mhurhangee/patent-ind-claim-en huggingface dataset:
A method for analyzing one or more analytes selected from the group consisting of anionic compounds, phosphorylated compounds, sulfated compounds, carboxylated compounds and phosphopeptides in a sample by liquid chromatography coupled with mass spectrometry, the method comprising: providing a liquid chromatography column packed with a stationary phase; providing a mobile phase comprising one or more solvents and an additive of medronic acid; injecting the sample into the mobile phase; performing chromatography under conditions to separate the one or more analytes in the liquid chromatography column, by flowing the mobile phase with the sample through the liquid chromatography column; and analyzing the one or more separated analytes with a mass spectrometer. providing a liquid chromatography column packed with a stationary phase; providing a mobile phase comprising one or more solvents and an additive of medronic acid; injecting the sample into the mobile phase; performing chromatography under conditions to separate the one or more analytes in the liquid chromatography column, by flowing the mobile phase with the sample through the liquid chromatography column; and analyzing the one or more separated analytes with a mass spectrometer.
Aircraft beacon light with integrated health monitoring, comprising: an annular arrangement of light sources , configured for repeatedly emitting beacon light flashes (71-74); a light detection sensor surrounded by the annular arrangement of light sources ; a light transmissive cover , covering the annular arrangement of light sources and the light detection sensor ; and at least one reflective portion arranged to reflect light, emitted by the annular arrangement of light sources , onto the light detection sensor wherein the at least one reflective portion is provided as a separate component, supported by the light transmissive cover . an annular arrangement of light sources , configured for repeatedly emitting beacon light flashes (71-74); a light detection sensor surrounded by the annular arrangement of light sources ; a light transmissive cover , covering the annular arrangement of light sources and the light detection sensor ; and at least one reflective portion arranged to reflect light, emitted by the annular arrangement of light sources , onto the light detection sensor wherein the at least one reflective portion is provided as a separate component, supported by the light transmissive cover .
A method of checking whether a magnetic resonance (MRI) image scan can be performed by an MRI machine for a patient who has an implantable medical system, the method comprising: verifying by an external device that an implantable medical device of the implantable medical system is of a type that is acceptable for the MRI scan; verifying by the external device that an implantable medical lead of the implantable medical system is of a type that is acceptable for the MRI scan; and providing by the external device an indication of whether the implantable medical system is acceptable for the MRI scan based on the verifying of the implantable medical device and the implantable medical lead ; characterized by the method further comprising measuring, using one or more MRI sensors included in the external device , MRI values corresponding to MRI scan settings of the MRI machine during an MRI scan during which the external device is located within a patient cylinder of the MRI machine; analyzing by the external device the MRI values corresponding to the MRI scan settings of the MRI machine , and providing by the external device an indication of a conclusion of whether the MRI scan settings are acceptable for the MRI scan, based at least in part on the measured MRI values. verifying by an external device that an implantable medical device of the implantable medical system is of a type that is acceptable for the MRI scan; verifying by the external device that an implantable medical lead of the implantable medical system is of a type that is acceptable for the MRI scan; and providing by the external device an indication of whether the implantable medical system is acceptable for the MRI scan based on the verifying of the implantable medical device and the implantable medical lead ; characterized by the method further comprising measuring, using one or more MRI sensors included in the external device , MRI values corresponding to MRI scan settings of the MRI machine during an MRI scan during which the external device is located within a patient cylinder of the MRI machine; analyzing by the external device the MRI values corresponding to the MRI scan settings of the MRI machine , and providing by the external device an indication of a conclusion of whether the MRI scan settings are acceptable for the MRI scan, based at least in part on the measured MRI values.
An apparatus for forming a tissue fold , comprising: an elongate tubular member having a proximal end, a distal end, and a length therebetween; an engagement member having a distal end adapted to engage tissue; a first stabilizing member and a second stabilizing member positioned at the tubular member distal end and adapted to stabilize tissue therebetween; and a delivery tube , characterised in that : the delivery tube is adapted to pivot about the first stabilizing member . an elongate tubular member having a proximal end, a distal end, and a length therebetween; an engagement member having a distal end adapted to engage tissue; a first stabilizing member and a second stabilizing member positioned at the tubular member distal end and adapted to stabilize tissue therebetween; and a delivery tube , characterised in that : the delivery tube is adapted to pivot about the first stabilizing member .
