mhurhangee/patent-ind-claim-en huggingface dataset:
A method for culturing a population of sample organisms comprising: • providing a population of sample organisms in a fluid culture medium within at least one inlet reservoir; • applying at least one pulse pressure to at least one reservoir so that the fluid culture medium and at least one sample organism pass from at least one inlet reservoir to at least one culture chamber through the at least one passive inlet valve ; and • culturing the sample organisms by applying a pressure to at least one reservoir such that only the fluid culture medium pass through the passive inlet valve(s) from at least one inlet reservoir to all the device elements in fluidic connection among them. • providing a population of sample organisms in a fluid culture medium within at least one inlet reservoir; • applying at least one pulse pressure to at least one reservoir so that the fluid culture medium and at least one sample organism pass from at least one inlet reservoir to at least one culture chamber through the at least one passive inlet valve ; and • culturing the sample organisms by applying a pressure to at least one reservoir such that only the fluid culture medium pass through the passive inlet valve(s) from at least one inlet reservoir to all the device elements in fluidic connection among them.
A method for preparing a resin composition, the method comprising: preparing a first blend of aqueous colloidal silica and a solvent selected from glycols and glycol ethers; adding a bi-functional silane coupling agent to the first blend to form a second blend; adding tetraethylorthosilicate to the second blend over a period of time to hydrolyze the tetraethylorthosilicate to form a third blend of a second silanol, the first silanol, and the colloidal silica; and adding a fourth blend to the third blend to form a fifth blend, the fourth blend comprising a UV absorber in the solvent. preparing a first blend of aqueous colloidal silica and a solvent selected from glycols and glycol ethers; adding a bi-functional silane coupling agent to the first blend to form a second blend; adding tetraethylorthosilicate to the second blend over a period of time to hydrolyze the tetraethylorthosilicate to form a third blend of a second silanol, the first silanol, and the colloidal silica; and adding a fourth blend to the third blend to form a fifth blend, the fourth blend comprising a UV absorber in the solvent.
Aqueous sizing composition for glass fibres, in the form of a physical gel, presenting a solids content (dry extract) varying from 5% to 10% and comprising (in % by weight): - 0.15% to 2% of at least one texturising agent selected from among the xanthans and succinoglycans, - 2% to 8% of at least one film-forming agent selected from among the polyvinyl acetates, polyesters, polyethers, epoxies, polyacrylics and polyurethanes, - 0.1% to 8% of at least one component selected from the group made up of plasticising agents, surfactants and dispersing agents, - 0.1% to 4% of at least one coupling agent selected from among the hydrolysable compounds of the group made up of silanes, titanates and zirconates, - 0% to 6% of at least one additive. - 0.15% to 2% of at least one texturising agent selected from among the xanthans and succinoglycans, - 2% to 8% of at least one film-forming agent selected from among the polyvinyl acetates, polyesters, polyethers, epoxies, polyacrylics and polyurethanes, - 0.1% to 8% of at least one component selected from the group made up of plasticising agents, surfactants and dispersing agents, - 0.1% to 4% of at least one coupling agent selected from among the hydrolysable compounds of the group made up of silanes, titanates and zirconates, - 0% to 6% of at least one additive.
A plate handling system for transporting a photopolymer printing plate between workstations in a process workflow, the plate handling system comprising: a plurality of vacuum gripper end effectors mounted to a computer controlled transporter and configured to grip the printing plate on the upper surface of the printing plate, the transporter configured to translate in at least three orthogonal directions and to rotate about at least one rotational axis; at least one sensor for detecting orientation of the plate relative to at least one staging location in the process workflow; and a controller connected to the transporter and the at least one sensor and configured to cause the transporter to move based upon programmed instructions in accordance with information provided by the sensor, wherein the plate handling system is configured to detect, with the sensor, a first position of the plate relative to the staging location, calculate movements required to place the plate in a preferred position relative to the staging location, and cause the transporter to perform the calculated movements. a plurality of vacuum gripper end effectors mounted to a computer controlled transporter and configured to grip the printing plate on the upper surface of the printing plate, the transporter configured to translate in at least three orthogonal directions and to rotate about at least one rotational axis; at least one sensor for detecting orientation of the plate relative to at least one staging location in the process workflow; and a controller connected to the transporter and the at least one sensor and configured to cause the transporter to move based upon programmed instructions in accordance with information provided by the sensor, wherein the plate handling system is configured to detect, with the sensor, a first position of the plate relative to the staging location, calculate movements required to place the plate in a preferred position relative to the staging location, and cause the transporter to perform the calculated movements.
