mhurhangee/ep-ind-claims huggingface dataset:
An antenna manufactured with an antenna signature, said antenna comprising: a radiating element configured to transmit and receive radio frequency signals; and a ground element connectable to a ground; wherein the antenna is characterized by: a Resistor-Inductor-Capacitor, RLC, circuit connected to the radiating element and the ground element, the RLC circuit comprising a resistor, an inductor and a capacitor; wherein the RLC circuit is configured to generate a return-loss profile that serves as an antenna signature of the antenna, and wherein the resistance of the resistor is set significantly lower than the impedance of the antenna so that the return-loss profile comprises a distinctively low return loss at a resonance frequency that is outside the operating frequency of the antenna. a radiating element configured to transmit and receive radio frequency signals; and a ground element connectable to a ground; wherein the antenna is characterized by: a Resistor-Inductor-Capacitor, RLC, circuit connected to the radiating element and the ground element, the RLC circuit comprising a resistor, an inductor and a capacitor; wherein the RLC circuit is configured to generate a return-loss profile that serves as an antenna signature of the antenna, and wherein the resistance of the resistor is set significantly lower than the impedance of the antenna so that the return-loss profile comprises a distinctively low return loss at a resonance frequency that is outside the operating frequency of the antenna. a Resistor-Inductor-Capacitor, RLC, circuit connected to the radiating element and the ground element, the RLC circuit comprising a resistor, an inductor and a capacitor; wherein the RLC circuit is configured to generate a return-loss profile that serves as an antenna signature of the antenna, and wherein the resistance of the resistor is set significantly lower than the impedance of the antenna so that the return-loss profile comprises a distinctively low return loss at a resonance frequency that is outside the operating frequency of the antenna.
A method for determining whether hands of an operator of a vehicle are positioned on a hand wheel of the vehicle, comprising: generating a first frequency content below a first frequency from a hand wheel torque signal; characterized by generating a second frequency content above a second frequency from the first frequency content of the hand wheel torque signal; generating a hands on wheel, HOW, estimate signal based on the first frequency content and the second frequency content; and causing a system in a vehicle to operate based on the HOW estimate signal, wherein the generating the HOW estimate signal comprises: determining first contribution of the first frequency content to the HOW estimate signal; determining second contribution of the second frequency content to the HOW estimate signal; and combining the first contribution and the second contribution to generate the HOW estimate signal. generating a first frequency content below a first frequency from a hand wheel torque signal; characterized by generating a second frequency content above a second frequency from the first frequency content of the hand wheel torque signal; generating a hands on wheel, HOW, estimate signal based on the first frequency content and the second frequency content; and causing a system in a vehicle to operate based on the HOW estimate signal, wherein the generating the HOW estimate signal comprises: determining first contribution of the first frequency content to the HOW estimate signal; determining second contribution of the second frequency content to the HOW estimate signal; and combining the first contribution and the second contribution to generate the HOW estimate signal. determining first contribution of the first frequency content to the HOW estimate signal; determining second contribution of the second frequency content to the HOW estimate signal; and combining the first contribution and the second contribution to generate the HOW estimate signal.
Method for producing a decorative element on both sides of a glass or vitroceramic panel, characterised in that it consists of the following in order given: a) the application of a decoration on the first side of said glass or vitroceramic panel by carrying out the following successive steps, comprising: - placing at least one decorative layer at the required locations on said first face, formed from a mixture of metal oxides integrated into a paste that can be treated by calcination, and then - the calcination of said decorative layer in a furnace; and then b) the application of a decoration to the second side of said glass or vitroceramic panel by carrying out the successive steps comprising: - the placing of one or several enamel-based decorative layers (3, 4) at the desired locations of the second face of said glass or vitroceramic panel, and then - vitrifying said decorative layers (3, 4) deposited on the second side of glass or vitroceramic panel by placing the latter in a horizontal or flat furnace. a) the application of a decoration on the first side of said glass or vitroceramic panel by carrying out the following successive steps, comprising: - placing at least one decorative layer at the required locations on said first face, formed from a mixture of metal oxides integrated into a paste that can be treated by calcination, and then - the calcination of said decorative layer in a furnace; and then - placing at least one decorative layer at the required locations on said first face, formed from a mixture of metal oxides integrated into a paste that can be treated by calcination, and then - the calcination of said decorative layer in a furnace; and then b) the application of a decoration to the second side of said glass or vitroceramic panel by carrying out the successive steps comprising: - the placing of one or several enamel-based decorative layers (3, 4) at the desired locations of the second face of said glass or vitroceramic panel, and then - vitrifying said decorative layers (3, 4) deposited on the second side of glass or vitroceramic panel by placing the latter in a horizontal or flat furnace. - the placing of one or several enamel-based decorative layers (3, 4) at the desired locations of the second face of said glass or vitroceramic panel, and then - vitrifying said decorative layers (3, 4) deposited on the second side of glass or vitroceramic panel by placing the latter in a horizontal or flat furnace.