An autonomous mobile robot with: a drive module configured to move the robot through surroundings; a work module configured to treat a floor surface or to carry out transport of objects; a control module configured to send control commands to the drive module or to the work module , wherein the control commands are configured to control movement and tasks of the robot , respectively; and a safety module configured to: monitor robot behavior independently of the control module ; detect a dangerous situation by classifying a current movement of the robot controlled by the control module as dangerous on the basis of specified criteria; and if the safety module recognizes that the robot is executing a movement classified as dangerous, overwrite control commands of the control module with control commands of the safety module, wherein control commands of the safety module comprise direction and/or speed commands which cause the robot to change its direction and/or to decrease its speed; and, if the safety module recognizes that the robot is executing a movement classified as dangerous, change the movement of the robot with the control commands from the safety module . a drive module configured to move the robot through surroundings; a work module configured to treat a floor surface or to carry out transport of objects; a control module configured to send control commands to the drive module or to the work module , wherein the control commands are configured to control movement and tasks of the robot , respectively; and a safety module configured to: monitor robot behavior independently of the control module ; detect a dangerous situation by classifying a current movement of the robot controlled by the control module as dangerous on the basis of specified criteria; and if the safety module recognizes that the robot is executing a movement classified as dangerous, overwrite control commands of the control module with control commands of the safety module, wherein control commands of the safety module comprise direction and/or speed commands which cause the robot to change its direction and/or to decrease its speed; and, if the safety module recognizes that the robot is executing a movement classified as dangerous, change the movement of the robot with the control commands from the safety module . monitor robot behavior independently of the control module ; detect a dangerous situation by classifying a current movement of the robot controlled by the control module as dangerous on the basis of specified criteria; and if the safety module recognizes that the robot is executing a movement classified as dangerous, overwrite control commands of the control module with control commands of the safety module, wherein control commands of the safety module comprise direction and/or speed commands which cause the robot to change its direction and/or to decrease its speed; and, if the safety module recognizes that the robot is executing a movement classified as dangerous, change the movement of the robot with the control commands from the safety module .
An electrical circuit suitable for cutting off an electric power supply to electrical equipment, the circuit comprising a voltage source supplying the electrical equipment, and furthermore having for inputs at least two discrete electrical signals (x 1 , x 2 , x 3 ), the values of which determine the cutting off of the electrical power supply to the equipment, the electrical circuit being characterised in that it comprises: - at least two modules (A1, A2) for cutting off the electric power supply connected in series, connected between the voltage source and the electrical equipment, each module for cutting off the electric power supply being controlled according to the values of the discrete electrical signals, and - at least two modules (C1, C2) for comparing the discrete electrical signals in parallel, wherein at least one of the modules (A1, A2) cutting off the electric power supply is controlled by the outputs of the modules (C1, C2) comparing the discrete signals. - at least two modules (A1, A2) for cutting off the electric power supply connected in series, connected between the voltage source and the electrical equipment, each module for cutting off the electric power supply being controlled according to the values of the discrete electrical signals, and - at least two modules (C1, C2) for comparing the discrete electrical signals in parallel,
A method of improving the cognitive function of a healthy human by ingesting a composition containing bovine beta-casein or by providing to a healthy human a composition containing bovine beta-casein, wherein at least 75% by weight of the beta-casein is a beta-casein variant that does not produce BCM-7 on digestion in the gut of the human.
A continuous production method of a diester-based material in a continuous production process comprising a reaction part in which a total of N reaction units from a first reaction unit to an N-th reaction unit are connected in series, the method comprising: feeding one or more dicarboxylic acids selected from the group consisting of terephthalic acid, phthalic acid, isophthalic acid, and cyclohexane dicarboxylic acid and a primary alcohol having 3 to 10 carbon atoms into the reaction part, wherein the feed of the primary alcohol is divided into front-end feed of being fed into a first reaction unit and rear-end feed of being fed into one or more reaction units selected among from a second reaction unit to an N-th reaction unit, wherein the amount of the rear-end feed is 5 to 80 wt% based on the total feed amount of the primary alcohol into the reaction part, and wherein N is an integer of 3 to 6. feeding one or more dicarboxylic acids selected from the group consisting of terephthalic acid, phthalic acid, isophthalic acid, and cyclohexane dicarboxylic acid and a primary alcohol having 3 to 10 carbon atoms into the reaction part, wherein the feed of the primary alcohol is divided into front-end feed of being fed into a first reaction unit and rear-end feed of being fed into one or more reaction units selected among from a second reaction unit to an N-th reaction unit, wherein the amount of the rear-end feed is 5 to 80 wt% based on the total feed amount of the primary alcohol into the reaction part, and wherein N is an integer of 3 to 6.
Cooking appliance with a cooktop , at least two heating elements , at least one lighting element , and a resiliently acting pressing device which has a supporting section , wherein the cooktop is made of a glass or glassceramic material, the at least two heating elements and the at least one lighting element being arranged in the region below the underside of the cooktop , the heating elements bear indirectly or directly against the underside of the cooktop by means of the resiliently acting pressing device , the supporting section being supported on a housing by means of spring elements or the supporting section itself having a spring action, the lighting element or elements and the heating elements are arranged on the common support section of the pressing device in such a way that they can be adjusted when the cooktop is deflected and/or vibrated, characterized in that each one of said heating elements comprises an induction coil , and said cooking apparatus is adapted for surface induction application, wherein a plurality of induction coils of heating elements are mounted on said support section .