Agricultural seeding machine having a main frame , a frame element which is arranged on the main frame and supports a loading board , a plurality of sowing coulter units which are articulated on the main frame via holding elements for the spreading of seeds to be distributed, and having a covering and/or pressing apparatus which comprises at least one carrying beam which is arranged transversely with respect to the driving direction (F), is fastened to at least one carrying arm which protrudes to the front in the driving direction (F) and is fastened in the front region in an articulated manner, and on which carrying beam a plurality of covering and/or pressing elements are arranged transversely with respect to the driving direction (F), characterized in that , by means of a central setting element , the covering and/or pressing apparatus is lifted out, lowered and/or loaded with a pressure against the soil, the covering and/or pressing apparatus comprising a crossmember which is arranged mounted on the main frame such that it can be rotated about an axis which runs horizontally transversely with respect to the driving direction (F), and the at least one carrying arm being fastened in its front region to the crossmember via spring elements .
A method for determining a stress level of a user based on a sympathovagal balance, SVB, value calculated from a set of measurement data, comprising: receiving, by a health monitoring system , the set of measurement data from a sensor of the health monitoring system , generating, by the health monitoring system , a histogram of autonomic nervous system, ANS, activity markers from the set of measurement data; determining, by the health monitoring system , a user-specific baseline SVB value of the user based on at least on user-specific baseline data; dividing, by the health monitoring system , the histogram into a first portion and a second portion based on the user-specific baseline SVB value; determining, by the health monitoring system , a first number of ANS activity markers within the first portion of the histogram and a second number of ANS activity markers in the second portion of the histogram; determining, by the health monitoring system , a heart-rate variability, HRV, characteristic based on a ratio of the first number to the second number determining, by the health monitoring system , the stress level of the user based on the HRV characteristic; and displaying, on a display of the health monitoring system , a stress-related notification based on the stress level of the user. receiving, by a health monitoring system , the set of measurement data from a sensor of the health monitoring system , generating, by the health monitoring system , a histogram of autonomic nervous system, ANS, activity markers from the set of measurement data; determining, by the health monitoring system , a user-specific baseline SVB value of the user based on at least on user-specific baseline data; dividing, by the health monitoring system , the histogram into a first portion and a second portion based on the user-specific baseline SVB value; determining, by the health monitoring system , a first number of ANS activity markers within the first portion of the histogram and a second number of ANS activity markers in the second portion of the histogram; determining, by the health monitoring system , a heart-rate variability, HRV, characteristic based on a ratio of the first number to the second number determining, by the health monitoring system , the stress level of the user based on the HRV characteristic; and displaying, on a display of the health monitoring system , a stress-related notification based on the stress level of the user.
A method for staging and/or typing of a cancerous disease, said method comprising the following steps: (a) detecting somatic alterations of the DNA of one or more disseminated cancer cell(s) (DCC(s)) obtained from one or more lymph node(s); and (b) determining the somatic evolution of the DCC(s), based on the detected somatic alteration(s) in step (a), wherein the somatic evolution of the DCC(s) is indicative of the stage/type of the cancerous disease and wherein the cancerous disease is a melanoma. (a) detecting somatic alterations of the DNA of one or more disseminated cancer cell(s) (DCC(s)) obtained from one or more lymph node(s); and (b) determining the somatic evolution of the DCC(s), based on the detected somatic alteration(s) in step (a),
A method for producing a carbonised monolith structure from a first component which comprises mesoporous particles of a fully cured phenolic novolak resin comprising between 15 and 25 pbw HMTA per 100 pbw novolac and 10-40% by weight of a second component which comprises water-insoluble powdered lignin, said method comprising: mixing the first and second components; producing an uncarbonised monolith structure from the mixture by extrusion; and forming from the uncarbonized monolith structure the carbonised monolith structure comprising carbonised particles bound with carbonised lignin, wherein the carbonised particles exhibiting both mesoporosity and macroporosity are dispersed in a matrix of microporous particles with voids between the particles defining paths for fluid to flow into and through the structure; microporosity referring to a material possessing pores with diameter <2 nm, as measured by nitrogen adsorption methods and as defined by IUPAC, mesoporosity referring to a material possessing pores with diameter from ca. 2 nm to ca. 50 nm, as measured by nitrogen adsorption and mercury porosimetry methods and as defined by IUPAC, and macroporosity referring to a material possessing pores with diameters larger than 50 nm as measured by mercury porosimetry methods and as defined by IUPAC. mixing the first and second components; producing an uncarbonised monolith structure from the mixture by extrusion; and forming from the uncarbonized monolith structure the carbonised monolith structure comprising carbonised particles bound with carbonised lignin, wherein the carbonised particles exhibiting both mesoporosity and macroporosity are dispersed in a matrix of microporous particles with voids between the particles defining paths for fluid to flow into and through the structure; microporosity referring to a material possessing pores with diameter <2 nm, as measured by nitrogen adsorption methods and as defined by IUPAC, mesoporosity referring to a material possessing pores with diameter from ca. 2 nm to ca. 50 nm, as measured by nitrogen adsorption and mercury porosimetry methods and as defined by IUPAC, and macroporosity referring to a material possessing pores with diameters larger than 50 nm as measured by mercury porosimetry methods and as defined by IUPAC.
