mhurhangee/ep-ind-claims huggingface dataset:
A unit dose composition comprising: a water-soluble container formed from a water-soluble or water-dispersible film material; an aqueous composition comprising: water present in an amount of 30% to 55% by weight; a surfactant system present in an amount of 30% to 60% by weight, wherein the anionic surfactant and the non-ionic surfactant are present in a weight ratio of from 1:9 to 9:1; and a water binding agent selected from the group consisting of a salt, the salt being sodium chloride, wherein the water binding agent is present in an amount of from 1% to 10% by weight; wherein the aqueous composition has a water activity of from 0.65 to 0.95, and wherein the surfactant system comprises: a linear alkylbenzene sulfonate and/or an alcohol ethoxylsulfate, an alcohol ethoxylate, and a fatty acid and wherein the surfactant system contains from 1 to 15 wt% of fatty acid. a water-soluble container formed from a water-soluble or water-dispersible film material; an aqueous composition comprising: water present in an amount of 30% to 55% by weight; a surfactant system present in an amount of 30% to 60% by weight, wherein the anionic surfactant and the non-ionic surfactant are present in a weight ratio of from 1:9 to 9:1; and a water binding agent selected from the group consisting of a salt, the salt being sodium chloride, wherein the water binding agent is present in an amount of from 1% to 10% by weight; wherein the aqueous composition has a water activity of from 0.65 to 0.95, and wherein the surfactant system comprises: a linear alkylbenzene sulfonate and/or an alcohol ethoxylsulfate, an alcohol ethoxylate, and a fatty acid and wherein the surfactant system contains from 1 to 15 wt% of fatty acid. water present in an amount of 30% to 55% by weight; a surfactant system present in an amount of 30% to 60% by weight, wherein the anionic surfactant and the non-ionic surfactant are present in a weight ratio of from 1:9 to 9:1; and a water binding agent selected from the group consisting of a salt, the salt being sodium chloride, wherein the water binding agent is present in an amount of from 1% to 10% by weight; wherein the aqueous composition has a water activity of from 0.65 to 0.95, and wherein the surfactant system comprises: a linear alkylbenzene sulfonate and/or an alcohol ethoxylsulfate, an alcohol ethoxylate, and a fatty acid a linear alkylbenzene sulfonate and/or an alcohol ethoxylsulfate, an alcohol ethoxylate, and a fatty acid and wherein the surfactant system contains from 1 to 15 wt% of fatty acid.
A method in a network device in a wireless telecommunication network for setting up connection with a mobile station via relay station(s), comprising the steps of: a. receiving a communication setup request message from said mobile station forwarded by one or more relay stations along an initial transmission path identified by a primary connection identification, CID; b. determining a transmission path according to said communication setup request message; c. sending a communication setup response message to said mobile station, wherein said step c comprises the step of: - sending transmission path related information of said determined transmission path in the form of connection identification, CID, mapping information of said determined transmission path to all relay stations of said determined transmission path via said transmission path, said CID mapping information being composed of a series of data CIDs. a. receiving a communication setup request message from said mobile station forwarded by one or more relay stations along an initial transmission path identified by a primary connection identification, CID; b. determining a transmission path according to said communication setup request message; c. sending a communication setup response message to said mobile station, wherein said step c comprises the step of: - sending transmission path related information of said determined transmission path in the form of connection identification, CID, mapping information of said determined transmission path to all relay stations of said determined transmission path via said transmission path, said CID mapping information being composed of a series of data CIDs. - sending transmission path related information of said determined transmission path in the form of connection identification, CID, mapping information of said determined transmission path to all relay stations of said determined transmission path via said transmission path, said CID mapping information being composed of a series of data CIDs.
A workpiece carrier formed from a carbon-fibre-reinforced carbon and having a planar workpiece support face, wherein the workpiece support face is penetrated by channel-like indentations, and wherein the channel-like indentations form the passages for a process gas.
A method of launching applications on a computing apparatus, said method comprising: receiving (418, 502, 612) a biometric candidate; determining (420, 504, 614) that said biometric candidate matches one of a plurality of stored biometric templates, each stored biometric template being associated with a different application; determining that said stored biometric template is associated with unlocking said computing apparatus; unlocking (422, 520) said computing apparatus; and launching execution of said application. receiving (418, 502, 612) a biometric candidate; determining (420, 504, 614) that said biometric candidate matches one of a plurality of stored biometric templates, each stored biometric template being associated with a different application; determining that said stored biometric template is associated with unlocking said computing apparatus; unlocking (422, 520) said computing apparatus; and launching execution of said application.
