mhurhangee/patent-ind-claim-en huggingface dataset:
A reinforcing fiber bundle which contains a propylene-based resin (A), a propylene-based resin (B) comprising at least a carboxylic acid salt bonded to the polymer chain, and a reinforcing fiber (C) wherein the propylene-based resin (A) comprises more than 70% by mass but not more than 100% by mass of a component (A-1) having a weight average molecular weight of 150,000 or more, wherein weight average molecular weight is determined by the GPC method described in the Description, and 0 to 30% by mass of a component (A-2) having a weight average molecular weight of less than 150,000, provided that the sum of the component (A-1) and the component (A-2) is 100% by mass, the weight average molecular weight of the propylene-based resin (A) is higher than the weight average molecular weight of the propylene-based resin (B), the amount of the propylene-based resin (B) is 3 to 50 parts by mass per 100 parts by mass of the propylene-based resin (A), and the total content rate of the propylene-based resin (A) and the propylene-based resin (B) is 0.3 to 5% by mass in the whole reinforcing fiber bundle. the propylene-based resin (A) comprises more than 70% by mass but not more than 100% by mass of a component (A-1) having a weight average molecular weight of 150,000 or more, wherein weight average molecular weight is determined by the GPC method described in the Description, and 0 to 30% by mass of a component (A-2) having a weight average molecular weight of less than 150,000, provided that the sum of the component (A-1) and the component (A-2) is 100% by mass, the weight average molecular weight of the propylene-based resin (A) is higher than the weight average molecular weight of the propylene-based resin (B), the amount of the propylene-based resin (B) is 3 to 50 parts by mass per 100 parts by mass of the propylene-based resin (A), and the total content rate of the propylene-based resin (A) and the propylene-based resin (B) is 0.3 to 5% by mass in the whole reinforcing fiber bundle.
An organometal catalyst having a cationic metal complex and a borate-based bulky anion, and being represented by the following Formula 1: in Formula 1, M is selected from the group consisting of metals in group 13, L is each independently a coordination solvent molecule comprising a functional group selected from the group consisting of a cyanide group, an isocyanide group, an ether group, a pyridine group, an amide group, a sulfoxide group and a nitro group, R 1 to R 4 are each independently hydrogen, a halogen group, or a substituted or unsubstituted alkyl group of C1-C20, R 5 and R 6 are each independently hydrogen, an alkyl group of C1-C20, an aryl group of C6-C20, or an allyl group, a, b, c and a+b+c are each independently an integer of 0 to 3, d and a+b+c+d are each independently an integer of 1 to 10, o, p, q and r are each independently an integer of 1 to 5, and x and y are an integer of 1 to 4 and are the same as each other; wherein the organometal catalyst does not comprise a halogen salt of one or more metals selected from the group consisting of metals of group 1, group 2 and group 11. in Formula 1, M is selected from the group consisting of metals in group 13, L is each independently a coordination solvent molecule comprising a functional group selected from the group consisting of a cyanide group, an isocyanide group, an ether group, a pyridine group, an amide group, a sulfoxide group and a nitro group, R 1 to R 4 are each independently hydrogen, a halogen group, or a substituted or unsubstituted alkyl group of C1-C20, R 5 and R 6 are each independently hydrogen, an alkyl group of C1-C20, an aryl group of C6-C20, or an allyl group, a, b, c and a+b+c are each independently an integer of 0 to 3, d and a+b+c+d are each independently an integer of 1 to 10, o, p, q and r are each independently an integer of 1 to 5, and x and y are an integer of 1 to 4 and are the same as each other; wherein the organometal catalyst does not comprise a halogen salt of one or more metals selected from the group consisting of metals of group 1, group 2 and group 11.
