mhurhangee/patent-ind-claim-en huggingface dataset:
A Raman spectroscopic detection device comprising: at least one microfluidic sample channel ; at least one excitation waveguide for exciting a Raman signal; and at least one collection waveguide for collecting a Raman signal, wherein: the at least one excitation waveguide is positioned so that its output end is in the sample channel and the at least one collection waveguide is positioned so that its input end is in the at least one sample channel , no optical elements are between the end of the excitation waveguide and the sample channel for modifying an output beam profile of the excitation waveguide and/or no optical elements are between the end of the collection waveguide and the sample channel for modifying a beam profile from a sample in the sample channel, the sample channel , the excitation waveguide and the collection waveguide are arranged in a cross configuration, and the excitation waveguide and the collection waveguide are arranged at a relative angle in the range of 0o to 110o, wherein the relative angle is defined as the relative angle between respective axes directed outwardly from respective ends of the excitation and collection waveguides . at least one microfluidic sample channel ; at least one excitation waveguide for exciting a Raman signal; and at least one collection waveguide for collecting a Raman signal, wherein: the at least one excitation waveguide is positioned so that its output end is in the sample channel and the at least one collection waveguide is positioned so that its input end is in the at least one sample channel , no optical elements are between the end of the excitation waveguide and the sample channel for modifying an output beam profile of the excitation waveguide and/or no optical elements are between the end of the collection waveguide and the sample channel for modifying a beam profile from a sample in the sample channel, the sample channel , the excitation waveguide and the collection waveguide are arranged in a cross configuration, and the excitation waveguide and the collection waveguide are arranged at a relative angle in the range of 0o to 110o, wherein the relative angle is defined as the relative angle between respective axes directed outwardly from respective ends of the excitation and collection waveguides . no optical elements are between the end of the excitation waveguide and the sample channel for modifying an output beam profile of the excitation waveguide and/or no optical elements are between the end of the collection waveguide and the sample channel for modifying a beam profile from a sample in the sample channel, the sample channel , the excitation waveguide and the collection waveguide are arranged in a cross configuration, and the excitation waveguide and the collection waveguide are arranged at a relative angle in the range of 0o to 110o, wherein the relative angle is defined as the relative angle between respective axes directed outwardly from respective ends of the excitation and collection waveguides .
A communication controller for controlling communications over vectored communication lines ; wherein the communication controller is further configured to derive first and second sets of vectoring coefficients according to respective first and second rate steering configurations (301 302) for coordinating joint transmission of respective first symbols (221-224) during a normal operation interval , NOI, of a time frame using the first set of vectoring coefficients and second symbols during a discontinuous operation interval , DOI, of the time frame using the second set of vectoring coefficients; and wherein the amount and position of the second symbols in the time frame are common across the communication lines; and wherein the first and second rate steering configurations (301 302) achieve a respective first and second distribution of data rates over the vectored communication lines.
Method for joining dense planar components made from SiSiC comprising a silicon content of < 20 vol.% by means of diffusion bonding, characterized in that : the components may have cambers of up to 5 μm per 100 mm of component length, preferably 1 μm per 100 mm of component length, 1330-1360°C being selected as the joining temperature and 0.1-5.0 MPa being selected as the contact pressure, and the SiSiC containing silicon as a continuous metal material phase.
A method of evaluating a power storage device including an electrode assembly , the method comprising, in the following order: (a) placing a metal piece on an outer surface of the electrode assembly ; (b) pushing the metal piece into the electrode assembly ; (c) detecting a short circuit based on a change in potential difference between an electrode inside the electrode assembly and the metal piece ; and (d) stopping the pushing the metal piece , wherein the step (b) includes using a push jig and a guide jig , wherein the guide jig is provided with a through hole , the push jig is inserted into the through hole, the metal piece has a ring shape, the metal piece is placed inside the through hole , wherein the push jig pushes the metal piece out of the through hole and thereby the metal piece is pushed into the electrode assembly , wherein the push jig is electrically conductive, and wherein the method is characterised in that the hardness of the push jig is equal to or more than the hardness of the metal piece . (a) placing a metal piece on an outer surface of the electrode assembly ; (b) pushing the metal piece into the electrode assembly ; (c) detecting a short circuit based on a change in potential difference between an electrode inside the electrode assembly and the metal piece ; and (d) stopping the pushing the metal piece , wherein the step (b) includes using a push jig and a guide jig , wherein the guide jig is provided with a through hole , the push jig is inserted into the through hole, the metal piece has a ring shape, the metal piece is placed inside the through hole , wherein the push jig pushes the metal piece out of the through hole and thereby the metal piece is pushed into the electrode assembly , wherein the push jig is electrically conductive, and wherein the method is characterised in that the hardness of the push jig is equal to or more than the hardness of the metal piece . the step (b) includes using a push jig and a guide jig , wherein the guide jig is provided with a through hole , the push jig is inserted into the through hole, the metal piece has a ring shape, the metal piece is placed inside the through hole , wherein the push jig pushes the metal piece out of the through hole and thereby the metal piece is pushed into the electrode assembly , wherein the push jig is electrically conductive, and wherein the method is characterised in that the hardness of the push jig is equal to or more than the hardness of the metal piece .
