mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling a controlled object, for example a vehicle, which is embedded in a changing environment, wherein an electronic system carrying out said controlling comprises sensors (111, 121, 131), in particular a plurality of sensors, actuators, in particular a plurality of actuators, and node computers, in particular a plurality of node computers, which exchange data via a real-time communication system characterised in that the controlled object and its environment are periodically observed with sensors, and in each frame based on the data acquired by observing the controlled object and its environment at least three independent data flow paths (110, 120, 130), DFP, are executed, wherein, for example, for each DFP the observation is made by means of different sensors, and wherein - a first DFP determines a model of the controlled object and the environment thereof from the data acquired by observing the controlled object and its environment by means of complex software, and carries out trajectory planning based on said model in order to generate one or more possible trajectories which correspond to a predetermined task under the given environmental conditions; and wherein - a second DFP determines a model of the controlled object and the environment thereof from the data acquired by observing the controlled object and its environment by means of, preferably diverse, complex software, and based on said model determines a safe space-time domain, SRZD, within which SRZD all safe trajectories must lie; and wherein - a third DFP determines a model of the controlled object and the environment thereof from data acquired by observing the controlled object and its environment, and based on said model calculates an emergency trajectory, and wherein during normal operation a decision authority checks whether the emergency trajectory lies within the safe space-time domain (SRZD). - a first DFP determines a model of the controlled object and the environment thereof from the data acquired by observing the controlled object and its environment by means of complex software, and carries out trajectory planning based on said model in order to generate one or more possible trajectories which correspond to a predetermined task under the given environmental conditions; and wherein - a second DFP determines a model of the controlled object and the environment thereof from the data acquired by observing the controlled object and its environment by means of, preferably diverse, complex software, and based on said model determines a safe space-time domain, SRZD, within which SRZD all safe trajectories must lie; and wherein - a third DFP determines a model of the controlled object and the environment thereof from data acquired by observing the controlled object and its environment, and based on said model calculates an emergency trajectory,
A method for controlling data access using accessibility API, the method comprising: registering on a user device a security application as a service for users with disabilities, wherein the security application provides an accessibility application programming interface for the users with disabilities that comprises a plurality of accessibility API functions; intercepting, using the accessibility API of the security application, data accessed by a user application being executed on the user device; determining, by the security application, a category of intercepted data; intercepting, using the accessibility API of the security application, one or more events of execution of the user application on the user device; determining, by the security application, an access control policy for accessing the intercepted data based on the category of intercepted data and intercepted events; and controlling, using the accessibility API of the security application, access of the user application to the intercepted data based on the determined access control policy. registering on a user device a security application as a service for users with disabilities, wherein the security application provides an accessibility application programming interface for the users with disabilities that comprises a plurality of accessibility API functions; intercepting, using the accessibility API of the security application, data accessed by a user application being executed on the user device; determining, by the security application, a category of intercepted data; intercepting, using the accessibility API of the security application, one or more events of execution of the user application on the user device; determining, by the security application, an access control policy for accessing the intercepted data based on the category of intercepted data and intercepted events; and controlling, using the accessibility API of the security application, access of the user application to the intercepted data based on the determined access control policy.
Use of a hydroxypropyl cellulose for coating a tablet, the hydroxypropyl cellulose having a content of hydroxypropyl groups within a range of 42 to 48% by mass.
An optical element for condensing light, wherein the optical element has a first cylindrical face and a second cylindrical face at one side and a third cylindrical face at an other side and a plane including an axis (C1a) of the first cylindrical face and an axis of the third cylindrical face intersects with a plane including an axis (Clb) of the second cylindrical face and the axis of the third cylindrical face, characterized in that a distance between the axis (C1a) of the first cylindrical face and the axis of the third cylindrical face has a value greater than zero and is identical to a distance between the axis (Clb) of the second cylindrical face and the axis of the third cylindrical face, and in that the axis (C1a) of the first cylindrical face and the axis (Clb) of the second cylindrical face are translated or rotated toward directions opposite to each other with respect to the axis of the third cylindrical face, wherein the first cylindrical face adjoins the second cylindrical face which is offset, relative to the first cylindrical face in a direction along the axis of the third cylindrical face.
