mhurhangee/ep-ind-claims huggingface dataset:
A method for managing a cache memory space having an associativity level associated therewith, said cache memory space being employed by a number of processor cores, said method comprising: - determining a number n of partitions necessary in said cache memory space based on said number of processor cores, wherein each of said partitions: - is assigned a partition number p; and - is associated to one of said number of processor cores; characterized in further comprising: - determining a number of cache pages in each of said n partitions and a number of cache sets to be used in each of said n partitions based on said number of cache pages and said associativity level, wherein each of said cache pages is assigned a cache page index; - numbering each of said cache sets of each of said n partitions for identifying said cache sets, the numbering performed based on the number n of said partitions, its associated partition number p and cache page index; and - partitioning said cache memory space into said n partitions using said determined number of cache sets of each of said n partitions and said numbering of said cache sets. - determining a number n of partitions necessary in said cache memory space based on said number of processor cores, wherein each of said partitions: - is assigned a partition number p; and - is associated to one of said number of processor cores; characterized in further comprising: - is assigned a partition number p; and - is associated to one of said number of processor cores; - determining a number of cache pages in each of said n partitions and a number of cache sets to be used in each of said n partitions based on said number of cache pages and said associativity level, wherein each of said cache pages is assigned a cache page index; - numbering each of said cache sets of each of said n partitions for identifying said cache sets, the numbering performed based on the number n of said partitions, its associated partition number p and cache page index; and - partitioning said cache memory space into said n partitions using said determined number of cache sets of each of said n partitions and said numbering of said cache sets.
Method for through-type coating of a device that rotates during coating in a closed coating booth and that is conveyed to and away from the coating booth by means of a carrier holding the device in a defined position, wherein the method comprises the following steps: Picking up of the loaded carrier from a supplying conveyor conveying the loaded carrier together with the forks of a fork-type loader through a loading opening of the painting booth into the painting booth, coupling the device to be coated to the system rotating the device during coating and separating the device from its carrier handing over the unloaded carrier to the forks of a fork-type unloader completely withdrawing the empty forks of the loader out of the booth through the loading opening of the booth and completely withdrawing the forks of the unloader together with the unloaded carrier out of the booth through an unloading opening of the booth closing the loading opening and the unloading opening of the booth rotating and coating the device to be coated opening at least the unloading opening of the booth conveying the unloaded carrier together with the forks of the unloader through an unloading opening of the painting booth into the painting booth uncoupling the device from the system that has rotated the device during coating while joining the device with the carrier completely withdrawing the forks of the unloader together with the loaded carrier out of the booth through the unloading opening of the booth handing over the loaded carrier to a discharging conveyor. Picking up of the loaded carrier from a supplying conveyor conveying the loaded carrier together with the forks of a fork-type loader through a loading opening of the painting booth into the painting booth, coupling the device to be coated to the system rotating the device during coating and separating the device from its carrier handing over the unloaded carrier to the forks of a fork-type unloader completely withdrawing the empty forks of the loader out of the booth through the loading opening of the booth and completely withdrawing the forks of the unloader together with the unloaded carrier out of the booth through an unloading opening of the booth closing the loading opening and the unloading opening of the booth rotating and coating the device to be coated opening at least the unloading opening of the booth conveying the unloaded carrier together with the forks of the unloader through an unloading opening of the painting booth into the painting booth uncoupling the device from the system that has rotated the device during coating while joining the device with the carrier completely withdrawing the forks of the unloader together with the loaded carrier out of the booth through the unloading opening of the booth handing over the loaded carrier to a discharging conveyor.
Air spring component for an air spring, an air spring strut or an air spring damper, comprising a first component made of a first material, a second component made of a second material, a joining agent made of a third material, the first component and the second component having corresponding joint regions (12a, 12b), the first component and the second component being connected to one another in a materially bonded manner by overmoulding the joint regions (12a, 12b) with the joining agent.