Hand-held machine tool comprising: a tool holder for holding a tool on a working axis , a striking mechanism having a striker which is periodically moved back and forth on the working axis , a machine housing in which the striking mechanism is fastened, a handle which is fastened to the machine housing by means of a damper , the damper having a machine-side surface which is connected to the machine housing and a handle-side surface which is connected to the handle , and a block made of a porous elastomer being arranged so as to rest against the machine-side surface and the handle-side surface , characterized in that an air-filled cavity is provided within the block between the machine-side surface and the handle-side surface , the cavity being closed along the working axis . a tool holder for holding a tool on a working axis , a striking mechanism having a striker which is periodically moved back and forth on the working axis , a machine housing in which the striking mechanism is fastened, a handle which is fastened to the machine housing by means of a damper , the damper having a machine-side surface which is connected to the machine housing and a handle-side surface which is connected to the handle , and a block made of a porous elastomer being arranged so as to rest against the machine-side surface and the handle-side surface , characterized in that an air-filled cavity is provided within the block between the machine-side surface and the handle-side surface , the cavity being closed along the working axis .
A stented valve comprising: a stent structure comprising a generally tubular body portion having an interior area, a longitudinal axis, and a plurality of longitudinally extending wires in a generally cylindrical central region of the stent structure , wherein the plurality of wires includes three commissure wires spaced at a first distance from the longitudinal axis and at least one structural wire positioned between each two adjacent commissure wires , wherein the structural wires are spaced at a second distance from the longitudinal axis, wherein the first distance is smaller than the second distance, and wherein a wire structure extends between one end of the plurality of wires and a first end of the stent structure and additional wire structure extends between the other end of the plurality of wires and a second end of the stent structure ; and a valve structure comprising three leaflets, wherein each leaflet comprises a first end, a second end, and a free edge extending between the first and second ends; wherein a first end of each leaflet is attached to a commissure wire in the central stent region and a second end of each leaflet is attached to an adjacent commissure wire in the central stent region so that the free edge of each leaflet does not contact the structural wires in the central stent region when the valve is in an open position. a stent structure comprising a generally tubular body portion having an interior area, a longitudinal axis, and a plurality of longitudinally extending wires in a generally cylindrical central region of the stent structure , wherein the plurality of wires includes three commissure wires spaced at a first distance from the longitudinal axis and at least one structural wire positioned between each two adjacent commissure wires , wherein the structural wires are spaced at a second distance from the longitudinal axis, wherein the first distance is smaller than the second distance, and wherein a wire structure extends between one end of the plurality of wires and a first end of the stent structure and additional wire structure extends between the other end of the plurality of wires and a second end of the stent structure ; and a valve structure comprising three leaflets, wherein each leaflet comprises a first end, a second end, and a free edge extending between the first and second ends; wherein a first end of each leaflet is attached to a commissure wire in the central stent region and a second end of each leaflet is attached to an adjacent commissure wire in the central stent region so that the free edge of each leaflet does not contact the structural wires in the central stent region when the valve is in an open position.
