mhurhangee/ep-ind-claims huggingface dataset:
A processing method of a software application on a computer system having a plurality of processing elements for independently executing instructions, some common hardware resources (13, 14, 16) in the system being accessed by and shared among the processing elements, the method comprising: compiling source code of the application to obtain a sequence of executable instructions for each processing element by analysing the source code; automatically identifying, on the basis of analysing the source code, at least one resource contention among the processing elements predicted to result from combinations of accesses to one or more of the common hardware resources to be executed by the processing elements, and inserting, in the sequence of executable instructions obtained by analysing the source code, an additional instruction the presence of which in the sequence at least identifies the resource contention and indicates a specific type of contention; providing resource contention mitigation means including a plurality of contention status registers each representing a type of resource contention, and contention control means; and executing the sequence of executable instructions by said processing elements to perform operations in said computer system, wherein the contention control means, in response to execution of a said additional instruction, reads the contention status register for the contention type specified in the instruction to determine whether a threshold for action in respect of the contention type concerned has been reached and if so, takes a mitigation strategy for the contention type including accessing said one or more of the common hardware resources in a predefined manner. compiling source code of the application to obtain a sequence of executable instructions for each processing element by analysing the source code; automatically identifying, on the basis of analysing the source code, at least one resource contention among the processing elements predicted to result from combinations of accesses to one or more of the common hardware resources to be executed by the processing elements, and inserting, in the sequence of executable instructions obtained by analysing the source code, an additional instruction the presence of which in the sequence at least identifies the resource contention and indicates a specific type of contention; providing resource contention mitigation means including a plurality of contention status registers each representing a type of resource contention, and contention control means; and executing the sequence of executable instructions by said processing elements to perform operations in said computer system, wherein the contention control means, in response to execution of a said additional instruction, reads the contention status register for the contention type specified in the instruction to determine whether a threshold for action in respect of the contention type concerned has been reached and if so, takes a mitigation strategy for the contention type including accessing said one or more of the common hardware resources in a predefined manner.
Internal combustion engine with at least one cylinder, to which at least one inlet valve and at least one outlet valve are assigned, and with a water jacket assigned to the cylinder for cooling a crank case and a cylinder head of the internal combustion engine, characterised in that the water jacket has a first crank case flow chamber and a second crank case flow chamber in the crank case, which, in regions, surround the cylinder in the circumferential direction, in that the water jacket has a first cylinder head flow chamber and a second cylinder head flow chamber in the cylinder head, which overlap the cylinder, wherein the first cylinder head flow chamber is arranged in an axial direction between the cylinder and the second cylinder head flow chamber and in that the first cylinder head flow chamber has at least one fluid inlet and is connected to the first crank case flow chamber via at least one first fluid line, wherein the first crank case flow chamber is connected to the second cylinder head flow chamber via a second fluid line which is connected to the second crank case flow chamber via a third fluid line and wherein the second crank case flow chamber has at least one fluid outlet.
A photo-curable ink jet ink set comprising: an undercoating photo-curable ink jet ink having a surface tension and containing a (meth)acrylic acid ester having a vinyl ether group expressed by general formula: CH 2 =CR 1 -COOR 2 -O-CH=CH-R 3, wherein R 1 represents a hydrogen atom or a methyl group, R 2 represents a divalent organic residue having 2 to 20 carbon atoms, and R 3 represents a hydrogen atom or a monovalent organic residue having 1 to 11 carbon atoms; and an overcoating photo-curable ink jet ink having a surface tension, wherein the surface tension of the undercoating photocurable ink jet ink is higher than the surface tension of the overcoating photo-curable ink jet ink. an undercoating photo-curable ink jet ink having a surface tension and containing a (meth)acrylic acid ester having a vinyl ether group expressed by general formula: CH 2 =CR 1 -COOR 2 -O-CH=CH-R 3, wherein R 1 represents a hydrogen atom or a methyl group, R 2 represents a divalent organic residue having 2 to 20 carbon atoms, and R 3 represents a hydrogen atom or a monovalent organic residue having 1 to 11 carbon atoms; and an overcoating photo-curable ink jet ink having a surface tension, wherein the surface tension of the undercoating photocurable ink jet ink is higher than the surface tension of the overcoating photo-curable ink jet ink.
A solar module frame comprising: a body including a top, a bottom and a vertical surface therebetween, wherein the solar module frame receives a photovoltaic laminate at the top of the body; a mounting flange extending from the bottom of the body at an edge; a lower laminate flange extending from the top of the body; and a cable management flange extending from the vertical interior surface between the top and the bottom of the body, the cable management flange being integral with the body, wherein the cable management flange and one of the mounting flange or the lower laminate flange define a cable cavity (226, 228) therebetween for retaining at least one cable. a body including a top, a bottom and a vertical surface therebetween, wherein the solar module frame receives a photovoltaic laminate at the top of the body; a mounting flange extending from the bottom of the body at an edge; a lower laminate flange extending from the top of the body; and a cable management flange extending from the vertical interior surface between the top and the bottom of the body, the cable management flange being integral with the body, wherein the cable management flange and one of the mounting flange or the lower laminate flange define a cable cavity (226, 228) therebetween for retaining at least one cable.
