mhurhangee/patent-ind-claim-en huggingface dataset:
A process for extruding and pelletising a propylene copolymer (A) having a content of comonomer from 5 to 40% by mole, a melt flow rate MFR 2 measured at 230 °C under a load of 2.16 kg of from 0.5 to 15 g/10 min and a content of xylene cold soluble fraction of from 20 to 60% by weight, said process comprising extruding the propylene copolymer through a die plate into an underwater pelletiser and cutting strands of the propylene copolymer into pellets in the underwater pelletiser, wherein the ratio of the mass flow rate of the propylene copolymer to the mass flow rate of the cooling water is from 0.020 to 0.060; and the propylene copolymer comprises a polymeric nucleating agent, whereby propylene copolymer (A) and the polymeric nucleating agent yield a composition, and whereby the composition has a crystallization temperature Tc as determined by DSC with a scan rate of 10 °C/min in the range of 114 to 126°C.
A physically stable solid dispersion comprising the compound 4-{[ -4-(4-Chloro-2-Fluoro-Phenyl)-3-(3-Chloro-2-Fluoro-Phenyl)-4-Cyano-5-(2,2-Dimethyl-Propyl)-Pyrrolidine-2-Carbonyl]-Amino}-3- Methoxy -Benzoic Acid, of the formula (A) together with a stabilizing polymer, wherein the stabilizing polymer is EUDRAGIT R L-100, Eudragit L100-55 or Copovidone (PVP VA 64).
A modular data acquisition system for obtaining an electrocardiogram, ECG, from a patient , comprising: a main unit configured to receive a plurality of electrophysiological signals from a plurality of limb electrodes located on the patient and to generate a first ECG; at least one extension unit that is configured to receive at least one electrophysiological signal from at least one chest electrode located on the patient and to generate additional information to the first ECG; and a single galvanic reference connection between the main unit and the one or more extension units , the single galvanic reference connection providing a common mode reference between the main unit and the extension unit , wherein the system is configured to use the common mode reference to combine the first ECG and the additional information to generate the electrocardiogram from the patient, characterised in that the extension unit is addable to the main unit . a main unit configured to receive a plurality of electrophysiological signals from a plurality of limb electrodes located on the patient and to generate a first ECG; at least one extension unit that is configured to receive at least one electrophysiological signal from at least one chest electrode located on the patient and to generate additional information to the first ECG; and a single galvanic reference connection between the main unit and the one or more extension units , the single galvanic reference connection providing a common mode reference between the main unit and the extension unit , wherein the system is configured to use the common mode reference to combine the first ECG and the additional information to generate the electrocardiogram from the patient, characterised in that the extension unit is addable to the main unit .
A method for power management in a battery powered device , wherein the battery powered device comprises one or more power saving functionalities that are either activated or deactivated on the device , the method comprising: receiving a target battery life, wherein the target battery life is a time interval in which the battery powered device is to be operable without having to initiate a recharging, comparing the target battery life with a retrieved time threshold, wherein the time threshold is an estimate on how long the battery powered device will be operable, upon determining whether the target battery life exceeds the retrieved time threshold, selectively activating at least one power saving functionality from the one or more power saving functionalities , characterized in receiving a target battery life comprises obtaining a calculated average of one or more time intervals between previous recharges of the battery powered device retrieving an estimation of remaining battery power life of the battery powered device , wherein the retrieved time threshold is the retrieved estimation of remaining battery power life, wherein the estimation of remaining battery power life comprises a first estimated battery power life, and the one or more power saving functionalities are selectively activated upon determining whether the target battery life exceeds the first estimated battery power life, wherein the first estimated battery power life is derived by: calculating a first power consumption level of the battery powered device , linearly extrapolating the first power consumption level to a point in time at which the energy in the battery powered device is zero. receiving a target battery life, wherein the target battery life is a time interval in which the battery powered device is to be operable without having to initiate a recharging, comparing the target battery life with a retrieved time threshold, wherein the time threshold is an estimate on how long the battery powered device will be operable, upon determining whether the target battery life exceeds the retrieved time threshold, selectively activating at least one power saving functionality from the one or more power saving functionalities , receiving a target battery life comprises obtaining a calculated average of one or more time intervals between previous recharges of the battery powered device retrieving an estimation of remaining battery power life of the battery powered device , wherein the retrieved time threshold is the retrieved estimation of remaining battery power life, wherein the estimation of remaining battery power life comprises a first estimated battery power life, and the one or more power saving functionalities are selectively activated upon determining whether the target battery life exceeds the first estimated battery power life, calculating a first power consumption level of the battery powered device , linearly extrapolating the first power consumption level to a point in time at which the energy in the battery powered device is zero.
