mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a power generating subsystem that is connected to a power generating system at a point of interconnection, POI, the method comprising: receiving at a subsystem controller of the power generating subsystem, a first data signal corresponding to a feedback signal of an electrical parameter contributed by the power generating subsystem to the POI, the electrical parameter measured remote from the power generating subsystem prior to integration with electrical parameters from other power generating subsystems at the POI, the electrical parameter being one of power factor or reactive power and the first data signal having a first signal fidelity; receiving at the subsystem controller, a second data signal indicative of the electrical parameter generated at the power generating subsystem, the second data signal measured at the power generating subsystem and having a second signal fidelity that is higher than the first signal fidelity; with the subsystem controller, generating a correlation value between the first and second data signals by filtering a value difference between the first and second data signals and applying the correlation value to a setpoint value for the electrical parameter at the POI to generate a modified setpoint value; and with the subsystem controller, using the modified setpoint value and the second data signal to generate a setpoint command for the power generating subsystem and controlling generation of power at the power generating subsystem using the setpoint command to achieve the setpoint value for the electrical parameter at the POI. receiving at a subsystem controller of the power generating subsystem, a first data signal corresponding to a feedback signal of an electrical parameter contributed by the power generating subsystem to the POI, the electrical parameter measured remote from the power generating subsystem prior to integration with electrical parameters from other power generating subsystems at the POI, the electrical parameter being one of power factor or reactive power and the first data signal having a first signal fidelity; receiving at the subsystem controller, a second data signal indicative of the electrical parameter generated at the power generating subsystem, the second data signal measured at the power generating subsystem and having a second signal fidelity that is higher than the first signal fidelity; with the subsystem controller, generating a correlation value between the first and second data signals by filtering a value difference between the first and second data signals and applying the correlation value to a setpoint value for the electrical parameter at the POI to generate a modified setpoint value; and with the subsystem controller, using the modified setpoint value and the second data signal to generate a setpoint command for the power generating subsystem and controlling generation of power at the power generating subsystem using the setpoint command to achieve the setpoint value for the electrical parameter at the POI.
A data-bearing medium , comprising: a section of a plurality of cells having a set of opposite-shifted clusters , wherein the set of opposite-shifted clusters includes clusters of a first shift with respect to the cell boundaries and clusters of a second shift with respect to the cell boundaries, the second shift being opposite to the first shift, wherein the plurality of cells includes a combination of clusters of opposite shifts of the set of opposite-shifted clusters representing a single value . a section of a plurality of cells having a set of opposite-shifted clusters , wherein the set of opposite-shifted clusters includes clusters of a first shift with respect to the cell boundaries and clusters of a second shift with respect to the cell boundaries, the second shift being opposite to the first shift, wherein the plurality of cells includes a combination of clusters of opposite shifts of the set of opposite-shifted clusters representing a single value .
A surgical instrument comprising: a surgical effector having multiple degrees of movement; a wrist coupled to the surgical effector, the wrist including a distal clevis , a proximal clevis , and at least a first pulley ; and at least two cable segments extending through the wrist to the surgical effector to actuate the surgical effector in the multiple degrees of movement, the at least two cable segments engaging opposing sides of the first pulley, wherein the at least two cable segments are independent from one another, characterized in that the proximal clevis comprises proximal redirect surfaces configured to redirect the at least two cable segments towards the first pulley. a surgical effector having multiple degrees of movement; a wrist coupled to the surgical effector, the wrist including a distal clevis , a proximal clevis , and at least a first pulley ; and at least two cable segments extending through the wrist to the surgical effector to actuate the surgical effector in the multiple degrees of movement, the at least two cable segments engaging opposing sides of the first pulley, wherein the at least two cable segments are independent from one another, characterized in that the proximal clevis comprises proximal redirect surfaces configured to redirect the at least two cable segments towards the first pulley.
A device for holding a container in a container treatment device , preferably for holding a beverage container in a neck portion or in a body portion, comprising two gripping arms , which are pivotable relative to one another in a pivoting plane and which each have a holding portion for holding the container to be held, and a lifting rod , which is coupled to the gripping arms in such a way that the holding portions can be pivoted relative to one another by moving the lifting rod perpendicularly to the pivoting plane of the gripping arms , characterized in that the lifting rod comprises two rod elements which are displaceable relative to one another in the direction of the longitudinal axis , wherein the rod elements are coupled via a spring element in the direction of the longitudinal axis . a lifting rod , which is coupled to the gripping arms in such a way that the holding portions can be pivoted relative to one another by moving the lifting rod perpendicularly to the pivoting plane of the gripping arms , characterized in that the lifting rod comprises two rod elements which are displaceable relative to one another in the direction of the longitudinal axis , wherein the rod elements are coupled via a spring element in the direction of the longitudinal axis .
