mhurhangee/patent-ind-claim-en huggingface dataset:
A control device of a gas turbine electric energy production plant , which delivers a power (P) at a frequency (f I ); the control device comprising power control means , for controlling the power (P) delivered by the plant according to a reference power value (P SETNEW ), and frequency control means , for determining correction values (PF SETPR ; PF SETINT ) of the reference power value (P SETNEW ) according to a frequency error (e F ), given by the difference between the plant frequency (f I ) and a nominal frequency (f N ); the frequency control means comprising: an activation module , a proportional control module configured to calculate the correction values (PF SETINT ), and integral control means configured to calculate the correction values (PF SETINT ); the control device characterized in that the activation module is configured to: • send an activation signal to proportional control module if frequency error (e F ) is comprised in a first safety range (B1), • send an activation signal to integral control means if the frequency error (e F ) is beyond first safety range (Bl); wherein activation of the proportional control module is blocked until a deactivation of integral control means occurs. the frequency control means comprising: an activation module , a proportional control module configured to calculate the correction values (PF SETINT ), and integral control means configured to calculate the correction values (PF SETINT ); the control device characterized in that the activation module is configured to: • send an activation signal to proportional control module if frequency error (e F ) is comprised in a first safety range (B1), • send an activation signal to integral control means if the frequency error (e F ) is beyond first safety range (Bl); • send an activation signal to proportional control module if frequency error (e F ) is comprised in a first safety range (B1), • send an activation signal to integral control means if the frequency error (e F ) is beyond first safety range (Bl);
An optical article having anti-fogging properties, comprising a substrate comprising a front face and a rear face, at least one of these two faces is coated with an anti-reflecting stack of layers of low refractive index (LI) having a refractive index of 1.55 or less and high refractive index (HI) having a refractive index higher than 1.55, said anti-reflecting stack of layers including an outermost layer which is the farthest from the substrate and an innermost layer which is the closest from the substrate, both of said outermost and innermost layer being made from : SiO 2 , SiO x with 1≤x<2, a mixture of SiO 2 and SiO x , a mixture of SiO 2 with 10% by weight or less, based on the total weight of the mixture, of Al 2 O 3 , and a mixture of SiO x with 10% by weight or less, based on the total weight of the mixture, of Al 2 O 3 , or a mixture of SiO 2 with SiO x and with 10% by weight or less, based on the total weight of the mixture, of Al 2 O 3 , characterized in that the outermost layer of the anti-reflecting stack is a sandwich layer comprising a core portion interleaved between two side portions (5b and 5c), the core portion having a physical thickness ranging from 20 to 150 nm, preferably from 30 to 80 nm and the side portions having a physical thickness of 1 to 50 nm, preferably from 2 to 20 nm, the core portion having further a lower density than the one of the side portions , and characterized in that said innermost layer has a physical thickness ranging from 50 to 500 nm, preferably from 100 to 300 nm and a lower density than the one of the side portions . said anti-reflecting stack of layers including an outermost layer which is the farthest from the substrate and an innermost layer which is the closest from the substrate, both of said outermost and innermost layer being made from : SiO 2 , SiO x with 1≤x<2, a mixture of SiO 2 and SiO x , a mixture of SiO 2 with 10% by weight or less, based on the total weight of the mixture, of Al 2 O 3 , and a mixture of SiO x with 10% by weight or less, based on the total weight of the mixture, of Al 2 O 3 , or a mixture of SiO 2 with SiO x and with 10% by weight or less, based on the total weight of the mixture, of Al 2 O 3 , characterized in that the outermost layer of the anti-reflecting stack is a sandwich layer comprising a core portion interleaved between two side portions (5b and 5c), the core portion having a physical thickness ranging from 20 to 150 nm, preferably from 30 to 80 nm and the side portions having a physical thickness of 1 to 50 nm, preferably from 2 to 20 nm, the core portion having further a lower density than the one of the side portions , and characterized in that said innermost layer has a physical thickness ranging from 50 to 500 nm, preferably from 100 to 300 nm and a lower density than the one of the side portions .
