mhurhangee/patent-ind-claim-en huggingface dataset:
A blood guidance device for cooperating with a blood treatment device comprising: - a main blood line for fluidic connection to a dialyzer and for fluidic connection to a blood treatment element downstream from the dialyzer , wherein the main blood line has at one end a blood withdrawal port for connection to a blood withdrawal access of a patient and at the other end has a blood return port for connection to a blood return access of the patient; - at least one secondary line , which branches off from the main blood line at a first branch and recombines with the main blood line at a second branch ; and - one or more pump configuration sections , designed for action of the pump configuration on the blood treatment device , characterized in that the blood guidance device comprises a second secondary line , which branches off from the main blood line at a recirculation branch and opens into a recirculation return port , wherein the first branch is disposed upstream from the connection point for the dialyzer , and wherein the second branch is disposed downstream from the connection point for the dialyzer and upstream from the connection point for the blood treatment element , and wherein the recirculation branch is disposed downstream from the connection point for the blood treatment element , and wherein the recirculation return port is disposed in the main blood line upstream from the connection point for the blood treatment element and downstream from the connection point for the dialyzer , or wherein the recirculation return port is disposed in the first secondary line upstream from the second branch . - a main blood line for fluidic connection to a dialyzer and for fluidic connection to a blood treatment element downstream from the dialyzer , wherein the main blood line has at one end a blood withdrawal port for connection to a blood withdrawal access of a patient and at the other end has a blood return port for connection to a blood return access of the patient; - at least one secondary line , which branches off from the main blood line at a first branch and recombines with the main blood line at a second branch ; and - one or more pump configuration sections , designed for action of the pump configuration on the blood treatment device , the blood guidance device comprises a second secondary line , which branches off from the main blood line at a recirculation branch and opens into a recirculation return port , wherein the first branch is disposed upstream from the connection point for the dialyzer , and wherein the second branch is disposed downstream from the connection point for the dialyzer and upstream from the connection point for the blood treatment element , and wherein the recirculation branch is disposed downstream from the connection point for the blood treatment element , and wherein the recirculation return port is disposed in the main blood line upstream from the connection point for the blood treatment element and downstream from the connection point for the dialyzer , or wherein the recirculation return port is disposed in the first secondary line upstream from the second branch .
A filter element , comprising: a tubular element ; first and second end caps , each associated with an opposite end of the tubular element ; filter media positioned around the tubular element and between the first and second end caps; a biasing element associated with the tubular element ; and a retainer element positioned at a first end of the tubular element , wherein the retainer element includes: a retainer aperture including a central circular portion and two opposite lateral slots extending from opposite sides of the central circular portion ; two arcuate shoulder segments extending between opposite sides of the two opposite lateral slots ; characterized by a full tab extending a first axial distance from a bottom surface of one of the two arcuate shoulder segments at a circumferential position midway between the two opposite lateral slots ; and a partial tab extending a second axial distance less than the first axial distance from a bottom surface of the other of the two arcuate shoulder segments at a circumferential position on an opposite side of the lateral slots from the full tab . a tubular element ; first and second end caps , each associated with an opposite end of the tubular element ; filter media positioned around the tubular element and between the first and second end caps; a biasing element associated with the tubular element ; and a retainer element positioned at a first end of the tubular element , wherein the retainer element includes: a retainer aperture including a central circular portion and two opposite lateral slots extending from opposite sides of the central circular portion ; two arcuate shoulder segments extending between opposite sides of the two opposite lateral slots ; characterized by a full tab extending a first axial distance from a bottom surface of one of the two arcuate shoulder segments at a circumferential position midway between the two opposite lateral slots ; and a partial tab extending a second axial distance less than the first axial distance from a bottom surface of the other of the two arcuate shoulder segments at a circumferential position on an opposite side of the lateral slots from the full tab . a retainer aperture including a central circular portion and two opposite lateral slots extending from opposite sides of the central circular portion ; two arcuate shoulder segments extending between opposite sides of the two opposite lateral slots ; characterized by a full tab extending a first axial distance from a bottom surface of one of the two arcuate shoulder segments at a circumferential position midway between the two opposite lateral slots ; and a partial tab extending a second axial distance less than the first axial distance from a bottom surface of the other of the two arcuate shoulder segments at a circumferential position on an opposite side of the lateral slots from the full tab .
