mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing a fuel feedstock for a fuel cell, the method comprising: providing a fuel feedstock that includes oxygen, lower hydrocarbons, which are hydrocarbons having 2 or fewer carbons, and higher hydrocarbons, which are hydrocarbons having more than 2 carbons; reducing oxygen in said fuel feedstock using a deoxidizing unit having a deoxidizing bed, said deoxidizing bed in reducing said oxygen produces hydrogen, the step of reducing oxygen in said fuel feedstock comprising: conveying the fuel feedstock through said deoxidizing unit at a space velocity that is between 5,000 and 12,000 h -1 ; reducing said higher hydrocarbons in said fuel feedstock, and converting the lower hydrocarbons to hydrogen, using a pre-reforming unit having a pre-reforming bed having a larger volume than the deoxidizing bed, the step of reducing said higher hydrocarbons and converting the lower hydrocarbons comprising: conveying the fuel feedstock through the pre-reforming unit at a space velocity between 2,000 and 5,000 h - 1 and through the reforming bed at maximum superficial velocities of 0.4 m/s (1.3 ft/s), such that hydrogen back diffusion is developed and maintained in said pre-reforming bed, and a reducing atmosphere is maintained in the pre-reforming bed; wherein said deoxidizing unit and said pre-reforming unit are disposed within a common vessel such that said fuel feedstock first flows through said deoxidizing unit and thereafter through said pre-reforming unit. providing a fuel feedstock that includes oxygen, lower hydrocarbons, which are hydrocarbons having 2 or fewer carbons, and higher hydrocarbons, which are hydrocarbons having more than 2 carbons; reducing oxygen in said fuel feedstock using a deoxidizing unit having a deoxidizing bed, said deoxidizing bed in reducing said oxygen produces hydrogen, the step of reducing oxygen in said fuel feedstock comprising: conveying the fuel feedstock through said deoxidizing unit at a space velocity that is between 5,000 and 12,000 h -1 ; reducing said higher hydrocarbons in said fuel feedstock, and converting the lower hydrocarbons to hydrogen, using a pre-reforming unit having a pre-reforming bed having a larger volume than the deoxidizing bed, the step of reducing said higher hydrocarbons and converting the lower hydrocarbons comprising: conveying the fuel feedstock through the pre-reforming unit at a space velocity between 2,000 and 5,000 h - 1 and through the reforming bed at maximum superficial velocities of 0.4 m/s (1.3 ft/s), such that hydrogen back diffusion is developed and maintained in said pre-reforming bed, and a reducing atmosphere is maintained in the pre-reforming bed; wherein said deoxidizing unit and said pre-reforming unit are disposed within a common vessel such that said fuel feedstock first flows through said deoxidizing unit and thereafter through said pre-reforming unit.
A cockpit display system for deployment onboard an aircraft, the cockpit display system comprising: an Enhanced Flight Vision System, EFVS, sensor configured to monitor a region forward of the aircraft for runway reference features; a cockpit display device on which an EFVS image is generated utilizing data received from the EFVS sensor; and a controller operably coupled to the EFVS sensor and to the cockpit display device; characterized in that the controller is configured to: establish a visibility requirement defining a minimum EFVS sensor range for a runway approached by the aircraft for landing; determine a ground location corresponding to the established visibility requirement; and generate the EFVS image to include a flight visibility marker , the positioning of which identifies the determined ground location within the virtual three dimensional environment of the EFVS image. an Enhanced Flight Vision System, EFVS, sensor configured to monitor a region forward of the aircraft for runway reference features; a cockpit display device on which an EFVS image is generated utilizing data received from the EFVS sensor; and a controller operably coupled to the EFVS sensor and to the cockpit display device; characterized in that the controller is configured to: establish a visibility requirement defining a minimum EFVS sensor range for a runway approached by the aircraft for landing; determine a ground location corresponding to the established visibility requirement; and generate the EFVS image to include a flight visibility marker , the positioning of which identifies the determined ground location within the virtual three dimensional environment of the EFVS image. establish a visibility requirement defining a minimum EFVS sensor range for a runway approached by the aircraft for landing; determine a ground location corresponding to the established visibility requirement; and generate the EFVS image to include a flight visibility marker , the positioning of which identifies the determined ground location within the virtual three dimensional environment of the EFVS image.