An electric heater comprising: a substrate ; and a plane heating element formed on one surface of the substrate , wherein the plane heating element includes a pattern portion having a start point thereof and an end point thereof continuously connected to the start point, wherein the pattern portion includes a plurality of arc-shaped tracks spaced apart from each other, each track having a length increasing as the each track is located further away from a center of the pattern portion , and characterised in that at least two tracks have different centers of curvature (C 1 and C 2 ). a substrate ; and a plane heating element formed on one surface of the substrate , wherein the plane heating element includes a pattern portion having a start point thereof and an end point thereof continuously connected to the start point, wherein the pattern portion includes a plurality of arc-shaped tracks spaced apart from each other, each track having a length increasing as the each track is located further away from a center of the pattern portion , and characterised in that at least two tracks have different centers of curvature (C 1 and C 2 ).
A biometric recognition attack test method, wherein the method comprises: obtaining, based on information about a target user to be tested, a test object needed for performing a biometric recognition attack on the target user, wherein the test object comprises a test image and/or a physical model of a body part corresponding to the biometric recognition attack; controlling a mechanical arm to place the test image or the physical model of the body part in the test object in a recognition area of a biometric recognition device, and controlling the mechanical arm to adjust the test object in a plurality of different positions and poses to perform a biometric recognition attack test, to obtain a test result for the test object in each position and pose; and determining, based on the test result corresponding to the test object in each position and pose, a test result of the biometric recognition attack performed on the target user. obtaining, based on information about a target user to be tested, a test object needed for performing a biometric recognition attack on the target user, wherein the test object comprises a test image and/or a physical model of a body part corresponding to the biometric recognition attack; controlling a mechanical arm to place the test image or the physical model of the body part in the test object in a recognition area of a biometric recognition device, and controlling the mechanical arm to adjust the test object in a plurality of different positions and poses to perform a biometric recognition attack test, to obtain a test result for the test object in each position and pose; and determining, based on the test result corresponding to the test object in each position and pose, a test result of the biometric recognition attack performed on the target user.
Anhydrous composition comprising: 1) at least particles comprising a core containing at least one beneficial agent and an envelope surrounding the core; said envelope comprising at least one hydrophobically modified polysaccharide chosen from starch (C 5 -C 20 )alkenyl succinates and at least one water-soluble carbohydrate chosen from maltodextrins with a Dextrose Equivalent ranging from 4 to 20; said particles simultaneously having a poured powder density ranging from 300.0 g/l to 600.0 g/l and an absolute density of greater than 1.0; said particles being spherical and having a number-mean diameter ranging from 1 to 30 μm and a volume-mean diameter ranging from 5 to 150 μm; and 2) at least one fatty phase comprising at least one solid fatty substance and at least one oil; said composition having a hardness measured at 32°C at a humidity of 40% ranging from 15 kPa to 150 kPa and preferably ranging from 20 kPa to 100 kPa. 1) at least particles comprising a core containing at least one beneficial agent and an envelope surrounding the core; said envelope comprising at least one hydrophobically modified polysaccharide chosen from starch (C 5 -C 20 )alkenyl succinates and at least one water-soluble carbohydrate chosen from maltodextrins with a Dextrose Equivalent ranging from 4 to 20; said particles simultaneously having a poured powder density ranging from 300.0 g/l to 600.0 g/l and an absolute density of greater than 1.0; said particles being spherical and having a number-mean diameter ranging from 1 to 30 μm and a volume-mean diameter ranging from 5 to 150 μm; and 2) at least one fatty phase comprising at least one solid fatty substance and at least one oil;
A network function registration method comprising: sending , by a first network function, a registration request to a second network function, wherein single-network slice selection assistance information, S-NSSAI, a data network name, DNN, and information of a data processing method applied in the first network function are carried in the registration request, wherein the first network function is an application function, AF, and wherein the second network function is a network function repository function, NRF; receiving , by the first network function, a first Internet Protocol, IP, address of a terminal sent by a third network function, wherein the first IP address of the terminal is acquired by the third network function. sending , by a first network function, a registration request to a second network function, wherein single-network slice selection assistance information, S-NSSAI, a data network name, DNN, and information of a data processing method applied in the first network function are carried in the registration request, wherein the first network function is an application function, AF, and wherein the second network function is a network function repository function, NRF; receiving , by the first network function, a first Internet Protocol, IP, address of a terminal sent by a third network function, wherein the first IP address of the terminal is acquired by the third network function.