A temperature dependent release dosage form, comprising: an active material comprising at least a cannabis ingredient, wherein the cannabis ingredient comprises cannabis oil, cannabis extract and/or raw cannabis; and a polymeric wall encapsulating said active material, said polymeric wall comprises an agar composition and no more than about 10% w/w water, preferably no more than 8% w/w water; wherein the temperature dependent release dosage form is characterized by the wall being configured to prevent passage of said active material therethrough at temperatures lower than about 50°C, preferably lower than about 45°C, and the polymeric wall melting or deforming at temperatures higher than 80°C, preferably higher than 85°C, thus allowing passage therethrough of the active material. an active material comprising at least a cannabis ingredient, wherein the cannabis ingredient comprises cannabis oil, cannabis extract and/or raw cannabis; and a polymeric wall encapsulating said active material, said polymeric wall comprises an agar composition and no more than about 10% w/w water, preferably no more than 8% w/w water; wherein the temperature dependent release dosage form is characterized by the wall being configured to prevent passage of said active material therethrough at temperatures lower than about 50°C, preferably lower than about 45°C, and the polymeric wall melting or deforming at temperatures higher than 80°C, preferably higher than 85°C, thus allowing passage therethrough of the active material.
An inverter, wherein the inverter comprises a direct current conversion circuit, a direct current bus, an inverter circuit, and a controller; an input end of the direct current conversion circuit is connected to an input end of the inverter, an output end of the direct current conversion circuit is connected to an input end of the inverter circuit through the direct current bus, and an output end of the inverter circuit is connected to an output end of the inverter; characterized in that the controller is configured to: obtain a reactive voltage control amount based on actual output active power and reference output active power of the inverter circuit, and adjust an output voltage of the inverter circuit based on the reactive voltage control amount and a reference output voltage, to adjust the actual output active power of the inverter circuit based on the sign of a q-axis output voltage variation, wherein the reactive voltage control amount is the q-axis output voltage variation; or wherein the reactive voltage control amount is an output voltage frequency variation and the q-axis output voltage variation corresponds to the output voltage frequency variation. an input end of the direct current conversion circuit is connected to an input end of the inverter, an output end of the direct current conversion circuit is connected to an input end of the inverter circuit through the direct current bus, and an output end of the inverter circuit is connected to an output end of the inverter; characterized in that the controller is configured to: obtain a reactive voltage control amount based on actual output active power and reference output active power of the inverter circuit, and adjust an output voltage of the inverter circuit based on the reactive voltage control amount and a reference output voltage, to adjust the actual output active power of the inverter circuit based on the sign of a q-axis output voltage variation, wherein the reactive voltage control amount is the q-axis output voltage variation; or wherein the reactive voltage control amount is an output voltage frequency variation and the q-axis output voltage variation corresponds to the output voltage frequency variation.
A blade for use in a gas turbine engine comprising: an airfoil including a leading edge and a trailing edge, a sheath positioned at the leading edge, said sheath being secured to said airfoil by a first adhesive formed of a first material, said sheath being formed of a second material that is distinct from said first material, said first material being less electrically conductive than said second material; and a grounding element (112; 130) in contact with said sheath, and said grounding element (112; 130) being in contact with a portion of said airfoil, said portion of said airfoil being formed of a third material that is more electrically conductive than said first material, said grounding element (112; 130) and said portion of said airfoil together forming a ground path from said sheath into said airfoil, wherein said airfoil extends outwardly of a platform in a radial dimension, and said airfoil extends between suction and pressure sides (200, 202) to define a lateral dimension; characterised in that said grounding element (112; 130) is disposed at a location between said sheath and said airfoil and is positioned both laterally and radially inwardly of portions of said first adhesive. an airfoil including a leading edge and a trailing edge, a sheath positioned at the leading edge, said sheath being secured to said airfoil by a first adhesive formed of a first material, said sheath being formed of a second material that is distinct from said first material, said first material being less electrically conductive than said second material; and a grounding element (112; 130) in contact with said sheath, and said grounding element (112; 130) being in contact with a portion of said airfoil, said portion of said airfoil being formed of a third material that is more electrically conductive than said first material, said grounding element (112; 130) and said portion of said airfoil together forming a ground path from said sheath into said airfoil, wherein said airfoil extends outwardly of a platform in a radial dimension, and said airfoil extends between suction and pressure sides (200, 202) to define a lateral dimension;