A method of treating a hydrophilic liquid comprising microplastics and/or nanoplastics, wherein said method comprises the steps of adding a collagen material or a derivative thereof to the hydrophilic liquid comprising microplastic and/or nanoplastic materials which hydrophilic liquid is present in a container so as to adsorb and/or physically bind said microplastic and/or nanoplastic materials present in said hydrophilic liquid, and separating said adsorbed and/or physically bound microplastic and/or nanoplastic materials from the hydrophilic liquid.
A system, comprising: a receiver circuit configured to receive physiological information including a first heart sound signal corresponding to paced ventricular contractions and a second HS signal corresponding to intrinsic ventricular contractions; and a heart failure detector and analyzer circuit configured to: generate a paced HS metric from the first HS signal and a sensed HS metric from the second HS signal, the paced HS metric indicating cardiac contractility in response to paced ventricular contractions, the sensed HS metric indicating cardiac contractility in response to intrinsic ventricular contractions; and determine a worsening heart failure indicator based on a concordance between the paced HS metric and the sensed HS metric. a receiver circuit configured to receive physiological information including a first heart sound signal corresponding to paced ventricular contractions and a second HS signal corresponding to intrinsic ventricular contractions; and a heart failure detector and analyzer circuit configured to: generate a paced HS metric from the first HS signal and a sensed HS metric from the second HS signal, the paced HS metric indicating cardiac contractility in response to paced ventricular contractions, the sensed HS metric indicating cardiac contractility in response to intrinsic ventricular contractions; and determine a worsening heart failure indicator based on a concordance between the paced HS metric and the sensed HS metric. generate a paced HS metric from the first HS signal and a sensed HS metric from the second HS signal, the paced HS metric indicating cardiac contractility in response to paced ventricular contractions, the sensed HS metric indicating cardiac contractility in response to intrinsic ventricular contractions; and determine a worsening heart failure indicator based on a concordance between the paced HS metric and the sensed HS metric.
Method for the production of a crystallisable polylactic acid mixture, in which a) lactic acid is polycondensed to form an oligomer, b) the oligomer is depolymerised to form a crude lactide, c) the crude lactide is purified to form a pure lactide, wherein a simultaneous separation into an L-lactide-rich fraction with a content of at most 6% by weight of D-lactic acid units and a meso-lactide-rich fraction with a content of at least 15% by weight of meso-lactide or into a D-lactide-rich fraction with a content of at most 6% by weight of L-lactic acid units and a meso-lactide-rich fraction with a content of at least 15% by weight of meso-lactide is effected, d) a separate ring-opening polymerisation of the meso-lactide-rich fraction to form a meso-lactide-rich polylactic acid moulding compound (PDLLA) and of the L-lactide- or of the D-lactide-rich fraction to form an L-lactide-rich polylactic acid moulding compound (PLLA) or to form a D-lactide-rich polylactic acid moulding compound (PDLA) is implemented, and e) production of the polylactic acid mixture by mixing at least a part of the meso-lactide-rich polylactic acid moulding compound (PDLLA) and at least a part of the L-lactide-rich polylactic acid moulding compound (PLLA) or at least a part of the D-lactide-rich polylactic acid moulding compound (PDLA). a) lactic acid is polycondensed to form an oligomer, b) the oligomer is depolymerised to form a crude lactide, c) the crude lactide is purified to form a pure lactide, wherein a simultaneous separation into an L-lactide-rich fraction with a content of at most 6% by weight of D-lactic acid units and a meso-lactide-rich fraction with a content of at least 15% by weight of meso-lactide or into a D-lactide-rich fraction with a content of at most 6% by weight of L-lactic acid units and a meso-lactide-rich fraction with a content of at least 15% by weight of meso-lactide is effected, d) a separate ring-opening polymerisation of the meso-lactide-rich fraction to form a meso-lactide-rich polylactic acid moulding compound (PDLLA) and of the L-lactide- or of the D-lactide-rich fraction to form an L-lactide-rich polylactic acid moulding compound (PLLA) or to form a D-lactide-rich polylactic acid moulding compound (PDLA) is implemented, and e) production of the polylactic acid mixture by mixing at least a part of the meso-lactide-rich polylactic acid moulding compound (PDLLA) and at least a part of the L-lactide-rich polylactic acid moulding compound (PLLA) or at least a part of the D-lactide-rich polylactic acid moulding compound (PDLA).