A conductive ink composition comprising: A silver component, where at least about 50% of the silver component is made up of silver having a particle size of greater than about 100 nm and less than about 1 um; A carrier; and An organohalogen compound selected from the group consisting of 2-iodopropane, 1-iodopropane, 2-iodo-2-methylpropane, 2-iodobutane, 2-fluorobenzotrifluoride, 3-fluorobenzotrifluoride, 4-fluorobenzotrifluoride, fluorobenzene, 2-fluoro ethanol, 1-fluorododecane, 1-fluorohexane, 1-fluoroheptane and mixtures thereof. A silver component, where at least about 50% of the silver component is made up of silver having a particle size of greater than about 100 nm and less than about 1 um; A carrier; and An organohalogen compound selected from the group consisting of 2-iodopropane, 1-iodopropane, 2-iodo-2-methylpropane, 2-iodobutane, 2-fluorobenzotrifluoride, 3-fluorobenzotrifluoride, 4-fluorobenzotrifluoride, fluorobenzene, 2-fluoro ethanol, 1-fluorododecane, 1-fluorohexane, 1-fluoroheptane and mixtures thereof.
A thruster assembly for a marine vessel comprising: a propeller unit, a motor, a drive shaft linking the motor with the propeller unit to drive the propeller unit, the drive shaft being foldable and defining a drive path between the motor and the propeller unit, the drive path lying along a line joining the centre of rotation of each component piece of the foldable drive shaft, a housing for locating the propeller unit in a storage configuration, the motor being fixed with respect to the housing, the housing being adapted to be fixed with respect to an opening in a hull of the marine vessel, so that in the storage configuration the propeller unit is held within the hull, an actuator operable to move the propeller unit from the storage configuration to a deployment configuration in a direction from inboard to outboard, the propeller unit being extended from the hull for use in the deployment configuration, a tunnel 20), a cover, and connecting means, wherein the propeller unit sits within the said tunnel, wherein the cover is connected to the tunnel via said connecting means, the cover being arranged such that to cover the opening in the hull of the marine vessel, when the thruster assembly is in the storage configuration, wherein the propeller unit is supported by a support assembly which is pivotable relative to the housing about a pivot axis, a closest point on the drive path being defined as a point on the drive path which is closest to the pivot axis, characterized in that the said pivot axis is located in a position such that, when the thruster assembly is mounted on the marine vessel, the said position of said pivot axis, is outboard of the closest point on the drive path of the drive shaft when the propeller unit is in the storage configuration and when the propeller unit is in the deployment configuration. a propeller unit, a motor, a drive shaft linking the motor with the propeller unit to drive the propeller unit, the drive shaft being foldable and defining a drive path between the motor and the propeller unit, the drive path lying along a line joining the centre of rotation of each component piece of the foldable drive shaft, a housing for locating the propeller unit in a storage configuration, the motor being fixed with respect to the housing, the housing being adapted to be fixed with respect to an opening in a hull of the marine vessel, so that in the storage configuration the propeller unit is held within the hull, an actuator operable to move the propeller unit from the storage configuration to a deployment configuration in a direction from inboard to outboard, the propeller unit being extended from the hull for use in the deployment configuration, a tunnel 20),
Tool element for a tool for the injection molding of plastic parts, wherein the tool element is composed at least of a first assembly (61, 61', 61") and of a second assembly (62, 62', 62"), wherein at least one mold insert (1, 2 and/or 214) associated with the first assembly (61, 61', 61") is fastened to the second assembly (62, 62', 62") in order to form the mold cavity, and wherein an ejecting device (82, 83, 232) for ejecting completely injection-molded injection molded parts is combined in the tool element with the mold insert (1, 2 and/or 214), and wherein at least the one mold insert (1, 2 and/or 214) and the ejecting device (82, 83, 232) form the first assembly (61, 61', 61"), and wherein the first assembly (61, 61', 61") is detachably arranged on the second assembly (62, 62', 62") of the associated tool element in such a way that the first assembly (61, 61', 61") can be inserted and/or fitted into the second assembly (62, 62', 62") at least in some regions in a predetermined stacking direction and is mounted in the stacking direction, characterized in that the first assembly (61, 61', 61") is connected to the second assembly (62, 62', 62") by means of a locking mechanism, which locks the mold insert (1, 2 and/or 214) to the second assembly (62, 62', 62") at a first position (243', 243", 250) by means of a first locking means (206', 206") and locks the ejecting device (82, 83, 232) to the second assembly (62, 62', 62") at a second position (237', 237", 251, 251', 251", 251′′′) by means of a second locking