An electronic device comprising: a display ; and a processor including a plurality of cores , the plurality of cores including at least a first core of a first type, a second core of a second type and a third core of a third type, wherein the processor is configured to: identify a first application satisfying a designated condition related to boosting of the processor among at least one application running on the processor; identify a first instruction set architecture, ISA, of the first application; and boost a frequency of a clock signal applied to at least one core among the plurality of cores included in the processor according to the first instruction set architecture, wherein the processor is configured to: determine a frequency value for boosting the at least one core according to the first instruction set architecture; and control the at least one core to be driven using a clock signal having a frequency equal to or greater than the determined frequency value, characterized in that , the processor is configured to determine the frequency value using a table corresponding performance and power consumption of each of the first, second and third types of cores to specific frequency values according to a type of instruction set architecture. a display ; and a processor including a plurality of cores , the plurality of cores including at least a first core of a first type, a second core of a second type and a third core of a third type, wherein the processor is configured to: identify a first application satisfying a designated condition related to boosting of the processor among at least one application running on the processor; identify a first instruction set architecture, ISA, of the first application; and boost a frequency of a clock signal applied to at least one core among the plurality of cores included in the processor according to the first instruction set architecture, wherein the processor is configured to: determine a frequency value for boosting the at least one core according to the first instruction set architecture; and control the at least one core to be driven using a clock signal having a frequency equal to or greater than the determined frequency value, characterized in that , the processor is configured to determine the frequency value using a table corresponding performance and power consumption of each of the first, second and third types of cores to specific frequency values according to a type of instruction set architecture. determine a frequency value for boosting the at least one core according to the first instruction set architecture; and control the at least one core to be driven using a clock signal having a frequency equal to or greater than the determined frequency value, characterized in that , the processor is configured to determine the frequency value using a table corresponding performance and power consumption of each of the first, second and third types of cores to specific frequency values according to a type of instruction set architecture.
A hybrid power system for an aircraft comprising: a gas turbine connected to a generator for generating electrical power; an electrical storage device configured to output electrical power; a propulsor ; a motor operable to drive the propulsor using electrical power from either or both of the generator and the electrical storage device; and a controller which, to meet a propulsor power demand, is configured to control (i) an amount of electrical power generated by the generator, and (ii) an amount of electrical power outputted by the electrical storage device; wherein, in a first control mode coinciding with an increase in the propulsor power demand sufficient to cause a transient excursion of the operating point of a compressor of the gas turbine from a steady state working line, the controller is further configured to temporarily increase the amount of electrical power outputted by the electrical storage device such that the transient excursion is reduced; characterised in that : the generator is configured to provide electrical power to the motor at a first DC voltage and first DC current, the electrical storage device is configured to provide electrical power to the motor at a second DC voltage and a second DC current, and the controller is configured to control the first and second DC voltages using DC voltage droop control by setting a droop percentage or droop virtual resistance and setting a transient response of the controller such that the second DC current increases at a rate faster than the first DC current. a gas turbine connected to a generator for generating electrical power; an electrical storage device configured to output electrical power; a propulsor ; a motor operable to drive the propulsor using electrical power from either or both of the generator and the electrical storage device; and a controller which, to meet a propulsor power demand, is configured to control (i) an amount of electrical power generated by the generator, and (ii) an amount of electrical power outputted by the electrical storage device; wherein, in a first control mode coinciding with an increase in the propulsor power demand sufficient to cause a transient excursion of the operating point of a compressor of the gas turbine from a steady state working line, the controller is further configured to temporarily increase the amount of electrical power outputted by the electrical storage device such that the transient excursion is reduced; characterised in that : the generator is configured to provide electrical power to the motor at a first DC voltage and first DC current, the electrical storage device is configured to provide electrical power to the motor at a second DC voltage and a second DC current, and the controller is configured to control the first and second DC voltages using DC voltage droop control by setting a droop percentage or droop virtual resistance and setting a transient response of the controller such that the second DC current increases at a rate faster than the first DC current.
