mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a silica aerogel blanket, comprising: a step of producing a silica sol; a step of preparing a wet gel-base material composite by immersing a base material for blanket in the silica sol, and adding a base to perform gelation; a step of aging the wet gel-base material composite; a step of surface modifying the aged wet gel-base material composite; and a step of supercritical drying the surface-modified wet gel-base material composite to produce a silica aerogel blanket, characterized by : recovering a supercritical waste liquid generated after performing the step of supercritical drying; neutralizing the recovered supercritical waste liquid by adding an acid ; and reusing the neutralized supercritical waste liquid in the step of producing a silica sol. a step of producing a silica sol; a step of preparing a wet gel-base material composite by immersing a base material for blanket in the silica sol, and adding a base to perform gelation; a step of aging the wet gel-base material composite; a step of surface modifying the aged wet gel-base material composite; and a step of supercritical drying the surface-modified wet gel-base material composite to produce a silica aerogel blanket, characterized by : recovering a supercritical waste liquid generated after performing the step of supercritical drying; neutralizing the recovered supercritical waste liquid by adding an acid ; and reusing the neutralized supercritical waste liquid in the step of producing a silica sol. recovering a supercritical waste liquid generated after performing the step of supercritical drying; neutralizing the recovered supercritical waste liquid by adding an acid ; and reusing the neutralized supercritical waste liquid in the step of producing a silica sol.
A transmitter , comprising a digital pre-distortion DPD device , an analog transmission module , an analog feedback module , and a DPD feedback updating module , wherein the DPD feedback updating module is connected to the DPD device ; the DPD device is configured to send a digital baseband signal to the analog transmission module and the DPD feedback updating module ; the analog transmission module is configured to: process the digital baseband signal to obtain an analog signal, and send the analog signal obtained after the processing to an antenna terminal and the analog feedback module that are connected to the analog transmission module ; the analog feedback module is configured to: receive an i th frequency control word sent by the DPD feedback updating module ; determine, based on the i th frequency control word, a first center frequency of an i th frequency scan and phase information of an i th sub-spectrum corresponding to the analog signal obtained after the processing; perform, based on the first center frequency and the phase information of the i th sub-spectrum corresponding to the analog signal obtained after the processing, the i th frequency scan on the i th sub-spectrum corresponding to the analog signal obtained after the processing, to obtain a corresponding first digital signal; and send the first digital signal to the DPD feedback updating module , wherein the i th frequency scan is a frequency scan performed by the analog feedback module on the i th sub-spectrum corresponding to the analog signal obtained after the processing, i=1, 2, ..., and N, and N is a quantity of sub-spectrums comprised in a spectrum of the analog signal obtained after the processing; the DPD feedback updating module is configured to: determine a second center frequency based on the i th frequency control word, so that the first center frequency is aligned with the second center frequency; process the digital baseband signal based on the second center frequency to obtain a corresponding second digital signal; calculate an error value between the first digital signal and the corresponding second digital signal; determine a DPD coefficient based on the error values corresponding to N frequency scans; and send the DPD coefficient to the DPD device ; and the DPD device is further configured to: calibrate the digital baseband signal based on the DPD coefficient, and send the calibrated signal to the analog transmission module and the DPD feedback updating module as a new digital baseband signal.
A method for manufacturing an electrode for a lithium ion battery, in which a squeegee roll squeegees powder containing an electrode active material, which is supplied on a substrate, to form a powder layer, and a pair of press rolls compacts the powder layer onto the substrate while conveying the substrate downwardly in a vertical direction to manufacture an electrode sheet, the method comprising: a supplying step for supplying the powder onto the substrate; a powder layer forming step for forming the powder layer by leveling the powder supplied on the substrate using the squeegee roll that is arranged at a position with a squeegee angle θ ranging from 0° to 60°, which is an angle between a vertical line that intersects a rotating axis of one of the press rolls and a line that connects the rotating axis with a rotating axis of the squeegee roll; and a compacting step for compacting the powder layer onto the substrate by the pair of the press rolls. a supplying step for supplying the powder onto the substrate; a powder layer forming step for forming the powder layer by leveling the powder supplied on the substrate using the squeegee roll that is arranged at a position with a squeegee angle θ ranging from 0° to 60°, which is an angle between a vertical line that intersects a rotating axis of one of the press rolls and a line that connects the rotating axis with a rotating axis of the squeegee roll; and a compacting step for compacting the powder layer onto the substrate by the pair of the press rolls.
A method for selecting a cancer patient for treatment with a Wnt inhibitor, comprising testing bodily fluid or tissue from a patient that may contain tumor cells or proteins of tumor cells for the presence of an inactivating mutation in the RNF43 gene.