means (240', 240"), wherein the first and/or the second locking means (206', 206", 240', 240") are movably mounted, and in that the actuating element (4, 204) is linearly movable or rotatably mounted. wherein an ejecting device (82, 83, 232) for ejecting completely injection-molded injection molded parts is combined in the tool element with the mold insert (1, 2 and/or 214), and wherein at least the one mold insert (1, 2 and/or 214) and the ejecting device (82, 83, 232) form the first assembly (61, 61', 61"), and wherein the first assembly (61, 61', 61") is detachably arranged on the second assembly (62, 62', 62") of the associated tool element in such a way that the first assembly (61, 61', 61") can be inserted and/or fitted into the second assembly (62, 62', 62") at least in some regions in a predetermined stacking direction and is mounted in the stacking direction, characterized in that the first assembly (61, 61', 61") is connected to the second assembly (62, 62', 62") by means of a locking mechanism, which locks the mold insert (1, 2 and/or 214) to the second assembly (62, 62', 62") at a first position (243', 243", 250) by means of a first locking means (206', 206") and locks the ejecting device (82, 83, 232) to the second assembly (62, 62', 62") at a second position (237', 237", 251, 251', 251", 251′′′) by means of a second locking means (240', 240"), wherein the first and/or the second locking means (206', 206", 240', 240") are movably mounted, and in that the actuating element (4, 204) is linearly movable or rotatably mounted.
A method of operating an iron redox flow battery system, comprising: fluidly coupling a plating electrode of an iron redox flow battery cell to a plating electrolyte; fluidly coupling a redox electrode of the iron redox flow battery cell to a redox electrolyte; fluidly coupling a ductile plating additive, which is capable of reducing plating stress when iron ions in the electrolyte are reduced and plated at the plating electrode, to one or both of the plating electrolyte and the redox electrolyte; and increasing a first amount of the ductile plating additive delivered to the plating electrolyte in response to an increase in a plating stress at the plating electrode. fluidly coupling a plating electrode of an iron redox flow battery cell to a plating electrolyte; fluidly coupling a redox electrode of the iron redox flow battery cell to a redox electrolyte; fluidly coupling a ductile plating additive, which is capable of reducing plating stress when iron ions in the electrolyte are reduced and plated at the plating electrode, to one or both of the plating electrolyte and the redox electrolyte; and increasing a first amount of the ductile plating additive delivered to the plating electrolyte in response to an increase in a plating stress at the plating electrode.
An air-conditioning apparatus comprising: a refrigerant circuit in which at least a compressor, a heat-source-side heat exchanger, expansion means, and a use-side heat exchanger are connected by a refrigerant pipe, and through which a refrigerant is circulated; heating means that heats the compressor; a refrigerant temperature sensor that detects a refrigerant temperature that is a temperature of the refrigerant in the compressor; a compressor temperature sensor that detects a temperature of a shell of the compressor; and control means that controls the heating means; wherein while the compressor is stopped, if the temperature of the compressor is lower than the temperature of the refrigerant, the control means calculates a change rate of the refrigerant temperature per a time on the basis of a value detected by the refrigerant temperature sensor, and makes a heating amount to the compressor by the heating means to be proportional to the change rate of the refrigerant temperature, wherein the control means calculates the change rate of the refrigerant temperature on the basis of a current refrigerant temperature and a refrigerant temperature at the predetermined time before which are detected by the refrigerant temperature sensor. a refrigerant circuit in which at least a compressor, a heat-source-side heat exchanger, expansion means, and a use-side heat exchanger are connected by a refrigerant pipe, and through which a refrigerant is circulated; heating means that heats the compressor; a refrigerant temperature sensor that detects a refrigerant temperature that is a temperature of the refrigerant in the compressor; a compressor temperature sensor that detects a temperature of a shell of the compressor; and control means that controls the heating means; wherein while the compressor is stopped, if the temperature of the compressor is lower than the temperature of the refrigerant, the control means calculates a change rate of the refrigerant temperature per a time on the basis of a value detected by the refrigerant temperature sensor, and makes a heating amount to the compressor by the heating means to be proportional to the change rate of the refrigerant temperature, wherein the control means calculates the change rate of the refrigerant temperature on the basis of a current refrigerant temperature and a refrigerant temperature at the predetermined time before which are detected by the refrigerant temperature sensor.
