mhurhangee/ep-ind-claims huggingface dataset:
An integrally bladed rotor comprising: an outer rim having a plurality of blades extending radially outwardly of said outer rim; and a plurality of discontinuities (88,90,92) formed at a radially outer surface of said outer rim, with one discontinuity formed between each pair of adjacent blades, wherein a plurality of channels are formed radially inwardly of a radially outer face of said outer rim, and extend through an axial width of said integrally bladed rotor, said discontinuities (88,90,92) extending from said radially outer face of said outer rim inwardly into at least one of said channels, a seal being included within each said discontinuity (88,90,92); each said discontinuity includes a first slot extending radially inwardly from said radially outer face of said outer rim, a seal holding area, and a second slot positioned radially inwardly of said seal holding area, with said seal inserted into said seal holding area, said seal holding area being wider in a circumferential direction than said first and second slots (88,92); characterised in that said discontinuities (88,90,92) extend inwardly entirely through a radial extent of said outer rim. an outer rim having a plurality of blades extending radially outwardly of said outer rim; and a plurality of discontinuities (88,90,92) formed at a radially outer surface of said outer rim, with one discontinuity formed between each pair of adjacent blades, wherein a plurality of channels are formed radially inwardly of a radially outer face of said outer rim, and extend through an axial width of said integrally bladed rotor, said discontinuities (88,90,92) extending from said radially outer face of said outer rim inwardly into at least one of said channels, a seal being included within each said discontinuity (88,90,92); each said discontinuity includes a first slot extending radially inwardly from said radially outer face of said outer rim, a seal holding area, and a second slot positioned radially inwardly of said seal holding area, with said seal inserted into said seal holding area, said seal holding area being wider in a circumferential direction than said first and second slots (88,92); characterised in that said discontinuities (88,90,92) extend inwardly entirely through a radial extent of said outer rim.
Device for heating by induction the surface of a mold, referred to as heating surface, said heating surface conferring its form to a face of the part transformed in the mold, said mold comprising a body comprising a portion made of a magnetic and heat conducting material wherein is arranged a plurality of closed cavities (22, 62) and remote from the heating surface, each cavity surrounding a field winding electrically supplied by a source of alternating current at a frequency between 100 kHz and 200 KHz, characterized in that the heat produced by induction on the walls of each cavity being transferred by conduction according to a zone of diffusion substantially tapered towards the heating surface, the distance between each cavity and the distance of these cavities with respect to the heating surface being such that the zones of diffusion of two adjacent cavities (22 1, 22 2) form an intersection on the heating surface, in such a way that the temperature resulting from this heating is substantially uniform over said heating surface.
An engine-exhaust-energy recovery device comprising: a power turbine driven by exhaust gas guided from an engine body of a marine diesel engine; a gas-inlet control valve provided at an intermediate point in an exhaust pipe that guides the exhaust gas from the engine body to the power turbine; a generator driven by the power turbine; and a control unit (22, 23) that adjusts the degree-of-opening of the gas-inlet control valve according to the difference between the amount of power generated by the generator and the amount of power needed in a ship, characterized in that when the degree-of-opening of the gas-inlet control valve reaches a predetermined threshold and the amount of power generated by the generator is smaller than the amount of power needed in the ship, a control command to delay fuel-injection timing and/or a control command to advance exhaust-valve opening timing are output from the control unit (22, 23) to the engine body according to the difference between the amount of power generated by the generator and the amount of power needed in the ship. a power turbine driven by exhaust gas guided from an engine body of a marine diesel engine; a gas-inlet control valve provided at an intermediate point in an exhaust pipe that guides the exhaust gas from the engine body to the power turbine; a generator driven by the power turbine; and a control unit (22, 23) that adjusts the degree-of-opening of the gas-inlet control valve according to the difference between the amount of power generated by the generator and the amount of power needed in a ship, characterized in that when the degree-of-opening of the gas-inlet control valve reaches a predetermined threshold and the amount of power generated by the generator is smaller than the amount of power needed in the ship, a control command to delay fuel-injection timing and/or a control command to advance exhaust-valve opening timing are output from the control unit (22, 23) to the engine body according to the difference between the amount of power generated by the generator and the amount of power needed in the ship.
