mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting and/or quantifying an analyte in a sample using mass spectrometry, said method comprising: a) extracting the analyte from the sample using solid phase extraction (SPE) so as to obtain an SPE extract comprising the analyte, wherein the SPE extract comprises 50 vol% to 100 vol% of an organic solvent, wherein the analyte is a steroid, preferably selected from the group consisting of testosterone and estradiol; b) concentrating the analyte, said concentrating comprising partially evaporating the solvent from the SPE-extract obtained in a); wherein the volume of the SPE-extract subjected to the partial evaporation is reduced by 50% to 95%, preferably by 60% to 90%, more preferably by 70% to 80%; bl) diluting the concentrated analyte obtained from step b) with a dilution solvent to obtain a diluted analyte, wherein the diluted analyte comprises less than 50 vol% of the organic solvent or a further organic solvent prior to step c); and c) detecting and/or quantifying the analyte in the sample using mass spectrometry, wherein the mass spectrometry is mass spectrometry coupled to liquid chromatography (LC-MS). a) extracting the analyte from the sample using solid phase extraction (SPE) so as to obtain an SPE extract comprising the analyte, wherein the SPE extract comprises 50 vol% to 100 vol% of an organic solvent, wherein the analyte is a steroid, preferably selected from the group consisting of testosterone and estradiol; b) concentrating the analyte, said concentrating comprising partially evaporating the solvent from the SPE-extract obtained in a); wherein the volume of the SPE-extract subjected to the partial evaporation is reduced by 50% to 95%, preferably by 60% to 90%, more preferably by 70% to 80%; bl) diluting the concentrated analyte obtained from step b) with a dilution solvent to obtain a diluted analyte, wherein the diluted analyte comprises less than 50 vol% of the organic solvent or a further organic solvent prior to step c); and c) detecting and/or quantifying the analyte in the sample using mass spectrometry, wherein the mass spectrometry is mass spectrometry coupled to liquid chromatography (LC-MS).
Pressure shutoff valve for a pressure washer, comprising a valve housing with a valve seat , at least one inlet for supplying a liquid, at least one outlet for removing the liquid, and a valve body with a longitudinal axis , wherein the valve body has a valve member assigned to the valve seat , wherein, in a first closed position of the pressure shutoff valve , the valve seat is closed by the valve member and the flow connection between the inlet and the outlet is interrupted, wherein the pressure shutoff valve has an effective throttle gap with an overall length (a), as measured in the direction of the longitudinal axis of the valve body , between the valve housing and the valve body , wherein the effective throttle gap is part of the flow connection between the inlet and the outlet , and wherein the valve body has a maximum diameter (d) extending radially with respect to the longitudinal axis , characterized in that the overall length (a) of the effective throttle gap is at least 50% of the maximum diameter (d) of the valve body in the first closed position of the pressure shutoff valve , and in that the valve body and/or the valve housing are composed of plastic. comprising a valve housing with a valve seat , at least one inlet for supplying a liquid, at least one outlet for removing the liquid, and a valve body with a longitudinal axis , wherein the valve body has a valve member assigned to the valve seat , wherein, in a first closed position of the pressure shutoff valve , the valve seat is closed by the valve member and the flow connection between the inlet and the outlet is interrupted, wherein the pressure shutoff valve has an effective throttle gap with an overall length (a), as measured in the direction of the longitudinal axis of the valve body , between the valve housing and the valve body , wherein the effective throttle gap is part of the flow connection between the inlet and the outlet , and wherein the valve body has a maximum diameter (d) extending radially with respect to the longitudinal axis , characterized in that the overall length (a) of the effective throttle gap is at least 50% of the maximum diameter (d) of the valve body in the first closed position of the pressure shutoff valve , and in that the valve body and/or the valve housing are composed of plastic.
