mhurhangee/patent-ind-claim-en huggingface dataset:
An identity document comprising: - a transparent layer ; - a pixel arrangement printed opposite the transparent layer , the pixel arrangement being located in a first area (Z1) above or below the transparent layer, each pixel including at least two sub-pixels of different colors, the sub-pixels being arranged so as to form at least two sub-pixel lines (LN) in said pixel arrangement ; and - a guilloche (GL) in a second area (Z2) adjacent to the first area containing the pixel arrangement , said guilloche comprising at least one guilloche line (GL1, GL2); in which the transparent layer is capable of being locally opacified so as to at least partially block the passage of light in at least one region of the transparent layer located opposite the pixel arrangement, and in which at least one guilloche line (GL1), called the first line, extends in the continuation of a sub-pixel line (LN2), called the second line, belonging to the pixel arrangement so to collectively form a single line. - a transparent layer ; - a pixel arrangement printed opposite the transparent layer , the pixel arrangement being located in a first area (Z1) above or below the transparent layer, each pixel including at least two sub-pixels of different colors, the sub-pixels being arranged so as to form at least two sub-pixel lines (LN) in said pixel arrangement ; and - a guilloche (GL) in a second area (Z2) adjacent to the first area containing the pixel arrangement , said guilloche comprising at least one guilloche line (GL1, GL2); in which the transparent layer is capable of being locally opacified so as to at least partially block the passage of light in at least one region of the transparent layer located opposite the pixel arrangement, and in which at least one guilloche line (GL1), called the first line, extends in the continuation of a sub-pixel line (LN2), called the second line, belonging to the pixel arrangement so to collectively form a single line.
A balloon catheter and stent delivery system comprising: a shaft having a proximal end and a distal end a hub at the proximal end of the shaft a balloon at or near the distal end of the shaft the shaft defining an inflation lumen extending from a proximal inflation port defined by the hub to an interior of the balloon , and a guidewire lumen extending from a proximal guidewire port at an intermediate position between the proximal end of the shaft and the distal end of the shaft to a distal guidewire port at the distal end of the shaft ; the shaft including a hypotube which extends from the hub to a position near a proximal seal of the balloon ; the hypotube having a cut pattern over a portion of its distal length defining a cut pattern portion; the proximal guidewire port being positioned in the cut pattern portion, characterised in that a heat-shrink polymer is placed over at least the length of the hypotube in the cut pattern portion, excluding the proximal guidewire port , and serves as a fluid-tight seal for the inflation lumen and, the proximal guidewire port is positioned between adjacent cuts of the cut pattern portion. a shaft having a proximal end and a distal end a hub at the proximal end of the shaft a balloon at or near the distal end of the shaft the shaft defining an inflation lumen extending from a proximal inflation port defined by the hub to an interior of the balloon , and a guidewire lumen extending from a proximal guidewire port at an intermediate position between the proximal end of the shaft and the distal end of the shaft to a distal guidewire port at the distal end of the shaft ; the shaft including a hypotube which extends from the hub to a position near a proximal seal of the balloon ; the hypotube having a cut pattern over a portion of its distal length defining a cut pattern portion; the proximal guidewire port being positioned in the cut pattern portion, characterised in that a heat-shrink polymer is placed over at least the length of the hypotube in the cut pattern portion, excluding the proximal guidewire port , and serves as a fluid-tight seal for the inflation lumen and, the proximal guidewire port is positioned between adjacent cuts of the cut pattern portion.
A system for determining an impedance of a physical system, comprising: - an interface for receiving a measurement of a response of the physical system to a perturbation which is applied to the physical system, wherein the perturbation has a perturbation frequency, and wherein the measurement of the response is received in form of a response signal; - a processor subsystem configured to determine an impedance of the physical system based on a ratio of the perturbation and the response, wherein the determining of the impedance comprises: - converting the response signal into a frequency domain to identify a magnitude and phase of a first harmonic of the response signal and a magnitude and phase of a third harmonic of the response signal; - expressing the magnitude and phase of the first harmonic as a first complex term and expressing the magnitude and phase of the third harmonic as a third complex term; characterised in that the determining of the impedance further comprises - in determining the impedance, using as the response a sum of at least the first complex term and three times the third complex term. - an interface for receiving a measurement of a response of the physical system to a perturbation which is applied to the physical system, wherein the perturbation has a perturbation frequency, and wherein the measurement of the response is received in form of a response signal; - a processor subsystem configured to determine an impedance of the physical system based on a ratio of the perturbation and the response, wherein the determining of the impedance comprises: - converting the response signal into a frequency domain to identify a magnitude and phase of a first harmonic of the response signal and a magnitude and phase of a third harmonic of the response signal; - expressing the magnitude and phase of the first harmonic as a first complex term and expressing the magnitude and phase of the third harmonic as a third complex term; characterised in that the determining of the impedance further comprises - in determining the impedance, using as the response a sum of at least the first complex term and three times the third complex term. - converting the response signal into a frequency domain to identify a magnitude and phase of a first harmonic of the response signal and a magnitude and phase of a third harmonic of the response signal; - expressing the magnitude and phase of the first harmonic as a first complex term and expressing the magnitude and phase of the third harmonic as a third complex term; characterised in that the determining of the impedance further comprises characterised in that the determining of the impedance further comprises - in determining the impedance, using as the response a sum of at least the first complex term and three times the third complex term.