A computer-implemented method for controlling an operation of a technical system automatically, comprising at least the steps of: acquiring information about a modified configuration of at least one sub-system included in the technical system; generating an encrypted virtual model of the technical system including the at least one sub-system with the modified configuration for an evaluation of the operation; adjusting the encrypted virtual model to provide a control instruction for the operation of the technical system, wherein the adjusted encrypted virtual model is configured to compare an evaluation value acquired from the evaluation with a target requirement in a cryptographic environment and to derive the control instruction based on the comparison, and wherein the evaluation value is only provided to an authorized user; and controlling the operation of the technical system based on the control instruction, wherein the control instruction instructs whether to stop or continue the operation of the technical system, or includes restriction information to operate the technical system under a restricted condition, wherein the evaluation for the operation is at least one of a Fault Tree Analysis, FTA, a Reliability, Availability, Maintainability, and Safety analysis, RAMS analysis, a Failure Mode and Effects Analysis, FMEA. acquiring information about a modified configuration of at least one sub-system included in the technical system; generating an encrypted virtual model of the technical system including the at least one sub-system with the modified configuration for an evaluation of the operation; adjusting the encrypted virtual model to provide a control instruction for the operation of the technical system, wherein the adjusted encrypted virtual model is configured to compare an evaluation value acquired from the evaluation with a target requirement in a cryptographic environment and to derive the control instruction based on the comparison, and wherein the evaluation value is only provided to an authorized user; and controlling the operation of the technical system based on the control instruction, wherein the control instruction instructs whether to stop or continue the operation of the technical system, or includes restriction information to operate the technical system under a restricted condition, wherein the evaluation for the operation is at least one of a Fault Tree Analysis, FTA, a Reliability, Availability, Maintainability, and Safety analysis, RAMS analysis, a Failure Mode and Effects Analysis, FMEA.
A phakic intraocular lens for implantation between an iris and a crystalline lens, comprising: a diffraction grating that is disposed in a central part of the lens and has circular, coaxial grooves (5a, 5b, 5c, 5d) formed thereon, wherein a hole is formed in a center of the diffraction grating, wherein the diffraction grating forms a single focal point by having the grooves (5a, 5b, 5c, 5d) which are formed such that the farther an interval between the grooves (5a, 5b, 5c, 5d) is from the center of the diffraction grating, the smaller the interval is, the grooves (5a, 5b, 5c, 5d) being provided with serrated portions (5A, 5B, 5C) whose height D is adjusted to a constant value by D(nL-nW)=λ, wherein λ is wavelength of light, nL is an index of refraction of the lens, and nW is an index of refraction of aqueous humor; and a support part that is disposed outside the diffraction grating and supports the diffraction grating, wherein the diffraction grating includes a flat portion in the serrated portion corresponding to the center of the diffraction grating. a diffraction grating that is disposed in a central part of the lens and has circular, coaxial grooves (5a, 5b, 5c, 5d) formed thereon, wherein a hole is formed in a center of the diffraction grating, wherein the diffraction grating forms a single focal point by having the grooves (5a, 5b, 5c, 5d) which are formed such that the farther an interval between the grooves (5a, 5b, 5c, 5d) is from the center of the diffraction grating, the smaller the interval is, the grooves (5a, 5b, 5c, 5d) being provided with serrated portions (5A, 5B, 5C) whose height D is adjusted to a constant value by D(nL-nW)=λ, wherein λ is wavelength of light, nL is an index of refraction of the lens, and nW is an index of refraction of aqueous humor; and a support part that is disposed outside the diffraction grating and supports the diffraction grating, wherein the diffraction grating includes a flat portion in the serrated portion corresponding to the center of the diffraction grating.