A system for electrocardiography, ECG, monitoring of a subject , the system comprising: multiple non-invasive capacitive sensors configured to generate output signals conveying electrophysiological information of the subject, wherein individual ones of the capacitive sensors are further configured to emit carrier signals, and wherein the generated output signals include a representation of the emitted carrier signals; computer program modules; and one or more processors configured to execute the computer program modules, the computer program modules comprising: a coupling module configured to determine coupling levels for individual ones of the capacitive sensors based on the output signals; a selection module configured to select one or more capacitive sensors based on the determined coupling levels; and a reconstruction module configured to determine an electrocardiogram, ECG, signal based on the generated output signals from the selected one or more capacitive sensors; wherein the coupling module is further configured to determine which capacitive sensor has the highest coupling level, characterised in that the selection of the one or more capacitive sensors is based on one or more correlation coefficients between the output signals generated by the capacitive sensor having the highest coupling level and the output signals generated by one or more other capacitive sensors. multiple non-invasive capacitive sensors configured to generate output signals conveying electrophysiological information of the subject, wherein individual ones of the capacitive sensors are further configured to emit carrier signals, and wherein the generated output signals include a representation of the emitted carrier signals; computer program modules; and one or more processors configured to execute the computer program modules, the computer program modules comprising: a coupling module configured to determine coupling levels for individual ones of the capacitive sensors based on the output signals; a selection module configured to select one or more capacitive sensors based on the determined coupling levels; and a reconstruction module configured to determine an electrocardiogram, ECG, signal based on the generated output signals from the selected one or more capacitive sensors; a coupling module configured to determine coupling levels for individual ones of the capacitive sensors based on the output signals; a selection module configured to select one or more capacitive sensors based on the determined coupling levels; and a reconstruction module configured to determine an electrocardiogram, ECG, signal based on the generated output signals from the selected one or more capacitive sensors; wherein the coupling module is further configured to determine which capacitive sensor has the highest coupling level,
An arsenic compound As 2 O 5 for a systemic use in the treatment and/or the prevention of skin lesions associated with an autoimmune and/or inflammatory disease in a human subject, said disease being a lupus erythematosus.
A robotic lawnmower system comprising a charging station and a robotic work tool , the charging station comprising a signal generator to which a boundary cable is to be connected, the boundary cable being arranged to enclose a work area , the signal generator being configured to transmit a signal through the boundary cable , and the robotic working tool comprising: a sensor configured to pick up magnetic fields generated by the signal in the boundary cable thereby receiving the signal being transmitted, wherein the robotic lawnmower system being characterized in that the robotic working tool further comprises; a controller configured to analyse the picked-up signal; and a wireless communication interface for transmitting the analysis of the picked-up signal to the charging station, wherein the signal generator is further configured to: receive the measurement of the picked-up signal and adapt a filter model based on the measurement of the picked-up signal, wherein the measurement represents characteristics of the work area ; prefilter the signal through the filter model; and transmit the prefiltered signal through the boundary cable by means of a current generator and by means of Code Division Multiple Access - CDMA - signals. a sensor configured to pick up magnetic fields generated by the signal in the boundary cable thereby receiving the signal being transmitted, wherein the robotic lawnmower system being characterized in that the robotic working tool further comprises; a controller configured to analyse the picked-up signal; and a wireless communication interface for transmitting the analysis of the picked-up signal to the charging station, wherein the signal generator is further configured to: receive the measurement of the picked-up signal and adapt a filter model based on the measurement of the picked-up signal, wherein the measurement represents characteristics of the work area ; prefilter the signal through the filter model; and transmit the prefiltered signal through the boundary cable by means of a current generator and by means of Code Division Multiple Access - CDMA - signals. receive the measurement of the picked-up signal and adapt a filter model based on the measurement of the picked-up signal, wherein the measurement represents characteristics of the work area ; prefilter the signal through the filter model; and transmit the prefiltered signal through the boundary cable by means of a current generator and by means of Code Division Multiple Access - CDMA - signals.
