mhurhangee/patent-ind-claim-en huggingface dataset:
A valve system configured for controlling a flow of a corrosive process liquid , a liquid/vapor interface of the process liquid being more highly corrosive than either the process liquid or the vapor thereof when considered separately, the valve system comprising: a valve having an internal process liquid volume that is normally filled with the process liquid during operation of the valve; a purge port provided in the valve, the purge port enabling liquid communication between the internal process liquid volume and an external purge line ; a vertical segment included in the purge line, said vertical segment being constructed from or lined with a material that is resistant to corrosion due to contact between the vertical segment and the liquid/vapor interface of the process liquid; an interface level sensor configured to determine a level of the liquid/vapor interface within the vertical segment; and a non-reactive gas source configured to fill a downstream segment of the purge line that is downstream of the liquid/vapor interface with a non-reactive gas having a backpressure that causes process liquid entering the purge line to enter into the vertical segment, while preventing the process liquid from flowing beyond the vertical segment. a valve having an internal process liquid volume that is normally filled with the process liquid during operation of the valve; a purge port provided in the valve, the purge port enabling liquid communication between the internal process liquid volume and an external purge line ; a vertical segment included in the purge line, said vertical segment being constructed from or lined with a material that is resistant to corrosion due to contact between the vertical segment and the liquid/vapor interface of the process liquid; an interface level sensor configured to determine a level of the liquid/vapor interface within the vertical segment; and a non-reactive gas source configured to fill a downstream segment of the purge line that is downstream of the liquid/vapor interface with a non-reactive gas having a backpressure that causes process liquid entering the purge line to enter into the vertical segment, while preventing the process liquid from flowing beyond the vertical segment.
A microscope apparatus for stochastic optical reconstruction microscopy using a three-dimensional method comprising: an illumination system having a first laser light source configured to emit activation light (L1) for activating a fluorescent material and a second laser light source configured to emit excitation light (L2) for making the activated fluorescent material emit light; a control unit configured to control a sample to be irradiated with the activation light (L1) and the excitation light (L2) from the first and second laser light sources , respectively; an objective lens unit comprising a plurality of objective lenses having different magnifications; an imaging system having a cylindrical lens unit including at least one cylindrical lens , the imaging system being configured to receive fluorescence, which is emitted from a sample including the fluorescent material, through a selected objective lens of the plurality of objective lenses thereby to form an image of the sample to which an astigmatic difference is given by the imaging system; and an imaging device that is configured to capture the image of the sample from the imaging system which is formed on the imaging device, characterised in that the cylindrical lens unit comprises a plurality of cylindrical lenses having different focal lengths as an astigmatic difference changing device configured to change the astigmatic difference given by the imaging system by changing a cylindrical lens of the plurality of cylindrical lenses which is inserted into an optical path of the imaging system according to a depth of focus of the selected objective lens. an illumination system having a first laser light source configured to emit activation light (L1) for activating a fluorescent material and a second laser light source configured to emit excitation light (L2) for making the activated fluorescent material emit light; a control unit configured to control a sample to be irradiated with the activation light (L1) and the excitation light (L2) from the first and second laser light sources , respectively; an objective lens unit comprising a plurality of objective lenses having different magnifications; an imaging system having a cylindrical lens unit including at least one cylindrical lens , the imaging system being configured to receive fluorescence, which is emitted from a sample including the fluorescent material, through a selected objective lens of the plurality of objective lenses thereby to form an image of the sample to which an astigmatic difference is given by the imaging system; and an imaging device that is configured to capture the image of the sample from the imaging system which is formed on the imaging device, characterised in that the cylindrical lens unit comprises a plurality of cylindrical lenses having different focal lengths as an astigmatic difference changing device configured to change the astigmatic difference given by the imaging system by changing a cylindrical lens of the plurality of cylindrical lenses which is inserted into an optical path of the imaging system according to a depth of focus of the selected objective lens.