A thrombelastography device, comprising a support , a rotary shaft and a cap removal device, wherein the support is connected to one end of the rotary shaft to support the rotary shaft , such that the rotary shaft is able to rotate, wherein the rotary shaft is able to be sleeved with the cap to be removed; the cap removal device comprises a drive part , a connection shaft , and a cap removal member , wherein the connection shaft can move upward when driven by the drive part ; the cap removal member has an end and the other end ; the end is pivotally connected to the connection shaft , so that when the connection shaft moves upward when driven by the drive part , the cap removal member rotates, due to the upward movement, around a pivot point located between the end and the other end of the cap removal member , so that the other end of the cap removal member moves downward to contact the cap to be removed, thereby removing the cap; the cap removal member is pivotally connected to the support at the pivot point ; and the other end of the cap removal member is provided with an opening that allows the rotary shaft to pass through in a manner substantially perpendicular to the other end , such that the other end sleeves the rotary shaft and is located above the cap. the cap removal device comprises a drive part , a connection shaft , and a cap removal member , wherein the connection shaft can move upward when driven by the drive part ; the cap removal member has an end and the other end ; the end is pivotally connected to the connection shaft , so that when the connection shaft moves upward when driven by the drive part , the cap removal member rotates, due to the upward movement, around a pivot point located between the end and the other end of the cap removal member , so that the other end of the cap removal member moves downward to contact the cap to be removed, thereby removing the cap; the cap removal member is pivotally connected to the support at the pivot point ; and the other end of the cap removal member is provided with an opening that allows the rotary shaft to pass through in a manner substantially perpendicular to the other end , such that the other end sleeves the rotary shaft and is located above the cap.
An actuation assembly comprising: a first output shaft comprising a first end disposed opposite a second end ; a second output shaft comprising a first end disposed opposite a second end , wherein the first end of the second output shaft is disposed within the second end of the first output shaft such that the first end of the second output shaft can move relative the second end of the first output shaft ; and a motor mechanically connected to the first end of the first output shaft by a ball screw assembly and configured to actuate the first output shaft in a linear direction parallel to an axis that extends between the first and second ends of the first output shaft , characterized in that the actuation assembly further comprises a fluid chamber formed between the first output shaft and the second output shaft at the second end of the first output shaft ; an element extending from the outer surface of the second output shaft and into the fluid chamber, and wherein the element is a plate that comprises: a plurality of orifices extending through the plate magnetorheologic fluid disposed inside the fluid chamber ; a magnetic field generating coil disposed around the second end of the first output shaft and the first end of the second output shaft . a first output shaft comprising a first end disposed opposite a second end ; a second output shaft comprising a first end disposed opposite a second end , wherein the first end of the second output shaft is disposed within the second end of the first output shaft such that the first end of the second output shaft can move relative the second end of the first output shaft ; and a motor mechanically connected to the first end of the first output shaft by a ball screw assembly and configured to actuate the first output shaft in a linear direction parallel to an axis that extends between the first and second ends of the first output shaft , characterized in that the actuation assembly further comprises a fluid chamber formed between the first output shaft and the second output shaft at the second end of the first output shaft ; an element extending from the outer surface of the second output shaft and into the fluid chamber, and wherein the element is a plate that comprises: a plurality of orifices extending through the plate magnetorheologic fluid disposed inside the fluid chamber ; a magnetic field generating coil disposed around the second end of the first output shaft and the first end of the second output shaft . a plurality of orifices extending through the plate magnetorheologic fluid disposed inside the fluid chamber ; a magnetic field generating coil disposed around the second end of the first output shaft and the first end of the second output shaft .
A transceiver element, comprising: a substrate ; a membrane suspending from the substrate ; and a transducer element mounted on the membrane at an attachment area, the transducer element having a bottom electrode, a piezoelectric layer on the bottom electrode, and a top electrode on the piezoelectric layer, the transducer element generating a bending moment in response to applying an electrical potential across the bottom electrode and the top electrode and developing an electrical charge in response to applying a bending moment thereto; wherein the membrane has a first cross-sectional thickness in the attachment area and a second cross-sectional thickness in a deflection area of the membrane , the first cross-sectional thickness being different from the second cross-sectional thickness to permit a desired deflection profile of the membrane for enhancing performance of the transducer element . a substrate ; a membrane suspending from the substrate ; and a transducer element mounted on the membrane at an attachment area, the transducer element having a bottom electrode, a piezoelectric layer on the bottom electrode, and a top electrode on the piezoelectric layer, the transducer element generating a bending moment in response to applying an electrical potential across the bottom electrode and the top electrode and developing an electrical charge in response to applying a bending moment thereto; wherein the membrane has a first cross-sectional thickness in the attachment area and a second cross-sectional thickness in a deflection area of the membrane , the first cross-sectional thickness being different from the second cross-sectional thickness to permit a desired deflection profile of the membrane for enhancing performance of the transducer element .
A specular mirror comprising a glass substrate coated on one of its faces, successively from said glass substrate, with a stack of thin layers, with a reflective silver layer and then with a layer of paint, characterized in that said stack of thin layers comprises at least one continuous copper-based metal layer having a physical thickness ranging from 2 to 40 nm surmounted by an adhesion layer made of metal oxide having a refractive index at 550 nm within a range extending from 1.8 to 2.6.