A surgical system comprising: a patient side cart comprising a telesurgically operated instrument, the telesurgically operated instrument comprising a transmission and a surgical end effector having a plurality of end effector components, the transmission being driven by a motor, the transmission including at least a first effector drivetrain and a second effector drivetrain; and a controller comprising at least one processor for controlling the transmission, wherein the controller is configured to perform: locking an output gear of the second effector drivetrain; shifting coupling of the motor from the first effector drivetrain to the second effector drivetrain; determining that the output gear is aligned by driving the locked output gear using a first torque; determining that the output gear is properly braked by driving the locked output gear using a second torque; unlocking the output gear; and driving the second effector drivetrain using the motor. a patient side cart comprising a telesurgically operated instrument, the telesurgically operated instrument comprising a transmission and a surgical end effector having a plurality of end effector components, the transmission being driven by a motor, the transmission including at least a first effector drivetrain and a second effector drivetrain; and a controller comprising at least one processor for controlling the transmission, wherein the controller is configured to perform: locking an output gear of the second effector drivetrain; shifting coupling of the motor from the first effector drivetrain to the second effector drivetrain; determining that the output gear is aligned by driving the locked output gear using a first torque; determining that the output gear is properly braked by driving the locked output gear using a second torque; unlocking the output gear; and driving the second effector drivetrain using the motor. locking an output gear of the second effector drivetrain; shifting coupling of the motor from the first effector drivetrain to the second effector drivetrain; determining that the output gear is aligned by driving the locked output gear using a first torque; determining that the output gear is properly braked by driving the locked output gear using a second torque; unlocking the output gear; and driving the second effector drivetrain using the motor.
Use of ivermectin as sole active principle in the preparation of a unique, non-irritating pharmaceutical composition for the treatment of ocular rosacea characterized in that the composition is administrated topically and is provided in the form of an eyewash; the composition comprising from 0.01 to 5% by weight of ivermectin with respect to the total weight of the composition.
A communication control apparatus for provision in a network that includes a plurality of base stations and a node apparatus that is for edge computing and is connected to the plurality of base stations, the communication control apparatus comprising: acquisition means for acquiring, from the node apparatus, cell transition information that indicates transitions between cells by each vehicle that moves in a plurality of cells formed by the plurality of base stations; determination means for determining a vehicle group that is made up of a plurality of vehicles and is to be subjected to transmission control, based on the cell transition information acquired by the acquisition means; and control means for controlling uplink transmission of data from the vehicle group determined by the determination means, the control means limiting vehicles that perform uplink transmission of path-dependent data, which is dependent on a movement path of a vehicle, to a portion of vehicles that belong to the determined vehicle group. acquisition means for acquiring, from the node apparatus, cell transition information that indicates transitions between cells by each vehicle that moves in a plurality of cells formed by the plurality of base stations; determination means for determining a vehicle group that is made up of a plurality of vehicles and is to be subjected to transmission control, based on the cell transition information acquired by the acquisition means; and control means for controlling uplink transmission of data from the vehicle group determined by the determination means, the control means limiting vehicles that perform uplink transmission of path-dependent data, which is dependent on a movement path of a vehicle, to a portion of vehicles that belong to the determined vehicle group.
A process for producing, in particular selectively producing, ethanol comprising the step of - contacting a gas mixture comprising or consisting of carbon dioxide and methane in presence of water with a catalyst comprising or consisting of permanently polarized hydroxyapatite. - contacting a gas mixture comprising or consisting of carbon dioxide and methane in presence of water with a catalyst comprising or consisting of permanently polarized hydroxyapatite.
