beam and the outer sections of the elongated beam , wherein the bumper beam arrangement further comprises an elongated cover plate attached to said elongated beam , wherein the elongated cover plate has a central flange and webs on each side of the central flange of the elongated cover plate , wherein the webs of the elongated cover plate have extension profiles that correspond to the webs of the elongated beam such that the beam arrangement obtains a uniform thickness along its length, wherein the outer sections of the elongated beam have attachment passages , and wherein outer sections of the elongated cover plate have passages for providing access to the attachment passages of the elongated beam and for enabling the attachment of the bumper beam arrangement to a body of a vehicle.