A device for producing composite components comprising at least one wound fiber reinforced polymer layer, comprising: - a support with a first holding device and a second holding device for mounting a liner in between, wherein the first and the second holding device are established such that the liner can rotate around a central rotation axis which extends through the first holding device and the second holding device , and - at least two movable arms for feeding a fiber structure , wherein the support is established such that the liner can be moved axially parallel to the central rotation axis and each movable arm for feeding the fiber structure is a robotic arm which comprises at least two joints which each allow bending and twisting. - a support with a first holding device and a second holding device for mounting a liner in between, wherein the first and the second holding device are established such that the liner can rotate around a central rotation axis which extends through the first holding device and the second holding device , and - at least two movable arms for feeding a fiber structure ,
A methane-powered refrigeration unit (220; 320; 420; 520; 620) comprising: a housing ; a refrigeration engine (248; 348; 448; 548; 648) positioned within the housing; a regulator (250; 350; 450; 550; 650) positioned within the housing and fluidly connected to the engine, the regulator configured to control fuel supply to the refrigeration engine through at least one fuel line (254; 354; 554; 654); a lock-off valve (358; 458; 558; 658) operably connected to the regulator and configured to shut off fuel supply through the regulator to the refrigeration engine; a safety controller (360; 460; 560; 660) operably connected to at least one of the lock-off valve and the regulator; characterised by a guide (462; 562; 662a, 662b, 662c) positioned within the housing and proximate to at least one of the refrigeration engine, the regulator, and the at least one fuel line, the guide arranged to direct gases leaking from the respective refrigeration engine, regulator, and at least one fuel line; and a methane sensor (566; 666a, 666b, 666c) positioned within the guide and configured to detect the presence of methane within the guide that is directed by the guide, the methane sensor in communication with the safety controller and configured to transmit a signal to the safety controller when methane is detected by the methane sensor; wherein the safety controller performs a safety action when the signal from the methane sensor is received. a housing ; a refrigeration engine (248; 348; 448; 548; 648) positioned within the housing; a regulator (250; 350; 450; 550; 650) positioned within the housing and fluidly connected to the engine, the regulator configured to control fuel supply to the refrigeration engine through at least one fuel line (254; 354; 554; 654); a lock-off valve (358; 458; 558; 658) operably connected to the regulator and configured to shut off fuel supply through the regulator to the refrigeration engine; a safety controller (360; 460; 560; 660) operably connected to at least one of the lock-off valve and the regulator; characterised by a guide (462; 562; 662a, 662b, 662c) positioned within the housing and proximate to at least one of the refrigeration engine, the regulator, and the at least one fuel line, the guide arranged to direct gases leaking from the respective refrigeration engine, regulator, and at least one fuel line; and a methane sensor (566; 666a, 666b, 666c) positioned within the guide and configured to detect the presence of methane within the guide that is directed by the guide, the methane sensor in communication with the safety controller and configured to transmit a signal to the safety controller when methane is detected by the methane sensor; wherein the safety controller performs a safety action when the signal from the methane sensor is received.
Computer program for implementing a method for tracking and monitoring, in real time, the pathological state of a brain-damaged patient , comprising obtaining data of a plurality of measurement devices suitable for acquiring a plurality of cerebral and systemic parameters of said patient and for periodically calculating a scalable severity score, which is representative of the state of the patient , on the basis of said cerebral and systemic parameters, for controlling a means for displaying said scalable severity score which is representative of the state of the patient and displayed on at least one monitor and wherein said cerebral parameters comprise intracranial pressure and cerebral perfusion pressure, and wherein the systemic parameters comprise the temperature of the patient, osmolarity and CO 2 arterial partial pressure, and said method also comprising a step of acquiring at least one clinical parameter comprising sedation, said systemic and clinical parameters characterizing the therapeutic intensity used and wherein the method comprises steps of sampling and segmenting said cerebral, systemic and clinical parameters on the basis of the measured values belonging to predetermined intervals, the number of intervals being less than ten, the intervals being determined, for each of said parameters, to cover all of the values between a situation corresponding to physiological equilibrium and an extremely serious situation, each of said intervals being associated with a numerical value, said computer program further comprising instructions for controlling the display in addition to said scalable score on the same monitor or on different monitors of a two-dimensional graphical representation which is representative of the pathological state of said patient, comprising, in a first portion of the display screen, the display of a set of points (Xi, Yi), where i denotes one of the parameters, Y denotes the numerical value of the interval and X denotes the position of the interval in said graphical representation, and, in a complementary portion of the display screen, the display of a point (X p , Y p ), where P corresponds to cerebral perfusion pressure.
