mhurhangee/patent-ind-claim-en huggingface dataset:
A cosmetic composition comprising: at least two latex polymers, wherein at least one latex polymer is a film-forming polymer; at least one aminofunctional silicone chosen from amodimethicone/morpholinomethyl silsesquioxane copolymer, PEG-40/PPG-8 methylaminopropyl/hydroxypropyl dimethicone copolymer, trideceth-9 PG-amodimethicone, or mixtures thereof; at least one thickening agent chosen from optionally crosslinked and/or neutralized 2-acrylamido-2-methylpropanesulfonic acid polymers (AMPS) and copolymers, crosslinked anionic copolymers of acrylamide, crosslinked anionic copolymers of AMPS, emulsions of crosslinked anionic copolymers of acrylamide/nonionic surfactants, emulsions of AMPS/nonionic surfactants, or mixtures thereof; at least one nonionic surfactant chosen from glyceryl esters, fatty alcohols, alkoxylated alcohols and lanolin, alkylpolyglucosides, or mixtures thereof; and water; wherein the at least two latex polymers are present in a combined amount ranging from 0.1% to 30% by weight, particularly from 0.25% to 20% by weight, relative to the weight of the composition, and wherein the at least one aminofunctional silicone is present in an amount ranging from 0.25% to 3% by weight, relative to the total weight of the composition. at least two latex polymers, wherein at least one latex polymer is a film-forming polymer; at least one aminofunctional silicone chosen from amodimethicone/morpholinomethyl silsesquioxane copolymer, PEG-40/PPG-8 methylaminopropyl/hydroxypropyl dimethicone copolymer, trideceth-9 PG-amodimethicone, or mixtures thereof; at least one thickening agent chosen from optionally crosslinked and/or neutralized 2-acrylamido-2-methylpropanesulfonic acid polymers (AMPS) and copolymers, crosslinked anionic copolymers of acrylamide, crosslinked anionic copolymers of AMPS, emulsions of crosslinked anionic copolymers of acrylamide/nonionic surfactants, emulsions of AMPS/nonionic surfactants, or mixtures thereof; at least one nonionic surfactant chosen from glyceryl esters, fatty alcohols, alkoxylated alcohols and lanolin, alkylpolyglucosides, or mixtures thereof; and water; wherein the at least two latex polymers are present in a combined amount ranging from 0.1% to 30% by weight, particularly from 0.25% to 20% by weight, relative to the weight of the composition, and
Spunbonded fabric material which is at least partially formed by cercle-segmented multicomponent fibers having at least a first plastic component and a second plastic component , wherein a proportion of multicomponent fibers in which the circle segments are connected to one another at inner segment limits of the multicomponent fibers along their length extension (L) amounts to at least 70 %, preferably to at least 80 %, and wherein the spunbonded fabric material is electrostatically charged, wherein with a longitudinal proportion of the multicomponent fibers of at most 50 %, preferably at most 30 %, further preferably at most 20 %, the circle segments of the multicomponent fibers are split from one another, and wherein the first plastic component and the second plastic component consist of a polypropylene.
An agricultural vehicle suspension , comprising: a spring ; a first spindle operably coupled with the spring in a spindle axial direction; an adjustable stop body operably coupled to the first spindle in a stop body axial direction, the adjustable stop body configured to limit an axial length of travel of the suspension relative to the first spindle , wherein the agricultural vehicle suspension further comprises a stop bracket operably connected with the first spindle and in selectable contact with the stop body , characterized in that the adjustable stop body is a cylinder , the cylinder comprises a first portion and a second portion operably extendable with the first portion, wherein the second portion is configured to contact the stop bracket to reduce the axial length of travel of the suspension when in the extended position. a spring ; a first spindle operably coupled with the spring in a spindle axial direction; an adjustable stop body operably coupled to the first spindle in a stop body axial direction, the adjustable stop body configured to limit an axial length of travel of the suspension relative to the first spindle , wherein the agricultural vehicle suspension further comprises a stop bracket operably connected with the first spindle and in selectable contact with the stop body , characterized in that the adjustable stop body is a cylinder , the cylinder comprises a first portion and a second portion operably extendable with the first portion, wherein the second portion is configured to contact the stop bracket to reduce the axial length of travel of the suspension when in the extended position.