Filter module for the filtration of a biotechnological liquid (L), having a. a filter housing , b. a filter arranged in the filter housing with a bundle of hollow fibres , wherein the fibre wall forms the filter membrane, c. a centrifugal pump rotor arranged in the filter housing such that it is fluidically connected to the interior of the hollow fibres , wherein the centrifugal pump rotor is able to be magnetically driven such that it can force a liquid (L) through the hollow fibres , d. a first port for the supply of a biotechnological liquid (L) to be filtered, which first port is fluidically connected to the interior of the hollow fibres of the filter, e. a second port for the removal of a biotechnological liquid (L) to be filtered, which second port is fluidically connected to the interior of the hollow fibres of the filter, f. a third port for the removal of precipitated waste liquid, which third port is fluidically connected to the exterior of the hollow fibres . a. a filter housing , b. a filter arranged in the filter housing with a bundle of hollow fibres , wherein the fibre wall forms the filter membrane, c. a centrifugal pump rotor arranged in the filter housing such that it is fluidically connected to the interior of the hollow fibres , wherein the centrifugal pump rotor is able to be magnetically driven such that it can force a liquid (L) through the hollow fibres , d. a first port for the supply of a biotechnological liquid (L) to be filtered, which first port is fluidically connected to the interior of the hollow fibres of the filter, e. a second port for the removal of a biotechnological liquid (L) to be filtered, which second port is fluidically connected to the interior of the hollow fibres of the filter, f. a third port for the removal of precipitated waste liquid, which third port is fluidically connected to the exterior of the hollow fibres .
A method for managing output flicker of a wind farm connected to a power grid, the wind farm comprising a plurality of wind turbines , the method comprising: detecting, with a controller , at least one parameter of the wind farm indicative of output flicker resulting from a synchronized flicker from at least two wind turbines of the plurality of wind turbines ; upon detecting the at least one parameter, generating a command offset for at least one wind turbine of the at least two wind turbines , generating the command offset comprising generating a random biasing value ; and changing an operating parameter of the at least one wind turbine based on the command offset so as to de-synchronize the synchronized flicker in output signals of the at least two wind turbines , wherein the random biasing value is introduced into a speed feedback loop of a turbine controller to develop a variable rotor speed for the at least one wind turbine . detecting, with a controller , at least one parameter of the wind farm indicative of output flicker resulting from a synchronized flicker from at least two wind turbines of the plurality of wind turbines ; upon detecting the at least one parameter, generating a command offset for at least one wind turbine of the at least two wind turbines , generating the command offset comprising generating a random biasing value ; and changing an operating parameter of the at least one wind turbine based on the command offset so as to de-synchronize the synchronized flicker in output signals of the at least two wind turbines , wherein the random biasing value is introduced into a speed feedback loop of a turbine controller to develop a variable rotor speed for the at least one wind turbine .
A particle comprising an inorganic matrix material; a first light-emitting material; and a second light-emitting material, wherein the first light-emitting material is a light-emitting polymer and wherein the first light-emitting material has one of a net positive and net negative ionic charge, and the second light-emitting material has the other of net positive or net negative ionic charge.
An inkjet printing apparatus capable of performing a printing operation to eject ink from an ejection port provided for a print head to a print medium while covering the ejection port with a capping portion in a standby state in which the printing operation is not performed, the apparatus comprising: a humidifying unit configured to perform a humidification operation to humidify a space (CS) formed between the capping portion and the print head in the standby state, the humidifying unit being the print head ; and a control unit configured to cause the humidifying unit to perform the humidification operation on the space in the standby state, characterized in that the control unit is configured to cause the humidity unit to perform a humidification operation with a predetermined interval between a preceding humidification ejection and a subsequent humidification ejection following the preceding humidification ejection, the predetermined interval being set based on at least one type of information in information on a time in which the print head is separated from the capping portion , an ambient temperature and an ambient humidity in the inkjet printing apparatus at a time when the space is formed by the capping portion and the print head , an amount of a liquid accumulated in the capping portion , a time in which the humidification operation is performed, and a duration of the standby state, and suspends the humidification operation when a predetermined period of time has passed since the space (CS) was formed. a humidifying unit configured to perform a humidification operation to humidify a space (CS) formed between the capping portion and the print head in the standby state, the humidifying unit being the print head ; and a control unit configured to cause the humidifying unit to perform the humidification operation on the space in the standby state, characterized in that the control unit is configured to cause the humidity unit to perform a humidification operation with a predetermined interval between a preceding humidification ejection and a subsequent humidification ejection following the preceding humidification ejection, the predetermined interval being set based on at least one type of information in information on a time in which the print head is separated from the capping portion , an ambient temperature and an ambient humidity in the inkjet printing apparatus at a time when the space is formed by the capping portion and the print head , an amount of a liquid accumulated in the capping portion , a time in which the humidification operation is performed, and a duration of the standby state, and suspends the humidification operation when a predetermined period of time has passed since the space (CS) was formed.