A radically curable organosiloxane graft polyvinyl alcohol polymer which comprises structural units represented by both of the following general formula and general formula , wherein, M represents a siloxane group represented by the following general formula and/or general formula ; and M 2 represents an organic group having an unsaturated group represented by the following general formula , wherein, R 1 , R 2 , R 3 , and R 4 each represent a monovalent organic group having 1 to 6 carbon atoms; "n" represents an integer of 1 to 10; and "a" represents an integer of 0 to 2, wherein, R 5 , R 6 , R 7 , R 8 , and R 9 each represent a monovalent organic group having 1 to 6 carbon atoms; "n" represents an integer of 1 to 10; and "m" represents an integer of 1 to 20, wherein, R 10 represents hydrogen or a methyl group; and "k" represents 1 or 2.
A method of manufacturing a rolling bearing with a rotation sensor comprising an inner race , an outer race , wherein one of said inner and outer races is a rotating race, and the other is a stationary race, an annular magnetic encoder polarized alternately in different magnetic poles in a circumferential direction and mounted on said rotating race, a magnetic sensor for detecting change of magnetic flux when said magnetic encoder rotates, and a resin sensor housing incorporating said magnetic sensor therein and mounted on said stationary race, said resin sensor housing being integrally formed with a tubular duct through which output cables of said magnetic sensor extend to outside, wherein an opening is provided in a side face of said tubular duct to extend from its proximal to distal ends, and that said rolling bearing further comprises a lid , wherein with said output cables put through said duct from the opening , said lid is mounted to said duct to close said opening , a caulking agent is filled in the clearance around the output cables in the duct near its distal end, and the interior of the sensor housing including the interior of the duct is filled with a thermosetting molding resin , wherein said opening of the tubular duct has a uniform width from the proximal end to the distal end thereof, and wherein said lid is mounted in said opening by sliding from the distal end to the proximal end thereof.
An actuator arrangement comprising an epicyclic gear set including a sun gear , at least one planet gear in meshing engagement with the sun gear , and a ring gear in meshing engagement with the planet gear , the planet gear being carried by a rotatable support , wherein one of the sun gear and the support is arranged to be driven by a motor and the other of the sun gear and the support is arranged to drive an actuator , wherein a clutch arrangement is operable to resist rotation of the ring gear, characterized by the clutch arrangement comprising an eddy current clutch, wherein the eddy current clutch comprises a permanent magnet and a conducting element , one of which is carried by the ring gear and the other being fixed, with an air gap being provided between the magnet and conducting element.
A test system comprising: a first test device configured to transport and test a sample; and a second test device located adjacent to the first test device configured to transport and test a sample, the test system being characterized in that : the first test device includes a master control unit configured to perform assignment of samples to the first test device and the second test device, and controls of a transport operation of the sample assigned to the first test device, and the second test device includes a slave control unit configured to control a transport operation of the sample assigned to the second test device by the master control unit wherein each of the first test device and the second test device is operable in a stand-alone measurement mode to test samples independently and in a system measurement mode in which the first test device and the second test device test samples in cooperation with each other, wherein the master control unit and the slave control unit are built in the first test device and the second test device, respectively. a first test device configured to transport and test a sample; and a second test device located adjacent to the first test device configured to transport and test a sample, the test system being characterized in that : the first test device includes a master control unit configured to perform assignment of samples to the first test device and the second test device, and controls of a transport operation of the sample assigned to the first test device, and the second test device includes a slave control unit configured to control a transport operation of the sample assigned to the second test device by the master control unit wherein each of the first test device and the second test device is operable in a stand-alone measurement mode to test samples independently and in a system measurement mode in which the first test device and the second test device test samples in cooperation with each other, wherein the master control unit and the slave control unit are built in the first test device and the second test device, respectively. the first test device includes a master control unit configured to perform assignment of samples to the first test device and the second test device, and controls of a transport operation of the sample assigned to the first test device, and the second test device includes a slave control unit configured to control a transport operation of the sample assigned to the second test device by the master control unit wherein each of the first test device and the second test device is operable in a stand-alone measurement mode to test samples independently and in a system measurement mode in which the first test device and the second test device test samples in cooperation with each other, wherein the master control unit and the slave control unit are built in the first test device and the second test device, respectively.