Vehicle wheel comprising a pneumatic vehicle tyre , the profiled tread of which goes over on both sides into sidewalls , the end of which is formed by a tyre bead , which is inserted in a rim of the vehicle wheel in an air-tight manner such that the pneumatic vehicle tyre together with the rim bounds an air cavity , which can be filled with compressed air and which has a sound-absorbing means , characterized in that the sound-absorbing means is an unstructured insulation blown into the air cavity and the sound-absorbing means , consisting of fibres, has an intrinsic adhesive force or is mixed or coated with an adhesive improving the bonding together of the fibres.
A method of performing an acoustofluidic operation, comprising the steps of: a. providing an acoustofluidic device comprising: - a substrate in which a microfluidic cavity is positioned, and - at least a first and a second ultrasound transducer , each provided in acoustic contact with the substrate for transferring ultrasonic vibrations to the substrate and causing the substrate to vibrate, wherein the first and the second ultrasound transducers each comprise a first electrode and a second electrode in contact with a piezoelectric or electrostrictive material , and wherein the first electrodes are in electric contact with each other, b. providing a fluid, such as a liquid or liquid suspension in the microfluidic cavity , c. applying a drive signal between the second electrodes of the first and second ultrasound transducers , wherein the drive signal has a frequency f that corresponds to an acoustic resonance peak of one or more of the substrate, the microfluidic cavity filled with a fluid, and the transducers , and d. letting the electrical potential of the first electrodes float. a. providing an acoustofluidic device comprising: - a substrate in which a microfluidic cavity is positioned, and - at least a first and a second ultrasound transducer , each provided in acoustic contact with the substrate for transferring ultrasonic vibrations to the substrate and causing the substrate to vibrate, wherein the first and the second ultrasound transducers each comprise a first electrode and a second electrode in contact with a piezoelectric or electrostrictive material , and wherein the first electrodes are in electric contact with each other, - a substrate in which a microfluidic cavity is positioned, and - at least a first and a second ultrasound transducer , each provided in acoustic contact with the substrate for transferring ultrasonic vibrations to the substrate and causing the substrate to vibrate, wherein the first and the second ultrasound transducers each comprise a first electrode and a second electrode in contact with a piezoelectric or electrostrictive material , and wherein the first electrodes are in electric contact with each other, b. providing a fluid, such as a liquid or liquid suspension in the microfluidic cavity , c. applying a drive signal between the second electrodes of the first and second ultrasound transducers , wherein the drive signal has a frequency f that corresponds to an acoustic resonance peak of one or more of the substrate, the microfluidic cavity filled with a fluid, and the transducers , and d. letting the electrical potential of the first electrodes float.
A tracking device for tracking the location of a moving object, comprising: a spine portion for carrying a payload ; an upright portion supporting the spine portion ; an arm portion between the upright portion and the spine portion , wherein the arm portion comprises a lateral member and one or more connector arms , wherein the arm portion is coupled to the upright portion by a single axis support comprising a pivoted connection and wherein the spine portion is supported by each connector arm a connector that allows the spine portion to rotate, the spine portion defining a second axis of rotation , wherein the second axis of rotation aligns with a longitudinal axis of the spine portion , and wherein a first axis of rotation is orthogonal to the second axis of rotation ; a first linear actuation assembly causing the payload to rotate about the first axis of rotation ; a second linear actuation assembly causing the payload to rotate about the second axis of rotation ; and a control module comprising a Global Positioning System and configured to determine a position of a moving object in the sky based on a position of the tracking device on a surface of the Earth, the local time of day and date, the control module further configured to operate the first and second linear actuation assemblies to direct the payload relative to the moving object. a spine portion for carrying a payload ; an upright portion supporting the spine portion ; an arm portion between the upright portion and the spine portion , wherein the arm portion comprises a lateral member and one or more connector arms , wherein the arm portion is coupled to the upright portion by a single axis support comprising a pivoted connection and wherein the spine portion is supported by each connector arm a connector that allows the spine portion to rotate, the spine portion defining a second axis of rotation , wherein the second axis of rotation aligns with a longitudinal axis of the spine portion , and wherein a first axis of rotation is orthogonal to the second axis of rotation ; a first linear actuation assembly causing the payload to rotate about the first axis of rotation ; a second linear actuation assembly causing the payload to rotate about the second axis of rotation ; and a control module comprising a Global Positioning System and configured to determine a position of a moving object in the sky based on a position of the tracking device on a surface of the Earth, the local time of day and date, the control module further configured to operate the first and second linear actuation assemblies to direct the payload relative to the moving object.
A guidance system for assisting with the insertion of a needle or other medical component into the body of a patient, wherein the guidance system utilizes imaging technology, the system comprising an imaging device including a probe for producing an image of an internal body portion target to be used in the imaging technology, the probe including one or more sensors , wherein the one or more sensors are configured to sense a detectable characteristic of the needle or the other medical component, the needle or other medical component comprising the detectable characteristic, and the detectable characteristic of the needle or other medical component being a magnetic field of at least one magnetic element of the needle or other medical component.
