mhurhangee/patent-ind-claim-en huggingface dataset:
A method for performing dynamic range compression, DRC, on a Higher Order Ambisonics, HOA, signal by applying multiband DRC in a Quadrature Mirror Filter, QMF, domain, the method comprising: providing a gain value g ch ( n, m ) for every time frequency tile for time slot n and frequency band m for ( N + 1) 2 spatial channels of the transformed HOA signal; transforming the HOA signal to a spatial domain based on an inverse Discrete Spherical Harmonics Transform, DSHT; wherein the transforming the HOA signal into the spatial domain by inverse DSHT is based on W DSHT = D DSHT C , wherein C = D DSHT − 1 W DSHT and D -1 DSHT is the inverse DSHT matrix, C ∈ R N + 1 2 × τ is a block of τ HOA samples and W DSHT ∈ R N + 1 2 × τ is a block of spatial samples matching the input time granularity of a QMF filter bank of the QMF domain; applying a QMF analysis filter bank to the block of spatial samples to obtain as an output ŵ DSHT ( n, m), wherein w ^ DSHT n m ∈ C N + 1 2 × 1 denotes a vector of spatial channels per time frequency tile ( n, m ); applying the gain value g ch ( n, m ) by w̌ DRc ( n, m ) = diag ( g ch ( n, m )) ŵ DSHT ( n, m ) ; and combining the DSHT and rendering to loudspeaker channels by w ( n, m ) = wherein D denotes an HOA rendering matrix and w ( n, m ) denotes a loudspeaker signal. providing a gain value g ch ( n, m ) for every time frequency tile for time slot n and frequency band m for ( N + 1) 2 spatial channels of the transformed HOA signal; transforming the HOA signal to a spatial domain based on an inverse Discrete Spherical Harmonics Transform, DSHT; wherein the transforming the HOA signal into the spatial domain by inverse DSHT is based on W DSHT = D DSHT C , wherein C = D DSHT − 1 W DSHT and D -1 DSHT is the inverse DSHT matrix, C ∈ R N + 1 2 × τ is a block of τ HOA samples and W DSHT ∈ R N + 1 2 × τ is a block of spatial samples matching the input time granularity of a QMF filter bank of the QMF domain; applying a QMF analysis filter bank to the block of spatial samples to obtain as an output ŵ DSHT ( n, m), wherein w ^ DSHT n m ∈ C N + 1 2 × 1 denotes a vector of spatial channels per time frequency tile ( n, m ); applying the gain value g ch ( n, m ) by w̌ DRc ( n, m ) = diag ( g ch ( n, m )) ŵ DSHT ( n, m ) ; and combining the DSHT and rendering to loudspeaker channels by w ( n, m ) = wherein D denotes an HOA rendering matrix and w ( n, m ) denotes a loudspeaker signal.
A perovskite film, comprising a mixture of: a perovskite compound represented by a composition formula ABX 3 , formed of an organic cation A, a metal cation B and a halide anion X, and a compound Z having no perovskite structure, characterized by the compound Z having a group having a structure represented by formula below: wherein R 2 is an alkyl group having 1 to 15 carbon atoms, a halogenated alkyl group having 1 to 15 carbon atoms, an aryl group having 6 to 15 carbon atoms, a halogenated aryl group having 6 to 15 carbon atoms, or a halogen atom, and n is 0 or 1. a perovskite compound represented by a composition formula ABX 3 , formed of an organic cation A, a metal cation B and a halide anion X, and a compound Z having no perovskite structure, characterized by the compound Z having a group having a structure represented by formula below: wherein R 2 is an alkyl group having 1 to 15 carbon atoms, a halogenated alkyl group having 1 to 15 carbon atoms, an aryl group having 6 to 15 carbon atoms, a halogenated aryl group having 6 to 15 carbon atoms, or a halogen atom, and n is 0 or 1.