A control device that controls a control target including an astatic system having dead time, the control target having dynamic characteristics, the dynamic characteristics having dead time and integration characteristics, the control device comprising: a dead time compensation system adapted to compensate for the dead time at the control target based on the dynamic characteristics of the control target; and an integration error compensation system adapted to compensate for an integration error originating in the dead time compensation system, wherein the integration error compensation system includes an ideal response unit in which the dynamic characteristics of the control target in a state in which a disturbance is not input are used as a model, and a correction unit adapted to receive an input comparative value for the output of the ideal response unit and the output of the control target, correct the input comparative value, and then input the corrected comparative value to the control target. a dead time compensation system adapted to compensate for the dead time at the control target based on the dynamic characteristics of the control target; and an integration error compensation system adapted to compensate for an integration error originating in the dead time compensation system, wherein the integration error compensation system includes an ideal response unit in which the dynamic characteristics of the control target in a state in which a disturbance is not input are used as a model, and a correction unit adapted to receive an input comparative value for the output of the ideal response unit and the output of the control target, correct the input comparative value, and then input the corrected comparative value to the control target. an ideal response unit in which the dynamic characteristics of the control target in a state in which a disturbance is not input are used as a model, and a correction unit adapted to receive an input comparative value for the output of the ideal response unit and the output of the control target, correct the input comparative value, and then input the corrected comparative value to the control target.
A method of monitoring a change in height of a device, the device comprising a sensor for measuring the air pressure at the device, the method comprising: determining a pressure change threshold; obtaining a plurality of measurements of the air pressure at the device using the sensor; determining a change in the air pressure from two or more of the plurality of measurements; characterized by determining the pressure change threshold from a predetermined height change and an estimate of air pressure at a predetermined altitude or from a predetermined height change and a measurement of air pressure at the device obtained using the sensor; determining if the height of the device has changed by more than the predetermined height change using the determined change in the air pressure and the determined pressure change threshold; wherein the method further comprises periodically or intermittently updating the pressure change threshold using at least one new measurement of the air pressure at the device obtained using the sensor. determining a pressure change threshold; obtaining a plurality of measurements of the air pressure at the device using the sensor; determining a change in the air pressure from two or more of the plurality of measurements;
Method for treating a fluid to be treated comprising: - the supplying in a reactor (2, 2') of adsorbent media particles (13,13') consisting of calibrated grains or micrograins of activated carbon with a particle size comprised between 400 μm and 1300 μm in which the concentration of adsorbent media particles in said reactor is comprised between 1 g/L and 300 g/L; - the continuous injection of fluid to be treated at a means (10, 10') for injecting and distributing fluid to be treated at the bottom part of the reactor in order to form an upflow (90, 90') of fluid having a speed comprised between 20 m/h and 40 m/h and to fluidize the bed of adsorbent media particles by forming an area of expansion of the bed of adsorbent media particles and a transition area less dense in adsorbent media particles than said area of expansion, - the reduction of the speed of said upflow of fluid and the formation of a fluid tranquil zone (27, 209) with means (20, 200) for deflecting fluid disposed at the top part of the reactor, - the continuous recovery of treated water at the means (30, 30') for recovering treated fluid disposed downstream from said tranquil zone (27, 209), the transition area being interposed between the area of expansion and the deflection means. - the supplying in a reactor (2, 2') of adsorbent media particles (13,13') consisting of calibrated grains or micrograins of activated carbon with a particle size comprised between 400 μm and 1300 μm in which the concentration of adsorbent media particles in said reactor is comprised between 1 g/L and 300 g/L; - the continuous injection of fluid to be treated at a means (10, 10') for injecting and distributing fluid to be treated at the bottom part of the reactor in order to form an upflow (90, 90') of fluid having a speed comprised between 20 m/h and 40 m/h and to fluidize the bed of adsorbent media particles by forming an area of expansion of the bed of adsorbent media particles and a transition area less dense in adsorbent media particles than said area of expansion, - the reduction of the speed of said upflow of fluid and the formation of a fluid tranquil zone (27, 209) with means (20, 200) for deflecting fluid disposed at the top part of the reactor, - the continuous recovery of treated water at the means (30, 30') for recovering treated fluid disposed downstream from said tranquil zone (27, 209),
A compound of formula I: or a pharmaceutically acceptable salt thereof, for use in a method for treating cancer in a subject in need thereof, the method comprising administering to the subject a therapeutically effective amount of the compound of formula I or the pharmaceutically acceptable salt thereof, wherein the subject is a human who has a 17p deletion, a TP53 mutation, a NOTCH1 mutation, a SF3B1 mutation, a 11q deletion, or any combination thereof.