A terminal apparatus comprising: a wireless communication unit configured to perform wireless communication with a base station; and a control unit configured to perform measurement when the wireless communication unit receives a transmitted measurement reference signal before the base station has applied a plurality of transmission weight sets for beamforming, the reference signal having been transmitted from the base station, wherein the plurality of transmission weight sets for beamforming are beamforming transmission weight sets which are used by the base station among a universal set of beamforming transmission weight sets, said universal set representing all weight sets available for the base station, characterized in that the control unit is further configured to perform the measurement by calculating the sum of the plurality of transmission weight sets for beamforming and multiplying a channel for the reference signal by the sum of the plurality of transmission weight sets for beamforming, and thereby calculating received power which occurs when the reference signal after application of the plurality of transmission weight sets for beamforming is received by the wireless communication unit, and select a cell for performing wireless communication by the terminal apparatus with the base station on the basis of the result of the measurement. a wireless communication unit configured to perform wireless communication with a base station; and a control unit configured to perform measurement when the wireless communication unit receives a transmitted measurement reference signal before the base station has applied a plurality of transmission weight sets for beamforming, the reference signal having been transmitted from the base station, wherein the plurality of transmission weight sets for beamforming are beamforming transmission weight sets which are used by the base station among a universal set of beamforming transmission weight sets, said universal set representing all weight sets available for the base station, characterized in that the control unit is further configured to perform the measurement by calculating the sum of the plurality of transmission weight sets for beamforming and multiplying a channel for the reference signal by the sum of the plurality of transmission weight sets for beamforming, and thereby calculating received power which occurs when the reference signal after application of the plurality of transmission weight sets for beamforming is received by the wireless communication unit, and select a cell for performing wireless communication by the terminal apparatus with the base station on the basis of the result of the measurement.
A method of displaying a stored photographic image, wherein the method comprises accomplishing in real-time: - capturing an auxiliary image; - determining light direction information from the captured auxiliary image - on the basis of the determined light direction information, generating a lighted image from the stored photographic image; and - displaying the lighted image. - capturing an auxiliary image; - determining light direction information from the captured auxiliary image - on the basis of the determined light direction information, generating a lighted image from the stored photographic image; and - displaying the lighted image.
A window unit comprising: an insulating frame in which a vacuum IG unit and a monolithic lite are provided, wherein the edge of the vacuum IG unit is embedded in a bite (B) in the insulating frame , the vacuum IG unit including first and second spaced apart glass sheets that are separated from one another via a gap that is at a pressure less than atmospheric, and the monolithic lite being spaced apart from the vacuum IG unit ; wherein the frame comprises insulating material that separates the vacuum IG unit from the monolithic lite ; wherein a space is provided between the vacuum IG unit and the monolithic lite , wherein the gap provided between the first and second glass sheets is at a pressure less than atmospheric pressure, but the space provided between the second glass sheet and the monolithic lite is substantially at atmospheric pressure; characterized in that the depth of the bite (B), such as between a bottom edge of the VIG unit and an upper edge of the bottom frame portion, is from about 2,5 to 12,7 centimeter.