A method for managing uplink transmission of user data, the method being performed by a baseband unit, the baseband unit being operatively connected to at least two radio units (300a:300c), the method comprising: sending a scheduler request for uplink user data to the at least two radio units (300a:300c), the scheduler request comprising a control message comprising parameters pertaining to transmission of uplink user data from the at least two radio units (300a:300c) to the baseband unit, wherein the parameters specify a transmission window (TW, TW1, TW2) per each of the at least two radio units (300a:300c) for the transmission of uplink user data to the baseband unit, and specify what uplink data each radio unit shall forward to the base band unit; and receiving uplink user data from the at least two radio units (300a:300c) in accordance with the parameters, wherein the baseband unit is an Open Radio Access Network Digital Unit, O-DU, and each of the at least two radio units (300a:300c) is a respective Open Radio Access Network Radio Unit, O-RU. sending a scheduler request for uplink user data to the at least two radio units (300a:300c), the scheduler request comprising a control message comprising parameters pertaining to transmission of uplink user data from the at least two radio units (300a:300c) to the baseband unit, wherein the parameters specify a transmission window (TW, TW1, TW2) per each of the at least two radio units (300a:300c) for the transmission of uplink user data to the baseband unit, and specify what uplink data each radio unit shall forward to the base band unit; and receiving uplink user data from the at least two radio units (300a:300c) in accordance with the parameters, wherein the baseband unit is an Open Radio Access Network Digital Unit, O-DU, and each of the at least two radio units (300a:300c) is a respective Open Radio Access Network Radio Unit, O-RU.
A curable adhesive composition, comprising: a multifunctional acetoacetate compound, a polyoxypropylene polyamine, and a polyoxyalkylene polyamine having oxyalkylene units selected from at least two of oxypropylene unit, oxyethylene unit, and oxytetramethylene unit. a multifunctional acetoacetate compound, a polyoxypropylene polyamine, and a polyoxyalkylene polyamine having oxyalkylene units selected from at least two of oxypropylene unit, oxyethylene unit, and oxytetramethylene unit.
A method for selecting drilling parameters for drilling a borehole penetrating the earth with a drill string, the method characterized by: varying a frequency of an excitation force applied to the drill string using an excitation device controlled by a drill string controller; measuring vibration-related amplitudes of the drill string due to the applied excitation force using a vibration sensor to provide amplitude measurements; determining with a processor one or more modal properties comprising one or more eigenfrequencies of the drill string using the amplitude measurements; and selecting drilling parameters that apply an excitation force at a frequency that avoids a selected range of frequencies that bound the one or more eigenfrequencies using the processor. varying a frequency of an excitation force applied to the drill string using an excitation device controlled by a drill string controller; measuring vibration-related amplitudes of the drill string due to the applied excitation force using a vibration sensor to provide amplitude measurements; determining with a processor one or more modal properties comprising one or more eigenfrequencies of the drill string using the amplitude measurements; and selecting drilling parameters that apply an excitation force at a frequency that avoids a selected range of frequencies that bound the one or more eigenfrequencies using the processor.
An interconnect element, comprising: a selection circuit for receiving input signals and having a selection output; a half-latch circuit having an input coupled to the selection output, wherein the half latch circuit comprises a pull-up device; and a bias circuit coupled to the pull-up device, wherein the bias circuit is configured to supply a tunable bias voltage to the pull-up device using a transistor coupled between a power source and a variable current source. a selection circuit for receiving input signals and having a selection output; a half-latch circuit having an input coupled to the selection output, wherein the half latch circuit comprises a pull-up device; and a bias circuit coupled to the pull-up device, wherein the bias circuit is configured to supply a tunable bias voltage to the pull-up device using a transistor coupled between a power source and a variable current source.