A server for transmitting data over a transport network, the server comprising: a clock generator configured to generate a server clock signal; a mapping circuit configured to receive a client data signal and a client clock signal that is asynchronous with respect to the server clock signal, wherein the mapping circuit is further configured to map the client clock signal and the client data signal into a server data stream based on timing of the server clock signal; and a clock difference calculation circuit (131-134) comprising at least one time-to-digital converter , TDC, configured to generate a first plurality of digital timestamps representing a plurality of transitions of the client clock signal and a second plurality of digital timestamps representing a plurality of transitions of the server clock signal, the clock difference calculation circuit configured to generate clock difference data comprising a digital representation of a time difference between the server clock signal and the client clock signal, based on the first plurality of digital timestamps and on the second plurality of digital timestamps, wherein the mapping circuit is further configured to insert the clock difference data into the server data stream, wherein the server data stream comprises a frame, wherein the mapping circuit is configured to include the clock difference data in an overhead portion of the frame, and wherein the clock difference calculation circuit is further configured to measure the time difference between the server clock signal and the client clock signal over a time period of the frame. a clock generator configured to generate a server clock signal; a mapping circuit configured to receive a client data signal and a client clock signal that is asynchronous with respect to the server clock signal, wherein the mapping circuit is further configured to map the client clock signal and the client data signal into a server data stream based on timing of the server clock signal; and a clock difference calculation circuit (131-134) comprising at least one time-to-digital converter , TDC, configured to generate a first plurality of digital timestamps representing a plurality of transitions of the client clock signal and a second plurality of digital timestamps representing a plurality of transitions of the server clock signal, the clock difference calculation circuit configured to generate clock difference data comprising a digital representation of a time difference between the server clock signal and the client clock signal, based on the first plurality of digital timestamps and on the second plurality of digital timestamps, wherein the mapping circuit is further configured to insert the clock difference data into the server data stream, wherein the server data stream comprises a frame, wherein the mapping circuit is configured to include the clock difference data in an overhead portion of the frame, and wherein the clock difference calculation circuit is further configured to measure the time difference between the server clock signal and the client clock signal over a time period of the frame.
A fastener cartridge assembly for a surgical instrument, the fastener cartridge assembly comprising: a cartridge body defining a longitudinal axis, wherein the cartridge body comprises fastener cavities ; woven lattices extending across the longitudinal axis of the cartridge body, wherein the woven lattices comprise a resilient material; and a fastener moveable between an initial position and a fired position, wherein the fastener is at least partially positioned in a fastener cavity when the fastener is in its initial position, and wherein the fastener is configured to compress at least one woven lattice when the fastener is moved to its fired position; characterized in that the woven lattices are woven tubular lattices. a cartridge body defining a longitudinal axis, wherein the cartridge body comprises fastener cavities ; woven lattices extending across the longitudinal axis of the cartridge body, wherein the woven lattices comprise a resilient material; and a fastener moveable between an initial position and a fired position, wherein the fastener is at least partially positioned in a fastener cavity when the fastener is in its initial position, and wherein the fastener is configured to compress at least one woven lattice when the fastener is moved to its fired position; characterized in that the woven lattices are woven tubular lattices.
Electric plug connection part , comprising a rack in which electric plug contacts for a plug connection with a complementary plug connection part are integrated, and which includes a screw portion provided with an external thread for securing the rack in a passage (D) of a function part (F) fixed in location, and comprising a sealing ring for sealing the rack relative to a complementary counterpart, characterized in that a radial groove for receiving the sealing ring adjoins the screw portion , and in that the sealing ring is designed as a radial seal which, in the assembled state, seals the screw portion of the rack radially in relation to the complementary counterpart.