A method for teleconference, wherein the method comprises: receiving (S410), by processing circuitry of a first device and from a second device, a first media stream that carries a first audio, and a second media stream that carries a second audio; sending, by the processing circuitry to the second device, customization parameters for customizing a first audio weight and a second audio weight based on the customization parameters, wherein the first audio weight and the second audio weight being different values, and the customization parameters indicate an increase of the first audio weight or the second audio weight; receiving (S420), by the processing circuitry from the second device, the first audio weight and the second audio weight; weighting, by the processing circuitry, the first audio based on the first audio weight; weighting, by the processing circuitry, the second audio based on the second audio weight; and generating (S430), by the processing circuitry of the first device, a mixed audio by combining the weighted first audio and the weighted second audio. receiving (S410), by processing circuitry of a first device and from a second device, a first media stream that carries a first audio, and a second media stream that carries a second audio; sending, by the processing circuitry to the second device, customization parameters for customizing a first audio weight and a second audio weight based on the customization parameters, wherein the first audio weight and the second audio weight being different values, and the customization parameters indicate an increase of the first audio weight or the second audio weight; receiving (S420), by the processing circuitry from the second device, the first audio weight and the second audio weight; weighting, by the processing circuitry, the first audio based on the first audio weight; weighting, by the processing circuitry, the second audio based on the second audio weight; and generating (S430), by the processing circuitry of the first device, a mixed audio by combining the weighted first audio and the weighted second audio.
A laminate comprising a layer of a polyimide resin and a layer of an unvulcanized rubber composition, wherein the unvulcanized rubber composition comprises: (A) a rubber component, (B) 20 to 100 parts by weight of a polyamide-polyether elastomer with respect to 100 parts by weight of the rubber component (A), (C) a condensate of a substituted or unsubstituted phenolic compound represented by the following formula : wherein R 1 , R 2 , R 3 , R 4 and R 5 are independently selected from the group consisting of hydrogen, hydroxyl group, alkyl groups having 1 to 8 carbon atoms, hydroxyalkyl groups having 1 to 8 carbon atoms, and alkoxide groups having 1 to 8 carbon atoms, with formaldehyde, (D) a methylene donor, and (E) a vulcanizing agent. (A) a rubber component, (B) 20 to 100 parts by weight of a polyamide-polyether elastomer with respect to 100 parts by weight of the rubber component (A), (C) a condensate of a substituted or unsubstituted phenolic compound represented by the following formula : wherein R 1 , R 2 , R 3 , R 4 and R 5 are independently selected from the group consisting of hydrogen, hydroxyl group, alkyl groups having 1 to 8 carbon atoms, hydroxyalkyl groups having 1 to 8 carbon atoms, and alkoxide groups having 1 to 8 carbon atoms, with formaldehyde, (D) a methylene donor, and (E) a vulcanizing agent.
Sanitary switchover valve with - a valve housing which configures - a valve inlet , - a first valve outlet and - a second valve outlet , and with - a valve piston which can be moved - from a first changeover position , in which a fluid which flows in through the valve inlet can be conducted along a first flow path through the first valve outlet , into - a second changeover position , in which the fluid can be conducted along a second flow path through the second valve outlet , and with - a functional element which regulates a fluid flow along the second flow path , characterized - in that the valve piston has a connecting element which connects a first end section of the valve piston in the region of the first valve outlet to a second end section of the valve piston in the region of the second valve outlet , - an external diameter of the connecting element being smaller than an external diameter of the second end section , - the second end section of the valve piston configuring a receiving space , into which the functional element is inserted, - at least one elastic retaining jaw being provided which fixes the functional element in the receiving space , and - the at least one retaining jaw being retained by means of a retaining ring in a position which fixes the functional element . - a valve housing which configures - a valve inlet , - a first valve outlet and - a second valve outlet , and with - a valve inlet , - a first valve outlet and - a second valve outlet , and with - a valve piston which can be moved - from a first changeover position , in which a fluid which flows in through the valve inlet can be conducted along a first flow path through the first valve outlet , into - a second changeover position , in which the fluid can be conducted along a second flow path through the second valve outlet , and with - from a first changeover position , in which a fluid which flows in through the valve inlet can be conducted along a first flow path through the first valve outlet , into - a second changeover position , in which the fluid can be conducted along a second flow path through the second valve outlet , and with - a functional element which regulates a fluid flow along the second flow path , characterized - in that the valve piston has a connecting element which connects a first end section of the valve piston in the region of the first valve outlet to a second end section of the valve piston in the region of the second valve outlet , - an external diameter of the connecting element being smaller than an external diameter of the second end section , - the second end section of the valve piston configuring a receiving space , into which the functional element is inserted, - at least one elastic retaining jaw being provided which fixes the functional element in the receiving space , and - the at least one retaining jaw being retained by means of a retaining ring in a position which fixes the functional element .
