mhurhangee/patent-ind-claim-en huggingface dataset:
A method for monitoring a characteristic of blood flow in a vertebrate animal subject, the method comprising: transmitting unfocussed plane-wave ultrasound pulses into the subject from a single-element ultrasound transducer that is fastened to an external surface of the subject receiving reflections of the ultrasound pulses at the single-element ultrasound transducer; generating a time series of pulse-Doppler response signals from the received reflections; selecting a depth or depth range at which to monitor a characteristic of blood flow within the subject; identifying a set of one or more heartbeats that satisfy a quality criterion; processing the pulse-Doppler response signals from the selected depth or depth range to determine values of the characteristic of blood flow within the subject, over time, for the selected depth or depth range, wherein the values of the characteristic of blood flow are determined over those heartbeats that satisfy the quality criterion; and detecting when one or more of the determined values of the characteristic of blood flow satisfies a predetermined alert criterion, and, in response, signalling an audible or visual alert. transmitting unfocussed plane-wave ultrasound pulses into the subject from a single-element ultrasound transducer that is fastened to an external surface of the subject receiving reflections of the ultrasound pulses at the single-element ultrasound transducer; generating a time series of pulse-Doppler response signals from the received reflections; selecting a depth or depth range at which to monitor a characteristic of blood flow within the subject; identifying a set of one or more heartbeats that satisfy a quality criterion; processing the pulse-Doppler response signals from the selected depth or depth range to determine values of the characteristic of blood flow within the subject, over time, for the selected depth or depth range, wherein the values of the characteristic of blood flow are determined over those heartbeats that satisfy the quality criterion; and detecting when one or more of the determined values of the characteristic of blood flow satisfies a predetermined alert criterion, and, in response, signalling an audible or visual alert.
A vinyl chloride polymer having a polydispersity (PDI) of 2.0 to 2.3 and a porosity of 60 % or greater, wherein the PDI is determined as set forth in the specification.
A formulation suitable for the manufacture of pressure sensitive adhesive, said formulation comprising: a) 40-95 wt% of polylalkylene carbonate having a weight average molecular weight equal to or higher than 17.000 Da; b) 5-60 wt% of a polyether carbonate polyol having CO 2 groups randomly incorporated in the chemical structure thereof, wherein the content of CO 2 ranges from 0,5 to 40 wt%, based on the total weight of the polyether carbonate polyol; and c) optionally, less than 30 wt% of a tackifying resin, wherein the weight percentages of the components a), b) and c) of the formulation are based on the total weight of the formulation, provided that said formulation does not contain any reticulating agent, and wherein the average weight molecular weight of the polylakylene carbonate is determined by gel-permeation chromatography. a) 40-95 wt% of polylalkylene carbonate having a weight average molecular weight equal to or higher than 17.000 Da; b) 5-60 wt% of a polyether carbonate polyol having CO 2 groups randomly incorporated in the chemical structure thereof, wherein the content of CO 2 ranges from 0,5 to 40 wt%, based on the total weight of the polyether carbonate polyol; and c) optionally, less than 30 wt% of a tackifying resin,
Windscreen wiper blade for a system for wiping a vehicle window, in particular a motor vehicle window, comprising: - a blade rubber , - an elastic elongate support element in the form of a strip , - a longitudinal member for holding said blade rubber , and - a longitudinal body that comprises an aerodynamic deflector , means for fastening to the holding member and an internal cavity for receiving said elongate support element, said windscreen wiper blade being characterized in that it comprises: - a first module having the holding member bearing the blade rubber , fitted to - a second module having the longitudinal body and the elongate support element . - a blade rubber , - an elastic elongate support element in the form of a strip , - a longitudinal member for holding said blade rubber , and - a longitudinal body that comprises an aerodynamic deflector , means for fastening to the holding member and an internal cavity for receiving said elongate support element, - a first module having the holding member bearing the blade rubber , fitted to - a second module having the longitudinal body and the elongate support element .