An isolated monoclonal antibody or a binding fragment thereof that binds to Neu5Acα2→ 3Galβ1→ 3GalNAcβ1→ 3Galα1→ 4Galβ1→ 4Glcβ1 (SSEA-4 hexasaccharide) wherein the isolated monoclonal antibody or the binding fragment thereof is a defucosylated antibody comprising a Fc glycoform attached to the Fc region, wherein said glycoform has the formula: Sia 2 (α2-6)Gal 2 GlcNAc 2 Man 3 GlcNAc 2 wherein the antibody comprises a VH having SEQ ID NO: 147 and a VL having SEQ ID NO: 148.
A method comprising: determining, at a user equipment , that a plurality of measurements are to be made and results of said measurements are to be stored for reporting at a later time; determining, at the user equipment , that said measurements are to be stopped; and storing, at the user equipment , information indicating a reason why said measurements are to be stopped, wherein said reason is selected from one or more of: said user equipment is in an any cell selection mode; said user equipment is camped on any cell; another radio access technology has been selected; a connection is requested; a connection state changes; and in device coexistence interference is present. determining, at a user equipment , that a plurality of measurements are to be made and results of said measurements are to be stored for reporting at a later time; determining, at the user equipment , that said measurements are to be stopped; and storing, at the user equipment , information indicating a reason why said measurements are to be stopped, wherein said reason is selected from one or more of: said user equipment is in an any cell selection mode; said user equipment is camped on any cell; another radio access technology has been selected; a connection is requested; a connection state changes; and in device coexistence interference is present.
A spot welding jig , which presses electrode leads of battery cells to be closely adhered onto a bus bar when spot welding is performed to the electrode leads interposed on the bus bar along a width direction of the electrode leads , the spot welding jig comprising: a passing portion through which a welding laser passes; and a predetermined number of barriers configured to vertically partition an inner space of the passing portion , wherein the passing portion includes a first passing portion and a second passing portion , wherein the spot welding jig comprises: a jig body configured to have the first passing portion ; and a welding guide block having a top end coupled to a lower portion of the jig body and a bottom end sized corresponding to the bus bar and the second passing portion communicating with the first passing portion , wherein the barriers are provided in the second passing portion, characterized by a mask provided to a bottom end of the jig body and having a blocking portion for absorbing the welding laser and a pattern portion for allowing the welding laser to pass. a passing portion through which a welding laser passes; and a predetermined number of barriers configured to vertically partition an inner space of the passing portion , wherein the passing portion includes a first passing portion and a second passing portion , wherein the spot welding jig comprises: a jig body configured to have the first passing portion ; and a welding guide block having a top end coupled to a lower portion of the jig body and a bottom end sized corresponding to the bus bar and the second passing portion communicating with the first passing portion , wherein the barriers are provided in the second passing portion, characterized by a mask provided to a bottom end of the jig body and having a blocking portion for absorbing the welding laser and a pattern portion for allowing the welding laser to pass. a jig body configured to have the first passing portion ; and a welding guide block having a top end coupled to a lower portion of the jig body and a bottom end sized corresponding to the bus bar and the second passing portion communicating with the first passing portion , wherein the barriers are provided in the second passing portion, characterized by a mask provided to a bottom end of the jig body and having a blocking portion for absorbing the welding laser and a pattern portion for allowing the welding laser to pass.
A seat for absorbing a force, which seat comprises a seat pan having a folded portion , wherein: (i) the seat pan is in the part of the seat which is sat on; (ii) the folded portion unfolds and deforms consequent upon receiving the force, and thereby absorbs at least a part of the force; and (iii) the seat pan is made of sheet material, characterised in that : ( iv) the folded portion extends all around the seat pan ; and ( v) the seat pan comprises side walls and a base , and the folded portion is positioned in the side walls . (i) the seat pan is in the part of the seat which is sat on; (ii) the folded portion unfolds and deforms consequent upon receiving the force, and thereby absorbs at least a part of the force; and (iii) the seat pan is made of sheet material, characterised in that : ( iv) the folded portion extends all around the seat pan ; and ( v) the seat pan comprises side walls and a base , and the folded portion is positioned in the side walls . ( iv) the folded portion extends all around the seat pan ; and ( v) the seat pan comprises side walls and a base , and the folded portion is positioned in the side walls .
