mhurhangee/patent-ind-claim-en huggingface dataset:
A method for executing a secure software application (L_S) and a non-secure software application (L_NS) interlaced one with the other, at least two output data generated at the output of two modules of said non-secure software application being used as input data applied at the input of two modules of the secure software application, the secure software application being a software requiring to be executed in security, i.e. so as to guarantee its correct operation with a determined level of confidence, the non-secure software application being a software whose execution is less constrained that the execution of the secure software application, characterised in that the method is implemented by a device comprising first and second processing units (C1, C2) connected one with the other through a suitable communication link allowing data exchange, the first computing unit (C1) being a secure computing unit, whereas the second computing unit (C2) is a none secure computing unit, a secure computing unit being a computing unit respecting certain operative criteria for the execution in security of the instructions of the security software application, and a non security computing unit being a computing unit that respects operative criteria compatible with the security level of the non secure software application, the first and second computing units being physically segregated one from the other, and in that the method consists in : a) - executing , on the second computing unit (C2), during a first execution cycle, the secure (L_S) and non-secure (L_NS) software applications grouped together in a common non-secure software application , so as to update said at least two output data of said two modules of the non-secure software application; and, c) - executing , on the first computer unit (C1), during a second execution cycle, the second execution cycle being after the first execution cycle, the secure software application (L_S), using, as input data for said module of the secure software application (L_S), said at least two output data updated. a) - executing , on the second computing unit (C2), during a first execution cycle, the secure (L_S) and non-secure (L_NS) software applications grouped together in a common non-secure software application , so as to update said at least two output data of said two modules of the non-secure software application; and, c) - executing , on the first computer unit (C1), during a second execution cycle, the second execution cycle being after the first execution cycle, the secure software application (L_S), using, as input data for said module of the secure software application (L_S), said at least two output data updated.
Method for operating a thermal power plant , which comprises a gas turbine and a generator driven directly by the gas turbine by means of a shaft and being connected to an electrical grid having a grid frequency (F G ) via an electronic decoupling apparatus and a step-up transformer , said method comprising sensing said grid frequency (F G ); and is characterized by the steps of: detecting if in case of an excursion of said grid frequency (F G ) additional inertial power (ΔP) is required or not; if inertial power (ΔP) is required, calculating the magnitude and duration of the additional inertial power (ΔP); and releasing additional inertial power (ΔP) to said electrical grid in accordance with said calculations via said electronic decoupling apparatus ; providing as said electronic decoupling apparatus a matrix converter without a DC link, and considering initial operating conditions of the power plant at start of said grid frequency excursion in said calculations. detecting if in case of an excursion of said grid frequency (F G ) additional inertial power (ΔP) is required or not; if inertial power (ΔP) is required, calculating the magnitude and duration of the additional inertial power (ΔP); and releasing additional inertial power (ΔP) to said electrical grid in accordance with said calculations via said electronic decoupling apparatus ; providing as said electronic decoupling apparatus a matrix converter without a DC link, and considering initial operating conditions of the power plant at start of said grid frequency excursion in said calculations.
A rotary wing aircraft that extends along an associated roll axis (R) between a nose region and an aft region , comprising: a fuselage with a front section and a rear section , a main rotor that is rotatably mounted at the front section , and a stabilizer arrangement that is arranged at the rear section in the aft region , wherein the rear section extends between the front section and the stabilizer arrangement and comprises an asymmetrical cross-sectional profile in direction of the associated roll axis (R), at least one lateral wing-type aerodynamic device that is arranged at the front section and comprises at least one wing element that is pivotable relative to the fuselage to generate sideward thrust for main rotor anti-torque from main rotor downwash, wherein the at least one wing element comprises at least a first wing element with a first airfoil profile and a second wing element with a second airfoil profile , and wherein the first and second wing elements are individually pivotable to different pivoting angles , characterized in that the second airfoil profile differs from the first airfoil profile . a fuselage with a front section and a rear section , a main rotor that is rotatably mounted at the front section , and a stabilizer arrangement that is arranged at the rear section in the aft region , wherein the rear section extends between the front section and the stabilizer arrangement and comprises an asymmetrical cross-sectional profile in direction of the associated roll axis (R), at least one lateral wing-type aerodynamic device that is arranged at the front section and comprises at least one wing element that is pivotable relative to the fuselage to generate sideward thrust for main rotor anti-torque from main rotor downwash, wherein the at least one wing element comprises at least a first wing element with a first airfoil profile and a second wing element with a second airfoil profile , and wherein the first and second wing elements are individually pivotable to different pivoting angles , characterized in that the second airfoil profile differs from the first airfoil profile .