Access control system for preventing unauthorized loading/unloading of a transported vehicle to/from a load carrier , the access control system comprising: - a blocking device configured to be arranged on the load carrier and enabled to move between a blocking position, where the transported vehicle is blocked from passing the blocking device , and an unblocking position, where the transported vehicle is allowed to pass the blocking device , based on an authorization signal ; - a biometric reader configured to read a biometric feature indicating the identity of an operator and to produce biometric data based on the biometric feature ; and - a control unit configured to send the authorization signal to the blocking device upon verifying that the operator is authorized to move the blocking device based on the biometric data. - a blocking device configured to be arranged on the load carrier and enabled to move between a blocking position, where the transported vehicle is blocked from passing the blocking device , and an unblocking position, where the transported vehicle is allowed to pass the blocking device , based on an authorization signal ; - a biometric reader configured to read a biometric feature indicating the identity of an operator and to produce biometric data based on the biometric feature ; and - a control unit configured to send the authorization signal to the blocking device upon verifying that the operator is authorized to move the blocking device based on the biometric data.
A method for operating a vehicle camera system, the method comprising: receiving images from a camera mounted on a vehicle; calculating one or more image quality metrics for the received images; determining whether a lens of the camera is contaminated by monitoring a change of the one or more calculated image quality metrics over time; and determining a type of contamination; characterised in that the method further comprises: selecting one of a plurality of image processing techniques to enhance the received images depending on the determined type of contamination; applying the selected image processing technique to the received images to create enhanced images; determining the same one or more image quality metrics for the enhanced images; analyzing the enhanced images to determine whether the contamination is mitigated after application of the selected image processing technique; and outputting a fault condition signal when the contamination is not mitigated after application of the selected image processing routine. receiving images from a camera mounted on a vehicle; calculating one or more image quality metrics for the received images; determining whether a lens of the camera is contaminated by monitoring a change of the one or more calculated image quality metrics over time; and determining a type of contamination; characterised in that the method further comprises: selecting one of a plurality of image processing techniques to enhance the received images depending on the determined type of contamination; applying the selected image processing technique to the received images to create enhanced images; determining the same one or more image quality metrics for the enhanced images; analyzing the enhanced images to determine whether the contamination is mitigated after application of the selected image processing technique; and outputting a fault condition signal when the contamination is not mitigated after application of the selected image processing routine. selecting one of a plurality of image processing techniques to enhance the received images depending on the determined type of contamination; applying the selected image processing technique to the received images to create enhanced images; determining the same one or more image quality metrics for the enhanced images; analyzing the enhanced images to determine whether the contamination is mitigated after application of the selected image processing technique; and outputting a fault condition signal when the contamination is not mitigated after application of the selected image processing routine.
A metal film-coated resin film manufacturing apparatus comprising: a long resin film unwinding roll around which a long resin film with a metal seed layer deposited on one or both surfaces thereof is wound up with a long insertion sheet inserted between layers of the long resin film ; a long insertion sheet winding roll which separates the long insertion sheet from the long resin film unwound from the long resin film unwinding roll and winds up the long insertion sheet ; a wet plating bath into which the long resin film from which the long insertion sheet has been separated is transferred to form a metal film on the metal seed layer; and a long resin film winding roll which winds up the long resin film with the metal film formed thereon, characterized in that the apparatus comprises an atmospheric-pressure plasma cleaning apparatus which cleans a surface of the metal seed layer on the long resin film from which the long insertion sheet has been separated, the atmospheric-pressure plasma cleaning apparatus being provided between the long resin film unwinding roll and the wet plating bath . a long resin film unwinding roll around which a long resin film with a metal seed layer deposited on one or both surfaces thereof is wound up with a long insertion sheet inserted between layers of the long resin film ; a long insertion sheet winding roll which separates the long insertion sheet from the long resin film unwound from the long resin film unwinding roll and winds up the long insertion sheet ; a wet plating bath into which the long resin film from which the long insertion sheet has been separated is transferred to form a metal film on the metal seed layer; and a long resin film winding roll which winds up the long resin film with the metal film formed thereon, characterized in that the apparatus comprises an atmospheric-pressure plasma cleaning apparatus which cleans a surface of the metal seed layer on the long resin film from which the long insertion sheet has been separated, the atmospheric-pressure plasma cleaning apparatus being provided between the long resin film unwinding roll and the wet plating bath .