A monitor device for an ostomy system , the monitor device comprising: a processor ; memory ; and a first interface connected to the processor and the memory , the first interface comprising a plurality of terminals including a ground terminal and a first terminal for collecting ostomy data from an ostomy appliance of the ostomy system via the first interface , characterised in that the processor is configured to process the ostomy data according to a processing scheme selected from a first processing scheme and a second processing scheme, the second processing scheme being different from the first processing scheme, the processor comprising an ostomy processing controller configured to select the processing scheme based on one or more control parameters comprising a control parameter indicative of an operating state of the ostomy appliance . a processor ; memory ; and a first interface connected to the processor and the memory , the first interface comprising a plurality of terminals including a ground terminal and a first terminal for collecting ostomy data from an ostomy appliance of the ostomy system via the first interface ,
A method of calibrating sensing data between different sensors of the same type, the method comprising: a) obtaining physiological data from a test subject through a first sensor; b) using said physiological data to program a device to replicate physiological attributes exhibited by the test subject; c) applying a second sensor to the device, the second sensor comprising following upgrades of software or hardware from the first sensor; d) using the device to replicate the test subject's physiological attributes; e) obtaining physiological data from the second sensor regularly over time; f) identifying any variation between the physiological data obtained by the first sensor and the physiological data obtained by the multiple measurements made over time with the second sensor; g) applying a correction factor to the physiological data obtained from the second sensor in the event that any variation between physiological data obtained from the first sensor and physiological data obtained from the second sensor exceeds a predetermined threshold; and h) using said correction factor to calibrate the second sensor. a) obtaining physiological data from a test subject through a first sensor; b) using said physiological data to program a device to replicate physiological attributes exhibited by the test subject; c) applying a second sensor to the device, the second sensor comprising following upgrades of software or hardware from the first sensor; d) using the device to replicate the test subject's physiological attributes; e) obtaining physiological data from the second sensor regularly over time; f) identifying any variation between the physiological data obtained by the first sensor and the physiological data obtained by the multiple measurements made over time with the second sensor; g) applying a correction factor to the physiological data obtained from the second sensor in the event that any variation between physiological data obtained from the first sensor and physiological data obtained from the second sensor exceeds a predetermined threshold; and h) using said correction factor to calibrate the second sensor.
A tuning-fork type piezoelectric resonator plate comprising: two leg portions serving as vibrating portions; a bonding portion bonded to the outside, and a base portion from which the leg portions and the bonding portion protrude, wherein the two leg portions protrude from a first end face of the base portion and are provided side-by-side on the first end face, the bonding portion has a short-side portion which is formed to protrude from a second end face located opposite the first end face of the base portion at a position located exactly opposite the gap between the two leg portions , and at least the short-side portion of the bonding portion is formed to be narrower than the second end face of the base portion and is used as a first bond region that is bonded to the outside, the base portion is symmetrical in shape when viewed perpendicular to the resonator plate, and a second end portion of the base portion is formed such that the base portion tapers from the first end face side to the second end face side along the overall length of the base portion . two leg portions serving as vibrating portions; a bonding portion bonded to the outside, and a base portion from which the leg portions and the bonding portion protrude, wherein the two leg portions protrude from a first end face of the base portion and are provided side-by-side on the first end face, the bonding portion has a short-side portion which is formed to protrude from a second end face located opposite the first end face of the base portion at a position located exactly opposite the gap between the two leg portions , and at least the short-side portion of the bonding portion is formed to be narrower than the second end face of the base portion and is used as a first bond region that is bonded to the outside, the base portion is symmetrical in shape when viewed perpendicular to the resonator plate, and a second end portion of the base portion is formed such that the base portion tapers from the first end face side to the second end face side along the overall length of the base portion .
A gas circulation loop for a laser discharge tube (b) comprising a gas supply duct (a) and a gas exhaust duct (c), wherein the gas supply duct (a) and the gas exhaust duct (c) are elongated in the longitudinal direction of the laser discharge tube (b) and connected to the laser discharge tube (b) by an inlet flow distributor, respectively an outlet flow distributor, adapted for controlled transversal gas inlet, respectively outlet, over at least part of the laser discharge tube (b), and wherein the inlet flow distributor and the outlet flow distributor comprise a plurality of respective inlet channels (d) and outlet channels (d'), the gas supply duct (a) and the gas exhaust duct (c) being located at two opposite sides of the laser discharge tube (b), the gas supply duct (a) and the gas exhaust duct (c) being in a plane defined by the longitudinal direction of the laser discharge tube (b) and the longitudinal direction of the gas supply duct (a), the gas circulation loop being mounted in the same plane as the laser discharge tube (b), the plurality of respective inlet channels (d) and/or outlet channels (d') being gradually divided over the length of the discharge tube, the ratio between the diameter of the gas supply duct (a) and the diameter of the inlet channels (d), and/or the ratio between the diameter of the gas exhaust duct (c) and the diameter of the outlet channels (d') is at least 2, characterized in that the inlet flow distributor comprises a grid assembly extending in the longitudinal direction of the laser discharge tube and mounted at the exit of the inlet channels (d), wherein the grid assembly comprises a number of grids (e, f) configured to have different transparencies from each other and positioned consecutively in a direction transverse to the gas flow.