A naphthalene diamide compound comprising a structure as given in the following table, in which X and Y are carbonyl, R5 and R6 are hydrogen, and R3 is hydrogen; Number R 4 ABC-02 p-fluorophenyl 2-thiazole imino group ABC-05 m-methyl phenyl N-methyl-1-piperazinyl ABC-07 p-fluorophenyl 6-chloro-pyridine-3-methyleneamino ABC-08 methoxy phenyl 6-chloro-pyridine-3-methyleneamino ABC-09 m-methylphenyl 6-chloro-pyridine-3-methyleneamino ABC-11 p-fluorophenyl N-morpholi nyl ABC-15 2,5-dimethoxyphenyl 6-chloro-pyridine-3-methyleneamino ABC-17 meta-trifluoromethylphenyl 6-chloro-pyridine-3-methyleneamino ABC-20 meta-trifluoromethylphenyl N-methyl-1-piperazinyl ABC-24 meta-trifluoromethylphenyl cyclohexylimine ABC-26 meta-trifluoromethylphenyl meta-trifluoromethyl phenylenimine ABC-27 p-methoxyphenyl cyclopropylimine ABC-28 meta-trifluoromethylphenyl cyclopropylimine ABC-29 p-methoxyphenyl isopropylimine ABC-31 p-methoxyphenyl 2-thiazolimine ABC-32 m-methylphenyl 2-thiazolimine ABC-33 p-methoxyphenyl meta-trifluoromethyl phenylenimine ABC-34 meta-trifluoromethylphenyl 2-thiazolimine ABC-38 o-methoxyphenyl isopropylimine ABC-42 3,4-dichlorophenyl N-methyl-1-piperazinyl ABC-44 3,4-dichlorophenyl cyclopropylimine ABC-45 m-chlorophenyl 2-thiazolimine ABC-46 3,4-dichlorophenyl 2-thiazolimine ABC-47 m-chlorophenyl isopropylimine ABC-48 3,4-dichlorophenyl isopropylimine or a biologically acceptable salt thereof.
A method comprising: obtaining a target run-time for a first computing device, the target run-time indicating how long the first computing device is to run using a current charge in one or more energy storage devices of the first computing device; identifying , based at least in part on the target run-time, the current charge, and a predicted power usage over the target run-time, multiple power management actions to take and determining a confidence level for each given power management action of the multiple power management actions as a probability value that the given power management action taken by the first computing device would allow the first computing device to continue to run for the target run-time; selecting, based on the corresponding confidence levels of the identified multiple power management actions, first and second of the multiple power management actions to take; performing at least one of the first and second power management actions in the first computing device; and offloading or transferring operations or other functionality to a second computing device to perform a second of the multiple power management actions. obtaining a target run-time for a first computing device, the target run-time indicating how long the first computing device is to run using a current charge in one or more energy storage devices of the first computing device; identifying , based at least in part on the target run-time, the current charge, and a predicted power usage over the target run-time, multiple power management actions to take and determining a confidence level for each given power management action of the multiple power management actions as a probability value that the given power management action taken by the first computing device would allow the first computing device to continue to run for the target run-time; selecting, based on the corresponding confidence levels of the identified multiple power management actions, first and second of the multiple power management actions to take; performing at least one of the first and second power management actions in the first computing device; and offloading or transferring operations or other functionality to a second computing device to perform a second of the multiple power management actions.
An aqueous dispersion of a capsule composed of a polymeric shell surrounding a core, the core contains further one or more chemical reactants capable of forming a reaction product upon application of heat and/or light, the shell comprising a silanol containing compound or condensation product thereof covalently bonded to the polymer of the shell.