Combination of a pressure plate assembly and a mounting apparatus for mounting the pressure plate assembly in a manner which is free from counterforce on a counterpressure plate with at least one release element which can be moved in the axial direction with regard to the pressure plate assembly and is configured to load cup spring tongues of the pressure plate assembly with an axial force, in order to release the normally engaged pressure plate assembly, with a base element which is configured to come into contact with a clutch cover of the pressure plate assembly outside the pressure plate assembly, and on which the release element is arranged such that it can be moved in the axial direction of the mounting apparatus, and with at least one hook element which is configured to engage behind the clutch cover, in order to hold the mounting apparatus in a stationary manner at least in the axial direction with regard to the pressure plate assembly when the release element loads the cup spring tongues of the pressure plate assembly with the axial force, characterized in that the hook element forms a part of a bayonet closure and is configured to configure a bayonet connection with the clutch cover as the second part.
A water treatment filter backwash process control system, comprising: a control system that is configured to receive filter backwash turbidity data from a backwash control turbidity sensor; and wherein the control system further being configured to receive filter media level data from a filter media level sensor; the control system having a filter media level set point, wherein the filter media level set point corresponds to a desired filter media bed expansion; the control system having a filter backwash turbidity set point, wherein the control system is configured to control the filter backwash process while monitoring the filter backwash turbidity and the filter media level, by sending one or more variable output signals that are used to control a backwash inlet liquid flow in order to maintain the desired filter media bed expansion and by sending one or more discrete output signals that are used to stop the backwash inlet liquid flow when the filter backwash turbidity set point is reached. wherein the control system further being configured to receive filter media level data from a filter media level sensor; the control system having a filter media level set point, wherein the filter media level set point corresponds to a desired filter media bed expansion; the control system having a filter backwash turbidity set point, wherein the control system is configured to control the filter backwash process while monitoring the filter backwash turbidity and the filter media level, by sending one or more variable output signals that are used to control a backwash inlet liquid flow in order to maintain the desired filter media bed expansion and by sending one or more discrete output signals that are used to stop the backwash inlet liquid flow when the filter backwash turbidity set point is reached.
A lighting assembly, including: - a heat sink having a mounting surface for a light source; - a light source board having a light source mounted thereon, said light source board being arranged against said mounting surface of said heat sink and having an outer perimeter edge, and - a drive board carrying drive circuitry (16a, 22) for said light source, said drive board being fixed onto said heat sink with said light source board sandwiched between said heat sink and said drive board, said drive board having an aperture with a inner edge complementary to said outer edge of said light source board, whereby said light source is left uncovered by said drive board, and wherein: - said inner edge of said drive board has an inwardly protruding frame formation with said outer perimeter edge of said light source board abutting against said frame formation, and - said light source board has a thickness whereby said drive board and said mounting surface of said heat sink have a clearance therebetween, characterized in that it includes: - glue interposed between said frame formation and said outer perimeter edge of said light source board abutting thereagainst, and - an indentation extending along said frame formation facing said outer perimeter edge of said light source board, including glue accommodated in said indentation. - a heat sink having a mounting surface for a light source; - a light source board having a light source mounted thereon, said light source board being arranged against said mounting surface of said heat sink and having an outer perimeter edge, and - a drive board carrying drive circuitry (16a, 22) for said light source, said drive board being fixed onto said heat sink with said light source board sandwiched between said heat sink and said drive board, said drive board having an aperture with a inner edge complementary to said outer edge of said light source board, whereby said light source is left uncovered by said drive board, and wherein: - said inner edge of said drive board has an inwardly protruding frame formation with said outer perimeter edge of said light source board abutting against said frame formation, and - said light source board has a thickness whereby said drive board and said mounting surface of said heat sink have a clearance therebetween, - glue interposed between said frame formation and said outer perimeter edge of said light source board abutting thereagainst, and - an indentation extending along said frame formation facing said outer perimeter edge of said light source board, including glue accommodated in said indentation.