A method of attracting and inducing feeding by a mouse or a rat, the method comprising: (a) heat treating a cereal-based composition, (b) mixing the heat treated cereal-based composition of step (a) with two or more volatile attractive chemicals selected from 2-hydroxy-3-methylcyclopent-2-en-1-one, butyric acid, 2,3-butadione, 3-methylbutanal, 5-methyl- -2-hepten-4-one, γ-octalactone, 4-hydroxy-2,5-dimethylfuran-3-one, 5-methyl-4-heptanone, nonanoic acid, decanoic (capric) acid, dodecanoic (lauric) acid, tetradecanoic (myristic) acid, hexadecanoic (palmitic) acid, -octadec-9-enoic (oleic) acid, octadecanoic (stearic) acid, lactic acid and glycerol, and further adding dimethyltrisulfide; and (c) placing the composition of step (b) in or near a mouse or rat trap. (a) heat treating a cereal-based composition, (b) mixing the heat treated cereal-based composition of step (a) with two or more volatile attractive chemicals selected from 2-hydroxy-3-methylcyclopent-2-en-1-one, butyric acid, 2,3-butadione, 3-methylbutanal, 5-methyl- -2-hepten-4-one, γ-octalactone, 4-hydroxy-2,5-dimethylfuran-3-one, 5-methyl-4-heptanone, nonanoic acid, decanoic (capric) acid, dodecanoic (lauric) acid, tetradecanoic (myristic) acid, hexadecanoic (palmitic) acid, -octadec-9-enoic (oleic) acid, octadecanoic (stearic) acid, lactic acid and glycerol, and further adding dimethyltrisulfide; and (c) placing the composition of step (b) in or near a mouse or rat trap.
A laundry treatment apparatus, comprising: a cabinet including an introduction port and an exit port; a tub including a tub body disposed inside the cabinet to store water and a tub introduction port formed through the tub body to communicate with the introduction port; a drum including a drum body rotatably disposed inside the tub and a drum introduction port formed through the drum body to communicate with the tub introduction port; a drawer configured to be withdrawable from the cabinet through the exit port; a housing including a housing body configured to communicate with the exit port and to accommodate the drawer and a cover configured to form an upper surface of the housing body; a storage portion including a storage body configured to be detachable from the drawer to store liquid detergent, a discharger disposed on the storage body, and a discharge valve configured to open and close the discharger; a supply pump including a connection pipe formed through the housing body and connected to the discharger when the drawer is inserted into the housing, a supply pipe configured to connect the connection pipe and the tub body, and a conveyor portion configured to covey detergent inside the storage body to the supply pipe; a first pump fastener configured to fix an area located above the connection pipe, among areas of the supply pump, to the cover; and a second pump fastener configured to fix an area parallel to the connection pipe or an area located under the connection pipe, among the areas of the supply pump, to the housing body. a cabinet including an introduction port and an exit port; a tub including a tub body disposed inside the cabinet to store water and a tub introduction port formed through the tub body to communicate with the introduction port; a drum including a drum body rotatably disposed inside the tub and a drum introduction port formed through the drum body to communicate with the tub introduction port; a drawer configured to be withdrawable from the cabinet through the exit port; a housing including a housing body configured to communicate with the exit port and to accommodate the drawer and a cover configured to form an upper surface of the housing body; a storage portion including a storage body configured to be detachable from the drawer to store liquid detergent, a discharger disposed on the storage body, and a discharge valve configured to open and close the discharger; a supply pump including a connection pipe formed through the housing body and connected to the discharger when the drawer is inserted into the housing, a supply pipe configured to connect the connection pipe and the tub body, and a conveyor portion configured to covey detergent inside the storage body to the supply pipe; a first pump fastener configured to fix an area located above the connection pipe, among areas of the supply pump, to the cover; and a second pump fastener configured to fix an area parallel to the connection pipe or an area located under the connection pipe, among the areas of the supply pump, to the housing body.
A method for screening an individual for evaluation of risk of a CV event, the method comprising: providing a biomarker panel comprising N of the biomarker proteins listed in Table 1; detecting biomarker proteins, in a biological sample from an individual, to give biomarker values that correspond to the biomarkers in the biomarker panel in order to predict risk for a CV event, based on said biomarker values, and wherein N = 3 - 155, and wherein the biomarker panel includes PSA-ACT.
