mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a circuit board configured to propagate an electromagnetic signal; a waveguide configured to propagate an electromagnetic signal, wherein the waveguide comprises: a first block including a first half of a waveguide channel formed into the first block; and a second block including a second half of the waveguide channel formed into the second block, wherein the first block and the second block are joined together in a split block construction such that the first half of the waveguide channel and the second half of the waveguide channel are combined to form the waveguide channel; and a coupling port configured to couple a signal between the circuit board and the waveguide, wherein the coupling port comprises a through-hole formed through a surface of the first block, the through-hole of the coupling port having portions of different dimensions based on a desired impedance of the coupling port. a circuit board configured to propagate an electromagnetic signal; a waveguide configured to propagate an electromagnetic signal, wherein the waveguide comprises: a first block including a first half of a waveguide channel formed into the first block; and a second block including a second half of the waveguide channel formed into the second block, wherein the first block and the second block are joined together in a split block construction such that the first half of the waveguide channel and the second half of the waveguide channel are combined to form the waveguide channel; and a first block including a first half of a waveguide channel formed into the first block; and a second block including a second half of the waveguide channel formed into the second block, wherein the first block and the second block are joined together in a split block construction such that the first half of the waveguide channel and the second half of the waveguide channel are combined to form the waveguide channel; and a coupling port configured to couple a signal between the circuit board and the waveguide, wherein the coupling port comprises a through-hole formed through a surface of the first block, the through-hole of the coupling port having portions of different dimensions based on a desired impedance of the coupling port.
An apparatus for determination of a heart rate and/or heart rate variability by detection of heartbeats of a subject, the apparatus comprising: a photoplethysmograph sensor configured to detect the heartbeats of the subject and provide a first measurement signal influenced by the heartbeats; a skin conductance sensor configured to detect the heartbeats of the subject and provide a second measurement signal influenced by the heartbeats; and a processing unit configured to receive the first measurement signal and the second measurement signal, wherein the processing unit is configured to analyze and determine a reliability of one or more of the first measurement signal or the second measurement signal to identify the heartbeats; wherein analysis of the second measurement signal comprises analyzing a waveform ripple; and to select or deselect one or more of the first signal or the second signal to determine the heart rate or the heart rate variability of the subject based on the determined reliability. a photoplethysmograph sensor configured to detect the heartbeats of the subject and provide a first measurement signal influenced by the heartbeats; a skin conductance sensor configured to detect the heartbeats of the subject and provide a second measurement signal influenced by the heartbeats; and a processing unit configured to receive the first measurement signal and the second measurement signal, wherein the processing unit is configured to analyze and determine a reliability of one or more of the first measurement signal or the second measurement signal to identify the heartbeats; wherein analysis of the second measurement signal comprises analyzing a waveform ripple; and to select or deselect one or more of the first signal or the second signal to determine the heart rate or the heart rate variability of the subject based on the determined reliability.
A gas turbine engine configured to combust gaseous hydrogen fuel, the gas turbine engine comprising: a combustor comprising an annular combustion chamber outer casing having an annular wall , surrounding an inner combustor case and a fuel manifold configured to provide gaseous fuel to a plurality of fuel injectors ; wherein the fuel manifold is formed integrally with the combustion chamber outer casing ; and each fuel injector is coupled to the fuel manifold via a coupling provided within the combustion chamber outer casing , wherein the fuel manifold is provided on a radially outer side of the combustion chamber outer casing wall ; characterised in that : each fuel injector is coupled to the fuel manifold via a respective fuel feed arm ; the fuel manifold is joined to the combustion chamber outer casing wall by the fuel feed arms , and is spaced from the combustion chamber outer casing annular wall by the fuel feed arms , wherein each fuel feed arm is integral with the fuel manifold . a combustor comprising an annular combustion chamber outer casing having an annular wall , surrounding an inner combustor case and a fuel manifold configured to provide gaseous fuel to a plurality of fuel injectors ; wherein the fuel manifold is formed integrally with the combustion chamber outer casing ; and each fuel injector is coupled to the fuel manifold via a coupling provided within the combustion chamber outer casing , wherein the fuel manifold is provided on a radially outer side of the combustion chamber outer casing wall ; characterised in that : each fuel injector is coupled to the fuel manifold via a respective fuel feed arm ; the fuel manifold is joined to the combustion chamber outer casing wall by the fuel feed arms , and is spaced from the combustion chamber outer casing annular wall by the fuel feed arms , wherein each fuel feed arm is integral with the fuel manifold . each fuel injector is coupled to the fuel manifold via a respective fuel feed arm ; the fuel manifold is joined to the combustion chamber outer casing wall by the fuel feed arms , and is spaced from the combustion chamber outer casing annular wall by the fuel feed arms , wherein each fuel feed arm is integral with the fuel manifold .