A method for determining the suitability of a lubricant, in particular a lubricating grease, for avoiding false brinelling damage in a bearing, comprising the following steps: - a first conditioning of a rheometer, having the sub-steps: a) tempering (5, 6) the rheometer to a first temperature, b) setting a first zero point after a predetermined first tempering time of the rheometer, - filling the rheometer with a lubricant sample, - deforming the lubricant sample and determining a first shear stress from the shear deformation of the lubricant sample at the first temperature, with reference to the first zero point of the measuring system, - a second conditioning of the rheometer, having the sub-steps: c) tempering (10, 11) the rheometer to a second temperature, d) setting a second zero point after a predetermined second tempering time of the rheometer, - refilling the rheometer with a lubricant sample, - deforming the lubricant sample and determining a second shear stress from the shear deformation of the lubricant sample at the second temperature, with reference to the second zero point of the measuring system, - classifying (15, 16) the lubricant as suitable or unsuitable for avoiding false brinelling damage depending on the determined first shear stress and the determined second shear stress. - a first conditioning of a rheometer, having the sub-steps: a) tempering (5, 6) the rheometer to a first temperature, b) setting a first zero point after a predetermined first tempering time of the rheometer, a) tempering (5, 6) the rheometer to a first temperature, b) setting a first zero point after a predetermined first tempering time of the rheometer, - filling the rheometer with a lubricant sample, - deforming the lubricant sample and determining a first shear stress from the shear deformation of the lubricant sample at the first temperature, with reference to the first zero point of the measuring system, - a second conditioning of the rheometer, having the sub-steps: c) tempering (10, 11) the rheometer to a second temperature, d) setting a second zero point after a predetermined second tempering time of the rheometer, c) tempering (10, 11) the rheometer to a second temperature, d) setting a second zero point after a predetermined second tempering time of the rheometer, - refilling the rheometer with a lubricant sample, - deforming the lubricant sample and determining a second shear stress from the shear deformation of the lubricant sample at the second temperature, with reference to the second zero point of the measuring system, - classifying (15, 16) the lubricant as suitable or unsuitable for avoiding false brinelling damage depending on the determined first shear stress and the determined second shear stress.
A method of brokering trusted execution of a workload payload (206; 306, 308; 408) among multiple trusted execution platforms (106 - 112; 228; 302, 304; 406), the multiple trusted execution platforms including heterogeneous trusted execution platforms having different compilation requirements, the workload payload including input data, trusted execution code, and one or more trusted execution policies, the method comprising: selecting, by a trusted execution broker (104; 202; 312; 412; 642), at least one of the multiple trusted execution platforms based on the one or more trusted execution policies of the workload payload received from the source computing system, wherein the one or more trusted execution policies of the workload payload are associated with an attestation record, wherein the selecting operation comprises evaluating the one or more trusted execution policies against the trusted execution platforms to identify one or more of the multiple trusted execution platforms satisfying the one or more trusted execution policies, wherein the evaluating comprises: decrypting the one or more trusted execution policies by the trusted execution broker; and validating the one or more trusted execution policies by the trusted execution broker using the attestation record; generating a brokered payload (314, 316; 422) including executable trusted execution code and the input data; and returning, to the source computing platform, a workload result (136; 322, 324; 426) based on a brokered result generated from the brokered payload by the selected at least one of the multiple trusted execution platforms. selecting, by a trusted execution broker (104; 202; 312; 412; 642), at least one of the multiple trusted execution platforms based on the one or more trusted execution policies of the workload payload received from the source computing system, wherein the one or more trusted execution policies of the workload payload are associated with an attestation record, wherein the selecting operation comprises evaluating the one or more trusted execution policies against the trusted execution platforms to identify one or more of the multiple trusted execution platforms satisfying the one or more trusted execution policies, wherein the evaluating comprises: decrypting the one or more trusted execution policies by the trusted execution broker; and validating the one or more trusted execution policies by the trusted execution broker using the attestation record; decrypting the one or more trusted execution policies by the trusted execution broker; and validating the one or more trusted execution policies by the trusted execution broker using the attestation record; generating a brokered payload (314, 316; 422) including executable trusted execution code and the input data; and returning, to the source computing platform, a workload result (136; 322, 324; 426) based on a brokered result generated from the brokered payload by the selected at least one of the multiple trusted execution platforms.