-5,10-methylene-tetrahydrofolate for use in the treatment in a human of solid tumors, including cancer, which treatment comprises the following steps: a) On Day 1, administering an IV bolus containing 10-1000 mg/m 2 (of BSA) of a fluorinated pyrimidine base such as 5-fluorouracil (5-FU), followed, either simultaneously or after a period of 10 min - 4 hours, by b) administering two or more IV boluses, interspaced by a period of 10 - 60 minutes, each containing 5 - 1000 mg/m 2 -5,10-methylenetetrahydrofolate, followed by c) administering a continuous infusion of a fluorinated pyrimidine base such as 5-FU over a period of 46 hours, or until the end of Day 2, followed by d) optionally administering one IV bolus containing 5 - 1000 mg/m 2 (of BSA) -5,10-methylene-tetrahydrofolate before the end of Day 1, followed by e) On Day 2, optionally administering one or more IV boluses each containing 5 - 1000 mg/m 2 (of BSA) -5,10-methylene-tetrahydrofolate, wherein step b) is optionally repeated up to 4 times on Day 1 with an interval of 10 min - 4 hours between each repetition, and wherein step e) is optionally repeated up to 4 times on Day 2 with an interval of between 10 min - 60 min between each bolus being administered, and wherein all steps a) - e) are optionally repeated every 2 weeks for up to eight cycles, i.e. up to sixteen weeks. a) On Day 1, administering an IV bolus containing 10-1000 mg/m 2 (of BSA) of a fluorinated pyrimidine base such as 5-fluorouracil (5-FU), followed, either simultaneously or after a period of 10 min - 4 hours, by b) administering two or more IV boluses, interspaced by a period of 10 - 60 minutes, each containing 5 - 1000 mg/m 2 -5,10-methylenetetrahydrofolate, followed by c) administering a continuous infusion of a fluorinated pyrimidine base such as 5-FU over a period of 46 hours, or until the end of Day 2, followed by d) optionally administering one IV bolus containing 5 - 1000 mg/m 2 (of BSA) -5,10-methylene-tetrahydrofolate before the end of Day 1, followed by e) On Day 2, optionally administering one or more IV boluses each containing 5 - 1000 mg/m 2 (of BSA) -5,10-methylene-tetrahydrofolate,
A yarn processing system comprising: at least one yarn processing apparatus which is configured to process a yarn (Y); a yarn threading robot which includes a yarn threading arm and is configured to perform yarn threading to the at least one yarn processing apparatus by using the yarn threading arm ; a storage unit which is able to store information regarding coordinates of points (P) to which a predetermined part of the yarn threading arm is moved in a predetermined order when the yarn threading to the at least one yarn processing apparatus is performed; and a control unit which is configured to cause the yarn threading robot to perform the yarn threading based on the information regarding the coordinates of the points (P), the points being grouped into predetermined groups, the control unit acquiring coordinates of a specific point based on a result of teaching regarding the yarn threading, each of the predetermined groups including at least one specific point, and the control unit acquiring coordinates of a relative point which is different from the at least one specific point, based on predetermined relative coordinates relative to the coordinates of the specific point belonging to the same group as the relative point. at least one yarn processing apparatus which is configured to process a yarn (Y); a yarn threading robot which includes a yarn threading arm and is configured to perform yarn threading to the at least one yarn processing apparatus by using the yarn threading arm ; a storage unit which is able to store information regarding coordinates of points (P) to which a predetermined part of the yarn threading arm is moved in a predetermined order when the yarn threading to the at least one yarn processing apparatus is performed; and a control unit which is configured to cause the yarn threading robot to perform the yarn threading based on the information regarding the coordinates of the points (P), the points being grouped into predetermined groups, the control unit acquiring coordinates of a specific point based on a result of teaching regarding the yarn threading, each of the predetermined groups including at least one specific point, and the control unit acquiring coordinates of a relative point which is different from the at least one specific point, based on predetermined relative coordinates relative to the coordinates of the specific point belonging to the same group as the relative point.