A method of detecting an arc fault in a power circuit, the method comprising the steps of: a) injecting an AC-signal into the power circuit; b) measuring a response signal related to the injected AC-signal within in the power circuit; c) determining a frequency response of the power circuit from the response signal; d) analyzing the frequency response and identifying a preferred frequency range, wherein the preferred frequency range is chosen such that it does not comprise a distinct maximum of an impedance curve derived from the frequency response and that it is located around a minimum of the impedance curve; e) measuring during a working period a signal related to AC-current flowing in the power circuit within the preferred frequency range; and f) signaling an occurrence of an arc fault in the power circuit depending on the measured signal. a) injecting an AC-signal into the power circuit; b) measuring a response signal related to the injected AC-signal within in the power circuit; c) determining a frequency response of the power circuit from the response signal; d) analyzing the frequency response and identifying a preferred frequency range, wherein the preferred frequency range is chosen such that it does not comprise a distinct maximum of an impedance curve derived from the frequency response and that it is located around a minimum of the impedance curve; e) measuring during a working period a signal related to AC-current flowing in the power circuit within the preferred frequency range; and f) signaling an occurrence of an arc fault in the power circuit depending on the measured signal.
A method for encoding input audio signals, the method comprising: deriving, from one or more input signals, a baseband signal and a residual signal, the baseband signal comprising spectral components in a set of first frequency subbands, the residual signal comprising spectral components in a set of second frequency subbands; calculating, for each frequency subband in the set of second frequency subbands of the residual signal, a square root value of a sum of a plurality of spectral power values for a plurality of spectral components in that frequency subband in the set of second frequency subbands of the residual signal; generating, for each frequency subband in the set of second frequency subbands of the residual signal, a scale factor based at least in part on a respective square root value of a sum of a plurality of spectral power values as calculated for that frequency subband in the set of second frequency subbands of the residual signal; encoding the baseband signal, along with control information, into an encoded signal, the control information including a set of scale factors, each scale factor in the set of scale factors being respectively generated for a frequency subband in the set of second frequency subbands of the residual signal based at least in part on a square root value of a sum of a plurality of spectral power values as calculated for that frequency subband in the set of second frequency subbands of the residual signal. deriving, from one or more input signals, a baseband signal and a residual signal, the baseband signal comprising spectral components in a set of first frequency subbands, the residual signal comprising spectral components in a set of second frequency subbands; calculating, for each frequency subband in the set of second frequency subbands of the residual signal, a square root value of a sum of a plurality of spectral power values for a plurality of spectral components in that frequency subband in the set of second frequency subbands of the residual signal; generating, for each frequency subband in the set of second frequency subbands of the residual signal, a scale factor based at least in part on a respective square root value of a sum of a plurality of spectral power values as calculated for that frequency subband in the set of second frequency subbands of the residual signal; encoding the baseband signal, along with control information, into an encoded signal, the control information including a set of scale factors, each scale factor in the set of scale factors being respectively generated for a frequency subband in the set of second frequency subbands of the residual signal based at least in part on a square root value of a sum of a plurality of spectral power values as calculated for that frequency subband in the set of second frequency subbands of the residual signal.
