mhurhangee/patent-ind-claim-en huggingface dataset:
Method for cooling a gas turbine (10; 10a-c), which comprises a turbine (15; 15a-c), wherein a rotor (11; 11a-c), which rotates about a machine axis , carries a plurality of rotating blades (17; 17a-c; 26a,b), which are mounted on said rotor (11; 11a-c) by means of blade roots and extend with their airfoils into a hot gas path of said gas turbine (10; 10a-c), wherein said rotor (11; 11a-c) is concentrically surrounded by a turbine vane carrier (13; 13a,b) carrying a plurality of stationary vanes (16; 16a,b), whereby said rotating blades (17; 17a-c; 26a,b) and said stationary vanes (16; 16a,b) are arranged in alternating rows in axial direction, first and second cooling systems (A, B) being provided for said turbine (15; 15a-c), whereby said first cooling system (A) uses cooling air of a first pressure and first temperature and said second cooling system (B) uses cooling air of a second pressure and second temperature substantially smaller than said first pressure and first temperature, wherein said first cooling system (A) is used to cool the airfoils of said rotating blades (17; 17a-c; 26a,b) and said turbine vane carrier (13; 13a,b) and said stationary vanes (16; 16a,b), whereby said second cooling system (B) is used to cool said rotor (11; 11a-c) and said blade roots of said rotating blades (17; 17a-c; 26a,b) in at least one row of said rotating blades (17; 17a-c; 26a,b), wherein said second cooling system (B) is isolated through high pressure seals from said first cooling system (A) and the hot gas path through the turbine (15; 15a-c), wherein, in the rotating blades (17; 17a-c; 26a,b) of said at least one row of rotating blades (17; 17a-c; 26a,b), the cooling air of the first pressure and first temperature from said first cooling system (A) is introduced below blade platforms of the rotating blades (17; 17a-c; 26a,b), enters the airfoils , exits the rotating blades (17; 17a-c; 26a,b) as leakage air (LA) and is used for film cooling and fir trees forming the blade roots receive the cooling air of the second pressure and second temperature from said second cooling system (B) through a low pressure cooling air channel , the cooling air of the second pressure and second temperature exiting through cooling air vents , characterized in that the gas turbine (10; 10a-c) comprises a heat shield attached to the rotor (11; 11a-c) by a heat shield fir tree before said at least one row of rotating blades (17; 17a-c; 26a,b) of the turbine (15; 15a-c) and comprising a triangular body with a slant , the triangular body containing a first flow path for the cooling air of the first pressure and first temperature and a second flow path for the cooling air of the second pressure and second temperature, wherein the heat shield fir tree is axially divided into a first part and a second part , which are separated by a gap, wherein the cooling air of the first pressure and first temperature is directed for the airfoil cooling by the first flow path through an entrance in the first part of the heat shield fir tree and the cooling air of the second pressure and second temperature enters the second flow path through the gap.
A coordination support system for supporting a coordination process of a plurality of services provided by a service providing apparatus , the coordination support system comprising: an accepting unit for accepting login information including user identification information and coordination identification information of the coordination process to be executed from a device ; a determining unit for determining whether coordination setting for execution of the coordination process identified by the coordination identification information is configured; a storage control unit for storing an authentication ticket and a temporary token in association with each other in case where the determining unit determines that the coordination setting is not configured, the authentication ticket indicating authentication of use of a function of the service providing apparatus executing the coordination process, and the temporary token indicating permission of use of the service providing apparatus; and a transmitting unit for transmitting setting information including address information and the temporary token to a destination indicated by a communication address of a user identified by the user identification information, the address information indicating a storage location of a setting screen on which the coordination setting for the service providing apparatus is to be configured, whereby the user is enabled to use the device to configure the coordination setting of the service providing apparatus . an accepting unit for accepting login information including user identification information and coordination identification information of the coordination process to be executed from a device ; a determining unit for determining whether coordination setting for execution of the coordination process identified by the coordination identification information is configured; a storage control unit for storing an authentication ticket and a temporary token in association with each other in case where the determining unit determines that the coordination setting is not configured, the authentication ticket indicating authentication of use of a function of the service providing apparatus executing the coordination process, and the temporary token indicating permission of use of the service providing apparatus; and a transmitting unit for transmitting setting information including address information and the temporary token to a destination indicated by a communication address of a user identified by the user identification information, the address information indicating a storage location of a setting screen on which the coordination setting for the service providing apparatus is to be configured, whereby the user is enabled to use the device to configure the coordination setting of the service providing apparatus .