A transient signal encoding method for speech signals or audio signals, comprising: decomposing an input signal into a low-frequency band signal and a high-frequency band signal; classifying the high-frequency band signal into a transient signal or a non-transient signal; only when the high-frequency band signal is classified as a transient signal, obtaining a reference sub-frame where a maximal time envelope having a maximal amplitude value from time envelopes of all sub-frames of the high-frequency band signal is located; only when the high-frequency band signal is classified as a transient signal, decreasing an amplitude value of the time envelope of each sub-frame before the reference sub-frame; and only when the high-frequency band signal is classified as a transient signal, writing the adjusted time envelope obtained by the decreasing step into an encoding bitstream; and obtaining a frequency-domain envelope of the high-frequency band signal wherein the frequency-domain envelope of the high-frequency band signal is added to the encoding bitstream. decomposing an input signal into a low-frequency band signal and a high-frequency band signal; classifying the high-frequency band signal into a transient signal or a non-transient signal; only when the high-frequency band signal is classified as a transient signal, obtaining a reference sub-frame where a maximal time envelope having a maximal amplitude value from time envelopes of all sub-frames of the high-frequency band signal is located; only when the high-frequency band signal is classified as a transient signal, decreasing an amplitude value of the time envelope of each sub-frame before the reference sub-frame; and only when the high-frequency band signal is classified as a transient signal, writing the adjusted time envelope obtained by the decreasing step into an encoding bitstream; and obtaining a frequency-domain envelope of the high-frequency band signal wherein the frequency-domain envelope of the high-frequency band signal is added to the encoding bitstream.
A process for converting a feed stream to C 2 to C 5 hydrocarbons, comprising: introducing a feed stream comprising hydrogen and at least one carbon-containing component selected from the group consisting of CO, CO 2 , and mixtures thereof into a reaction zone at an initial reactor pressure and an initial reactor temperature; contacting the feed stream to a hybrid catalyst positioned in the reaction zone, wherein the hybrid catalyst comprises a methanol synthesis component and a solid microporous acid material; wherein: the methanol synthesis component comprises one or more of Cu, Zn, Cr, and Al in any possible compositional combination and in either metallic or oxidic form, and the solid microporous acid material is selected from molecular sieves having 8-MR access and having a framework type selected from the group consisting of framework types CHA, AEI, AFX, ERI, LTA, UFI, RTH, and combinations thereof, the framework types corresponding to the naming convention of the International Zeolite Association; and increasing a pressure within the reaction zone during the contacting of the feed stream to the hybrid catalyst from the initial reactor pressure to a final reactor pressure, wherein a temperature within the reaction zone at any time during the contacting of the feed stream to the hybrid catalyst is within ± 20 °C of the initial reactor temperature. introducing a feed stream comprising hydrogen and at least one carbon-containing component selected from the group consisting of CO, CO 2 , and mixtures thereof into a reaction zone at an initial reactor pressure and an initial reactor temperature; contacting the feed stream to a hybrid catalyst positioned in the reaction zone, wherein the hybrid catalyst comprises a methanol synthesis component and a solid microporous acid material; wherein: the methanol synthesis component comprises one or more of Cu, Zn, Cr, and Al in any possible compositional combination and in either metallic or oxidic form, and the solid microporous acid material is selected from molecular sieves having 8-MR access and having a framework type selected from the group consisting of framework types CHA, AEI, AFX, ERI, LTA, UFI, RTH, and combinations thereof, the framework types corresponding to the naming convention of the International Zeolite Association; and increasing a pressure within the reaction zone during the contacting of the feed stream to the hybrid catalyst from the initial reactor pressure to a final reactor pressure, wherein a temperature within the reaction zone at any time during the contacting of the feed stream to the hybrid catalyst is within ± 20 °C of the initial reactor temperature.