A method for diagnosing a carcinoma or a residual disease thereof, or for the prognosis of a carcinoma, or for monitoring effectiveness of an anti-tumour therapy directed against a carcinoma, or for monitoring the follow-up of an individual affected by a carcinoma, comprising: (i) placing isolated adult stem cells in contact with an isolated sample of serum or plasma from the individual; (ii) verifying the induction of the expression of at least one epithelical marker in the said stem cells wherein said expression is indicative of the fact that the individual is affected by carcinoma or residual disease thereof. (i) placing isolated adult stem cells in contact with an isolated sample of serum or plasma from the individual; (ii) verifying the induction of the expression of at least one epithelical marker in the said stem cells
A descaling formulation for WCs characterized in that it comprises or consists of a) a viscosifying agent consisting of a cationic surfactant and an anionic surfactant selected, respectively, among quaternary ammonium salts and salts of strong aromatic organic acids, the weight ratio of quaternary ammonium salts/salts of strong aromatic organic acids preferably ranging from 1,000: 1 to 10:1, or preferably from 5:1 to 4:1; b) a pigmenting agent consisting of, or comprising a colloidal aqueous dispersion of an inert organic polymer consisting of a styrene-acrylic copolymer, having an average molecular weight ranging from 300,000 to 800,000 Daltons, preferably equal to 500,000 Daltons, and a concentration of solids ranging from 20 to 50% by weight, preferably equal to 35% by weight; and c) a descaling agent selected from hydrochloric acid, phosphoric acid, sulfuric acid or sulfamic acid, preferably hydrochloric acid. a) a viscosifying agent consisting of a cationic surfactant and an anionic surfactant selected, respectively, among quaternary ammonium salts and salts of strong aromatic organic acids, the weight ratio of quaternary ammonium salts/salts of strong aromatic organic acids preferably ranging from 1,000: 1 to 10:1, or preferably from 5:1 to 4:1; b) a pigmenting agent consisting of, or comprising a colloidal aqueous dispersion of an inert organic polymer consisting of a styrene-acrylic copolymer, having an average molecular weight ranging from 300,000 to 800,000 Daltons, preferably equal to 500,000 Daltons, and a concentration of solids ranging from 20 to 50% by weight, preferably equal to 35% by weight; and c) a descaling agent selected from hydrochloric acid, phosphoric acid, sulfuric acid or sulfamic acid, preferably hydrochloric acid.
A process for the gas chromatographic separation of a mixture of enantiomers, wherein the mixture of enantiomers is passed as a gaseous mobile phase through a stationary phase being fixed on a support material, characterized in that the stationary phase is hexakis(2,3,6-tri- O -butyl)-cyclo-maltohexaose (HpBu) in a non-volatile solvent, the butyl rest of HpBu optionally being completely or partially fluorinated or deuterated.
A method of separating an analyte of interest from a sample constituent not of interest, the method comprising: stacking the analyte of interest by isotachophoresis in a channel comprising a skewing channel segment; and skewing the analyte of interest and the sample constituent not of interest by flowing the analyte of interest and sample constituent not of interest through the skewing channel segment, stacking the skewed analyte of interest while within and after exiting the skewing channel segment to form a focussed analyte band; and producing and maintaining axial diffusion of the skewed sample constituent not of interest wherein the skewing channel segment comprises conditions providing a dispersion Peclet number more than 1 times a ratio of a skewing channel length over a skewing channel width. stacking the analyte of interest by isotachophoresis in a channel comprising a skewing channel segment; and skewing the analyte of interest and the sample constituent not of interest by flowing the analyte of interest and sample constituent not of interest through the skewing channel segment, stacking the skewed analyte of interest while within and after exiting the skewing channel segment to form a focussed analyte band; and producing and maintaining axial diffusion of the skewed sample constituent not of interest wherein the skewing channel segment comprises conditions providing a dispersion Peclet number more than 1 times a ratio of a skewing channel length over a skewing channel width.
A method of optimizing workflow for an intervention, comprising the steps of: - reconstruction of an image of a target area representative of an envisaged intervention based on imaging dataset; - automatically selecting an optimal viewing direction for enabling a pre-operative quantitative analysis of intervention features, wherein the intervention relates to a heart valve replacement and the target area comprises a heart valve and a portion of a lumen arranged in fluid communication with the heart valve, the method further being characterised by comprising the steps of: - accessing the image representative of the heart valve and the surrounding anatomy; - based on the image, calculating a pre-determined reference line for reconstructing an optimal image projection comprising the heart valve, wherein for the pre-determined reference line a centre line of said lumen is selected. - reconstruction of an image of a target area representative of an envisaged intervention based on imaging dataset; - automatically selecting an optimal viewing direction for enabling a pre-operative quantitative analysis of intervention features, - accessing the image representative of the heart valve and the surrounding anatomy; - based on the image, calculating a pre-determined reference line for reconstructing an optimal image projection comprising the heart valve,