A method comprising: determining that a charge session has been initiated between an apparatus and a first electronic apparatus wherein the charge session provides power from the apparatus to the first electronic apparatus; receiving an identifier indicative of the identity of the first electronic apparatus; determining a non-charging operation based, at least in part, on the identifier of the first electronic apparatus and the charge session wherein said determining is based, at least in part, on an existence of at least one rule associated with the identifier of the first electronic apparatus and the charge session, wherein the non-charging operation is identified by the rule; and causing performance of the non-charging operation, by transmitting, based on the identifier and the initiation of the charge session, a message to a second electronic apparatus, wherein the message is indicative of charge session initiation; and wherein a recipient of the message is predetermined and designated by the rule. determining that a charge session has been initiated between an apparatus and a first electronic apparatus wherein the charge session provides power from the apparatus to the first electronic apparatus; receiving an identifier indicative of the identity of the first electronic apparatus; determining a non-charging operation based, at least in part, on the identifier of the first electronic apparatus and the charge session wherein said determining is based, at least in part, on an existence of at least one rule associated with the identifier of the first electronic apparatus and the charge session, wherein the non-charging operation is identified by the rule; and causing performance of the non-charging operation, by transmitting, based on the identifier and the initiation of the charge session, a message to a second electronic apparatus, wherein the message is indicative of charge session initiation; and wherein a recipient of the message is predetermined and designated by the rule.
A composition comprising a quaternary ammonium salt detergent containing an ester group, where the quaternized detergent comprises the reaction product of: (a) the condensation product of a hydrocarbyl-substituted acylating agent and at least one of N,N-dimethylaminopropanol, N,N-diethylaminopropanol, N,N-diethylaminobutanol, 1-[2-hydroxyethyl]piperidine, 2-[2-(dimethylamine)ethoxy]-ethanol, 2-dimethylamino-2-methyl-1-propanol, N,N-diethylaminoethanol, N,N-dimethylaminoethanol, 2-dimethylamino-2-methyl-1-propanol, triethanolamine, triisopropanolamine or combinations thereof; and (b) a quaternizing agent comprising ethylene oxide, propylene oxide, butylene oxide, styrene oxide, or combinations thereof; wherein a protic solvent is present during the reaction of (a) and (b) and wherein the reaction of (a) and (b) is essentially free of any additional acid component other than an acid group present in the structure of the detergent; and wherein the hydrocarbyl-substituted acylating agent comprises the reaction product of a polyolefin and a α,β-monounsaturated C 4 to C 10 anhydride. (a) the condensation product of a hydrocarbyl-substituted acylating agent and at least one of N,N-dimethylaminopropanol, N,N-diethylaminopropanol, N,N-diethylaminobutanol, 1-[2-hydroxyethyl]piperidine, 2-[2-(dimethylamine)ethoxy]-ethanol, 2-dimethylamino-2-methyl-1-propanol, N,N-diethylaminoethanol, N,N-dimethylaminoethanol, 2-dimethylamino-2-methyl-1-propanol, triethanolamine, triisopropanolamine or combinations thereof; and (b) a quaternizing agent comprising ethylene oxide, propylene oxide, butylene oxide, styrene oxide, or combinations thereof; wherein a protic solvent is present during the reaction of (a) and (b) and wherein the reaction of (a) and (b) is essentially free of any additional acid component other than an acid group present in the structure of the detergent; and wherein the hydrocarbyl-substituted acylating agent comprises the reaction product of a polyolefin and a α,β-monounsaturated C 4 to C 10 anhydride.
A rotor assembly method , comprising: - an assembly step configured to install a stack of laminations on a rotor shaft of a rotor , wherein the stack of laminations comprises an inner portion and an outer portion which is, compared to the inner portion , more distant to the rotor shaft ; - a compression step consisting of compressing the inner portion to provoke accordingly a fan-out of the outer portion , so as to form a compact inner portion and a fan-out outer portion ; caracterised in that it further comprises - a compacting step consisting of compacting the fan-out outer portion to form a compact outer portion ; a compact lamination package comprising the compact inner portion and the compact outer portion being thus formed. - an assembly step configured to install a stack of laminations on a rotor shaft of a rotor , wherein the stack of laminations comprises an inner portion and an outer portion which is, compared to the inner portion , more distant to the rotor shaft ; - a compression step consisting of compressing the inner portion to provoke accordingly a fan-out of the outer portion , so as to form a compact inner portion and a fan-out outer portion ; caracterised in that it further comprises - a compacting step consisting of compacting the fan-out outer portion to form a compact outer portion ; a compact lamination package comprising the compact inner portion and the compact outer portion being thus formed.