An electric insulation monitoring arrangement for monitoring electric insulation in an electric system comprising a first conductor and a second conductor , the electric insulation monitoring arrangement comprising: - an insulation monitoring device comprising a primary measuring unit configured to monitor a first voltage (V 1 ) between the first conductor and ground, and a second voltage (V 2 ) between the second conductor and ground, the insulation monitoring device being configured to determine an electric insulation of the electric system based on measurement data (V 1-1 , V 2-1 ) relating to the first voltage (V 1 ) and the second voltage (V 2 ) from the primary measuring unit , characterized in that the electric insulation monitoring arrangement further comprises at least one secondary measuring unit configured to monitor the first voltage (V 1 ) and the second voltage (V 2 ) with respect to ground, wherein the at least one secondary measuring unit is provided separately from the insulation monitoring device , and that the insulation monitoring device is configured to use measurement data (V 1-2 , V 2-2 ) relating to the first voltage (V 1 ) and the second voltage (V 2 ) received from the at least one secondary measuring unit to verify the determined electric insulation. - an insulation monitoring device comprising a primary measuring unit configured to monitor a first voltage (V 1 ) between the first conductor and ground, and a second voltage (V 2 ) between the second conductor and ground, the insulation monitoring device being configured to determine an electric insulation of the electric system based on measurement data (V 1-1 , V 2-1 ) relating to the first voltage (V 1 ) and the second voltage (V 2 ) from the primary measuring unit , the electric insulation monitoring arrangement further comprises at least one secondary measuring unit configured to monitor the first voltage (V 1 ) and the second voltage (V 2 ) with respect to ground, wherein the at least one secondary measuring unit is provided separately from the insulation monitoring device , and that the insulation monitoring device is configured to use measurement data (V 1-2 , V 2-2 ) relating to the first voltage (V 1 ) and the second voltage (V 2 ) received from the at least one secondary measuring unit to verify the determined electric insulation.
An air sweeping blade, comprising a blade body , a connecting rod shaft rotationally connectable with a connecting rod being provided on the blade body , wherein the connecting rod shaft extends to an edge of the blade body along an axis of the connecting rod shaft and is fixedly connected with the blade body , such that the connecting rod shaft penetrates through the whole blade surface or a large part of the blade surface of the blade body , and serves as a reinforcement rib of the blade body , the blade body has a flexible area , a length direction of the flexible area is parallel to an axis direction of the connecting rod shaft , a width direction of the flexible area is perpendicular to the axis direction of the connecting rod shaft , and the flexible area has an opening extending along the length direction thereof, and a width of the opening is a, and a width of the flexible area is c, wherein c 1/4 ≤ a ≤ c 1/3.
A computer-implemented method comprising: receiving, from each of one or more autonomous vehicles within a fleet of autonomous vehicles, an autonomously generated information report relating to driving conditions within an environment of the autonomous vehicle along with autonomously collected sensor data collected by the autonomous vehicle from the environment; validating some of the information reports based at least in part on the sensor data, wherein validating a given one of the information reports received from the one or more autonomous vehicles comprises validating the given information report using the sensor data collected by the one of the one or more autonomous vehicles and received along with the given information report; combining validated information reports into a driving information map; periodically filtering the driving information map to remove outdated information reports; and providing portions of the driving information map to autonomous vehicles within the fleet of autonomous vehicles. receiving, from each of one or more autonomous vehicles within a fleet of autonomous vehicles, an autonomously generated information report relating to driving conditions within an environment of the autonomous vehicle along with autonomously collected sensor data collected by the autonomous vehicle from the environment; validating some of the information reports based at least in part on the sensor data, wherein validating a given one of the information reports received from the one or more autonomous vehicles comprises validating the given information report using the sensor data collected by the one of the one or more autonomous vehicles and received along with the given information report; combining validated information reports into a driving information map; periodically filtering the driving information map to remove outdated information reports; and providing portions of the driving information map to autonomous vehicles within the fleet of autonomous vehicles.