A method for ink jet printing or ink printing, the method comprising the following steps: - applying, to a substrate, a liquid, film-forming ink receiving layer for direct ink jet printing or ink printing, into which liquid printing inks can be introduced and which solidifies at a point in time subsequent to the ink application, wherein the ink receiving layer solidifies - chemically, i.e. chemically induced or catalyzed, or thermally initiated or spontaneously, - or physical-chemically in the sol-gel process, - applying, by means of direct ink jet printing or ink printing, liquid printing inks into the liquid ink receiving layer, - solidifying, in particular curing, the ink receiving layer. - applying, to a substrate, a liquid, film-forming ink receiving layer for direct ink jet printing or ink printing, into which liquid printing inks can be introduced and which solidifies at a point in time subsequent to the ink application, wherein the ink receiving layer solidifies - chemically, i.e. chemically induced or catalyzed, or thermally initiated or spontaneously, - or physical-chemically in the sol-gel process, - chemically, i.e. chemically induced or catalyzed, or thermally initiated or spontaneously, - or physical-chemically in the sol-gel process, - applying, by means of direct ink jet printing or ink printing, liquid printing inks into the liquid ink receiving layer, - solidifying, in particular curing, the ink receiving layer.
Sandwich component with a first cover layer (12-1), a second cover layer (12-2) and a core arranged between them, wherein the cover layers (12-1, 12-2) are each formed of an outer layer (16-1, 16-2) of a fiber-reinforced thermoplastic material having higher resistance to a particular solvent for dissolving thermoplastic materials and, fused thereto, an inner layer (18-1, 18-2) of a thermoplastic material having lower resistance to the solvent, wherein the core comprises outer layers (20-1, 20-2) each formed of a thermoplastic material having a lower resistance to the solvent, and an inner structure formed wholly or partly of a thermoplastic material having a higher resistance to the solvent, and wherein the inner layers (18-1, 18-2) of the cover layers (12-1, 12-2) are each fused with one of the outer layers (20-1, 20-2) of the core using the solvent.
An elution system comprising: a radioisotope generator configured to release a radioactive eluate containing a daughter radioisotope during an elution with an eluant the daughter radioisotope being produced from radioactive decay of a parent radioisotope contained within the radioisotope generator ; an eluate tubing line in fluid communication with the radioisotope generator ; a radioactivity detector positioned to detect a radioactivity of the radioactive eluate while the radioactive eluate is flowing through the eluate tubing line ; and a controller communicatively coupled to the radioactivity detector and configured to: receive data indicative of the radioactivity of the radioactive eluate generated during the elution thereby providing a radioactivity profile of the radioactive eluate relative to at least one of a time during the elution and a volume of radioactive eluate generated during the elution, and determine a characteristic of the radioactivity profile indicative of breakthrough of the parent radioisotope into the radioactive eluate. a radioisotope generator configured to release a radioactive eluate containing a daughter radioisotope during an elution with an eluant the daughter radioisotope being produced from radioactive decay of a parent radioisotope contained within the radioisotope generator ; an eluate tubing line in fluid communication with the radioisotope generator ; a radioactivity detector positioned to detect a radioactivity of the radioactive eluate while the radioactive eluate is flowing through the eluate tubing line ; and a controller communicatively coupled to the radioactivity detector and configured to: receive data indicative of the radioactivity of the radioactive eluate generated during the elution thereby providing a radioactivity profile of the radioactive eluate relative to at least one of a time during the elution and a volume of radioactive eluate generated during the elution, and determine a characteristic of the radioactivity profile indicative of breakthrough of the parent radioisotope into the radioactive eluate.