A method for mapping an input message to a message authentication code (MAC) by a white-box implementation of a keyed cryptographic operation in a cryptographic system, comprising: calculating k 0 = H ( E k ), where H is an encoding function, E k is a white-box implementation of a block cipher using a key k ; calculating k 1 = k 0 ≪ 1 when msb( k 0 ) = 0 or k 1 = ENC 1 ( k 0 ≪ 1) when msb( k 0 ) = 1 where ENC 1 is an encoding function; calculating k 2 = k 1 ≪ 1 when msb( k 1 ) = 0 or k 2 = ENC 2 ( k 1 ≪ 1) when msb( k 1 ) = 1 where ENC 2 is an encoding function; dividing the input message into b -bit blocks m = m 1 ∥ ... ∥ m n- 1 ∥ m n where m 1 , ..., m n -1 are complete blocks where b is an integer; calculating m n ' = ENC 3 ( k 1 ⊕ m n ) when m n is a complete block and m n ' = ENC 3( k 2 ⊕ ( m n ∥ 10...0 2 )) when m n is an incomplete block where ENC 3 is an encoding function; calculating c i = Encrypt i ( c i- 1 ⊕ m i ) for i = 1, ..., n-1, where c 0 = 00...0 2 , Encrypt i ( x ) = F i / 2 + 1 (E k (x) ) when i is odd or Encrypt i x = E k F i / 2 + 1 − 1 x when i is even, and Fi is an encoding function; calculating c n = E k ( G -1 ( c n -1 ⊕ m n ')); and outputting a portion of c n . calculating k 0 = H ( E k ), where H is an encoding function, E k is a white-box implementation of a block cipher using a key k ; calculating k 1 = k 0 ≪ 1 when msb( k 0 ) = 0 or k 1 = ENC 1 ( k 0 ≪ 1) when msb( k 0 ) = 1 where ENC 1 is an encoding function; calculating k 2 = k 1 ≪ 1 when msb( k 1 ) = 0 or k 2 = ENC 2 ( k 1 ≪ 1) when msb( k 1 ) = 1 where ENC 2 is an encoding function; dividing the input message into b -bit blocks m = m 1 ∥ ... ∥ m n- 1 ∥ m n where m 1 , ..., m n -1 are complete blocks where b is an integer; calculating m n ' = ENC 3 ( k 1 ⊕ m n ) when m n is a complete block and m n ' = ENC 3( k 2 ⊕ ( m n ∥ 10...0 2 )) when m n is an incomplete block where ENC 3 is an encoding function; calculating c i = Encrypt i ( c i- 1 ⊕ m i ) for i = 1, ..., n-1, where c 0 = 00...0 2 , Encrypt i ( x ) = F i / 2 + 1 (E k (x) ) when i is odd or Encrypt i x = E k F i / 2 + 1 − 1 x when i is even, and Fi is an encoding function; calculating c n = E k ( G -1 ( c n -1 ⊕ m n ')); and outputting a portion of c n .
A tubular stiffener made of a polymeric material and intended to be installed around a portion of flexible tube for transporting hydrocarbons to limit the curvature of said portion of flexible tube, said flexible tube providing thermal energy to said tubular stiffener when said flexible tube transports hot hydrocarbons, said tubular stiffener being capable of dissipating the thermal energy provided by said flexible tube ; characterised in that said polymeric material is laden with nanoparticles homogeneously disseminated inside the mass of the polymer to be able to dissipate the thermal energy.