A holder device, comprising: - a device body including a tubular portion; - a sleeve disposed at a leading end of the tubular portion and capable of deforming in a radial direction for grasping a grasped object through an action of a pressure medium; - a support element provided continuously from the tubular portion and disposed radially outward of the sleeve; and - a pressure chamber provided circumferentially between the support element and the sleeve, - wherein the sleeve engages with the tubular portion, the tubular portion engages with the support element, and the sleeve engages with the support element, characterised in that the tubular portion includes a pressure guide passageway for transmitting the pressure medium to the pressure chamber and, the holder device further comprises an annular pressure medium storage space defined between the pressure guide passageway and the pressure chamber by an end face of the device body and an end face of the support element, the end face of the device body facing the end face of the support element in a direction of the rotational axis of the device body. - a device body including a tubular portion; - a sleeve disposed at a leading end of the tubular portion and capable of deforming in a radial direction for grasping a grasped object through an action of a pressure medium; - a support element provided continuously from the tubular portion and disposed radially outward of the sleeve; and - a pressure chamber provided circumferentially between the support element and the sleeve, - wherein the sleeve engages with the tubular portion, the tubular portion engages with the support element, and the sleeve engages with the support element, characterised in that the tubular portion includes a pressure guide passageway for transmitting the pressure medium to the pressure chamber and,
A device in a network node, comprising: means for extracting packets (162, 363) formatted according to a packet protocol from a received signal formatted according to a synchronous protocol; means for predicting reception processing delays (181, 381) incurred in the means for extracting packets; and first means for updating timestamp fields (168, 367) coupled to the means for predicting reception processing delays, said first means for updating timestamp fields configured to update timestamp fields contained in timing-related messages in at least some of the extracted packets received from the means for extracting packets utilizing at least predicted reception processing delays, the means for predicting reception processing delays configured to supply the predicted reception processing delays, responsive to the present state of the means for extracting packets, to the means for updating timestamp fields. means for extracting packets (162, 363) formatted according to a packet protocol from a received signal formatted according to a synchronous protocol; means for predicting reception processing delays (181, 381) incurred in the means for extracting packets; and first means for updating timestamp fields (168, 367) coupled to the means for predicting reception processing delays, said first means for updating timestamp fields configured to update timestamp fields contained in timing-related messages in at least some of the extracted packets received from the means for extracting packets utilizing at least predicted reception processing delays, the means for predicting reception processing delays configured to supply the predicted reception processing delays, responsive to the present state of the means for extracting packets, to the means for updating timestamp fields.
Method of manufacturing a structural part of a motor vehicle made of composite material, characterized in that it comprises the steps of: - placing in a compression molding mold, at least one sheet of reinforcement fibers (5A, 5B) impregnated with thermosetting or thermoplastic resin, as well as an insert, the insert being composed of a closed sealed envelope containing a pressurized fluid; and - closing the mold by compressing the sheet (5A, 5B) and the insert at a compression pressure equal to or less than the pressure of the fluid. - placing in a compression molding mold, at least one sheet of reinforcement fibers (5A, 5B) impregnated with thermosetting or thermoplastic resin, as well as an insert, the insert being composed of a closed sealed envelope containing a pressurized fluid; and - closing the mold by compressing the sheet (5A, 5B) and the insert at a compression pressure equal to or less than the pressure of the fluid.
Lighthead for mounting to a vehicle comprising: a thermally conductive base generally parallel to a first plane (P 1); a first PC board mounted in thermally conductive relationship to said base and generally coplanar with said plane (P 1); and at least one light-transmissive lens attachable to said base; characterised by a support in thermally conductive relationship to said base, having first and second support surfaces (122, 124) oriented transverse to one another and extending generally perpendicularly away from said plane, a first plurality of LEDs mounted to said first and second support surfaces (122, 124) oriented to emit light in a generally horizontal direction and providing a first distinct light emission pattern; and a second PC board extending perpendicularly from said first PC board, and contiguous with said first and second support surfaces (122, 124), a second plurality of LEDs mounted to said second PC board and providing a second distinct light emission pattern. a thermally conductive base generally parallel to a first plane (P 1); a first PC board mounted in thermally conductive relationship to said base and generally coplanar with said plane (P 1); and at least one light-transmissive lens attachable to said base; characterised by a support in thermally conductive relationship to said base, having first and second support surfaces (122, 124) oriented transverse to one another and extending generally perpendicularly away from said plane, a first plurality of LEDs mounted to said first and second support surfaces (122, 124) oriented to emit light in a generally horizontal direction and providing a first distinct light emission pattern; and a second PC board extending perpendicularly from said first PC board, and contiguous with said first and second support surfaces (122, 124), a second plurality of LEDs mounted to said second PC board and providing a second distinct light emission pattern.