An apparatus for controlling a composite fabric having internal axial tows , comprising: a conveyor belt configured to engage the fabric substantially up to a composite component form, the conveyor belt including a nonslip portion directly engaging a first outer surface of the fabric; a diaphragm engaging and applying pressure on the fabric at a second outer surface of the fabric opposite the first outer surface; a vacuum coupled to the diaphragm and generating pressure between the diaphragm and the conveyor belt, wherein, upon displacement of the axial tows of the fabric relative to the first and second outer surfaces, the conveyor belt and the diaphragm substantially maintain original configurations of the first and second outer surfaces of the fabric engaged between the conveyor belt and the diaphragm. a conveyor belt configured to engage the fabric substantially up to a composite component form, the conveyor belt including a nonslip portion directly engaging a first outer surface of the fabric; a diaphragm engaging and applying pressure on the fabric at a second outer surface of the fabric opposite the first outer surface; a vacuum coupled to the diaphragm and generating pressure between the diaphragm and the conveyor belt, wherein, upon displacement of the axial tows of the fabric relative to the first and second outer surfaces, the conveyor belt and the diaphragm substantially maintain original configurations of the first and second outer surfaces of the fabric engaged between the conveyor belt and the diaphragm.
An apparatus comprising circuitry configured to generate a composite user equipment identifier (24; 28; 40), the composite user equipment identifier (24; 28; 40) comprising a first part and a second part , characterized in that the circuitry is further configured to derive the first part including user equipment related identification information , wherein the first part is derived from a variable part of an original user equipment identifier, and the circuitry is further configured to derive the second part including network related identification information , wherein the second part is derived from a variable part of a cell ID , a node ID or a network ID , wherein parts of the composite user equipment identifier (24; 28; 40) are applied for CRC masking. the circuitry is further configured to derive the first part including user equipment related identification information , wherein the first part is derived from a variable part of an original user equipment identifier, and the circuitry is further configured to derive the second part including network related identification information , wherein the second part is derived from a variable part of a cell ID , a node ID or a network ID , wherein parts of the composite user equipment identifier (24; 28; 40) are applied for CRC masking.
A system for inspecting railcar axles, comprising: a flash source configured to apply a thermal pulse toward a surface of a railcar axle of a railcar wheelset while the railcar wheelset is on a track ; an infrared camera configured to capture infrared data indicative of a thermal response of the surface of the railcar axle to the thermal pulse; a trigger sensor configured to trigger the flash source to apply the thermal pulse based on a position of the railcar wheelset on the track ; a processor configured to determine whether the captured infrared data is indicative of a crack on the surface of the railcar axle; and characterized in that a protective chamber encapsulates the flash source and the infrared camera , the protective chamber comprising an infrared transparent window through which the flash source is configured to apply the thermal pulse and the infrared camera is configured to capture the infrared data; a protective film configured to cover an exterior surface of the infrared transparent window ; and a pair of adjustable rollers configured to adjust which segment of the protective film covers the exterior surface of the infrared transparent window . a flash source configured to apply a thermal pulse toward a surface of a railcar axle of a railcar wheelset while the railcar wheelset is on a track ; an infrared camera configured to capture infrared data indicative of a thermal response of the surface of the railcar axle to the thermal pulse; a trigger sensor configured to trigger the flash source to apply the thermal pulse based on a position of the railcar wheelset on the track ; a processor configured to determine whether the captured infrared data is indicative of a crack on the surface of the railcar axle; and characterized in that a protective chamber encapsulates the flash source and the infrared camera , the protective chamber comprising an infrared transparent window through which the flash source is configured to apply the thermal pulse and the infrared camera is configured to capture the infrared data; a protective film configured to cover an exterior surface of the infrared transparent window ; and a pair of adjustable rollers configured to adjust which segment of the protective film covers the exterior surface of the infrared transparent window . an infrared transparent window through which the flash source is configured to apply the thermal pulse and the infrared camera is configured to capture the infrared data; a protective film configured to cover an exterior surface of the infrared transparent window ; and a pair of adjustable rollers configured to adjust which segment of the protective film covers the exterior surface of the infrared transparent window .