A Solder paste comprising: Sn-based powder; SnSb-based alloy powder containing Sn and 10 mass% or more of Sb; and flux, wherein a liquidus temperature of the SnSb-based alloy powder is higher than a liquidus temperature of the Sn-based powder, and wherein a mass ratio of the Sn-based powder and the SnSb-based powder is 75:25 to 95:5. Sn-based powder; SnSb-based alloy powder containing Sn and 10 mass% or more of Sb; and flux, wherein a liquidus temperature of the SnSb-based alloy powder is higher than a liquidus temperature of the Sn-based powder, and wherein a mass ratio of the Sn-based powder and the SnSb-based powder is 75:25 to 95:5.
A control device comprising: an interface for outputting a command value to a motor driver adapted to drive a motor ; a storage portion adapted to store one or more commands for specifying a behavior of the motor driven by the motor driver ; and a processing portion including a first arithmetic circuit and a second arithmetic circuit ; characterized in that the first arithmetic circuit is adapted to execute a first process for successively interpreting the one or more commands stored in the storage portion and for successively calculating a parameter set which defines a function relating to calculation of the command value, and the second arithmetic circuit is adapted to execute a second process for calculating the command value based on the successively-calculated parameter set, in each predetermined control cycle, independently of the first process. an interface for outputting a command value to a motor driver adapted to drive a motor ; a storage portion adapted to store one or more commands for specifying a behavior of the motor driven by the motor driver ; and a processing portion including a first arithmetic circuit and a second arithmetic circuit ; characterized in that the first arithmetic circuit is adapted to execute a first process for successively interpreting the one or more commands stored in the storage portion and for successively calculating a parameter set which defines a function relating to calculation of the command value, and the second arithmetic circuit is adapted to execute a second process for calculating the command value based on the successively-calculated parameter set, in each predetermined control cycle, independently of the first process.
An unloading system for an agricultural working machine , comprising: - a harvested material storage container , - at least one transverse screw conveyor disposed inside the harvested material storage container , - a discharge pipe conduit with a vertical pipe inclined at an angle to the at least one transverse screw conveyor and a discharge pipe connected to the vertical pipe , wherein screw conveyors are disposed in the discharge pipe conduit , wherein, in order to unload the harvested material storage container , harvested material located in the harvested material storage container is fed to the screw conveyors by means of the at least one transverse screw conveyor , - a drive system for driving the at least one transverse screw conveyor in a continuously variable manner, as well as - a control device for controlling the drive system, characterized in that the drive system comprises a screw conveyor drive train for driving the screw conveyors in the discharge pipe conduit and a drive means for driving the at least one transverse screw conveyor , wherein the screw conveyor drive train and the drive means are disposed on opposite sides of the harvested material storage container , wherein, on the side of the screw conveyor drive train , a hydraulic pump is disposed which drives the drive means comprising at least one hydraulic motor steplessly in a continuously variable manner. - a harvested material storage container , - at least one transverse screw conveyor disposed inside the harvested material storage container , - a discharge pipe conduit with a vertical pipe inclined at an angle to the at least one transverse screw conveyor and a discharge pipe connected to the vertical pipe , wherein screw conveyors are disposed in the discharge pipe conduit , wherein, in order to unload the harvested material storage container , harvested material located in the harvested material storage container is fed to the screw conveyors by means of the at least one transverse screw conveyor , - a drive system for driving the at least one transverse screw conveyor in a continuously variable manner, as well as - a control device for controlling the drive system,
A method for treating plants in need of control of coffee rust, citrus black spot, citrus scab or banana black sigatoka disease, comprising applying to said plants or parts of said plants, to the seeds from which they grow or to the locus in which they grow, an effective amount for controlling the disease of N-(5-chloro-2-isopropylbenzyl)-N-cyclopropyl-3-(difluoromethyl)-5-fluoro-1-methyl-1H-pyrazole-4-carboxamide or an agrochemically acceptable salt thereof.