An isolated polypeptide conjugate having factor VIII procoagulant activity comprising a functional factor VIII polypeptide having a heavy and a light chain, the functional factor VIII polypeptide being covalently attached at one or more predefined sites on the polypeptide exclusively at the heavy chain to one or more biocompatible polymers, and wherein the biocompatible polymer is not covalently attached to an N-terminal amine of the functional factor VIII polypeptide.
An assembly method for screwing a screw into an internal thread of a medical instrument in order to connect two branches of the instrument to each other such that the two branches are pivotable relative to each other, using a screwdriving tool , characterized by the following steps: - imprinting a punch geometry into a preferably unprofiled screw head of the screw by applying an axial compression force to the screw using the screwdriving tool itself, and - rotating the screwdriving tool relative to the instrument about a longitudinal screw axis to transmit torque from the screwdriving tool in a form-fitting manner via the imprinted punch geometry to the screw and to screw the screw into the internal thread. - imprinting a punch geometry into a preferably unprofiled screw head of the screw by applying an axial compression force to the screw using the screwdriving tool itself, and - rotating the screwdriving tool relative to the instrument about a longitudinal screw axis to transmit torque from the screwdriving tool in a form-fitting manner via the imprinted punch geometry to the screw and to screw the screw into the internal thread.
A method for receiving a Downlink Control Information, DCI, format, comprising: in response to that a terminal device is configured to detect a DCI format 2_0 and the DCI format 2_0 is not configured with a slot format indicator field and is not configured with a channel occupancy duration indicator field, detecting, by the terminal device, the DCI format 2_0; and determining, by the terminal device after detecting the DCI format 2_0, a channel occupancy duration, the channel occupancy duration being configured by a network device. in response to that a terminal device is configured to detect a DCI format 2_0 and the DCI format 2_0 is not configured with a slot format indicator field and is not configured with a channel occupancy duration indicator field, detecting, by the terminal device, the DCI format 2_0; and determining, by the terminal device after detecting the DCI format 2_0, a channel occupancy duration, the channel occupancy duration being configured by a network device.
A microporous battery separator for a lithium battery comprising: a polyolefin layer which comprises at least one membrane of polypropylene; at least one non-woven layer on each side of the polyolefin layer; wherein the non-woven layer comprises polypropylene, and a surfactant coating or treatment therein or thereon the separator, and wherein the surfactant comprises a lithium salt. a polyolefin layer which comprises at least one membrane of polypropylene; at least one non-woven layer on each side of the polyolefin layer; wherein the non-woven layer comprises polypropylene, and a surfactant coating or treatment therein or thereon the separator, and wherein the surfactant comprises a lithium salt.
High-frequency module, comprising: - a semi-conductor part that is designed to generate and/or process electrical high-frequency signals (s HF , rHF), with ∘ a contact surface by means of which the electrical high-frequency signals (s HF , r HF ) can be coupled or uncoupled, - a dielectric coupling element for coupling the high-frequency signals (s HF ) as radar signals (S HF ) into - a dielectric waveguide and/or for coupling radar signals (R HF ) from the waveguide into the semi-conductor part as electrical high-frequency signals (r HF ), wherein the coupling element and the waveguide form - a plug-in contact ; characterized in that the dielectric coupling element is in contact with the semi-conductor module by means of the contact surface. - a semi-conductor part that is designed to generate and/or process electrical high-frequency signals (s HF , rHF), with ∘ a contact surface by means of which the electrical high-frequency signals (s HF , r HF ) can be coupled or uncoupled, ∘ a contact surface by means of which the electrical high-frequency signals (s HF , r HF ) can be coupled or uncoupled, - a dielectric coupling element for coupling the high-frequency signals (s HF ) as radar signals (S HF ) into - a dielectric waveguide and/or for coupling radar signals (R HF ) from the waveguide into the semi-conductor part as electrical high-frequency signals (r HF ), wherein the coupling element and the waveguide form - a plug-in contact ;
An FFT device for performing a Fast Fourier Transform (FFT) of an operand vector of length N, comprising: a control unit arranged to control a sequence of transformation rounds, wherein if the round is a first round of said sequence of transformation rounds, the round may be one of an FFT round, a window-FFT round, or a window round, whereas any subsequent round is an FFT round, the control unit being further arranged to maintain configuration data indicating for any transformation round whether the respective transformation round is an FFT round, a window-FFT round, or a window round; and a coefficient unit for providing transformation data; and a transformation unit arranged to receive, for each of said transformation rounds, transformation data (8.4; 8.6, 8.10) from the coefficient unit , the transformation data depending on whether the respective transformation round is an FFT round (8.10, 8.11), a window-FFT round (8.6-8.9), or a window round (8.4-8.7) as indicated by the configuration data, and to perform