A method for determining a contention window size CWS, applied to a base station and comprising: determining hybrid automatic repeat request-acknowledgement, HARQ-ACK, information corresponding to a physical downlink shared channel, PDSCH, transmitted on the first time unit in a reference time period comprising a plurality of time units a first unlicensed carrier; determining a first CWS according to the HARQ-ACK information, wherein the first CWS is used for performing channel detection on the first unlicensed carrier, wherein the reference time period is a time period between a start position and an end position; and the start position is a start time point of one channel occupancy time initiated by the base station; the end position is an end time point of the channel occupancy time; and the first time unit is a slot. determining hybrid automatic repeat request-acknowledgement, HARQ-ACK, information corresponding to a physical downlink shared channel, PDSCH, transmitted on the first time unit in a reference time period comprising a plurality of time units a first unlicensed carrier; determining a first CWS according to the HARQ-ACK information, wherein the first CWS is used for performing channel detection on the first unlicensed carrier, wherein the reference time period is a time period between a start position and an end position; and the start position is a start time point of one channel occupancy time initiated by the base station; the end position is an end time point of the channel occupancy time; and the first time unit is a slot.
A heat ray-shielding film, characterized by containing a composite tungsten oxide particle having a hexagonal crystal structure, a selected wavelength absorbing material, a dispersant, an ultraviolet absorber, and a thermoplastic resin, wherein the composite tungsten oxide is expressed by a general formula MyWOz (wherein M is one or more kinds of element selected from Cs, Rb, K, Tl, In, Ba, Li, Ca, Sr, Fe, Sn, Al, and Cu, satisfying 0.1 ≤ y ≤0.5, 2.2 ≤ z ≤ 3.0), and wherein the selected wavelength absorbing material has a transmission profile in which a transmittance of a light of a wavelength of 420 nm can be set to 40% or less when a transmittance of a light of a wavelength of 550 nm is 90% or more, and a transmittance of a light of a wavelength of 460 nm is 90% or more, a content of the selected wavelength absorbing material in the heat ray-shielding film is 0.01 mass% or more and 2.0 mass% or less, the selected wavelength absorbing material is one or more kinds selected from a benzotriazole compound, and an indole compound, and the benzotriazole compound is expressed by [Chemical formula 1] or [Chemical formula 8], R1 in the benzotriazole compound expressed by [Chemical formula 1] is a group expressed by any one selected from [Chemical formula 2] to [Chemical formula 5], R2 in [Chemical formula 2] to [Chemical formula 5] is an alkylene group having 1 to 8 carbon atoms, R3 in [Chemical formula 2] to [Chemical formula 5] is a hydrogen atom or a methyl group, and R4 in [Chemical formula 4] is the alkylene group having 1 to 8 carbon atoms.
A railway vehicle carriage extending in a longitudinal direction (X), comprising a chassis and equipment arranged on the underframe, and comprising a device for fixing the equipment to the underframe of the railway vehicle carriage, the fixing device comprising means for attaching the equipment to the underframe and fall prevention means comprising: - at least one anti-fall pin designed to be fixed to the chassis , and - at least one member for passage of the fall prevention pin , comprising an orifice for passage of the fall prevention pin , and intended to be secured to the equipment , and in which each fall prevention pin extends parallel to the longitudinal direction (X), characterised in that the fastening means comprise at least one elastically deformable damping member kinematically arranged between the equipment and the frame , and in that the passage orifice has a diameter at least 1.2 times greater than the diameter of the corresponding fall prevention pin . - at least one anti-fall pin designed to be fixed to the chassis , and - at least one member for passage of the fall prevention pin , comprising an orifice for passage of the fall prevention pin , and intended to be secured to the equipment ,
A control system for controlling an amount of reactive power (Q) delivered from a wind power plant (WPP) to an associated power supply grid, the control system comprising a wind power plant controller (WPP ctrl) and a number of wind turbine controllers (WTG ctrl) each being in communication with said wind power plant controller (WPP ctrl), wherein the wind power plant controller (WPP ctrl) is adapted to provide a grid voltage reference, V ref , in response to a required total amount of reactive power to at least one wind turbine controller (WTG ctrl), said wind turbine controller (WTG ctrl) comprising a local voltage control loop comprising means for determining a local stator turbine terminal voltage and generating a local voltage reference in accordance with said determination, and means for cancellation of a steady-state local voltage error, characterized in that the means for cancellation of a steady state local voltage error comprises a differential pole control algorithm adapted to process the local voltage reference, and wherein the wind turbine controller (WTG ctrl) is adapted to generate a reactive current reference, I qref , according to the processed local voltage reference and to the difference between a local stator turbine terminal voltage, V, and the grid voltage reference, V ref .