A cannabinoid containing oral solution comprising: a cannabinoid present in an amount of from 5 to 40% (w/v), an ultrahigh potency sweetener present in an amount of less than 0.05% (w/v), ethanol present in an amount of less than 2% (w/v), a flavourant present in an amount of less 0.2% (w/v) and a lipid solvent q.s. to 100%, characterised in that the sweetener is N-[N-(3,3-dimethylbutyl)-L-α-aspartyl]-L-phenylalanine 1-methyl ester) or N-[n-3-(3-hydroxy-4methoxyphenyl)propyl-α-L-aspartyl]-L-phenylalanine 1-methyl ester).
A redox flow battery comprising a positive electrode, a negative electrode, and a membrane interposed between the positive electrode and the negative electrode, wherein at least one of the positive electrode and the negative electrode includes an electrode for redox flow battery, the electrode being disposed opposite a membrane of the redox flow battery, comprising a fiber assembly including a plurality of carbon fibers, wherein the fiber assembly includes soft carbon fibers with a Young's modulus of 200 GPa or less, and wherein the fiber assembly further includes hard carbon fibers with a Young's modulus of over 200 GPa, characterised in that the fiber assembly has a multilayer structure including a soft fiber layer mainly composed of the soft carbon fibers and a hard fiber layer mainly composed of the hard carbon fibers; and the soft fiber layer forms a first side of the fiber assembly facing the membrane.
A tool (10; 10') for setting a setting element in a component while producing a friction welding connection between the setting element and the component , said tool (10; 10') comprising: a drive shaft which can be set into rotation about a drive axis for transmitting a torque to the setting element , characterized by a predetermined breaking point generating element extending at least sectionally around the drive axis . a drive shaft which can be set into rotation about a drive axis for transmitting a torque to the setting element , characterized by a predetermined breaking point generating element extending at least sectionally around the drive axis .
A heat exchanger assembly comprising: a first manifold adapted for receiving a first medium; a core adapted for receiving and placing a plurality of mediums , including the first medium, in at least one heat exchange relationship, the core meeting the first manifold at a first core/manifold interface ; and a mounting structure for supporting a heat exchanger, the mounting structure metallurgically joined to at least one heat exchanger assembly component at a first joint integrally formed with the mounting structure; characterized in that the core comprises: a first load-bearing region in connection with the joint, the first load-bearing region comprising a first plurality of corrugated fins having a first fin thickness; a first non-load bearing region outward of the non-load bearing region , the first non-loading bearing region comprising a second plurality of corrugated fins with a second thickness less than the first thickness; and a transition region therebetween; and wherein a topology of the first load-bearing region has a load bearing capacity greater than a load bearing capacity of the first non-load bearing region . a first manifold adapted for receiving a first medium; a core adapted for receiving and placing a plurality of mediums , including the first medium, in at least one heat exchange relationship, the core meeting the first manifold at a first core/manifold interface ; and a mounting structure for supporting a heat exchanger, the mounting structure metallurgically joined to at least one heat exchanger assembly component at a first joint integrally formed with the mounting structure; characterized in that the core comprises: a first load-bearing region in connection with the joint, the first load-bearing region comprising a first plurality of corrugated fins having a first fin thickness; a first non-load bearing region outward of the non-load bearing region , the first non-loading bearing region comprising a second plurality of corrugated fins with a second thickness less than the first thickness; and a transition region therebetween; and a first load-bearing region in connection with the joint, the first load-bearing region comprising a first plurality of corrugated fins having a first fin thickness; a first non-load bearing region outward of the non-load bearing region , the first non-loading bearing region comprising a second plurality of corrugated fins with a second thickness less than the first thickness; and a transition region therebetween; and wherein a topology of the first load-bearing region has a load bearing capacity greater than a load bearing capacity of the first non-load bearing region .