A process for extraction of a composition containing Oroxylin A and its glucuronides from Oroxylum indicum, said process comprising steps of: a) Cutting, drying and pulverising the bark of Oroxylum indicum into fine powder b) Extracting 100 kg of the fine powder of step a) with 80 % methanol (v/v) to obtain an aqueous methanol extract c) Dissolving the aqueous methanol extract of step b) in water to yield a turbid solution d) Extracting the turbid solution of step c) using an organic solvent, wherein the organic solvent is hexane, ethyl acetate, chloroform, or butanol e) Concentrating and drying the solvent fraction of step d) to obtain a yellow brown colour powder f) Characterising bioactives present in the powder of step e) using HPLC, NMR and Mass spectrometry as Oroxylin A, as represented by STR#1, Baicalein, as represented by STR#2 and Chrysin, as represented by STR#3 g) Concentrating and drying the aqueous fraction of step d) to obtain a brown colour powder h) Characterising bioactives present in the powder of step g) using HPLC, NMR and Mass spectrometry as Oroxylin A-7-glucuronide, as represented by STR#4, Baicalein-7-glucuronide, as represented by STR#5 and Chrysin-7-glucuronide, as represented by STR#6 a) Cutting, drying and pulverising the bark of Oroxylum indicum into fine powder b) Extracting 100 kg of the fine powder of step a) with 80 % methanol (v/v) to obtain an aqueous methanol extract c) Dissolving the aqueous methanol extract of step b) in water to yield a turbid solution d) Extracting the turbid solution of step c) using an organic solvent, wherein the organic solvent is hexane, ethyl acetate, chloroform, or butanol e) Concentrating and drying the solvent fraction of step d) to obtain a yellow brown colour powder f) Characterising bioactives present in the powder of step e) using HPLC, NMR and Mass spectrometry as Oroxylin A, as represented by STR#1, Baicalein, as represented by STR#2 and Chrysin, as represented by STR#3 g) Concentrating and drying the aqueous fraction of step d) to obtain a brown colour powder h) Characterising bioactives present in the powder of step g) using HPLC, NMR and Mass spectrometry as Oroxylin A-7-glucuronide, as represented by STR#4, Baicalein-7-glucuronide, as represented by STR#5 and Chrysin-7-glucuronide, as represented by STR#6
An imaging system , comprising: an imaging scope extending along a longitudinal axis between a proximal end portion and a distal end portion thereof, the imaging scope selectively rotatable about the longitudinal axis relative to a horizon plane , the imaging scope having at least three optical channels , each including a respective objective positioned at the distal end portion of the imaging scope , and each configured to capture light reflected from an object, the objectives of the at least three optical channels being annularly-spaced relative to one another and positioned such that respective viewing direction axes of the at least three optical channels extend parallel to one another; a controller configured to activate, among the at least three optical channels , a pair of optical channels defining a viewing horizon line that is at least as parallel relative to the horizon plane as that of any other pair of optical channels among the at least three optical channels , the viewing horizon line being a line that extends perpendicularly between the respective viewing direction axes of a pair of optical channels of the at least three optical channels ; a camera configured to generate a first 2D digital image representative of light captured by a first optical channel of the activated pair of optical channels , and a second 2D digital image representative of light captured by a second optical channel of the activated pair of optical channels ; and a 3D processor configured to generate a 3D digital image using the first 2D digital image and the second 2D digital image. an imaging scope extending along a longitudinal axis between a proximal end portion and a distal end portion thereof, the imaging scope selectively rotatable about the longitudinal axis relative to a horizon plane , the imaging scope having at least three optical channels , each including a respective objective positioned at the distal end portion of the imaging scope , and each configured to capture light reflected from an object, the objectives of the at least three optical channels being annularly-spaced relative to one another and positioned such that respective viewing direction axes of the at least three optical channels extend parallel to one another; a controller configured to activate, among the at least three optical channels , a pair of optical channels defining a viewing horizon line that is at least as parallel relative to the horizon plane as that of any other pair of optical channels among the at least three optical channels , the viewing horizon line being a line that extends perpendicularly between the respective viewing direction axes of a pair of optical channels of the at least three optical channels ; a camera configured to generate a first 2D digital image representative of light captured by a first optical channel of the activated pair of optical channels , and a second 2D digital image representative of light captured by a second optical channel of the activated pair of optical channels ; and a 3D processor configured to generate a 3D digital image using the first 2D digital image and the second 2D digital image.
A toner comprising a binder resin, wherein the binder resin comprises a polyester resin, wherein an alcohol component constituting the polyester resin comprises a bisphenol A component and 1,2-propylene glycol, wherein the toner has a peak ratio W/R of from 0.20 to 0.70 when measured according to a Fourier Transform InfraRed spectroscopic analysis (FT-IR) method according to an Attenuated Total Reflection (ATR) method (total reflection method), where the peak ratio W/R is a ratio of a height W of a maximum spectral peak attributed to a bisphenol A skeleton of the toner and observed at from 1,480 cm -1 to 1,520 cm -1 to a height R of a maximum spectral peak attributed to a carbonyl group of the toner and observed at from 1,700 cm -1 to 1,750 cm -1 , wherein a molecular weight distribution of the toner obtained by Gel Permeation Chromatography (GPC) of a tetrahydrofuran (THF)-soluble component of the toner has a main peak in a range of from 1,000 to 10,000, and a half value width of the molecular weight distribution is a molecular weight of 20,000 or less, and wherein a content of a THF-insoluble component in the toner is from 5% by mass to 40% by mass, as measured according to the measurement method disclosed in the description, wherein the molecular weight distribution is calculated from a relationship between a logarithmic value of a calibration curve generated based on monodisperse polystyrene standard samples and a count value, and wherein the half value width is obtained by indicating the molecular weight on the horizontal axis and a concentration (mass ratio) on the vertical axis and determining the horizontal width (molecular weight) of the main peak at a 50% height of the peak top height of the main peak.