Box for electrical control gear that is intended to contain electrical control gear and to receive electrical sockets of various sizes on the front face of the cover, having coupling zones for the sockets, each of the coupling zones for the sockets, produced during moulding of said cover, having multiple groups of cavities in the corners of said coupling zones, each group corresponding to the exact dimensions of a different socket, allowing the installer to select the desired group of cavities for inserting the fixing screws at the time of installation, characterized in that said cover is made up of two parts, a base part and an adapting part , the base part having a main hole for fitting and/or connection of a socket and said coupling zones, and in that the coupling zones comprise a group of adapting holes that receive combined projections of the adapting part, the adapting part having a first group and a second group of the aforementioned groups of cavities, each group of projections having at least one of said first and second groups of cavities , and both the first group of projections and the second group of projections can fit indiscriminately in said adapting holes.
A computer-implemented method of additive manufacturing of a three-dimensional part, comprising: - providing (S10) a surface representation of a 3D part in a 3D scene, the surface representation being enclosed inside a bounding volume; - discretizing (S20) the 3D scene into voxels; - forming (S30) an unsigned distance field by storing a minimal distance value to the surface representation of the 3D part for each voxel; - determining (S40) one or more voxels located outside the bounding volume, the one or more voxels located outside the bounding volume being associated with a label; - propagating by flood filling (S50) the label from a labelled voxel to a neighbor unlabelled voxel if the minimal distance value of the neighbor unlabeled voxel is equal or lower than the minimal distance value of the labelled voxel; - inverting (S60) the sign of the minimum distance value of all unlabelled voxels so as to obtain a signed distance field; - computing (S70) an iso-surface of the 3D part at iso-value zero based on the signed distance field; and - additive manufacturing (S80) the 3D part from the iso-surface. - providing (S10) a surface representation of a 3D part in a 3D scene, the surface representation being enclosed inside a bounding volume; - discretizing (S20) the 3D scene into voxels; - forming (S30) an unsigned distance field by storing a minimal distance value to the surface representation of the 3D part for each voxel; - determining (S40) one or more voxels located outside the bounding volume, the one or more voxels located outside the bounding volume being associated with a label; - propagating by flood filling (S50) the label from a labelled voxel to a neighbor unlabelled voxel if the minimal distance value of the neighbor unlabeled voxel is equal or lower than the minimal distance value of the labelled voxel; - inverting (S60) the sign of the minimum distance value of all unlabelled voxels so as to obtain a signed distance field; - computing (S70) an iso-surface of the 3D part at iso-value zero based on the signed distance field; and - additive manufacturing (S80) the 3D part from the iso-surface.
A method for wireless communication, the method being performed by a user equipment, UE, and comprising: selecting an autonomous uplink mode for transmission in an unlicensed radio frequency spectrum band, wherein the autonomous uplink mode supports unscheduled uplink transmissions; performing a successful clear channel assessment, CCA, wherein a format of the CCA is based at least in part on the autonomous uplink mode; determining characteristics of another UE based on the successful CCA; transmitting a first channel clearance signal based at least in part on selecting the autonomous uplink mode, wherein the first channel clearance signal is transmitted based at least in part on the successful CCA and wherein the transmission power level of the first channel clearance signal is based at least in part on the determined characteristics of the other UE; receiving a second channel clearance signal from a base station in response to the first channel clearance signal; and transmitting an uplink message in the unlicensed radio frequency spectrum band according to the autonomous uplink mode, wherein the uplink message is transmitted based at least in part on receiving the second channel clearance signal. selecting an autonomous uplink mode for transmission in an unlicensed radio frequency spectrum band, wherein the autonomous uplink mode supports unscheduled uplink transmissions; performing a successful clear channel assessment, CCA, wherein a format of the CCA is based at least in part on the autonomous uplink mode; determining characteristics of another UE based on the successful CCA; transmitting a first channel clearance signal based at least in part on selecting the autonomous uplink mode, wherein the first channel clearance signal is transmitted based at least in part on the successful CCA and wherein the transmission power level of the first channel clearance signal is based at least in part on the determined characteristics of the other UE; receiving a second channel clearance signal from a base station in response to the first channel clearance signal; and transmitting an uplink message in the unlicensed radio frequency spectrum band according to the autonomous uplink mode, wherein the uplink message is transmitted based at least in part on receiving the second channel clearance signal.