A method of preparing an acid-gellable whey protein composition said method comprising the steps of: a) providing a demineralised solution comprising 1-15% (w/w) native, denaturable whey protein and having a pH in the range of 6-9, b) heat-treating the demineralised solution of step a) to a temperature of at least 68 degrees C for at most 2 hours, thereby obtaining a suspension comprising acid-gellable whey protein aggregates, c) cooling the suspension of step b) to a temperature of at most 30 degrees C, d) concentrating the suspension obtained in step c) to a concentration of acid-gellable whey protein aggregates of at least 4% (w/w), and if the cooled suspension of step c) already contains at least 4% (w/w) acid-gellable whey protein aggregates then step d) increases the concentration of the acid-gellable whey protein aggregates by at least 10% relative to the concentration of acid-gellable whey protein aggregates in the cooled suspension of step c), e) drying the concentrated suspension, wherein: - the temperature of the concentrated suspension of step d) is maintained at most at 30 degrees C until the concentrated suspension is subjected to the drying of step e), and - the duration between the concentration of step d) and the drying of step e) is at most 48 hours. a) providing a demineralised solution comprising 1-15% (w/w) native, denaturable whey protein and having a pH in the range of 6-9, b) heat-treating the demineralised solution of step a) to a temperature of at least 68 degrees C for at most 2 hours, thereby obtaining a suspension comprising acid-gellable whey protein aggregates, c) cooling the suspension of step b) to a temperature of at most 30 degrees C, d) concentrating the suspension obtained in step c) to a concentration of acid-gellable whey protein aggregates of at least 4% (w/w), and if the cooled suspension of step c) already contains at least 4% (w/w) acid-gellable whey protein aggregates then step d) increases the concentration of the acid-gellable whey protein aggregates by at least 10% relative to the concentration of acid-gellable whey protein aggregates in the cooled suspension of step c), e) drying the concentrated suspension, wherein: - the temperature of the concentrated suspension of step d) is maintained at most at 30 degrees C until the concentrated suspension is subjected to the drying of step e), and - the duration between the concentration of step d) and the drying of step e) is at most 48 hours. - the temperature of the concentrated suspension of step d) is maintained at most at 30 degrees C until the concentrated suspension is subjected to the drying of step e), and - the duration between the concentration of step d) and the drying of step e) is at most 48 hours.
Vehicle seat , preferably motor vehicle seat, comprising: a) a seat part which can be swivelled about a horizontal first swivel axis (S1) between a horizontal normal position and a non-horizontal, preferably vertical, folding position; b) a backrest , comprising a lower partial backrest and an upper partial backrest mounted on the lower partial backrest so as to be pivotable about a horizontal second pivot axis (S2), the upper partial backrest being pivotable about the second pivot axis (S2) in the direction of the seat part into a horizontal folding position; and c) a substructure on which the seat part is mounted so as to be pivotable about the horizontal first pivot axis (S1) by means of a pivot connection and which forms a cavity open towards the seat part , characterised in that the swivel connection is arranged at a distance from an end region of the seat part , which faces the lower partial backrest in the horizontal normal position, so that when the seat part is swivelled from the horizontal normal position into its folding position, this end region dips into the cavity of the substructure . a) a seat part which can be swivelled about a horizontal first swivel axis (S1) between a horizontal normal position and a non-horizontal, preferably vertical, folding position; b) a backrest , comprising a lower partial backrest and an upper partial backrest mounted on the lower partial backrest so as to be pivotable about a horizontal second pivot axis (S2), the upper partial backrest being pivotable about the second pivot axis (S2) in the direction of the seat part into a horizontal folding position; and c) a substructure on which the seat part is mounted so as to be pivotable about the horizontal first pivot axis (S1) by means of a pivot connection and which forms a cavity open towards the seat part ,
Soil conditioning substrate containing granular pyrolytic carbon having a density of 1.6 to 2.3 g/cc, a specific surface area of 0.001 to 5 m2/g measured by Hg porosimetry, a particle size of 0.3 mm d10 to 8 mm d90 and a carbon content of 95 to 100 weight-%.
A method for estimating power of signals received from a user equipment in a sector of a cellular network cell, the method comprising: saving (S110) a data signal received from the user equipment, UE, in a first sector of the cellular network cell; acquiring (S120) a reference signal that corresponds to the data signal as received and demodulated in a second sector of the cellular network cell; and comparing (S130) the saved data signal and the reference signal to estimate power of the data signal as received in the first sector, wherein the data signal is not a predetermined reference signal. saving (S110) a data signal received from the user equipment, UE, in a first sector of the cellular network cell; acquiring (S120) a reference signal that corresponds to the data signal as received and demodulated in a second sector of the cellular network cell; and comparing (S130) the saved data signal and the reference signal to estimate power of the data signal as received in the first sector, wherein the data signal is not a predetermined reference signal.