A pile joint, which comprises a first concrete pile , a second concrete pile , and a coupling system therebetween for connecting and locking the concrete piles relative to each other, or which comprises a concrete pile, a rock point, and a coupling system therebetween for connecting and locking a concrete pile and a rock point relative to each other, said coupling system including a locking pin , and a lock housing and a lock spindle connectible to each other, said lock housing and lock spindle being provided with transverse holes in such a way that the lock housing's transverse holes and the lock spindle's transverse hole settle substantially in line with each other for receiving the locking pin when the lock housing and the lock spindle are connected to each other, the lock housing being provided with a locking ring for retaining the locking pin in a position locking the lock housing and the lock spindle to each other, wherein in alignment with a first transverse hole of the lock housing is a guidance pipe and in alignment with a second transverse hole of the lock housing, opposite to its first hole, is a locking seat closed at one end and intended for the locking ring , the locking ring is adapted to be movable in a groove included in the locking seat , and that the locking pin is provided with a recess in the lengthwise direction of the locking pin for receiving the locking ring , the recess extending across a part of the total length of the locking pin and having a length (L) in the lengthwise direction of the locking pin , wherein the locking pin has a basic diameter (D3) and a diameter (D4) of the locking pin's recess in the lengthwise direction is smaller than said basic diameter (D3), wherein the locking ring has an outer diameter (D6), an inner diameter (D7) and a thickness (H), characterized in that the locking ring is discontinuous, the locking pin is elongated and cylindrical, and the groove of the locking seat has a diameter (D2) which is larger than the outer diameter (D6) of the locking ring .
A Bluetooth connection management method, wherein the method is applied to a scenario in which a master Bluetooth device has established a Bluetooth connection to a slave Bluetooth device, the slave Bluetooth device being a sound box or headset configured to receive a data transmission comprising audio data, and the method comprises: determining (S 1100), by the master Bluetooth device, whether data is being transmitted with the slave Bluetooth device by using the Bluetooth connection; and breaking (S1200), by the master Bluetooth device, the Bluetooth connection to the slave Bluetooth device when the master Bluetooth device determines that no data is being transmitted with the slave Bluetooth device by using the Bluetooth connection, wherein the determining, by the master Bluetooth device, whether data is being transmitted with the slave Bluetooth device by using the Bluetooth connection comprises: determining, by the master Bluetooth device according to a working power of a Bluetooth module in the master Bluetooth device, whether data is being transmitted with the slave Bluetooth device by using the Bluetooth connection. determining (S 1100), by the master Bluetooth device, whether data is being transmitted with the slave Bluetooth device by using the Bluetooth connection; and breaking (S1200), by the master Bluetooth device, the Bluetooth connection to the slave Bluetooth device when the master Bluetooth device determines that no data is being transmitted with the slave Bluetooth device by using the Bluetooth connection, wherein the determining, by the master Bluetooth device, whether data is being transmitted with the slave Bluetooth device by using the Bluetooth connection comprises: determining, by the master Bluetooth device according to a working power of a Bluetooth module in the master Bluetooth device, whether data is being transmitted with the slave Bluetooth device by using the Bluetooth connection.
A process for direct smelting a metalliferous feed material containing at least 0.2 wt. % sulphur and producing metal with sulphur content below 0.25%, the process comprising (a) at least partially reducing and partially melting the metalliferous feed material in a smelt cyclone and (b) completely smelting the at least partially reduced/melted material in a molten bath of a direct smelting vessel , and the process being characterised by maintaining an oxygen potential in the smelt cyclone so that an offgas from the smelt cyclone has a post combustion degree of 75-100%, wherein said oxygen potential is maintained by injecting oxygen into the smelt cyclone and the direct smelting vessel , wherein a temperature of at least 1100°C is maintained in the smelt cyclone ; wherein particle size of the metalliferous feed material is no more than 6 mm; and wherein 50-80% of sulphur is released into the offgas in the smelt cyclone .