A method of operating a polyolefin manufacturing system, comprising: polymerizing olefin in a first loop slurry reactor having a first reactor pump to form a first polyolefin; transferring the first polyolefin to a second loop slurry reactor having a second reactor pump, wherein the transfer of the first polyolefin from the first loop slurry reactor to the second loop slurry reactor is a continuous discharge and wherein the continuous discharge is controlled by a pressure drop from the first reactor pump to the second reactor pump; polymerizing olefin in the second loop slurry reactor to form a second polyolefin; discharging a product polyolefin from the second loop slurry reactor, the product polyolefin comprising the first polyolefin and the second polyolefin; and operating the first loop slurry reactor with a first reactor pressure relief system and the second loop slurry reactor with a second reactor pressure relief system, both pressure relief systems configured to discharge to a flare system; wherein the polyolefin manufacturing system comprises a relief instrumented system (RIS) configured to direct at least one process interlock that mitigates an excess reaction scenario of the first loop slurry reactor or the second loop slurry reactor, or both, as an overpressure relief scenario. polymerizing olefin in a first loop slurry reactor having a first reactor pump to form a first polyolefin; transferring the first polyolefin to a second loop slurry reactor having a second reactor pump, wherein the transfer of the first polyolefin from the first loop slurry reactor to the second loop slurry reactor is a continuous discharge and wherein the continuous discharge is controlled by a pressure drop from the first reactor pump to the second reactor pump; polymerizing olefin in the second loop slurry reactor to form a second polyolefin; discharging a product polyolefin from the second loop slurry reactor, the product polyolefin comprising the first polyolefin and the second polyolefin; and operating the first loop slurry reactor with a first reactor pressure relief system and the second loop slurry reactor with a second reactor pressure relief system, both pressure relief systems configured to discharge to a flare system; wherein the polyolefin manufacturing system comprises a relief instrumented system (RIS) configured to direct at least one process interlock that mitigates an excess reaction scenario of the first loop slurry reactor or the second loop slurry reactor, or both, as an overpressure relief scenario.
A heat-shrink device for a heat-shrink label (L), comprising: a container-supporting means for supporting a container (V) provided with a heat-shrink label (L); a heating cylinder arranged below the container-supporting means and capable of accommodating a container (V) supported by the container supporting means ; a heating means for heating the inside of the heating cylinder ; an elevating means for relatively raising and lowering the container-supporting means and the heating cylinder ; and a control means for controlling the elevating means ; the control means being configured to relatively raise and lower the container-supporting means and the heating cylinder so that the bottom of the container (V) is inserted from the upper end of the heating cylinder by the elevating means , and thereby the container is positioned in the heating cylinder for a predetermined time by controlling the speed of the elevating means to heat shrink the label (L) provided on the container (V); wherein the heating means comprises an injection nozzle that injects steam inside of the heating cylinder , and a steam supply means that supplies steam to the injection nozzle ; characterized in that the heating cylinder comprises an inner cylinder , in which the outlet of the injection nozzle facing the inside is provided, and an outer cylinder , in which the upper end extends above the inner cylinder covering at least the upper part of the inner cylinder and which is arranged at a distance from the inner cylinder . a container-supporting means for supporting a container (V) provided with a heat-shrink label (L); a heating cylinder arranged below the container-supporting means and capable of accommodating a container (V) supported by the container supporting means ; a heating means for heating the inside of the heating cylinder ; an elevating means for relatively raising and lowering the container-supporting means and the heating cylinder ; and a control means for controlling the elevating means ; the control means being configured to relatively raise and lower the container-supporting means and the heating cylinder so that the bottom of the container (V) is inserted from the upper end of the heating cylinder by the elevating means , and thereby the container is positioned in the heating cylinder for a predetermined time by controlling the speed of the elevating means to heat shrink the label (L) provided on the container (V); wherein the heating means comprises an injection nozzle that injects steam inside of the heating cylinder , and a steam supply means that supplies steam to the injection nozzle ; characterized in that the heating cylinder comprises an inner cylinder , in which the outlet of the injection nozzle facing the inside is provided, and an outer cylinder , in which the upper end extends above the inner cylinder covering at least the upper part of the inner cylinder and which is arranged at a distance from the inner cylinder .