Apparatus for estimation of a vehicle state, the vehicle state being a pitch angle of the vehicle measured about a transverse axis, the apparatus comprising a controller configured to: determine a first estimation of the vehicle state in dependence on at least one first vehicle dynamics parameter, the at least one first vehicle dynamics parameter comprising a reference velocity along a longitudinal axis of the vehicle; characterised in that the controller is configured to: determine a filter coefficient in dependence on a first vehicle operating parameter; set an operating frequency of a first signal filter in dependence on the determined filter coefficient and use the first signal filter to filter the first estimation to generate a first filtered estimation of the vehicle state; and output a control signal in dependence on the first filtered estimation of the vehicle state. determine a first estimation of the vehicle state in dependence on at least one first vehicle dynamics parameter, the at least one first vehicle dynamics parameter comprising a reference velocity along a longitudinal axis of the vehicle; characterised in that the controller is configured to: determine a filter coefficient in dependence on a first vehicle operating parameter; set an operating frequency of a first signal filter in dependence on the determined filter coefficient and use the first signal filter to filter the first estimation to generate a first filtered estimation of the vehicle state; and output a control signal in dependence on the first filtered estimation of the vehicle state. determine a filter coefficient in dependence on a first vehicle operating parameter; set an operating frequency of a first signal filter in dependence on the determined filter coefficient and use the first signal filter to filter the first estimation to generate a first filtered estimation of the vehicle state; and output a control signal in dependence on the first filtered estimation of the vehicle state.
A lacrimal duct tube slidable along a bar-like operative instrument, comprising: a pair of tubular members (11a, 11b) each of which has an terminal end opening (13a, 13b) at one end; and a central member that connects other ends of the tubular members, wherein at least one of the tubular members includes: a cylindrical part (14a, 14b) that is extended from the terminal end opening to the central member side and has an opening (16a, 16b) for bar-like operative instrument at an end portion at the central member side; and an arc-shaped part (15a, 15b) that is extended from the end portion of the cylindrical part at the central member side further to the central member side and has an almost arc-shaped wall portion on a cross section orthogonal to a longitudinal side of the tubular member, and the almost arc-shaped wall portion is formed at the arc-shaped part continuously over a length of 1/3 or more and 9/10 or less of an entire length of the tubular member. a pair of tubular members (11a, 11b) each of which has an terminal end opening (13a, 13b) at one end; and a central member that connects other ends of the tubular members,
Functionalized diene elastomer composed: a) of a diene elastomer functionalized, at the chain end or in the middle of the chain, by a tin functional group, exhibiting a monomodal distribution of molecular weights before functionalization and a polydispersity index before functionalization of less than or equal to 1.3, b) of a diene elastomer star-branched with a tin-comprising compound, exhibiting a monomodal distribution of molecular weights before star-branching and a polydispersity index before star-branching of less than or equal to 1.3, and c) of a content of less than 15% by weight, with respect to the total weight of the functionalized diene elastomer, of a non-tin-functional diene elastomer, the said diene elastomers a), b) and c) being, before optional functionalization or optional star-branching, the same in nature. a) of a diene elastomer functionalized, at the chain end or in the middle of the chain, by a tin functional group, exhibiting a monomodal distribution of molecular weights before functionalization and a polydispersity index before functionalization of less than or equal to 1.3, b) of a diene elastomer star-branched with a tin-comprising compound, exhibiting a monomodal distribution of molecular weights before star-branching and a polydispersity index before star-branching of less than or equal to 1.3, and c) of a content of less than 15% by weight, with respect to the total weight of the functionalized diene elastomer, of a non-tin-functional diene elastomer,
A method of constructing a three-dimensional model of an internal surface of a downhole tubular structure, comprising: obtaining image data from an area of the internal surface of the structure using a downhole camera tool; obtaining measured height profile data from the internal surface in a plurality of sub-regions of the area; determining image properties from the image data; determining a depth position of the image data and a depth position of the measured height profile data; correlating the measured height profile data with the image properties in the sub-regions; and constructing expected height profile data for at least part of the area outside the sub-regions using (a) the correlation between the measured height profile data and the image properties in the sub-regions and (b) the image properties outside the sub-regions; wherein correlating the measured height profile data with the image properties comprises matching the depth position of the measured height profile data to the depth position of the image data. obtaining image data from an area of the internal surface of the structure using a downhole camera tool; obtaining measured height profile data from the internal surface in a plurality of sub-regions of the area; determining image properties from the image data; determining a depth position of the image data and a depth position of the measured height profile data; correlating the measured height profile data with the image properties in the sub-regions; and constructing expected height profile data for at least part of the area outside the sub-regions using (a) the correlation between the measured height profile data and the image properties in the sub-regions and (b) the image properties outside the sub-regions; wherein correlating the measured height profile data with the image properties comprises matching the depth position of the measured height profile data to the depth position of the image data.