A method of detecting the presence of a target HPV 16 mRNA, the method comprising: a) providing at least one DNA capture probe that specifically hybridizes to the target HPV 16 mRNA under high stringency conditions and which does not hybridize to a genome of another HPV under stringent conditions, wherein the at least one DNA capture probe is bound to a support; b) hybridizing the target RNA to said at least one DNA capture probe, yielding a target RNA:DNA capture probe complex; c) isolating the target RNA:DNA capture probe complex; d) providing at least one DNA amplification probe complementary to, but not specific for, the target HPV mRNA, and hybridizing said at least one DNA amplification probe to said target RNA:DNA capture probe complex, yielding a target RNA:DNA capture/amplification probe complex; e) providing an anti-RNA:DNA hybrid antibody, and incubating said target RNA:DNA capture/amplification probe complex with said antibody, yielding a target RNA:DNA:antibody complex; f) detecting said antibody, wherein said detecting indicates the presence of said target RNA, wherein the capture probe comprises an isolated deoxyribonucleic acid having an overall length of not more than 50 nucleotides comprising at least one nucleotide sequence having at least 90-percent homology to a nucleotide sequence selected from the group consisting of SEQ ID NO: 1 to SEQ ID NO: 10, wherein the nucleic acid is capable of hybridizing under high stringency_conditions to an mRNA transcript derived from an HPV16 genome, and wherein the nucleic acid is not capable of hybridizing under stringent conditions to more than one type of HPV genome. a) providing at least one DNA capture probe that specifically hybridizes to the target HPV 16 mRNA under high stringency conditions and which does not hybridize to a genome of another HPV under stringent conditions, wherein the at least one DNA capture probe is bound to a support; b) hybridizing the target RNA to said at least one DNA capture probe, yielding a target RNA:DNA capture probe complex; c) isolating the target RNA:DNA capture probe complex; d) providing at least one DNA amplification probe complementary to, but not specific for, the target HPV mRNA, and hybridizing said at least one DNA amplification probe to said target RNA:DNA capture probe complex, yielding a target RNA:DNA capture/amplification probe complex; e) providing an anti-RNA:DNA hybrid antibody, and incubating said target RNA:DNA capture/amplification probe complex with said antibody, yielding a target RNA:DNA:antibody complex; f) detecting said antibody, wherein said detecting indicates the presence of said target RNA,
An image capture device comprising: a lens unit that includes a lens; a supporting member configured to support the lens unit and to rotate in a predetermined rotating direction with the lens unit; a rotation regulating member configured to regulate rotation of the supporting member by coming into contact with the supporting member while the supporting member is rotating; and a move permitting part configured to permit the rotation regulating member being in contact with the supporting member to move a predetermined amount in the rotating direction in a manner that the supporting member is rotatable 360 degrees or more in the rotating direction; characterized in that a rotation axis of the rotation regulating member and a rotation axis of the supporting member are the same, and in that a rotation direction of the rotation regulating member is the same as a rotation direction of the supporting member while the rotation regulating member is moving and is in contact with the supporting member. a lens unit that includes a lens; a supporting member configured to support the lens unit and to rotate in a predetermined rotating direction with the lens unit; a rotation regulating member configured to regulate rotation of the supporting member by coming into contact with the supporting member while the supporting member is rotating; and a move permitting part configured to permit the rotation regulating member being in contact with the supporting member to move a predetermined amount in the rotating direction in a manner that the supporting member is rotatable 360 degrees or more in the rotating direction; characterized in that a rotation axis of the rotation regulating member and a rotation axis of the supporting member are the same, and in that a rotation direction of the rotation regulating member is the same as a rotation direction of the supporting member while the rotation regulating member is moving and is in contact with the supporting member.
DASH client configured to if a predetermined descriptor is present in a media presentation descriptor, MPD, the predetermined descriptor indicating, for a certain representation, switch-to representations which are of different qualities and available for being switched to, schedule a transition phase (64, 84), which is one segment length long, before switching from the certain representation to a predetermined switch-to representation, during which, as an additional media stream, an auxiliary stream which is comprised by, or separated from, the certain representation in addition to a media stream of the certain representation indicated by a @codecs attribute at the certain representation, is to be decoded, wherein a @switchableTo attribute indicates that switching is allowed and that the auxiliary stream is present for the predetermined switch-to representation, wherein a @switchingTimeSwitch or @numSwitchRepSegments attribute provides timing indication indicating time before that the auxiliary stream is decoded in addition to the media stream of the certain representation, wherein the DASH client is configured to decide, based on the @switchingTimeSwitch or @numSwitchRepSegments attribute, whether to switch to the predetermined switch-to representation or not, wherein a @switchingMimeType attribute specifies required capabilities when the auxiliary stream is decoded in addition to the media stream of the certain representation. if a predetermined descriptor is present in a media presentation descriptor, MPD, the predetermined descriptor indicating, for a certain representation, switch-to representations which are of different qualities and available for being switched to, schedule a transition phase (64, 84), which is one segment length long, before switching from the certain representation to a predetermined switch-to representation, during which, as an additional media stream, an auxiliary stream which is comprised by, or separated from, the certain representation in addition to a media stream of the certain representation indicated by a @codecs attribute at the certain representation, is to be decoded, wherein a @switchableTo attribute indicates that switching is allowed and that the auxiliary stream is present for the predetermined switch-to representation, wherein a @switchingTimeSwitch or @numSwitchRepSegments attribute provides timing indication indicating time before that the auxiliary stream is decoded in addition to the media stream of the certain representation, wherein the DASH client is configured to decide, based on the @switchingTimeSwitch or @numSwitchRepSegments attribute, whether to switch to the predetermined switch-to representation or not, wherein a @switchingMimeType attribute specifies required capabilities when the auxiliary stream is decoded in addition to the media stream of the certain representation.