An air filter medium comprising a first porous PTFE membrane and a second porous PTFE membrane, wherein an average fiber diameter of fibers included in the first porous PTFE membrane is 0.24 to 0.45 μm, an average fiber diameter of fibers included in the second porous PTFE membrane is 0.04 to 0.23 μm, the air filter medium has a first main surface and a second main surface, and the first porous PTFE membrane and the second porous PTFE membrane are arranged so that an air flow moving from the first main surface to the second main surface passes through the first porous PTFE membrane and subsequently through the second porous PTFE membrane.
A multilayer material comprising a layer of natural stone laminated to a layer of reinforcing element wherein each layer comprises a first face and a second face opposite to the first face, and wherein said layer of reinforcing element comprises a mica plate, the second face of said layer of natural stone and the first face of said layer of reinforcing element are laminated together at least by an adhesive layer , said natural stone having a thickness from 1 mm to 10 mm, more preferably from 2 mm to 6 mm.
NO supply device comprising: - an internal passage for conveying a gaseous flow containing NO, typically a gaseous mixture NO/N 2 , - valve means for controlling the gaseous flow in the internal passage, - control means for controlling at least the valve means, - dose selection means configured to allow a user to choose or adjust an NO dose to be administered, - memory storage means configured to store at least said NO dose to be administered, - means for starting treatment, which means are actuatable by the user and cooperate with the control means in order to initiate or resume a treatment by NO, - means for stopping treatment, which means are actuatable by the user and cooperate with the control means in order to pause or definitively discontinue a treatment by NO, and - a graphic display configured to display, before the commencement of the treatment by NO, the NO dose to be administered (110; 111), or to display, during the treatment by NO, the dose administered to the patient, characterized in that the graphic display is additionally configured to continue to display the NO dose having been administered to the patient, during a downtime (dt) in which the treatment by NO is interrupted temporarily, in response to an actuation, by the user, of the means for stopping treatment. - an internal passage for conveying a gaseous flow containing NO, typically a gaseous mixture NO/N 2 , - valve means for controlling the gaseous flow in the internal passage, - control means for controlling at least the valve means, - dose selection means configured to allow a user to choose or adjust an NO dose to be administered, - memory storage means configured to store at least said NO dose to be administered, - means for starting treatment, which means are actuatable by the user and cooperate with the control means in order to initiate or resume a treatment by NO, - means for stopping treatment, which means are actuatable by the user and cooperate with the control means in order to pause or definitively discontinue a treatment by NO, and - a graphic display configured to display, before the commencement of the treatment by NO, the NO dose to be administered (110; 111), or to display, during the treatment by NO, the dose administered to the patient,
A table and chair self-balancing device, comprising a mounting housing , wherein an inner wall of the mounting housing is provided with an adjustment assembly; and the adjustment assembly comprises a cylinder shell ; the cylinder shell is fixedly connected with the inner wall of the mounting housing ; a bottom of an inner wall of the cylinder shell is fixedly connected with a return spring ; a top end of the return spring is fixedly connected with a piston ; an outer wall of the piston is sleeved with a first washer ; a top end of the piston is provided with a push rod ; a bottom of the push rod is fixedly connected with a threaded element; the threaded element is inserted into an inner wall of the piston ; the top end of the piston is further provided with an adjusting spring ; the adjusting spring is sleeved on an outer wall of the push rod ; a top end of the adjusting spring is fixedly connected with a cover ; the inner wall of the cylinder shell is provided with a silicone oil chamber ; an inner wall of the silicone oil chamber is filled with silicone oil; the top end of the piston is further provided with a first flow port , and a side of the piston is provided with a second flow port ; and an inner diameter of the second flow port is larger than an inner diameter of the first flow port .