Device for protecting an optical sensor of a driver assistance system for a motor vehicle comprising: - a protective casing forming a cavity able to at least partly accommodate the optical sensor comprising an optical surface , the protective casing comprising an optical element configured to be disposed facing the optical surface of the optical sensor , the protective casing being configured to freely rotate about an axis (A1); - a motor configured to rotate the protective casing at speeds allowing the optical element to be cleaned by a centrifugal effect, the protective device being configured so as to have a movable part and a fixed part , characterized in that it comprises a pressure balancing system comprising an air vent orifice allowing fluid communication between the inside and the outside of the protective device , the air vent orifice being produced in the fixed part of the protective device. - a protective casing forming a cavity able to at least partly accommodate the optical sensor comprising an optical surface , the protective casing comprising an optical element configured to be disposed facing the optical surface of the optical sensor , the protective casing being configured to freely rotate about an axis (A1); - a motor configured to rotate the protective casing at speeds allowing the optical element to be cleaned by a centrifugal effect,
A determination apparatus comprising: a receiving means configured to receive, from an antenna unit , magnetic field information indicating a strength of a magnetic field received by the antenna unit from a power transmitting apparatus , wherein the power transmitting apparatus is configured to transmit power wirelessly to a power receiving apparatus, and the antenna unit is configured to receive a magnetic field generated by the power transmitting apparatus; a determination means configured to perform a determination process for determining whether the strength of the magnetic field indicated by the magnetic field information is not greater than a predetermined reference value; and a communication means configured to transmit information indicating a result of the determination process to the power transmitting apparatus. a receiving means configured to receive, from an antenna unit , magnetic field information indicating a strength of a magnetic field received by the antenna unit from a power transmitting apparatus , wherein the power transmitting apparatus is configured to transmit power wirelessly to a power receiving apparatus, and the antenna unit is configured to receive a magnetic field generated by the power transmitting apparatus; the power transmitting apparatus is configured to transmit power wirelessly to a power receiving apparatus, and the antenna unit is configured to receive a magnetic field generated by the power transmitting apparatus; a determination means configured to perform a determination process for determining whether the strength of the magnetic field indicated by the magnetic field information is not greater than a predetermined reference value; and a communication means configured to transmit information indicating a result of the determination process to the power transmitting apparatus.
An organic light-emitting device comprising: a first electrode ; a second electrode facing the first electrode; and an organic layer between the first electrode and the second electrode and comprising an emissior layer, wherein: the emission layer comprises a host and a dopant, the host comprises a first host compound, a second host compound, and a third host compound, and the first host compound satisfies Conditions 1-1 and 1-2: S 1 H 1 > 3 eV T 1 H 1 > 2.8 eV , and wherein, in Conditions 1-1 and 1-2, S1(H1) indicates a lowest excitation singlet energy level of the first host compound, and T1(H1) indicates a lowest excitation triplet energy level of the first host compound, and characterized in that the first host compound is selected from Compounds A-02 to A-10 and A-12 to A-21: a first electrode ; a second electrode facing the first electrode; and an organic layer between the first electrode and the second electrode and comprising an emissior layer, wherein: the emission layer comprises a host and a dopant, the host comprises a first host compound, a second host compound, and a third host compound, and the first host compound satisfies Conditions 1-1 and 1-2: S 1 H 1 > 3 eV T 1 H 1 > 2.8 eV , and wherein, in Conditions 1-1 and 1-2, S1(H1) indicates a lowest excitation singlet energy level of the first host compound, and T1(H1) indicates a lowest excitation triplet energy level of the first host compound, and characterized in that the first host compound is selected from Compounds A-02 to A-10 and A-12 to A-21: the emission layer comprises a host and a dopant, the host comprises a first host compound, a second host compound, and a third host compound, and the first host compound satisfies Conditions 1-1 and 1-2: S 1 H 1 > 3 eV T 1 H 1 > 2.8 eV , and wherein, in Conditions 1-1 and 1-2, S1(H1) indicates a lowest excitation singlet energy level of the first host compound, and T1(H1) indicates a lowest excitation triplet energy level of the first host compound, and characterized in that the first host compound is selected from Compounds A-02 to A-10 and A-12 to A-21:
An infectious arenavirus viral vector, wherein an arenavirus open reading frame is removed and replaced by a nucleotide sequence selected from the group consisting of: a. a nucleotide sequence encoding an HBV HBc protein or an antigenic fragment thereof; b. a nucleotide sequence encoding a fusion of HBV HBs and HBc proteins or antigenic fragments thereof; and c. a nucleotide sequence encoding an HBV pre-S2/S protein or an antigenic fragment thereof; wherein the viral vector is capable of eliciting a T cell response against the HBV HBc protein, the fusion of HBV HBs and HBc proteins, the HBV pre-S2/S protein, or an antigenic fragment thereof. a. a nucleotide sequence encoding an HBV HBc protein or an antigenic fragment thereof; b. a nucleotide sequence encoding a fusion of HBV HBs and HBc proteins or antigenic fragments thereof; and c. a nucleotide sequence encoding an HBV pre-S2/S protein or an antigenic fragment thereof;