Control method of an impact wrench for tightening a threaded connection , which, in response to actuation of a pushbutton key , executes a sequence with the consecutive phases: a first phase (S1) in which an impact mechanism of the impact wrench exerts a predefined number (N1) of rotary impacts on the threaded connection , and during the first phase (S1) a profile of a rotational angle Φ over time (t) is estimated and a pattern is adapted to the profile , and on the basis of the pattern a setpoint torque (M0) is determined for a second phase (S2) and a final rotation angle or a final number of impacts is determined for a third phase (S3), the second phase (S2) in which rotary impacts are exerted on the threaded connection until an estimated torque (M) reaches the setpoint torque (M0), and the third phase (S3) in which rotary impacts are exerted on the threaded connection until a number of the rotary impacts corresponds to the final number (N3), or a rotational angle corresponds to the final rotational angle. a first phase (S1) in which an impact mechanism of the impact wrench exerts a predefined number (N1) of rotary impacts on the threaded connection , and during the first phase (S1) a profile of a rotational angle Φ over time (t) is estimated and a pattern is adapted to the profile , and on the basis of the pattern a setpoint torque (M0) is determined for a second phase (S2) and a final rotation angle or a final number of impacts is determined for a third phase (S3), the second phase (S2) in which rotary impacts are exerted on the threaded connection until an estimated torque (M) reaches the setpoint torque (M0), and the third phase (S3) in which rotary impacts are exerted on the threaded connection until a number of the rotary impacts corresponds to the final number (N3), or a rotational angle corresponds to the final rotational angle.
A metallocene supported catalyst, comprising a metallocene compound represented by the following Chemical Formulae; a cocatalyst compound; and a support: a cocatalyst compound; and a support:
A method for performing a beamforming training procedure in a wireless communication system, comprising: receiving (S900), by a station, STA, a beacon frame from an access point, AP, during a beacon transmission interval, BTI; and transmitting (S910), by the STA, sector sweep, SSW, frames during an association beamforming training, A-BFT, wherein the beacon frame includes an A-BFT length including information on a number of multiple SSW slots being included in the A-BFT, a FSS field including information on a number of the SSW frames that can be transmitted in one SSW slot among the multiple SSW slots, and information on a type of the SSW frames transmitted in the one SSW slot, wherein the type of the SSW frames is a first type or a second type, wherein a size of second type SSW frames is smaller than a size of first type SSW frames, and wherein the STA differently interprets a value of the FSS field to be a number of the first type SSW frames or a number of the second type SSW frames based on the type of the SSW frames and following table: [Table] Value of the FSS field 0 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 Number of first type SSW frames 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 Number of second type SSW frames 1 3 4 6 8 9 11 12 14 16 17 19 21 22 24 25 receiving (S900), by a station, STA, a beacon frame from an access point, AP, during a beacon transmission interval, BTI; and transmitting (S910), by the STA, sector sweep, SSW, frames during an association beamforming training, A-BFT, wherein the beacon frame includes an A-BFT length including information on a number of multiple SSW slots being included in the A-BFT, a FSS field including information on a number of the SSW frames that can be transmitted in one SSW slot among the multiple SSW slots, and information on a type of the SSW frames transmitted in the one SSW slot, wherein the type of the SSW frames is a first type or a second type, wherein a size of second type SSW frames is smaller than a size of first type SSW frames, and wherein the STA differently interprets a value of the FSS field to be a number of the first type SSW frames or a number of the second type SSW frames based on the type of the SSW frames and following table: [Table] Value of the FSS field 0 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 Number of first type SSW frames 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 Number of second type SSW frames 1 3 4 6 8 9 11 12 14 16 17 19 21 22 24 25