A cover assembly comprising: a cover plate ; a brush assembly coupled to the cover plate ; a ground terminal coupled to the cover plate ; and a capacitor coupled to the cover plate and connected to the ground terminal and the brush assembly , wherein the ground terminal includes a body unit , a ground unit formed by cutting a part of the body unit and bending in a first direction, a clip unit formed by bending a part of the body unit in a second direction which is a direction different from the first direction, and to which a wire is coupled by being inserted; and a coupling unit configured to extend from the body unit and including a protrusion , characterized in that the coupling unit is formed to be coplanar with the body unit , the protrusion has a sawtooth shape, that the cover plate includes a coupling groove which is concavely formed and into which the coupling unit is inserted. a cover plate ; a brush assembly coupled to the cover plate ; a ground terminal coupled to the cover plate ; and a capacitor coupled to the cover plate and connected to the ground terminal and the brush assembly , wherein the ground terminal includes a body unit , a ground unit formed by cutting a part of the body unit and bending in a first direction, a clip unit formed by bending a part of the body unit in a second direction which is a direction different from the first direction, and to which a wire is coupled by being inserted; and a coupling unit configured to extend from the body unit and including a protrusion , characterized in that the coupling unit is formed to be coplanar with the body unit , the protrusion has a sawtooth shape, that the cover plate includes a coupling groove which is concavely formed and into which the coupling unit is inserted.
A rope arrangement of a hoisting device comprising one or more belt-shaped ropes (1, 1',1") passing around one or more crowned rope wheels resting against a crowned circumferential surface area thereof, one or more of said belt-shaped ropes (1, 1', 1") being substantially larger in its width-direction (w) than thickness-direction (t), and comprising two or more load bearing members ; a coating (3,3',3") forming an outer surface of the rope (1, 1', 1"), in which coating (3,3',3") the two or more load bearing members are embedded, wherein the two or more load bearing members are oriented to extend parallel with longitudinal direction of the rope (1, 1', 1") adjacent each other in width direction (w) of the rope (1, 1', 1") such that a gap is formed in width direction (w) of the rope (1, 1', 1") between load bearing members next to each other, the coating (3,3',3") extending into the gap, each said load bearing member is made of composite material comprising reinforcing fibers (f) embedded in polymer matrix (m), said reinforcing fibers (f) preferably being carbon fibers or glass fibers; and each said load bearing member is substantially larger in width-direction (w) of the rope (1,1',1") than in thickness-direction (t) of the rope (1,1',1"); characterised in that , the coating comprises a first coating portion between load bearing members next to each other, and a second coating portion forming an outer side (S1) of the rope facing in thickness direction (t) of the rope, and in that the material of the first coating portion is substantially harder than the material of the second coating portion; and each of said one or more belt-shaped ropes (1, 1', 1") passes around a crowned rope wheel such that its outer side (S1) facing in thickness direction (t) of the rope (1, 1', 1"), which outer side (S1) is formed by the second coating portion (3b; 3b';3b"), rests against a crowned circumferential surface area of the rope wheel .
A process of forming a thin film photoactive layer of an optoelectronic device comprising: providing a substrate having a surface comprising or coated with a metal M selected from at least one of Pb, Sn, Ge, Ti, Bi, or In; and converting the metal surface or metal coating of the substrate to a perovskite layer comprising an organo-metal halide perovskite MAX, wherein the converting step comprises applying at least one perovskite precursor to the metal surface or metal coating of the substrate to form the perovskite layer, and wherein the perovskite precursor comprises at least one compound having the formula AX, or at least one reaction constituent for forming at least one compound having the formula AX, in which A comprises an ammonium group or other nitrogen containing organic cation and X is selected from at least one of F, Cl, Br or I. providing a substrate having a surface comprising or coated with a metal M selected from at least one of Pb, Sn, Ge, Ti, Bi, or In; and converting the metal surface or metal coating of the substrate to a perovskite layer comprising an organo-metal halide perovskite MAX, wherein the converting step comprises applying at least one perovskite precursor to the metal surface or metal coating of the substrate to form the perovskite layer, and wherein the perovskite precursor comprises at least one compound having the formula AX, or at least one reaction constituent for forming at least one compound having the formula AX, in which A comprises an ammonium group or other nitrogen containing organic cation and X is selected from at least one of F, Cl, Br or I.
Trolley for loading preformed dough products, which are to be baked, in a multi-deck oven , the trolley having wheels , a base frame movably mounted on the wheels and storage levels arranged one above the other on the base frame, a setter of the trolley being mounted in each storage level so as to be movable back and forth in a motor-driven manner between a starting position maximally retracted into the trolley and an end position maximally extended out of the trolley , characterised in that each storage level has at least one dedicated motor for moving the respective setter of that storage level back and forth between its starting position and its end position, and in that the trolley has at least one control device by which the at least one motor of each storage level can be actuated, independently of the motors of the other storage levels of the trolley , to move the respective setter in that storage level back and forth between its starting position and its end position.