An interbody spinal fusion cage configured to achieve lordosis when placed posteriorly, the interbody spinal fusion cage comprising: a superior member including an anterior end , a posterior end , and a superior bearing surface extending along an axis between the anterior end of the superior member and the posterior end of the superior member ; and an inferior member including an anterior end , a posterior end , and an inferior bearing surface extending along an axis between the anterior end of the inferior member and the posterior end of the inferior member ; characterized in that the interbody spinal fusion cage further comprises a hinge which has one axis of rotation and which is connected to the superior member at a first point between the anterior end of the superior member and the posterior end of the superior member and to the inferior member at a second point between the anterior end of the inferior member and the posterior end of the inferior member , wherein the axis of rotation of the hinge is oriented non-normal to the axis of the superior member and the axis of the inferior member . a superior member including an anterior end , a posterior end , and a superior bearing surface extending along an axis between the anterior end of the superior member and the posterior end of the superior member ; and an inferior member including an anterior end , a posterior end , and an inferior bearing surface extending along an axis between the anterior end of the inferior member and the posterior end of the inferior member ; characterized in that the interbody spinal fusion cage further comprises a hinge which has one axis of rotation and which is connected to the superior member at a first point between the anterior end of the superior member and the posterior end of the superior member and to the inferior member at a second point between the anterior end of the inferior member and the posterior end of the inferior member , wherein the axis of rotation of the hinge is oriented non-normal to the axis of the superior member and the axis of the inferior member .
A valve assembly for operating a cryocooler pedestal , the valve assembly comprising a valve head and being operable when in use to provide a cryocooler pedestal with cyclical gaseous connection to high pressure and low pressure gas supply lines , the valve assembly having a return conduit through which gas is caused to flow from the cryocooler pedestal into the low pressure supply line and wherein the valve assembly further comprises a dispersion chamber adjacent the return conduit and in flow communication therewith through a plurality of orifices so as to reduce acoustic noise, wherein each of the return conduit and the dispersion chamber are located within the valve head.
A method of controlling a function of a mobile terminal using a registered sensor based Bluetooth Low Energy, BLE device , the method comprising: receiving a user input of a selection of a sensor based BLE device registered to the mobile terminal; receiving a user input of a reference sensing value of the sensor based BLE device; receiving a user input for connecting one or more functions supported by the mobile terminal with the sensor based BLE device; mapping and storing identification information of the sensor based BLE device with reference sensing value information and function information corresponding to the one or more functions supported by the mobile terminal ; receiving identification information of the sensor based BLE device from the sensor based BLE device via a Bluetooth communication channel after the mobile terminal is paired with the sensor based BLE device ; receiving sensing information detected by the sensor based BLE device from the sensor based BLE device ; extracting the function information and the reference sensing value information corresponding to the received identification information of the sensor based BLE device ; and performing the one or more functions corresponding to the extracted function information based on the reference sensing value information and the received sensing information. receiving a user input of a selection of a sensor based BLE device registered to the mobile terminal; receiving a user input of a reference sensing value of the sensor based BLE device; receiving a user input for connecting one or more functions supported by the mobile terminal with the sensor based BLE device; mapping and storing identification information of the sensor based BLE device with reference sensing value information and function information corresponding to the one or more functions supported by the mobile terminal ; receiving identification information of the sensor based BLE device from the sensor based BLE device via a Bluetooth communication channel after the mobile terminal is paired with the sensor based BLE device ; receiving sensing information detected by the sensor based BLE device from the sensor based BLE device ; extracting the function information and the reference sensing value information corresponding to the received identification information of the sensor based BLE device ; and performing the one or more functions corresponding to the extracted function information based on the reference sensing value information and the received sensing information.
A compound of the formula (X)n-Y, wherein Y is dual GLP-1/Glucagon receptor agonist consisting of an oxyntomodulin (OXM) peptide having the amino acid sequence of SEQ ID NO: 1 and bearing a free amino or hydroxyl group, and wherein X is a radical of formula (i) wherein R 1 is a polyethylene glycol (PEG) moiety; R 2 is either hydrogen or is -SO 3 H at position 2 of the fluorene ring; R 3 and R 4 are each hydrogen; A is -OCO-, wherein the radical of formula (i) is linked to an amino or hydroxyl group of the drug Y; and n is an integer of at least one. R 1 is a polyethylene glycol (PEG) moiety; R 2 is either hydrogen or is -SO 3 H at position 2 of the fluorene ring; R 3 and R 4 are each hydrogen; A is -OCO-, wherein the radical of formula (i) is linked to an amino or hydroxyl group of the drug Y; and n is an integer of at least one.
A support cushion for supporting a paralyzed forearm, including the elbow and hand, on a treatment table or an armrest of a wheelchair, characterized in that an inner side facing the body is concavely formed and an outer side facing away from the body is convexly formed and the upper side has a center seam forming a recess , said recess being delimited by lateral bulges and the cushion being disposable on a firm surface of the treatment table or mounted table of the wheelchair.