A composition comprising: from 70 wt. % to 99 wt. % of a polycarbonate polymer component; from 0.01 wt. % to 1 wt. % of a flame retardant additive, wherein the flame retardant additive is free of bromine and/or chlorine; and from 0.01 wt. % to 20 wt. % of a non-bonding glass fiber; from 0.01 wt. % to 10 wt. % of a surface modified talc, wherein the surface modified talc has a mean particle diameter of from 0.5 nanometer (nm) to 2 micrometer (μm); and wherein a molded sample formed from the composition exhibits a multi-axial impact (MAI) rating energy at max force of 70 Joules or greater at 23 degrees Celsius (°C) when tested in accordance with IS06603 standard and wherein a molded sample of the composition achieves a V2 rating at a thickness of 0.8 mm and a flame out time of less than 50 seconds when tested in accordance UL94. from 70 wt. % to 99 wt. % of a polycarbonate polymer component; from 0.01 wt. % to 1 wt. % of a flame retardant additive, wherein the flame retardant additive is free of bromine and/or chlorine; and from 0.01 wt. % to 20 wt. % of a non-bonding glass fiber; from 0.01 wt. % to 10 wt. % of a surface modified talc, wherein the surface modified talc has a mean particle diameter of from 0.5 nanometer (nm) to 2 micrometer (μm); and wherein a molded sample formed from the composition exhibits a multi-axial impact (MAI) rating energy at max force of 70 Joules or greater at 23 degrees Celsius (°C) when tested in accordance with IS06603 standard and wherein a molded sample of the composition achieves a V2 rating at a thickness of 0.8 mm and a flame out time of less than 50 seconds when tested in accordance UL94.
Method of image analysis, including the steps of: - obtaining a sequence (37;51) of images of a scene comprising at least a living being, using a camera; performing image analysis on the sequence (37;51) of images to select a living being and track a selected part of the living being with an exposed skin surface being represented in the sequence (37;51) of images; controlling a directable light source to illuminate at least the part of the selected living being with the exposed skin surface; performing a vision-based analysis on a plurality of images from the sequence (37;51) of images to obtain spatiotemporal coefficients for classifying an action undertaken by the selected living being represented in the images; and - determining at least one value of a physiological parameter, by remote photoplethysmography, of the living being represented in the sequence (37;51) of images through analysis of pixel data from the illuminated, tracked part in the same sequence (37;51) and classifying an action undertaken by the selected living being using the data obtained with the vision-based analysis and the at least one value of the physiological parameter. - obtaining a sequence (37;51) of images of a scene comprising at least a living being, using a camera; performing image analysis on the sequence (37;51) of images to select a living being and track a selected part of the living being with an exposed skin surface being represented in the sequence (37;51) of images; controlling a directable light source to illuminate at least the part of the selected living being with the exposed skin surface; performing a vision-based analysis on a plurality of images from the sequence (37;51) of images to obtain spatiotemporal coefficients for classifying an action undertaken by the selected living being represented in the images; and - determining at least one value of a physiological parameter, by remote photoplethysmography, of the living being represented in the sequence (37;51) of images through analysis of pixel data from the illuminated, tracked part in the same sequence (37;51) and classifying an action undertaken by the selected living being using the data obtained with the vision-based analysis and the at least one value of the physiological parameter.
A connector assembly comprising a connector and a flexible substrate having a sheet-like shape and having a flexible conductor formed on a front surface of a substrate body , the connector being attached to the flexible substrate and comprising: at least one contact made of a conductive material and connected to the flexible conductor, a housing that is attached to the flexible substrate and retains the contact; and a protection sheet constituted of an insulating film having a pressure-sensitive adhesive layer formed on one surface of the protection sheet and disposed between the housing and the flexible substrate such that the pressure-sensitive adhesive layer faces the flexible substrate, wherein the protection sheet is disposed so as to cover at least a front surface part of the flexible substrate on which the flexible conductor is formed, and is adhered to the flexible substrate with the pressure-sensitive adhesive layer, wherein the housing has a flat surface facing the flexible substrate, and wherein an adhesive layer bonding the housing to the protection sheet is disposed between the flat surface and the protection sheet. at least one contact made of a conductive material and connected to the flexible conductor, a housing that is attached to the flexible substrate and retains the contact; and a protection sheet constituted of an insulating film having a pressure-sensitive adhesive layer formed on one surface of the protection sheet and disposed between the housing and the flexible substrate such that the pressure-sensitive adhesive layer faces the flexible substrate, wherein the protection sheet is disposed so as to cover at least a front surface part of the flexible substrate on which the flexible conductor is formed, and is adhered to the flexible substrate with the pressure-sensitive adhesive layer, wherein the housing has a flat surface facing the flexible substrate, and wherein an adhesive layer bonding the housing to the protection sheet is disposed between the flat surface and the protection sheet.