A method for producing a compound of formula : wherein R 1a , R 1b , R 2a , R 2b , R 3a , and R 3b each independently are H, F, alkyl, fluoroalkyl or aryl; provided that at least one of them is F or fluoroalkyl; or one or more moieties among R 1a -C-R 2a , R 1b -C-R 2b , R 1a -C=C-R 3a and R 1b -C=C-R 3b each independently may form a non-aromatic carbon ring that may be substituted with one or more fluorine atoms; and each single bond expressed by a wavy line shows that the configuration with respect to a double bond to which the single bond is bonded is E configuration, Z configuration, or a mixture thereof at any ratio; the method comprising step A of subjecting a compound of formula : wherein X a is Cl, Br or I, and R 1a -R 3a are as defined above, and a compound of formula : wherein X b is Cl, Br or I, and R 1b -R 3b are as defined above, to a coupling reaction in the presence of a metal catalyst which is at least one of nickel catalysts, palladium catalysts, platinum catalysts, ruthenium catalysts, rhodium catalysts, and cobalt catalysts, and one or more reducing agents selected from (a) transition metal elements in the 4th period, (b) metal elements in group 12, (c) metal elements in group 13 and (e) carbon monoxide. each single bond expressed by a wavy line shows that the configuration with respect to a double bond to which the single bond is bonded is E configuration, Z configuration, or a mixture thereof at any ratio; the method comprising step A of subjecting a compound of formula : wherein X a is Cl, Br or I, and R 1a -R 3a are as defined above, and a compound of formula : wherein X b is Cl, Br or I, and R 1b -R 3b are as defined above, to a coupling reaction in the presence of a metal catalyst which is at least one of nickel catalysts, palladium catalysts, platinum catalysts, ruthenium catalysts, rhodium catalysts, and cobalt catalysts, and one or more reducing agents selected from (a) transition metal elements in the 4th period, (b) metal elements in group 12, (c) metal elements in group 13 and (e) carbon monoxide. a metal catalyst which is at least one of nickel catalysts, palladium catalysts, platinum catalysts, ruthenium catalysts, rhodium catalysts, and cobalt catalysts, and one or more reducing agents selected from (a) transition metal elements in the 4th period, (b) metal elements in group 12, (c) metal elements in group 13 and (e) carbon monoxide.
A method comprising: sensing, by a temperature sensor (39, 80, 96A-C, 112A-B), a temperature of an internal portion of an implantable medical device during a charging process, the implantable device comprising a housing enclosing said internal portion; determining, by processing circuitry and based on the sensed temperature of the internal portion of the implantable medical device and an algorithm, a temperature of the housing of the implantable medical device, the temperature sensor sensing the temperature of the internal portion of the medical device without being thermally coupled to the housing of the medical device , wherein the algorithm is representative of an estimated temperature differential between the internal portion and the housing , the estimated temperature differential determined based on a transfer function; and controlling, by the processing circuitry , charging of a rechargeable power source of the medical device based on the determined temperature of the housing . sensing, by a temperature sensor (39, 80, 96A-C, 112A-B), a temperature of an internal portion of an implantable medical device during a charging process, the implantable device comprising a housing enclosing said internal portion; determining, by processing circuitry and based on the sensed temperature of the internal portion of the implantable medical device and an algorithm, a temperature of the housing of the implantable medical device, the temperature sensor sensing the temperature of the internal portion of the medical device without being thermally coupled to the housing of the medical device , wherein the algorithm is representative of an estimated temperature differential between the internal portion and the housing , the estimated temperature differential determined based on a transfer function; and controlling, by the processing circuitry , charging of a rechargeable power source of the medical device based on the determined temperature of the housing .