A method for measuring angular vibration associated with a rotordynamic system having a rotating element , the method comprising the steps of: detecting passage of a single phase reference mark on said rotating element as said single phase reference mark rotates through a detection zone associated with a detection device; detecting passage of additional marks on said rotating element , which additional marks are distinguishable from said single phase reference mark , as said additional marks rotate through said detection zone; generating a phase reference signal based on said detection of said single phase reference mark ; using only said phase reference signal to measure said angular vibration; and applying a correction factor to an amplitude portion of the measured angular vibration to compensate the measured angular vibration wherein said step of applying a correction factor further comprises: multiplying an amplitude portion (A) of the measured angular vibration by the correction factor, wherein said correction factor is determined based upon simulation results. detecting passage of a single phase reference mark on said rotating element as said single phase reference mark rotates through a detection zone associated with a detection device; detecting passage of additional marks on said rotating element , which additional marks are distinguishable from said single phase reference mark , as said additional marks rotate through said detection zone; generating a phase reference signal based on said detection of said single phase reference mark ; using only said phase reference signal to measure said angular vibration; and applying a correction factor to an amplitude portion of the measured angular vibration to compensate the measured angular vibration wherein said step of applying a correction factor further comprises: multiplying an amplitude portion (A) of the measured angular vibration by the correction factor, wherein said correction factor is determined based upon simulation results.
A device for delivering ultrasonic energy to a target tissue that is subcutaneous to an ulcerated wound comprising: a transducer ; an aspiration conduit ; an irrigation conduit comprising a sleeve ; a horn ; and a needle secured to the horn, wherein the needle includes an exposed portion having a length of about 19.05 mm (0.75 inches) to about 38.1 mm (1.5 inches); wherein a distal portion of the needle of the ultrasonic energy delivery device is configured to be positioned using a percutaneous approach at or around a target tissue located at a position subcutaneous to the ulcerated wound, and wherein the device is configured to deliver ultrasonic energy to the target tissue, wherein the device is configured to percutaneously treat a foot ulcer using the ultrasonic energy, wherein the sleeve comprises an insertion portion adapted for percutaneous insertion to the foot ulcer. a transducer ; an aspiration conduit ; an irrigation conduit comprising a sleeve ; a horn ; and a needle secured to the horn, wherein the needle includes an exposed portion having a length of about 19.05 mm (0.75 inches) to about 38.1 mm (1.5 inches); wherein a distal portion of the needle of the ultrasonic energy delivery device is configured to be positioned using a percutaneous approach at or around a target tissue located at a position subcutaneous to the ulcerated wound, and wherein the device is configured to deliver ultrasonic energy to the target tissue, wherein the device is configured to percutaneously treat a foot ulcer using the ultrasonic energy, wherein the sleeve comprises an insertion portion adapted for percutaneous insertion to the foot ulcer.
Method of estimating an operating state of a drive system , - wherein the drive system comprises: - an electric motor , and - a mechanical unit being moved by the electric motor , - wherein the method comprises the steps of: a) operating the electric motor using electrical properties, characterized by the steps of: b) determining movement properties (D) regarding the movement of the mechanical unit using the electrical properties, c) repeating steps a) and b) for a number of times using changed electrical properties, d) generating a distribution function (F1, F'1, F2, F'2, F3, F'3), wherein the distribution function (F1, F'1, F2, F'2, F3, F'3) allocates the electrical properties used to the resulting movement properties (D), and e) estimating the operating state in response to the generated distribution function (F1, F'1, F2, F'2, F3, F'3). - wherein the drive system comprises: - an electric motor , and - a mechanical unit being moved by the electric motor , - an electric motor , and - a mechanical unit being moved by the electric motor , - wherein the method comprises the steps of: a) operating the electric motor using electrical properties, a) operating the electric motor using electrical properties, b) determining movement properties (D) regarding the movement of the mechanical unit using the electrical properties, c) repeating steps a) and b) for a number of times using changed electrical properties, d) generating a distribution function (F1, F'1, F2, F'2, F3, F'3), wherein the distribution function (F1, F'1, F2, F'2, F3, F'3) allocates the electrical properties used to the resulting movement properties (D), and e) estimating the operating state in response to the generated distribution function (F1, F'1, F2, F'2, F3, F'3).