A plated steel sheet for hot press forming, the plated steel sheet comprising: a base steel sheet; an Al-Zn-based plating layer formed on at least one surface of the base steel sheet; and an Fe-Al-based interfacial alloy layer formed between the base steel sheet and the Al-Zn-based plating layer, wherein the Al-Zn-based plating layer comprises, by weight percentage, 10 to 30% of Zn, 1% or less of Fe, and a balance of aluminum and impurities, wherein the Fe-AI-based interfacial alloy layer comprises, by wt%, 30 to 60% of aluminum, 30 to 60% of iron, and 20% or less of silicon, and other impurities, wherein the Al-Zn-based plating layer optionally further comprises, by wt%, 0.05 to 10% of at least one selected from the group consisting of beryllium, titanium, and manganese, wherein the Al-Zn-based plating layer optionally further comprises, by wt%, 2% or less of magnesium, wherein a sum of thicknesses of the Al-Zn-based plating layer and the Fe-Al-based interfacial alloy layer is 5 to 40 μm, and wherein a thickness of the Fe-AI-based interfacial alloy layer is 5 to 35% of a sum of thicknesses of the Al-Zn-based plating layer and the Fe-AI-based interfacial alloy layer. a base steel sheet; an Al-Zn-based plating layer formed on at least one surface of the base steel sheet; and an Fe-Al-based interfacial alloy layer formed between the base steel sheet and the Al-Zn-based plating layer, wherein the Al-Zn-based plating layer comprises, by weight percentage, 10 to 30% of Zn, 1% or less of Fe, and a balance of aluminum and impurities, wherein the Fe-AI-based interfacial alloy layer comprises, by wt%, 30 to 60% of aluminum, 30 to 60% of iron, and 20% or less of silicon, and other impurities, wherein the Al-Zn-based plating layer optionally further comprises, by wt%, 0.05 to 10% of at least one selected from the group consisting of beryllium, titanium, and manganese, wherein the Al-Zn-based plating layer optionally further comprises, by wt%, 2% or less of magnesium, wherein a sum of thicknesses of the Al-Zn-based plating layer and the Fe-Al-based interfacial alloy layer is 5 to 40 μm, and wherein a thickness of the Fe-AI-based interfacial alloy layer is 5 to 35% of a sum of thicknesses of the Al-Zn-based plating layer and the Fe-AI-based interfacial alloy layer.
An adhesive composition comprising: (a) from 70 wt. % to 90 wt. % of one or more amorphous copolymers, wherein the one or more copolymers comprise (i) from 30 mole % to 70 mole % of monomer units selected from the group consisting of ethylene, 1-butene, and mixtures thereof; and (ii) from 30 mole % to 70 mole % of propene monomer units; (b) from 10 wt. % to 30 wt. % of heterophase copolymers, wherein the heterophase copolymers have an Enthalpy of Fusion of at least 20.0 J/g; (c) wherein the adhesive composition is free of polyisobutylene; (d) wherein the adhesive composition has a viscosity of from 2,000 mPa·s to 11,500 mPa·s at 150 °C, as measured by the Viscosity Test Method; (e) wherein the heterophase copolymers comprise a first heterophase copolymer and a second heterophase copolymer; (f) wherein the adhesive composition comprises from 5 wt. % to 15 wt. % of the first heterophase copolymer and from 5 wt. % to 15 wt. % of the second heterophase copolymer; and (g) wherein the first heterophase copolymer has a higher Enthalpy of Fusion than the second heterophase copolymer, as measured by the Enthalpy of Fusion Test Method. (a) from 70 wt. % to 90 wt. % of one or more amorphous copolymers, wherein the one or more copolymers comprise (i) from 30 mole % to 70 mole % of monomer units selected from the group consisting of ethylene, 1-butene, and mixtures thereof; and (ii) from 30 mole % to 70 mole % of propene monomer units; (b) from 10 wt. % to 30 wt. % of heterophase copolymers, wherein the heterophase copolymers have an Enthalpy of Fusion of at least 20.0 J/g; (c) wherein the adhesive composition is free of polyisobutylene; (d) wherein the adhesive composition has a viscosity of from 2,000 mPa·s to 11,500 mPa·s at 150 °C, as measured by the Viscosity Test Method; (e) wherein the heterophase copolymers comprise a first heterophase copolymer and a second heterophase copolymer; (f) wherein the adhesive composition comprises from 5 wt. % to 15 wt. % of the first heterophase copolymer and from 5 wt. % to 15 wt. % of the second heterophase copolymer; and (g) wherein the first heterophase copolymer has a higher Enthalpy of Fusion than the second heterophase copolymer, as measured by the Enthalpy of Fusion Test Method.