An image forming method comprising: continuously replenishing a developer comprising a toner and a carrier with discharging an excessive developer, generating a magnetic brush of the carrier by means of a magnetic roller, supplying a toner to the developing roller surface from the magnetic brush to form a toner thin layer, and selectively attaching the toner on the developing roller surface to an electrostatic latent image holding member according to an electrostatic latent image, wherein: the carrier has a fluororesin or a fluoroorganic compound on the core material surface, the toner contains a charge control agent and a binder resin composed of a styrene acrylic resin and has positive chargeability, the charge control agent contains a positive charge control agent and a negative charge control agent, and the positive charge control agent is nigrosine. continuously replenishing a developer comprising a toner and a carrier with discharging an excessive developer, generating a magnetic brush of the carrier by means of a magnetic roller, supplying a toner to the developing roller surface from the magnetic brush to form a toner thin layer, and selectively attaching the toner on the developing roller surface to an electrostatic latent image holding member according to an electrostatic latent image, wherein: the carrier has a fluororesin or a fluoroorganic compound on the core material surface, the toner contains a charge control agent and a binder resin composed of a styrene acrylic resin and has positive chargeability, the charge control agent contains a positive charge control agent and a negative charge control agent, and the positive charge control agent is nigrosine. the carrier has a fluororesin or a fluoroorganic compound on the core material surface, the toner contains a charge control agent and a binder resin composed of a styrene acrylic resin and has positive chargeability, the charge control agent contains a positive charge control agent and a negative charge control agent, and the positive charge control agent is nigrosine.
A vehicle, comprising: a main body ; at least one wing coupled to the main body; a source of compressed fluid coupled to the main body; first and second thrusters, each said first and second thruster having an intake structure ; each said first and second thruster in fluid communication with the source, the first thruster coupled to the main body and the second thruster coupled to the at least one wing, the first and second thrusters being positioned, when in a first configuration, such that at least a portion of a boundary layer produced due to motion of the vehicle is ingested by the intake structures of the first and second thrusters; and a system for selectively providing the compressed fluid to the first and second thrusters. a main body ; at least one wing coupled to the main body; a source of compressed fluid coupled to the main body; first and second thrusters, each said first and second thruster having an intake structure ; each said first and second thruster in fluid communication with the source, the first thruster coupled to the main body and the second thruster coupled to the at least one wing, the first and second thrusters being positioned, when in a first configuration, such that at least a portion of a boundary layer produced due to motion of the vehicle is ingested by the intake structures of the first and second thrusters; and a system for selectively providing the compressed fluid to the first and second thrusters.
Procedure for the analysis of alcoholic beverages regarding the validity of their origin by means of a Raman spectrometer for the determination of a Raman spectrum of a sample to be investigated of an alcoholic beverage within a unopened and bottle-shaped vessel , using at least one laser optical device to create a laser beam, with at least one motorised filter of varying optical density to adjust the laser beam to the sample and at least one lens for light in the visible spectrum, whereby for the measurements of refraction, absorption, transmission and/or reflection a microscope with a macro objective (1109 with a long focus of at least D=20mm and a fastening device for the fixable bottle-shaped vessel is provided, made of glass, whereby the measurement is made inside bottle-shaped vessel positioned below the macro objective of the microscope in the fixture , whereby the laser has a wavelength of 785 nm, and whereby for the execution of the procedure two closed vessels containing an alcoholic beverage are measured subsequently with the Raman spectrometer , whereby the measured spectra are compared with one another by using a main component analysis, and whereby the originality of the alcoholic content inside the vessels is assessed using the correspondence and correlation of the respective spectra.
A method for diagnosing in a subject Acute Kidney Injury, or diagnosing in a subject delayed graft function of a transplanted kidney, which method comprises the steps of a) analysing a urine sample obtained from a subject to determine the level of a biomarker selected from cadmium or copper or zinc; and b) comparing the level of the biomarker in the sample to a reference level of the biomarker that is characteristic of a healthy subject, eg a subject having normal renal function; wherein an elevated level of the biomarker in the sample relative to the reference level is indicative of Acute Kidney Injury or delayed graft function of a transplanted kidney. a) analysing a urine sample obtained from a subject to determine the level of a biomarker selected from cadmium or copper or zinc; and b) comparing the level of the biomarker in the sample to a reference level of the biomarker that is characteristic of a healthy subject, eg a subject having normal renal function;
An apparatus , comprising: first and second waveguides adapted to be connected to a pipe ; and first and second transducers adapted to be connected to the first and second waveguides , respectively, and to exchange ultrasonic wave signals through the first and second waveguides , the pipe , and a fluid flowing in the pipe ; wherein a temperature of the fluid flowing in the pipe exceeds about 600° C; characterised in that , when the first and second transducers are connected to the first and second waveguides , respectively, and the first and second waveguides are connected to the pipe : the first and second waveguides are configured to, and each have a shape to: (i) insulate the first and second transducers from the pipe , and (ii) permit propagation of the ultrasonic wave signals between the pipe and the first and second transducers , respectively, while maintaining an acoustic attenuation through the first and second waveguides at an acceptable level that is small enough to permit ultrasonic wave signals from one of the transducers to pass through the waveguides and be detected by the other of the transducers , so that the ability of the first and second transducers to exchange the ultrasonic wave signals is not adversely affected by the temperature of the fluid flowing in the pipe . first and second waveguides adapted to be connected to a pipe ; and first and second transducers adapted to be connected to the first and second waveguides , respectively, and to exchange ultrasonic wave signals through the first and second waveguides , the pipe , and a fluid flowing in the pipe ; wherein a temperature of the fluid flowing in the pipe exceeds about 600° C; characterised in that , when the first and second transducers are connected to the first and second waveguides , respectively, and the first and second waveguides are connected to the pipe : the first and second waveguides are configured to, and each have a shape to: (i) insulate the first and second transducers from the pipe , and (ii) permit propagation of the ultrasonic wave signals between the pipe and the first and second transducers , respectively, while maintaining an acoustic attenuation through the first and second waveguides at an acceptable level that is small enough to permit ultrasonic wave signals from one of the transducers to pass through the waveguides and be detected by the other of the transducers , so that the ability of the first and second transducers to exchange the ultrasonic wave signals is not adversely affected by the temperature of the fluid flowing in the pipe .