A molecule, comprising a cyanine scaffolded Pt(II) complex having the formula of wherein X and Y are the same or different and are an unsubstituted amine or substituted amine group, R1 and R2 are the same or different and are selected from the group consisting of H, OH, SH, amine, alkyl, alkoxyl, halogen, alkenyl, alkynyl, aryl, cyano, nitro and Z is a heptamethine or pentamethine cyanine dye moiety, whereby Z is linked to the meso carbon of the heptamethine or pentamethine cyanine dye moiety. wherein X and Y are the same or different and are an unsubstituted amine or substituted amine group, R1 and R2 are the same or different and are selected from the group consisting of H, OH, SH, amine, alkyl, alkoxyl, halogen, alkenyl, alkynyl, aryl, cyano, nitro and Z is a heptamethine or pentamethine cyanine dye moiety, whereby Z is linked to the meso carbon of the heptamethine or pentamethine cyanine dye moiety.
A charging stand for headphones, the charging stand comprising: a cradle having a cradling portion on which the headphones are cradled, a flat surface portion provided at a side of the cradling portion , and a charging terminal provided at the flat surface portion ; and a charging cable having a holder and a connection pin , the holder being provided with a seat depression which is configured to hold a headband portion of the headphones , a supported portion formed at a side of the seat depression and configured to be placed on the flat surface portion , a connection terminal provided at the supported portion and configured to come into contact with the charging terminal , and a clamper elastically holding an inner surface of the headband portion when the headband portion is placed below the seat depression , and the connection pin being electrically connected to the connection terminal and electrically connectable to a charging port of the headphones . a cradle having a cradling portion on which the headphones are cradled, a flat surface portion provided at a side of the cradling portion , and a charging terminal provided at the flat surface portion ; and a charging cable having a holder and a connection pin , the holder being provided with a seat depression which is configured to hold a headband portion of the headphones , a supported portion formed at a side of the seat depression and configured to be placed on the flat surface portion , a connection terminal provided at the supported portion and configured to come into contact with the charging terminal , and a clamper elastically holding an inner surface of the headband portion when the headband portion is placed below the seat depression , and the connection pin being electrically connected to the connection terminal and electrically connectable to a charging port of the headphones .
A hydroxymethylphosphonate, wherein the hydroxymethylphosphonate has an acidity of less than 10 mg KOH/g and less than 0.5 weight percent of water.
A network function NF management method, comprising: receiving , an NF discovery request from a first NF component, wherein the NF discovery request comprises an identifier of a second NF and an identifier of an expected network slice; obtaining , an identifier of a second NF component, wherein the second NF component supports the second NF and is located in the expected network slice; and sending , the identifier of the second NF component, to the first NF component. receiving , an NF discovery request from a first NF component, wherein the NF discovery request comprises an identifier of a second NF and an identifier of an expected network slice; obtaining , an identifier of a second NF component, wherein the second NF component supports the second NF and is located in the expected network slice; and sending , the identifier of the second NF component, to the first NF component.
A method for controlling the operation of a refrigeration system , the refrigeration system comprising one or more compressors , one or more condensers, and one or more refrigeration entities , each refrigeration entity comprising one or more evaporators , an expansion device arranged to provide a flow of refrigerant into the one or more evaporators , an entity controller for controlling the expansion device, and a refrigerated volume for storing refrigerated goods, the refrigeration system further comprising a compressor controller for controlling operation of the compressor(s) , the method comprising the steps of: - defining a setpoint value for a compressor control parameter, said compressor control parameter at least contributing to controlling, by means of the compressor controller, a cooling capacity provided by the compressor(s) , - measuring a value of the compressor control parameter, and the compressor controller controlling the compressor(s) on the basis of the value of the compressor control parameter and the defined setpoint value for the compressor control parameter, characterised in that the method further comprises the step of: - each entity controller obtaining a measure for an error value between the measured value of the compressor control parameter and the defined setpoint value for the compressor control parameter, and - each entity controller adjusting a refrigeration load of the corresponding refrigeration entity to correspond to a cooling capacity of the compressor(s) , and in accordance with the obtained measure for an error value. - defining a setpoint value for a compressor control parameter, said compressor control parameter at least contributing to controlling, by means of the compressor controller, a cooling capacity provided by the compressor(s) , - measuring a value of the compressor control parameter, and the compressor controller controlling the compressor(s) on the basis of the value of the compressor control parameter and the defined setpoint value for the compressor control parameter, - each entity controller obtaining a measure for an error value between the measured value of the compressor control parameter and the defined setpoint value for the compressor control parameter, and - each entity controller adjusting a refrigeration load of the corresponding refrigeration entity to correspond to a cooling capacity of the compressor(s) , and in accordance with the obtained measure for an error value.