An aircraft wing fuel tank access cover, comprising an inner access cover , an outer access cover , a sandwich layer , a fixing piece and a fastener; the inner access cover is configured to be hermetically connected to a wing lower panel and the outer access cover through the sandwich layer ; the fixing piece is disposed in the inner access cover ; and the fastener passes through a fixing hole in the outer access cover and is connected with the fixing piece, characterized in that the sandwich layer is of a composite honeycomb sandwich structure or a foam sandwich structure. the inner access cover is configured to be hermetically connected to a wing lower panel and the outer access cover through the sandwich layer ; the fixing piece is disposed in the inner access cover ; and the fastener passes through a fixing hole in the outer access cover and is connected with the fixing piece,
Storage cassette for laboratory objects, which forms a plurality of storage sites arranged one above the other to accommodate laboratory objects, wherein the storage cassette comprises: - A back wall , - Two side walls standing perpendicular to the back wall, wherein the side walls and the back wall are formed by sections of a single piece of sheet metal bent towards one another, wherein the storage sites are formed by bent angle brackets of the piece of sheet metal, on which the laboratory objects can be placed, wherein part of the angle brackets are arranged on the back wall and wherein the angle brackets on the back wall have on a front edge retention elements bent upwards to hold the laboratory objects secure against slipping. - A back wall , - Two side walls standing perpendicular to the back wall,
A processing device comprising: circuitry configured to acquire a plurality of images captured in a time series by an image sensor , each of the plurality of images is based on light in one of a plurality of predetermined polarization directions and in one of a plurality of predetermined wavelength bands (R,G,B,IR) ; characterized in that said circuitry is further configured to stitch together at least a part of the plurality of images corresponding to a single polarization direction and a single predetermined wavelength band from the plurality of predetermined wavelength bands to generate a composite image. circuitry configured to acquire a plurality of images captured in a time series by an image sensor , each of the plurality of images is based on light in one of a plurality of predetermined polarization directions and in one of a plurality of predetermined wavelength bands (R,G,B,IR) ; characterized in that said circuitry is further configured to stitch together at least a part of the plurality of images corresponding to a single polarization direction and a single predetermined wavelength band from the plurality of predetermined wavelength bands to generate a composite image.
An apparatus, comprising: a first measurement wire for coupling to a head of the arc welding apparatus and to a first input of a feedback circuit to provide the head voltage and noise induced on the first measurement wire to the feedback circuit ; and a first reference wire for coupling to a first reference node of the arc welding apparatus and to a second input of the first feedback circuit to provide noise induced on the first reference wire to the feedback circuit , wherein the first reference node is proximate to and electrically isolated from the head of the arc welding apparatus; and being characterised by a first feedback circuit configured to provide a head voltage of an arc welding apparatus to a power supply of the arc welding apparatus, wherein the first feedback circuit is configured to determine the head voltage as a difference between the noise of the first reference wire and the head voltage and noise of the first measurement wire . a first measurement wire for coupling to a head of the arc welding apparatus and to a first input of a feedback circuit to provide the head voltage and noise induced on the first measurement wire to the feedback circuit ; and a first reference wire for coupling to a first reference node of the arc welding apparatus and to a second input of the first feedback circuit to provide noise induced on the first reference wire to the feedback circuit , wherein the first reference node is proximate to and electrically isolated from the head of the arc welding apparatus; and being characterised by a first feedback circuit configured to provide a head voltage of an arc welding apparatus to a power supply of the arc welding apparatus, wherein the first feedback circuit is configured to determine the head voltage as a difference between the noise of the first reference wire and the head voltage and noise of the first measurement wire .