A probe configured to receive an acoustic wave from an object, the probe comprising: an element having a cell structure , in which a vibration membrane having one of a pair of electrodes formed with a gap arranged therebetween is supported so that the vibration membrane can be vibrated by the acoustic wave; a light reflection layer provided at a position near the object with respect to the element and configured to reflect light; and a support layer provided between the element and the light reflection layer and configured to support the light reflection layer, characterized in that , the support layer has a rupture stress of 50 MPa or larger, and the support layer has a thickness of 30 μm or smaller. an element having a cell structure , in which a vibration membrane having one of a pair of electrodes formed with a gap arranged therebetween is supported so that the vibration membrane can be vibrated by the acoustic wave; a light reflection layer provided at a position near the object with respect to the element and configured to reflect light; and a support layer provided between the element and the light reflection layer and configured to support the light reflection layer, characterized in that , the support layer has a rupture stress of 50 MPa or larger, and the support layer has a thickness of 30 μm or smaller.
An external fixator device for fixating bone parts comprising: one or more bone fixation pins suitable for engaging a bone piece; a fixator body having a first end and a second end and an internally threaded bore extending longitudinally therethrough; a pair of opposed longitudinally extending slots (116; 126; 1116; 1126) provided in the fixator body ; a pin-holder received within the fixator body and configured to removably hold a first set of the one or more bone fixation pins , said fixation pins extending through said pair of slots (116; 126; 1116; 1126) opposed from one another via said pin-holder , wherein said pin-holder is longitudinally movable within the fixator body , whereby the position of the first set of bone fixation pins along the fixator body's longitudinal axis is controlled, wherein said pin-holder is rotatably engaged to a driving screw , said driving screw threadably engaging the internally threaded bore of the fixator body , whereby the pin-holder is longitudinally moved within the fixator body by threading and unthreading said driving screw .
Apparatus for analysing a blood sample comprising: - a dilution and analysis container suitable for containing an analysis solution obtained by dilution of the blood sample in at least one reagent, this analysis solution having a dilution rate suitable for measuring haemoglobin, - a circulation vessel comprising a parallelepipedal vessel , an injector and inlets for the sheath liquid, - a hydraulic system , - an optical measurement device for measuring leukocyte sub-populations of white blood cells contained in the analysis solution, - an electronic unit for guiding transfers and measuring the analysis solution, wherein - the dilution and analysis container is directly connected to the circulation vessel so that the analysis solution used to measure the haemoglobin level is also used to measure leukocyte sub-populations of white blood cells, with a defined dilution rate having a ratio of less than 1/160, - the circulation vessel is of the active sheath type, - the optical measurement device is associated with the circulation vessel, - the injector has an inner diameter of 200 μm, and - the circulation vessel and the hydraulic system are designed to generate a flow of the analysis solution , by active sheath hydrofocusing, having a diameter comprised between 70 and 90 μm so as to have sufficient cells for the optical measurement. - a dilution and analysis container suitable for containing an analysis solution obtained by dilution of the blood sample in at least one reagent, this analysis solution having a dilution rate suitable for measuring haemoglobin, - a circulation vessel comprising a parallelepipedal vessel , an injector and inlets for the sheath liquid, - a hydraulic system , - an optical measurement device for measuring leukocyte sub-populations of white blood cells contained in the analysis solution, - an electronic unit for guiding transfers and measuring the analysis solution, - the dilution and analysis container is directly connected to the circulation vessel so that the analysis solution used to measure the haemoglobin level is also used to measure leukocyte sub-populations of white blood cells, with a defined dilution rate having a ratio of less than 1/160, - the circulation vessel is of the active sheath type, - the optical measurement device is associated with the circulation vessel, - the injector has an inner diameter of 200 μm, and - the circulation vessel and the hydraulic system are designed to generate a flow of the analysis solution , by active sheath hydrofocusing, having a diameter comprised between 70 and 90 μm so as to have sufficient cells for the optical measurement.
A method for storing data in a tamper-proof manner in a bidirectionally linked blockchain structure , the method comprising: • generating an additional block for the blockchain structure , which includes the data to be stored; • providing a bock-independent linking function ; • generating a first block-dependent bidirectional linking function from the block-independent linking function , wherein, for the generation, a data content of the last block of the blockchain structure is used as a first parameter, and a data content of the additional block for the blockchain structure is used as a second parameter of the block-independent linking function , so that the generated first block-dependent bidirectional linking function is dependent, in pairs, both on the last block of the blockchain structure and on the additional block for the blockchain structure ; • bidirectionally linking the last block of the blockchain structure to the additional block for the blockchain structure , wherein the bidirectional linking encompasses transforming the last block of the blockchain structure into a first ciphertext, using the first block-dependent bidirectional linking function , and transforming the additional block for the blockchain structure , using the first block-dependent bidirectional linking function into a second ciphertext; and • storing the resulting extended blockchain structure , which includes the first and second ciphertexts. • generating an additional block for the blockchain structure , which includes the data to be stored; • providing a bock-independent linking function ; • generating a first block-dependent bidirectional linking function from the block-independent linking function , wherein, for the generation, a data content of the last block of the blockchain structure is used as a first parameter, and a data content of the additional block for the blockchain structure is used as a second parameter of the block-independent linking function , so that the generated first block-dependent bidirectional linking function is dependent, in pairs, both on the last block of the blockchain structure and on the additional block for the blockchain structure ; • bidirectionally linking the last block of the blockchain structure to the additional block for the blockchain structure , wherein the bidirectional linking encompasses transforming the last block of the blockchain structure into a first ciphertext, using the first block-dependent bidirectional linking function , and transforming the additional block for the blockchain structure , using the first block-dependent bidirectional linking function into a second ciphertext; and • storing the resulting extended blockchain structure , which includes the first and second ciphertexts.