Gutter system having at least one frame unit , at least one cover unit and at least one first damping element , wherein the frame unit has at least one receiving region for the arrangement of the cover unit , wherein the receiving region of the frame unit is formed by at least three side walls (12.1; 12.2; 12.3; 12.4; 12. 5), wherein the first damping element is provided between the frame unit and the cover unit in such a way that the cover unit is accommodated in the frame unit in a damping manner in at least three spatial directions, characterized in that the cover unit is designed in combination with at least one movably designed securing element , so that the movable securing element can be moved for at least temporary engagement in the receiving region of the frame unit .
A confocal displacement sensor that is configured to measure displacement of a measurement object (S) using a confocal optical system, the confocal displacement sensor comprising: a light projecting section configured to emit light having a plurality of wavelengths; an optical member configured to cause a chromatic aberration along an optical axis direction in the light emitted by the light projecting section , converge the light having the chromatic aberration, and irradiate the light on the measurement object (S); a pinhole member (313 to 316, 373) including a plurality of pinholes that allow, in the light irradiated on the measurement object (S) by the optical member , light having a wavelength reflected while focusing on a surface of the measurement object (S) to pass; characterised by a displacement measuring section configured to calculate the displacement of the measurement object (S) on the basis of signal intensity for each wavelength of an average signal corresponding to an average of intensities for the each wavelength concerning a plurality of lights passed through the plurality of pinholes. a light projecting section configured to emit light having a plurality of wavelengths; an optical member configured to cause a chromatic aberration along an optical axis direction in the light emitted by the light projecting section , converge the light having the chromatic aberration, and irradiate the light on the measurement object (S); a pinhole member (313 to 316, 373) including a plurality of pinholes that allow, in the light irradiated on the measurement object (S) by the optical member , light having a wavelength reflected while focusing on a surface of the measurement object (S) to pass;
A lighting device , including: - a light-reflective planar substrate with at least one electrically-powered light radiation source thereon, - a light-reflective cover layer arranged facing the planar substrate , - a light-permeable support structure arranged between the planar substrate and the cover layer , the support structure including opposite end walls extending between the planar substrate and the cover layer , the end walls providing light emission surfaces of light from at least one light radiation source , wherein the device includes a mushroom-like shape with the planar substrate wider than the support structure and the cover layer , and characterized in that the device includes an outer light-permeable casing including at least one cavity having an edge with the support structure and the cover layer inserted in the cavity and the planar substrate abutting against the edge of the cavity . - a light-reflective planar substrate with at least one electrically-powered light radiation source thereon, - a light-reflective cover layer arranged facing the planar substrate , - a light-permeable support structure arranged between the planar substrate and the cover layer , the support structure including opposite end walls extending between the planar substrate and the cover layer , the end walls providing light emission surfaces of light from at least one light radiation source , wherein the device includes a mushroom-like shape with the planar substrate wider than the support structure and the cover layer , and
A base station apparatus configured to perform measurement gap configuration, the base station apparatus comprising: baseband circuitry configured to decode uplink data with an initial communication from a user device , wherein the initial communication comprises capabilities of the user device ; and to determine, based on an indication of a capability to support new radio frequency layers and Long Technology Evolution, LTE, frequency layers from the capabilities for the user device , a measurement gap configuration for the new radio frequency layers and for the LTE frequency layers, wherein the measurement gap configuration comprises a single measurement gap for both the new radio frequency layers for the user device and the LTE frequency layers for the user device ; and an interface configured to send a frame comprising the measurement gap configuration to the user device . baseband circuitry configured to decode uplink data with an initial communication from a user device , wherein the initial communication comprises capabilities of the user device ; and to determine, based on an indication of a capability to support new radio frequency layers and Long Technology Evolution, LTE, frequency layers from the capabilities for the user device , a measurement gap configuration for the new radio frequency layers and for the LTE frequency layers, wherein the measurement gap configuration comprises a single measurement gap for both the new radio frequency layers for the user device and the LTE frequency layers for the user device ; and an interface configured to send a frame comprising the measurement gap configuration to the user device .