A groove processing device that forms a groove in a surface of an object using a laser beam (LB), the groove processing device comprising: a light source device that outputs the laser beam (LB), a polygon mirror that reflects the laser beam (LB) output from the light source device ; and an optical system that is provided on an optical path of the laser beam (LB) reflected from the polygon mirror and includes a condensing portion which transmits the laser beam (LB) reflected from one surface of the polygon mirror so as to be focused on the surface of the object and characterized by a non-condensing portion which is provided outside the condensing portion and transmits the laser beam (LB) reflected from a corner portion, in which two adjacent surfaces of the polygon mirror meet, so as not to be focused on the surface of the object. a light source device that outputs the laser beam (LB), a polygon mirror that reflects the laser beam (LB) output from the light source device ; and an optical system that is provided on an optical path of the laser beam (LB) reflected from the polygon mirror and includes a condensing portion which transmits the laser beam (LB) reflected from one surface of the polygon mirror so as to be focused on the surface of the object and characterized by a non-condensing portion which is provided outside the condensing portion and transmits the laser beam (LB) reflected from a corner portion, in which two adjacent surfaces of the polygon mirror meet, so as not to be focused on the surface of the object.
A pick up tool, comprising: a tool head, comprising: a plurality of pushers, each one of the pushers having a pusher-contacting surface; a hook portion having a hook-contacting surface with a plurality of hooks adapted to engage fibers of a pliable item, characterised in that the hook-contacting surface at least partially surrounds the plurality of pushers; and characterised in that the pick up tool comprises an actuator operable to move the pushers between a first configuration and a second configuration while the hook portion remains static, the first configuration positioning the hook-contacting surface past each pusher-contacting surface such that at least some of the plurality of hooks at least partially engage fibers of the pliable item, and the second configuration positioning each pusher-contacting surface past the hook-contacting surface such that the hooks of the hook portion are unable to engage fibers of the pliable item. a tool head, comprising: a plurality of pushers, each one of the pushers having a pusher-contacting surface; a hook portion having a hook-contacting surface with a plurality of hooks adapted to engage fibers of a pliable item, characterised in that a plurality of pushers, each one of the pushers having a pusher-contacting surface; a hook portion having a hook-contacting surface with a plurality of hooks adapted to engage fibers of a pliable item, characterised in that the hook-contacting surface at least partially surrounds the plurality of pushers; and characterised in that the pick up tool comprises an actuator operable to move the pushers between a first configuration and a second configuration while the hook portion remains static, the first configuration positioning the hook-contacting surface past each pusher-contacting surface such that at least some of the plurality of hooks at least partially engage fibers of the pliable item, and the second configuration positioning each pusher-contacting surface past the hook-contacting surface such that the hooks of the hook portion are unable to engage fibers of the pliable item.
Method for preparation of a bioactive lipid membrane, comprising the following steps: a) Applying first lipid molecules to form a first lipid layer on a liquid surface by electro-spraying, b) applying a mixture of second lipid molecules and protein molecules by electro-spraying so as to form a functionalized lipid bi-layer membrane having protein molecules integrated therein, and c) applying a second hydrophilic layer to the lipid bi-layer membrane formed in step b). a) Applying first lipid molecules to form a first lipid layer on a liquid surface by electro-spraying, b) applying a mixture of second lipid molecules and protein molecules by electro-spraying so as to form a functionalized lipid bi-layer membrane having protein molecules integrated therein, and c) applying a second hydrophilic layer to the lipid bi-layer membrane formed in step b).
A method for use in a wireless transmit receive unit, WTRU, (102a, 102b, 102c, 102d; 220, 230, 240, 250; 401-407), the method comprising: receiving, from a base station (114a, 114b; 210; 410) associated with WTRU to WTRU direct communication, power control parameters comprising information for power control of an uplink channel from the WTRU to the base station, for power control of a data channel for WTRU to WTRU direct communication and for power control of a control channel for WTRU to WTRU direct communication; transmitting over the uplink channel to the base station at a transmit power level which is based on the information for power control and a downlink pathloss estimate associated with the WTRU; transmitting over the data channel at a transmit power level which is based on the information for power control, interference measurements on the WTRU to WTRU direct communication link and the downlink pathloss estimate associated with the WTRU; and transmitting over the control channel at a transmit power level which is based on the information for power control and the downlink pathloss estimate associated with the WTRU. receiving, from a base station (114a, 114b; 210; 410) associated with WTRU to WTRU direct communication, power control parameters comprising information for power control of an uplink channel from the WTRU to the base station, for power control of a data channel for WTRU to WTRU direct communication and for power control of a control channel for WTRU to WTRU direct communication; transmitting over the uplink channel to the base station at a transmit power level which is based on the information for power control and a downlink pathloss estimate associated with the WTRU; transmitting over the data channel at a transmit power level which is based on the information for power control, interference measurements on the WTRU to WTRU direct communication link and the downlink pathloss estimate associated with the WTRU; and transmitting over the control channel at a transmit power level which is based on the information for power control and the downlink pathloss estimate associated with the WTRU.