the respective linear transformation on the basis of the transformation data, wherein the transformation data for an FFT round comprises a set of twiddle coefficients, the transformation data for a window-FFT round comprises a set of modified twiddle coefficients, and the transformation data for a window round comprises a set of window coefficients, and wherein the modified twiddle coefficients are products of window coefficients and twiddle coefficients. a control unit arranged to control a sequence of transformation rounds, wherein if the round is a first round of said sequence of transformation rounds, the round may be one of an FFT round, a window-FFT round, or a window round, whereas any subsequent round is an FFT round, the control unit being further arranged to maintain configuration data indicating for any transformation round whether the respective transformation round is an FFT round, a window-FFT round, or a window round; and a coefficient unit for providing transformation data; and a transformation unit arranged to receive, for each of said transformation rounds, transformation data (8.4; 8.6, 8.10) from the coefficient unit , the transformation data depending on whether the respective transformation round is an FFT round (8.10, 8.11), a window-FFT round (8.6-8.9), or a window round (8.4-8.7) as indicated by the configuration data, and to perform the respective linear transformation on the basis of the transformation data, wherein the transformation data for an FFT round comprises a set of twiddle coefficients, the transformation data for a window-FFT round comprises a set of modified twiddle coefficients, and the transformation data for a window round comprises a set of window coefficients, and wherein the modified twiddle coefficients are products of window coefficients and twiddle coefficients.
An intracavity balloon catheter , comprising: a flexible catheter having a proximal catheter portion, a distal catheter portion, and a fluid passageway therebetween; a balloon disposed at the distal end of the catheter, the balloon comprising: an exterior surface moveable between a deflated condition and an inflated condition by introduction of up to 80 cc of fluid into the lumen; a reinforced anterior portion forming a planar surface in the expanded position; an isometrically expandable bottom portion having a higher elasticity than the reinforced anterior portion and comprising the majority of the exterior surface; wherein the tip of the catheter extends into the balloon lumen; and wherein, as the balloon is configured to expand isometrically, the bottom portion expands primarily in the posterior direction; and CHARACTERISED IN THAT said bottom portion is elastic. a flexible catheter having a proximal catheter portion, a distal catheter portion, and a fluid passageway therebetween; a balloon disposed at the distal end of the catheter, the balloon comprising: an exterior surface moveable between a deflated condition and an inflated condition by introduction of up to 80 cc of fluid into the lumen; a reinforced anterior portion forming a planar surface in the expanded position; an isometrically expandable bottom portion having a higher elasticity than the reinforced anterior portion and comprising the majority of the exterior surface; wherein the tip of the catheter extends into the balloon lumen; and wherein, as the balloon is configured to expand isometrically, the bottom portion expands primarily in the posterior direction; and CHARACTERISED IN THAT said bottom portion is elastic. an exterior surface moveable between a deflated condition and an inflated condition by introduction of up to 80 cc of fluid into the lumen; a reinforced anterior portion forming a planar surface in the expanded position; an isometrically expandable bottom portion having a higher elasticity than the reinforced anterior portion and comprising the majority of the exterior surface; wherein the tip of the catheter extends into the balloon lumen; and wherein, as the balloon is configured to expand isometrically, the bottom portion expands primarily in the posterior direction; and CHARACTERISED IN THAT said bottom portion is elastic.
A molded article comprising a copolymerized polyester resin comprising a unit (A) represented by the following formula , a diol unit (B), and a unit (C) derived from a dicarboxylic acid or an ester-forming derivative of the dicarboxylic acid, wherein a content of the unit (A) based on total units of the copolymerized polyester resin is 20 to 90 mol%, wherein R 1 is a hydrogen atom, CH 3 , or C 2 H 5 , R 2 and R 3 are each independently a hydrogen atom or CH 3 , and n is 0 or 1; wherein the copolymerized polyester resin satisfies the following conditions to : a glass transition temperature of the copolymerized polyester resin is 100°C or higher, determined as indicated in the specification; and a pencil hardness of the molded article is HB or higher, determined as indicated in the specification; and wherein the molded article is an automobile component. wherein R 1 is a hydrogen atom, CH 3 , or C 2 H 5 , R 2 and R 3 are each independently a hydrogen atom or CH 3 , and n is 0 or 1; wherein the copolymerized polyester resin satisfies the following conditions to : a glass transition temperature of the copolymerized polyester resin is 100°C or higher, determined as indicated in the specification; and a pencil hardness of the molded article is HB or higher, determined as indicated in the specification; and a glass transition temperature of the copolymerized polyester resin is 100°C or higher, determined as indicated in the specification; and a pencil hardness of the molded article is HB or higher, determined as indicated in the specification; and wherein the molded article is an automobile component.