Adduct of general formula (I) TPP x TPOP (1-x) (I) wherein - TPP designates triphenylphosphine; - TPOP designates triphenyl phosphite; and - x is a real number comprised between 0.05 and 0.9. - TPP designates triphenylphosphine; - TPOP designates triphenyl phosphite; and - x is a real number comprised between 0.05 and 0.9.
A method for making a multilayer device, comprising (a) providing an inorganic solid support and an organic solid support , wherein the inorganic solid support comprises a rigid structure; (b) providing a radiation-absorbing material , wherein the radiation-absorbing material is not a metal; (c) contacting the inorganic solid support , the organic solid support and the radiation-absorbing material in a configuration wherein the radiation-absorbing material is present at an interface between the inorganic solid support and the organic solid support ; and (d) applying compression at the interface and irradiating the radiation-absorbing material with the radiation to form a bonding layer between the inorganic solid support and the organic solid support ,. wherein the multilayer device comprises a fluidic device having a channel formed by attachment of the inorganic solid support to the organic solid support and characterized in that the organic solid support has a rigid structure and the irradiating softens the inorganic support or the organic solid support to create contact at the interface (a) providing an inorganic solid support and an organic solid support , wherein the inorganic solid support comprises a rigid structure; (b) providing a radiation-absorbing material , wherein the radiation-absorbing material is not a metal; (c) contacting the inorganic solid support , the organic solid support and the radiation-absorbing material in a configuration wherein the radiation-absorbing material is present at an interface between the inorganic solid support and the organic solid support ; and (d) applying compression at the interface and irradiating the radiation-absorbing material with the radiation to form a bonding layer between the inorganic solid support and the organic solid support ,.
Method for distance error correction applied to an uncorrected distance measured between a primary sensor unit , in particular embodied as a tachymeter, and a reflector , in particular embodied as a 360° prism, in a primary sensor unit coordinate system using measurement light emitted by the primary sensor unit towards the reflector , the measurement light traveling along a line of sight to the reflector, wherein the method comprises: • providing an orientation and position of a reflector coordinate system with respect to the primary sensor unit coordinate system, and providing a coordinate transform between the reflector coordinate system and the primary sensor unit coordinate system, and • providing at least one angle of incidence of the measurement light used for obtaining the uncorrected distance in the reflector coordinate system, the at least one angle of incidence being determined based on the line of sight between the primary sensor unit and the reflector and on the reflector coordinate system, characterized by • determining a distance error in the reflector coordinate system using a calibrated distance error function with at least the at least one angle of incidence being provided as input to the calibrated distance error function, • determining a distance error in the primary sensor unit coordinate system using the coordinate transform and the distance error in the reflector coordinate system, and • correcting the uncorrected distance between the primary sensor unit and the reflector using the distance error in the primary sensor unit coordinate system. • providing an orientation and position of a reflector coordinate system with respect to the primary sensor unit coordinate system, and providing a coordinate transform between the reflector coordinate system and the primary sensor unit coordinate system, and • providing at least one angle of incidence of the measurement light used for obtaining the uncorrected distance in the reflector coordinate system, the at least one angle of incidence being determined based on the line of sight between the primary sensor unit and the reflector and on the reflector coordinate system, • determining a distance error in the reflector coordinate system using a calibrated distance error function with at least the at least one angle of incidence being provided as input to the calibrated distance error function, • determining a distance error in the primary sensor unit coordinate system using the coordinate transform and the distance error in the reflector coordinate system, and • correcting the uncorrected distance between the primary sensor unit and the reflector using the distance error in the primary sensor unit coordinate system.