An anti-C5 antibody for use in a method of treating atypical hemolytic uremic syndrome (aHUS) in a human adult patient who is 18 years or older, wherein the anti-C5 antibody is ravulizumab, and the anti-C5 antibody is administered intravenously: (a) once on Day 1 at a dose of: 2400 mg to a patient weighing ≥ 40 to < 60 kg, 2700 mg to a patient weighing ≥ 60 to < 100 kg, or 3000 mg to a patient weighing ≥ 100 kg; and (b) on Day 15 and every eight weeks thereafter at a dose of 3000 mg to a patient weighing ≥ 40 to < 60 kg, 3300 mg to a patient weighing ≥ 60 to < 100 kg, or 3600 mg to a patient weighing ≥ 100 kg. (a) once on Day 1 at a dose of: 2400 mg to a patient weighing ≥ 40 to < 60 kg, 2700 mg to a patient weighing ≥ 60 to < 100 kg, or 3000 mg to a patient weighing ≥ 100 kg; and (b) on Day 15 and every eight weeks thereafter at a dose of 3000 mg to a patient weighing ≥ 40 to < 60 kg, 3300 mg to a patient weighing ≥ 60 to < 100 kg, or 3600 mg to a patient weighing ≥ 100 kg.
A method comprising: receiving, by a first device , content; receiving, by the first device , a content transfer command to provide the content to a second device at a switch point comprising a moment in time when the content being received by the first device should begin being provided to the second device, wherein the switch point is received by the first device ; determining, by the first device based on a proximity metric, the second device from a plurality of devices (101a-d) for content consumption, wherein determining the second device comprises excluding a non-transferable device of the plurality of devices from consideration as the second device, wherein the non-transferable device is blocked from content consumption transfer, and wherein the proximity metric comprises a received signal strength indicator RSSI; and causing, based on a command, the content to be provided to the second device at the switch point. receiving, by a first device , content; receiving, by the first device , a content transfer command to provide the content to a second device at a switch point comprising a moment in time when the content being received by the first device should begin being provided to the second device, wherein the switch point is received by the first device ; determining, by the first device based on a proximity metric, the second device from a plurality of devices (101a-d) for content consumption, wherein determining the second device comprises excluding a non-transferable device of the plurality of devices from consideration as the second device, wherein the non-transferable device is blocked from content consumption transfer, and wherein the proximity metric comprises a received signal strength indicator RSSI; and causing, based on a command, the content to be provided to the second device at the switch point.
An air blowing device, comprising: an air bag , an integrated air inlet and outlet device , and a vent valve device ; one end of the air bag is provided with an opening, a bottom end of the integrated air inlet and outlet device is provided with a connecting end adapted to the opening, the connecting end is suitable for fixing the integrated air inlet and outlet device to the air bag; the integrated air inlet and outlet device includes an air inlet structure and an air outlet structure that are fixed to each other; a ventilation pipeline of the air inlet structure and a ventilation pipeline of the air outlet structure are independent of each other, and ventilation pipelines of the air inlet structure and the air outlet structure are connected to the air bag respectively; the vent valve device includes an air inlet one-way valve and an air outlet one-way valve ; the air inlet one-way valve is disposed at a position where the air inlet structure is connected to the air bag, and is suitable for introducing external air into the air bag unidirectionally; the air outlet one-way valve is disposed at a position where the air outlet structure is connected to the air bag, and is suitable for discharging air from the air bag through an air outlet nozzle unidirectionally.
A method of forming a FinFET, comprising: forming a strained silicon fin from an upper layer of a silicon substrate overlying an oxide layer buried therein , the strained silicon fin including a first portion having a first fin width; covering the strained silicon fin with an oxide layer; forming a gate structure that includes a polysilicon gate , on the oxide layer; depositing a top oxide layer on top of the strained silicon fin and on top of the gate structure using a directional deposition process ; recessing, laterally, portions of the strained silicon fin outside the gate structure to a selected second fin width while the top oxide layer protects the top of the fins ; removing the top oxide layer; after the top oxide is removed, forming raised source and drain regions by epitaxial growth from the side surfaces and top surfaces of the strained silicon fin , the raised source and drain regions being doped in-situ during the epitaxial growth; and replacing the polysilicon gate with a metal gate . forming a strained silicon fin from an upper layer of a silicon substrate overlying an oxide layer buried therein , the strained silicon fin including a first portion having a first fin width; covering the strained silicon fin with an oxide layer; forming a gate structure that includes a polysilicon gate , on the oxide layer; depositing a top oxide layer on top of the strained silicon fin and on top of the gate structure using a directional deposition process ; recessing, laterally, portions of the strained silicon fin outside the gate structure to a selected second fin width while the top oxide layer protects the top of the fins ; removing the top oxide layer; after the top oxide is removed, forming raised source and drain regions by epitaxial growth from the side surfaces and top surfaces of the strained silicon fin , the raised source and drain regions being doped in-situ during the epitaxial growth; and replacing the polysilicon gate with a metal gate .