A meat mincing attachment comprising: a coupling flange having a receiver part for removably coupling the flange to a driven source, a feed tube connected with the coupling flange, the feed tube having a feeding axis, an auger tube removably securable to the coupling flange by a first rotationally releasable connection, the auger tube having a mincing axis that is orthogonal to the feeding axis, an auger removably located within the auger tube and having an auger blade for transporting food pieces along the auger tube towards a mincing end, and a mincing disk removably disposed at the mincing end of the auger tube and supporting a mincing end of the auger, the mincing disk secured by a retaining ring connectable to the mincing end of the auger tube by a second rotationally releasable connection. a coupling flange having a receiver part for removably coupling the flange to a driven source, a feed tube connected with the coupling flange, the feed tube having a feeding axis, an auger tube removably securable to the coupling flange by a first rotationally releasable connection, the auger tube having a mincing axis that is orthogonal to the feeding axis, an auger removably located within the auger tube and having an auger blade for transporting food pieces along the auger tube towards a mincing end, and a mincing disk removably disposed at the mincing end of the auger tube and supporting a mincing end of the auger, the mincing disk secured by a retaining ring connectable to the mincing end of the auger tube by a second rotationally releasable connection.
Pump unit for a high-pressure pump, comprising: - a pump housing which has a low-pressure inlet via which a working medium is fed to a working chamber which is formed in the pump housing, and a high-pressure outlet via which the working medium is discharged from the working chamber, - a pump piston channel which is formed in the pump housing and has a longitudinal axis, - a first pump piston which is arranged movably along the longitudinal axis in the pump piston channel and which is coupled hydraulically to the working chamber, and - a second pump piston which is arranged movably along the longitudinal axis in the pump piston channel and is coupled hydraulically via a compensation volume to the first pump piston, wherein the compensation volume is coupled hydraulically to a compensation unit which is configured to adapt the compensation volume in a manner which is dependent on a pressure in the working chamber. - a pump housing which has a low-pressure inlet via which a working medium is fed to a working chamber which is formed in the pump housing, and a high-pressure outlet via which the working medium is discharged from the working chamber, - a pump piston channel which is formed in the pump housing and has a longitudinal axis, - a first pump piston which is arranged movably along the longitudinal axis in the pump piston channel and which is coupled hydraulically to the working chamber, and - a second pump piston which is arranged movably along the longitudinal axis in the pump piston channel and is coupled hydraulically via a compensation volume to the first pump piston, wherein the compensation volume is coupled hydraulically to a compensation unit which is configured to adapt the compensation volume in a manner which is dependent on a pressure in the working chamber.
A blockchain implemented method of controlling use of and/or access to a resource, the method comprising the steps: generating a blockchain transaction (TxA) indicative of a condition on use of, or access to, the resource for a specified period of time, the blockchain transaction comprising a multi-signature script requiring a plurality of signatures for completion of the blockchain transaction, wherein the specified period of time is defined within a smart contract which is stored off-blockchain and referenced in the blockchain transaction (TxA) using metadata to point to the location of the smart contract; providing a first subset of the plurality of signatures to the blockchain transaction (TxA) to generate a partially signed signature script to partially complete the blockchain transaction; responsive to the condition on the use of/access to the resource being satisfied, providing a second subset of the plurality of signatures to the blockchain transaction to fully complete the blockchain transaction. generating a blockchain transaction (TxA) indicative of a condition on use of, or access to, the resource for a specified period of time, the blockchain transaction comprising a multi-signature script requiring a plurality of signatures for completion of the blockchain transaction, wherein the specified period of time is defined within a smart contract which is stored off-blockchain and referenced in the blockchain transaction (TxA) using metadata to point to the location of the smart contract; providing a first subset of the plurality of signatures to the blockchain transaction (TxA) to generate a partially signed signature script to partially complete the blockchain transaction; responsive to the condition on the use of/access to the resource being satisfied, providing a second subset of the plurality of signatures to the blockchain transaction to fully complete the blockchain transaction.