Arrangement for moving an elevator platform between different levels within an elevator shaft, said arrangement comprising: an elongated screw arranged substantially vertical in said elevator shaft, said screw comprising threads arranged around the peripheral surface a nut turnably arranged on the elongated screw , said nut is arranged to support the elevator platform, said nut comprises an upper end and a lower end and internal threads , corresponding to the threads on the screw, extending between the upper and lower end of the nut; and an electrical motor arranged to rotate the nut to move the nut, and the elevator platform, between the different levels along the screw, wherein the load from the elevator platform is supported by a flank of the thread in the nut that is facing downwards and a flank of the thread of the screw that is facing upwards, characterised in that said screw comprises at least two screw sections joined together and in that the threads are arranged around the peripheral surface along the at least two screw sections ; and in that a section (S) of the flank of the thread in the nut that is facing downwards in the upper and / or lower end of the nut is angled such that a space between the flank of the thread of the screw that is facing upwards and the flank of the thread in the nut facing downwards is formed. an elongated screw arranged substantially vertical in said elevator shaft, said screw comprising threads arranged around the peripheral surface a nut turnably arranged on the elongated screw , said nut is arranged to support the elevator platform, said nut comprises an upper end and a lower end and internal threads , corresponding to the threads on the screw, extending between the upper and lower end of the nut; and an electrical motor arranged to rotate the nut to move the nut, and the elevator platform, between the different levels along the screw, wherein the load from the elevator platform is supported by a flank of the thread in the nut that is facing downwards and a flank of the thread of the screw that is facing upwards, characterised in that said screw comprises at least two screw sections joined together and in that the threads are arranged around the peripheral surface along the at least two screw sections ; and in that a section (S) of the flank of the thread in the nut that is facing downwards in the upper and / or lower end of the nut is angled such that a space between the flank of the thread of the screw that is facing upwards and the flank of the thread in the nut facing downwards is formed.
An acrylic pressure-sensitive adhesive composition, comprising an acrylic polymer comprising, as monomer components: a) an alkyl (meth)acrylate having an alkyl group with 2 to 14 carbon atoms; b) at least one α,β-ethylenically unsaturated carboxylic acid monomer or α,β-ethylenically unsaturated carboxylic acid ester monomer other than component a); and c) an alkoxysilyl group-containing monomer; wherein the acrylic polymer has a weight-average molecular weight (M w ) of less than 1000 kDa, wherein the acrylic pressure-sensitive adhesive composition contains a tackifier in an amount of 0.2 wt.-% or less, based on the total weight of the acrylic polymer, and wherein the polydispersity index (PDI) of the acrylic polymer, defined as the ratio of the weight-average molecular weight (M w ) to the number-average molecular weight (M n ) of the acrylic polymer, is between 1.5 and 4.5, the weight-average molecular weight (M w ) and the number-average molecular weight (M n ) being measured by gel permeation chromatography (GPC). a) an alkyl (meth)acrylate having an alkyl group with 2 to 14 carbon atoms; b) at least one α,β-ethylenically unsaturated carboxylic acid monomer or α,β-ethylenically unsaturated carboxylic acid ester monomer other than component a); and c) an alkoxysilyl group-containing monomer; wherein the acrylic polymer has a weight-average molecular weight (M w ) of less than 1000 kDa, wherein the acrylic pressure-sensitive adhesive composition contains a tackifier in an amount of 0.2 wt.-% or less, based on the total weight of the acrylic polymer, and wherein the polydispersity index (PDI) of the acrylic polymer, defined as the ratio of the weight-average molecular weight (M w ) to the number-average molecular weight (M n ) of the acrylic polymer, is between 1.5 and 4.5, the weight-average molecular weight (M w ) and the number-average molecular weight (M n ) being measured by gel permeation chromatography (GPC).
Oral cosmetic use of a composition comprising a combination of active agents comprising: at least taurine, a compound chosen from 4-(2-hydroxyethyl)-1-piperazineethanesulfonic acid, N-acyltaurine, acetylhomotaurine, N,N-diacetylsalicyloxyethyltaurine, acylmethyltaurine, homo taurine and hypotaurine and/or an acceptable salt thereof, at least vitamin B8, a stereoisomer or a salt thereof at least vitamin C in a content of between 2% and 10% by weight, relative to the total weight of the composition, at least a grape extract, and zinc or a salt thereof, for increasing and/or maintaining the thickness of hair fibres and/or limiting the thinning of hair fibres. at least taurine, a compound chosen from 4-(2-hydroxyethyl)-1-piperazineethanesulfonic acid, N-acyltaurine, acetylhomotaurine, N,N-diacetylsalicyloxyethyltaurine, acylmethyltaurine, homo taurine and hypotaurine and/or an acceptable salt thereof, at least vitamin B8, a stereoisomer or a salt thereof at least vitamin C in a content of between 2% and 10% by weight, relative to the total weight of the composition, at least a grape extract, and zinc or a salt thereof, for increasing and/or maintaining the thickness of hair fibres and/or limiting the thinning of hair fibres.