A processing module for an object-detection system for a vehicle that comprises object-detection sensors (404-407), each object-detection sensor (404-407) having a memory comprising a pre-assigned, unique identifier, in which each unique identifier is a machine address for identifying a particular object-detection sensor during machine communications, the processing module configured to, in a calibration mode: receive, from each of a plurality of the object-detection sensors (404-407), a value associated with the detection of a marker ; determine a position of each of the object-detection sensors (404-407) with respect to the vehicle based on the received values associated with the detection of the marker ; and reassign respective unique identifiers of one or more of the object-detection sensors (404-407) based on the received values associated with the detection of the marker , wherein the reassigned unique identifiers are determined to correspond with a logical sequence of the object-detection sensors (404-407) based on their determined positions with respect to the vehicle . receive, from each of a plurality of the object-detection sensors (404-407), a value associated with the detection of a marker ; determine a position of each of the object-detection sensors (404-407) with respect to the vehicle based on the received values associated with the detection of the marker ; and reassign respective unique identifiers of one or more of the object-detection sensors (404-407) based on the received values associated with the detection of the marker , wherein the reassigned unique identifiers are determined to correspond with a logical sequence of the object-detection sensors (404-407) based on their determined positions with respect to the vehicle .
A line pattern projector , comprising: a light source array , including a plurality of light sources (420_1-420_4) that emit light beams, wherein the plurality of light sources are arranged along a first direction; a lens , configured to collimate the light beams; and a diffractive microlens array, MLA , configured to diffract the collimated light beams thereby to project an illumination pattern, wherein a lens pitch of the diffractive MLA with respect to the first direction is wider than a lens pitch of the diffractive MLA with respect to a second direction; wherein the illumination pattern is formed by overlapping multiple dot patterns that are projected by the light sources (420_1-420_4); and the illumination pattern includes a plurality of line light patterns in the first direction. a light source array , including a plurality of light sources (420_1-420_4) that emit light beams, wherein the plurality of light sources are arranged along a first direction; a lens , configured to collimate the light beams; and a diffractive microlens array, MLA , configured to diffract the collimated light beams thereby to project an illumination pattern, wherein a lens pitch of the diffractive MLA with respect to the first direction is wider than a lens pitch of the diffractive MLA with respect to a second direction; wherein the illumination pattern is formed by overlapping multiple dot patterns that are projected by the light sources (420_1-420_4); and the illumination pattern includes a plurality of line light patterns in the first direction.
An isolated peptide comprising: (i) a first fragment comprising the amino acid sequence of XWLXRALIKRIQAZI (SEQ ID NO: 1) and (ii) a second fragment comprising the amino acid sequence of RZLPQLVXRLVLRXS (SEQ ID NO: 2), wherein: (a) X is any amino acid except cysteine and at least one amino acid at the X positions is Y or F, and (b) Z is any amino acid but at least one amino acid at the Z positions is not methionine, and wherein the first fragment is at the N-terminal end of the second fragment. (i) a first fragment comprising the amino acid sequence of XWLXRALIKRIQAZI (SEQ ID NO: 1) and (ii) a second fragment comprising the amino acid sequence of RZLPQLVXRLVLRXS (SEQ ID NO: 2), (a) X is any amino acid except cysteine and at least one amino acid at the X positions is Y or F, and (b) Z is any amino acid but at least one amino acid at the Z positions is not methionine, and
Packaging and application device , comprising: - a container containing a product (P) to be applied, - a screen , comprising a deformable material, through which the product contained in the container exits, the container comprising a bottom , the screen being able to come into contact with the bottom of the container when the product (P) in the container has been used up, wherein the screen comprises a cellular material, the bottom of the container has a concave shape towards the screen , characterized in that the screen is able to mould itself to the shape of the bottom of the container when the product (P) in the container has been used up. - a container containing a product (P) to be applied, - a screen , comprising a deformable material, through which the product contained in the container exits,