An engine controller , comprising: a fuel injection corrector configured to perform a cylinder-by-cylinder correction of a fuel injection amount so as to cause differences among air-fuel ratios of air-fuel mixture burned in a plurality of cylinders (#1 to #4), wherein in a case in which the cylinder-by-cylinder correction of the fuel injection amount results in a cylinder in which combustion is performed at an air-fuel ratio richer than an output air-fuel ratio, the output air-fuel ratio being an air-fuel ratio at which combustion torque is maximized, the fuel injection corrector is configured to perform a cylinder-by-cylinder correction of ignition timing such that the ignition timing of the cylinder in which combustion is performed at the air-fuel ratio richer than the output air-fuel ratio becomes more advanced than the ignition timing of other cylinders. a fuel injection corrector configured to perform a cylinder-by-cylinder correction of a fuel injection amount so as to cause differences among air-fuel ratios of air-fuel mixture burned in a plurality of cylinders (#1 to #4), wherein in a case in which the cylinder-by-cylinder correction of the fuel injection amount results in a cylinder in which combustion is performed at an air-fuel ratio richer than an output air-fuel ratio, the output air-fuel ratio being an air-fuel ratio at which combustion torque is maximized, the fuel injection corrector is configured to perform a cylinder-by-cylinder correction of ignition timing such that the ignition timing of the cylinder in which combustion is performed at the air-fuel ratio richer than the output air-fuel ratio becomes more advanced than the ignition timing of other cylinders.
A method for identifying a pseudo base station, comprising: receiving , by a terminal device, a third measurement configuration sent by a network device, and reporting cell identification information of a first cell and/or a HASH value of system broadcast information of the first cell to the network device based on the third measurement configuration; wherein the cell identification information and/or the HASH value of the system broadcast information are/is used for the network device to determine whether the first cell is a pseudo base station cell; wherein the method is characterized in that the third measurement configuration further comprises a first bitmap, wherein the first bitmap comprises a plurality of bits, different bits of the plurality of bits correspond to different pieces of system broadcast information, and values of the bits are used for indicating whether to report HASH values of pieces of system broadcast information corresponding to the bits. receiving , by a terminal device, a third measurement configuration sent by a network device, and reporting cell identification information of a first cell and/or a HASH value of system broadcast information of the first cell to the network device based on the third measurement configuration; wherein the cell identification information and/or the HASH value of the system broadcast information are/is used for the network device to determine whether the first cell is a pseudo base station cell; wherein the method is characterized in that the third measurement configuration further comprises a first bitmap, wherein the first bitmap comprises a plurality of bits, different bits of the plurality of bits correspond to different pieces of system broadcast information, and values of the bits are used for indicating whether to report HASH values of pieces of system broadcast information corresponding to the bits.
Assembly comprising a semiconductor package containing a laser diode for emitting a laser beam at an emission point within the package , wherein the package is metallic, has a transistor outline between 5.6 and 9 mm in base diameter, and the laser beam is visible, characterised in that the metallic transistor outline package contains an optical fiber acting as a microlens attached nearby the emission point and retained within the transistor outline package by means of an adhesive, and the assembly further comprises two coaxial cylindrical collimation lenses arranged outside the transistor outline package on an optical axis of the microlens. the package is metallic, has a transistor outline between 5.6 and 9 mm in base diameter, and the laser beam is visible, characterised in that the metallic transistor outline package contains an optical fiber acting as a microlens attached nearby the emission point and retained within the transistor outline package by means of an adhesive, and the assembly further comprises two coaxial cylindrical collimation lenses arranged outside the transistor outline package on an optical axis of the microlens.
A power control method, comprising: Obtaining, by a terminal, configuration signaling indicating a target reference signal, wherein the target reference signal comprises a synchronization signal, SS; Obtaining , by the terminal, parameter information required for power control, wherein the parameter information comprises cell-specific target power; Determining, by the terminal, received signal strength based on the target reference signal; Determining, by the terminal, a path loss of a target beam based on filtering the received signal strength; wherein a filtering type of the filtering the received signal strength is layer-1 filtering, layer-2 filtering or layer-3 filtering; and Determining , by the terminal based on the parameter information and the path loss of the target beam by using a power control formula, uplink transmit power used when uplink transmission is performed on the target beam. Obtaining, by a terminal, configuration signaling indicating a target reference signal, wherein the target reference signal comprises a synchronization signal, SS; Obtaining , by the terminal, parameter information required for power control, wherein the parameter information comprises cell-specific target power; Determining, by the terminal, received signal strength based on the target reference signal; Determining, by the terminal, a path loss of a target beam based on filtering the received signal strength; wherein a filtering type of the filtering the received signal strength is layer-1 filtering, layer-2 filtering or layer-3 filtering; and Determining , by the terminal based on the parameter information and the path loss of the target beam by using a power control formula, uplink transmit power used when uplink transmission is performed on the target beam.
A liquid nutritional composition comprising at least about 20% (w/w of the composition) total protein and wherein the composition comprises 10-40% (w/w of the composition) whey protein, and 1 -12% (w/w of the composition) of casein.