A block copolymer comprising: at least one polymeric block of monoalkenyl arene and at least one polymer block of myrcene and having i) a general structure (S-M-Bd)nX being obtainable by a method comprising the steps of (a) introducing into a reactor, a monoalkenyl arene and an organolithium initiator; (b) polymerizing said monoalkenyl arene to form a polymer block (S) of the monoalkenyl arene; introducing myrcene into said reactor; (c) continuing polymerizing myrcene to form a polymer block (M) of myrcene; and (d) introducing between at least one molecule of butadiene per myrcene block up to 3 wt.%, based on the total weight of the block copolymer, of butadiene (Bd) monomer and polymerizing said monomer; and (e) introducing a coupling agent into said reactor to form the coupled block copolymer, or having ii) a general structure (S-M-S')nX or (S-M)nX, where S and S' are polymer blocks of a monoalkenyl arene, M is a polymer block of myrcene, X represents the residue of a couling agent, and n is an integer from 1 to 30; said block copolymer having 50 wt. % or less of the monoalkenyl arene and a melt flow rate of greater than 50 grams/10 min. at 200°C and 5 kg weight according to ASTM D1238and said monoalkenyl arene being selected from the group consisting of styrene, alpha-methylstyrene, methylstyrene, p-tertbutylstyrene, dimethylstyrene and mixtures thereof. (a) introducing into a reactor, a monoalkenyl arene and an organolithium initiator; (b) polymerizing said monoalkenyl arene to form a polymer block (S) of the monoalkenyl arene; introducing myrcene into said reactor; (c) continuing polymerizing myrcene to form a polymer block (M) of myrcene; and (d) introducing between at least one molecule of butadiene per myrcene block up to 3 wt.%, based on the total weight of the block copolymer, of butadiene (Bd) monomer and polymerizing said monomer; and (e) introducing a coupling agent into said reactor to form the coupled block copolymer, or having ii) a general structure (S-M-S')nX or (S-M)nX, where S and S' are polymer blocks of a monoalkenyl arene, M is a polymer block of myrcene, X represents the residue of a couling agent, and n is an integer from 1 to 30; said block copolymer having 50 wt. % or less of the monoalkenyl arene and a melt flow rate of greater than 50 grams/10 min. at 200°C and 5 kg weight according to ASTM D1238and said monoalkenyl arene being selected from the group consisting of styrene, alpha-methylstyrene, methylstyrene, p-tertbutylstyrene, dimethylstyrene and mixtures thereof.
A compound of the Formula: wherein: R 1 is -CH 2 CH(CH 3 ) 2 , -CH 2 CH 3 , -CH 2 CH 2 OCH 3 , or -CH 2 -cyclopropyl; R 2 is -CH 3 or -CH 2 CH 3 ; and X is N or CH, or a pharmaceutically acceptable salt thereof; for use in treating cancer in a human subject having an IDH1 R132 mutation and one or more secondary IDH1 mutations. R 1 is -CH 2 CH(CH 3 ) 2 , -CH 2 CH 3 , -CH 2 CH 2 OCH 3 , or -CH 2 -cyclopropyl; R 2 is -CH 3 or -CH 2 CH 3 ; and X is N or CH, or a pharmaceutically acceptable salt thereof; for use in treating cancer in a human subject having an IDH1 R132 mutation and one or more secondary IDH1 mutations.
A powder container for handling powder in an additive manufacturing process, wherein the powder container comprises at least: - a powder vessel enclosing a vessel volume for storing said powder, - a vessel support structure supporting the powder vessel , - a set N of n sensors for determining a set of n observables, wherein n is an integer greater or equal two, i.e., n ∈ {2, 3, 4, ..., n max }, - a set L of l actuators for driving at least one mechanical device of the powder container , wherein l is a positive integer number, characterized in that the powder container further comprises at least transportation means being attached to the vessel support structure , a multi-port connector configured to be connected with a corresponding connector of a powder handling station in an additive manufacturing process, wherein the multi-port connector is a plug-connector or a socket connector having a number of ports, and in that each sensor of a subset M of m sensors of the set N of n sensors, where m is an integer number with 2 ≤ m ≤ n, is connected via a separate measurement line to a separate port of the multi-port connector and/or in that each actuator of at least a subset K of k actuators of the set L of l actuators, where k is an integer number with 2 ≤ k ≤ l , is connected via a separate actuator control line to a separate contact and/or port of the multi-port connector . - a powder vessel enclosing a vessel volume for storing said powder, - a vessel support structure supporting the powder vessel , - a set N of n sensors for determining a set of n observables, wherein n is an integer greater or equal two, i.e., n ∈ {2, 3, 4, ..., n max }, - a set L of l actuators for driving at least one mechanical device of the powder container , wherein l is a positive integer number, characterized in that the powder container further comprises at least transportation means being attached to the vessel support structure , a multi-port connector configured to be connected with a corresponding connector of a powder handling station in an additive manufacturing process, wherein the multi-port connector is a plug-connector or a socket connector having a number of ports, and in that each sensor of a subset M of m sensors of the set N of n sensors, where m is an integer number with 2 ≤ m ≤ n, is connected via a separate measurement line to a separate port of the multi-port connector and/or in that each actuator of at least a subset K of k actuators of the set L of l actuators, where k is an integer number with 2 ≤ k ≤ l , is connected via a separate actuator control line to a separate contact and/or port of the multi-port connector .
Niraparib, abiraterone acetate, and prednisone for use in a method for treating a prostate cancer comprising administering to a patient in need thereof a therapeutically effective amount of niraparib, a therapeutically effective amount of abiraterone acetate, and a therapeutically effective amount of prednisone.