A surgical snare , comprising: a steerable deflection portion wherein said steerable deflection portion has a steerable distal tip , the steerable deflection portion is in a straight configuration in a natural state, the steerable deflection portion comprises a deflection wire and a core wire disposed within said steerable distal tip, and wherein said deflection wire is configured to restrict compression of said steerable deflection portion at said steerable distal tip and to instead cause said steerable deflection portion to bend in response to a force applied to said core wire; an interface linked to said steerable deflection portion, wherein said interface provides for selective manipulation of said steerable distal tip from the natural state to a bent state; a snare loop disposed proximate said steerable distal tip of said steerable deflection portion, said snare loop having a length, wherein said snare loop is configured to move as said steerable distal tip of said steerable deflection portion is selectively deflected, and wherein said snare loop maintains said length as said steerable distal tip is selectively deflected; and wherein the snare loop comprises a snare wire at least one end of the snare wire extending proximally of the steerable deflection portion. a steerable deflection portion wherein said steerable deflection portion has a steerable distal tip , the steerable deflection portion is in a straight configuration in a natural state, the steerable deflection portion comprises a deflection wire and a core wire disposed within said steerable distal tip, and wherein said deflection wire is configured to restrict compression of said steerable deflection portion at said steerable distal tip and to instead cause said steerable deflection portion to bend in response to a force applied to said core wire; an interface linked to said steerable deflection portion, wherein said interface provides for selective manipulation of said steerable distal tip from the natural state to a bent state; a snare loop disposed proximate said steerable distal tip of said steerable deflection portion, said snare loop having a length, wherein said snare loop is configured to move as said steerable distal tip of said steerable deflection portion is selectively deflected, and wherein said snare loop maintains said length as said steerable distal tip is selectively deflected; and wherein the snare loop comprises a snare wire at least one end of the snare wire extending proximally of the steerable deflection portion.
A method for supplying gas, preferably air, for a liquid/solid separator provided with at least one inlet for fluid flows to be treated and at least one treated fluid outlet , said method comprising a step for diverting a fraction of the fluid flow from the separator through an enclosure , a step for introducing pressurized gas in a given quantity in said enclosure , and a step for reintroducing the fluid flow charged with gas coming from the enclosure into the separator , characterized in that the step for introducing a given quantity of pressurized gas in said enclosure is a step for introducing a given quantity of gas in said enclosure based on the weight of said enclosure .
A method of preparation of a construct for regeneration of articular joint cartilage, wherein said construct comprises a two-layer scaffold matrix, in which: a layer I comprises a scaffold of biodegradable polymers and natural additives; and a layer II comprises a scaffold of biodegradable polymer and natural additives; wherein the natural additives comprise cellulose, wherein said method comprises: (a) preparation of polymer solutions for layers I and II; (b) preparation of the regeneration construct layer I and II scaffolds by solution cryo-electrospinning; (c) conversion of cellulose acetate to cellulose of the regeneration construct layer I and II scaffolds; (d) surface modification of the regeneration construct layer I scaffold by treating with ozone; (e) embedding of biologically active molecules in the regeneration construct layer I scaffold; (f) sterilization of the regeneration construct layer I and II scaffolds; (g) combining of the regeneration construct layer I and II scaffolds in order to form final regeneration construct. (a) preparation of polymer solutions for layers I and II; (b) preparation of the regeneration construct layer I and II scaffolds by solution cryo-electrospinning; (c) conversion of cellulose acetate to cellulose of the regeneration construct layer I and II scaffolds; (d) surface modification of the regeneration construct layer I scaffold by treating with ozone; (e) embedding of biologically active molecules in the regeneration construct layer I scaffold; (f) sterilization of the regeneration construct layer I and II scaffolds; (g) combining of the regeneration construct layer I and II scaffolds in order to form final regeneration construct.
A method for enhancing gas affinity of a porous network including a plurality of pores, the method comprising functionalizing a molecular building block of a porous network with at least one amine, wherein the porous network includes {[(C 2 ) 3 -C 6 H 3 ] 2 [(CH 3 ) 3 Si-C 6 H 2 -CHO] 3 } n , where n is greater than one.