A toilet chair comprising, a chair back comprising a head part and a bottom part , a seat comprising a front part and a rear part , wherein said seat further comprises a toilet opening through which a user may go to the toilet, wherein said bottom part and said rear part are arranged next to each other, wherein said bottom part is arranged to be displaceable outwards in a direction towards the front of said chair by said bottom part being arranged to be displaceable outwards by being arranged to tilt around a back pivot point , characterised in that , said rear part is arranged to be displaceable upwards in a direction towards the front of said chair by said rear part being arranged to be displaceable upwards by being arranged to tilt around a seat pivot point or by said front part and said rear part being formed as two separate individual parts, wherein said individually formed rear part is arranged to be displaceable upwards independently of said individually formed front part and wherein said chair comprises back mechanical actuation means for displacing said bottom part and seat mechanical actuation means for displacing said rear part . a chair back comprising a head part and a bottom part , a seat comprising a front part and a rear part , wherein said seat further comprises a toilet opening through which a user may go to the toilet, wherein said bottom part and said rear part are arranged next to each other, wherein said bottom part is arranged to be displaceable outwards in a direction towards the front of said chair by said bottom part being arranged to be displaceable outwards by being arranged to tilt around a back pivot point , characterised in that , said rear part is arranged to be displaceable upwards in a direction towards the front of said chair by said rear part being arranged to be displaceable upwards by being arranged to tilt around a seat pivot point or by said front part and said rear part being formed as two separate individual parts, wherein said individually formed rear part is arranged to be displaceable upwards independently of said individually formed front part and wherein said chair comprises back mechanical actuation means for displacing said bottom part and seat mechanical actuation means for displacing said rear part .
A light system for an aircraft, comprising: a wheel speed sensor ; a first aircraft light ; a controller coupled to the sensor and the first aircraft light; and a tangible, non-transitory memory configured to communicate with the controller, the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the controller, cause the controller to perform operations comprising: receiving, by the controller, data from the wheel speed sensor ; determining, by the controller, a status of the aircraft based on the data; and controlling, by the controller, the first aircraft light based on the status of the aircraft; wherein the first aircraft light comprises a taxi light ; the system comprising a weight on wheels sensor configured to provide indication that the aircraft is on the ground; and wherein the operations further comprise activating, by the controller, the taxi light in response to a wheel speed being below a second threshold and an indication from the weight on wheels sensor that the aircraft is on the ground. a wheel speed sensor ; a first aircraft light ; a controller coupled to the sensor and the first aircraft light; and a tangible, non-transitory memory configured to communicate with the controller, the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the controller, cause the controller to perform operations comprising: receiving, by the controller, data from the wheel speed sensor ; determining, by the controller, a status of the aircraft based on the data; and controlling, by the controller, the first aircraft light based on the status of the aircraft; receiving, by the controller, data from the wheel speed sensor ; determining, by the controller, a status of the aircraft based on the data; and controlling, by the controller, the first aircraft light based on the status of the aircraft; wherein the first aircraft light comprises a taxi light ; the system comprising a weight on wheels sensor configured to provide indication that the aircraft is on the ground; and wherein the operations further comprise activating, by the controller, the taxi light in response to a wheel speed being below a second threshold and an indication from the weight on wheels sensor that the aircraft is on the ground.