Dynamic production planning method for a continuous casting plant for casting a strand with a production system which has a predefined production plan, comprising: - a comparison of setpoint production parameters with actual production parameters, - if the actual production parameters deviate from the setpoint production parameters, a strand image is created on the basis of actual production parameters, wherein the strand image comprises the strand which has already been cast and has not yet been cut, and at least that strand which is obtained on the basis of a residual weight in the tundish and predefined parameters, characterized by the steps of: - checking, on the basis of the calculated strand image, within the predefined production plan and, if possible, creating a new production plan, wherein the strand image is formed from at least one of the following parameters: - scrap positions and lengths, - quality prediction for the strand, - product limits of the calculated solution for the product specification, - target quality of the specified products - if no solution can be found from the predefined production plan, the strand image is transmitted to a production planning system , - the production planning system creates a new production plan from all available orders on the basis of a predefined optimization criterion, - transmission of the new production plan to the production system . - a comparison of setpoint production parameters with actual production parameters, - if the actual production parameters deviate from the setpoint production parameters, a strand image is created on the basis of actual production parameters, wherein the strand image comprises the strand which has already been cast and has not yet been cut, and at least that strand which is obtained on the basis of a residual weight in the tundish and predefined parameters, - checking, on the basis of the calculated strand image, within the predefined production plan and, if possible, creating a new production plan, wherein the strand image is formed from at least one of the following parameters: - scrap positions and lengths, - quality prediction for the strand, - product limits of the calculated solution for the product specification, - target quality of the specified products - if no solution can be found from the predefined production plan, the strand image is transmitted to a production planning system , - the production planning system creates a new production plan from all available orders on the basis of a predefined optimization criterion, - transmission of the new production plan to the production system . - scrap positions and lengths, - quality prediction for the strand, - product limits of the calculated solution for the product specification, - target quality of the specified products - if no solution can be found from the predefined production plan, the strand image is transmitted to a production planning system , - the production planning system creates a new production plan from all available orders on the basis of a predefined optimization criterion, - transmission of the new production plan to the production system .
A printed circuit board comprising: at least one electrical signal trace elongate along a first direction (L); an electrically conductive ground layer disposed below the first electrical signal trace along a second direction (T) that is perpendicular to the first direction (L), the electrically conductive ground layer extending along a plane that is normal to the second direction (T); a first linear array that includes at least one electrically conductive signal via (S) and at least one electrically conductive ground via (G), the first linear array oriented along the first direction (L); a second linear array that includes at least one electrically conductive signal via (S) and at least one electrically conductive ground via (G), the second linear array oriented along the first direction (L), the second linear array spaced from and consecutive with the first linear array along a third direction (A) that is perpendicular with respect to each of the first (L) and second directions (T), wherein the at least one electrical signal trace is disposed between the first and second linear arrays with respect to the third direction (A), and characterised by at least one group of ground isolation vias (g) that is oriented along the first direction (L), the at least one group of ground isolation vias (g) disposed between the first electrical signal trace and the second linear array with respect to the third direction (A). at least one electrical signal trace elongate along a first direction (L); an electrically conductive ground layer disposed below the first electrical signal trace along a second direction (T) that is perpendicular to the first direction (L), the electrically conductive ground layer extending along a plane that is normal to the second direction (T); a first linear array that includes at least one electrically conductive signal via (S) and at least one electrically conductive ground via (G), the first linear array oriented along the first direction (L); a second linear array that includes at least one electrically conductive signal via (S) and at least one electrically conductive ground via (G), the second linear array oriented along the first direction (L), the second linear array spaced from and consecutive with the first linear array along a third direction (A) that is perpendicular with respect to each of the first (L) and second directions (T), wherein the at least one electrical signal trace is disposed between the first and second linear arrays with respect to the third direction (A), and characterised by at least one group of ground isolation vias (g) that is oriented along the first direction (L), the at least one group of ground isolation vias (g) disposed between the first electrical signal trace and the second linear array with respect to the third direction (A).
A nucleic acid expression cassette comprising: - a tandemly arranged triple repeat of a liver-specific nucleic acid regulatory element, said triple repeat consisting of the nucleic acid fragment defined by SEQ ID NO:11, and - a nucleic acid regulatory element consisting of the nucleic acid fragment defined by SEQ ID NO:12; said triple repeat and said regulatory element being operably linked to a liver-specific promoter and a transgene. - a tandemly arranged triple repeat of a liver-specific nucleic acid regulatory element, said triple repeat consisting of the nucleic acid fragment defined by SEQ ID NO:11, and - a nucleic acid regulatory element consisting of the nucleic acid fragment defined by SEQ ID NO:12;
A formulation comprising: (a) a dispersion comprising: (i) a water soluble matrix polymer; (ii) a compound of Formula I: and (iii) citric acid, wherein, at least 70 mole% of said compound of Formula I is in the form of a citrate salt within the dispersion; and (b) a mixture of at least one acidifying agent and at least one solubilizing agent. (a) a dispersion comprising: (i) a water soluble matrix polymer; (ii) a compound of Formula I: and (iii) citric acid, wherein, at least 70 mole% of said compound of Formula I is in the form of a citrate salt within the dispersion; and (i) a water soluble matrix polymer; (ii) a compound of Formula I: and (iii) citric acid, (b) a mixture of at least one acidifying agent and at least one solubilizing agent.