Method of producing a battery, more particularly for a motor vehicle, encompassing the steps: a) provision of at least one battery module which comprises a plurality of battery cells, b) determination of requirements relating to a cooling device (26, 34) for the battery, depending on whether liquid cooling or cooling with a gaseous medium is to be used for the battery, c) selection of the cooling device (26, 34) depending on whether liquid cooling or cooling with a gaseous medium is envisaged for the at least one battery module, d) arranging at least a first cooling body, through which a cooling fluid can flow, or at least a second cooling body, through which the gaseous medium can flow, on the at least one battery module as a cooling device, depending on the selection made in step b), wherein the at least one first cooling body, through which a cooling fluid can flow, is arranged on the at least one battery module if the battery is intended for an electric vehicle, and the at least second cooling body, through which the gaseous medium can flow, if the battery is intended for a hybrid vehicle a) provision of at least one battery module which comprises a plurality of battery cells, b) determination of requirements relating to a cooling device (26, 34) for the battery, depending on whether liquid cooling or cooling with a gaseous medium is to be used for the battery, c) selection of the cooling device (26, 34) depending on whether liquid cooling or cooling with a gaseous medium is envisaged for the at least one battery module, d) arranging at least a first cooling body, through which a cooling fluid can flow, or at least a second cooling body, through which the gaseous medium can flow, on the at least one battery module as a cooling device, depending on the selection made in step b), wherein the at least one first cooling body, through which a cooling fluid can flow, is arranged on the at least one battery module if the battery is intended for an electric vehicle, and the at least second cooling body, through which the gaseous medium can flow, if the battery is intended for a hybrid vehicle
A system to compress transient signals, the system comprising: a transmitter disposed in a borehole and configured to change a transmitted current and induce a current in an earth formation; a receiver disposed in the borehole and configured to receive the transient signals resulting from the transmitted current; and characterised by comprising: a processor configured to compress the transient signals, the processor configured to compress the transient signals based on a spline approximation method or an Eigen value method for each transient signal based on whether the spline approximation method or the Eigen value method results in a fewer number of parameters representing the transient signal. a transmitter disposed in a borehole and configured to change a transmitted current and induce a current in an earth formation; a receiver disposed in the borehole and configured to receive the transient signals resulting from the transmitted current; and characterised by comprising: a processor configured to compress the transient signals, the processor configured to compress the transient signals based on a spline approximation method or an Eigen value method for each transient signal based on whether the spline approximation method or the Eigen value method results in a fewer number of parameters representing the transient signal. a processor configured to compress the transient signals, the processor configured to compress the transient signals based on a spline approximation method or an Eigen value method for each transient signal based on whether the spline approximation method or the Eigen value method results in a fewer number of parameters representing the transient signal.
The use of two or more pharmaceutically inactive polyethylene glycols (PEGs), each of the PEGs having different molecular weight, as a unique marker profile to label a pharmaceutical product comprising a pharmaceutically active ingredient, wherein the unique marker profile has been incorporated in the pharmaceutical product during manufacture; wherein said pharmaceutically inactive PEGs are not identifiable by sequencing, wherein the identities and absolute or relative amounts of said two or more pharmaceutically inactive PEGs of said unique marker profile are determined and indicate the source of origin of said pharmaceutical product, wherein the source of origin is the location or facility where the pharmaceutical product was manufactured or denotes the supplier of the pharmaceutical product or the recipient to whom the pharmaceutical product is shipped from its location or facility of origin and who becomes himself a source of the pharmaceutical product if he provides the pharmaceutical product to another party.
A method for structurally designing an offshore wind turbine comprising: - obtaining hydrodynamic data associated with a location of the offshore wind turbine, where the hydrodynamic data comprises wave height related values (Hi) and/or wave frequencies (fi) and probability of occurrence data (Pi) indicating the probability of waves with the wave height related values (Hi) and/or wave frequencies (fi), - determining a significant wave frequency (fc) based on the hydrodynamic data and on basis of a wave frequency where the wave height related value associated with the significant wave frequency has a determined potential or estimated significant impact on fatigue loading of a tower and/or a support structure of the wind turbine, - determining dominant eigenfrequencies of the wind turbine, - adjusting structural design parameters of the wind turbine so that at least one of the dominant eigenfrequencies is located below the significant wave frequency (fc). - obtaining hydrodynamic data associated with a location of the offshore wind turbine, where the hydrodynamic data comprises wave height related values (Hi) and/or wave frequencies (fi) and probability of occurrence data (Pi) indicating the probability of waves with the wave height related values (Hi) and/or wave frequencies (fi), - determining a significant wave frequency (fc) based on the hydrodynamic data and on basis of a wave frequency where the wave height related value associated with the significant wave frequency has a determined potential or estimated significant impact on fatigue loading of a tower and/or a support structure of the wind turbine, - determining dominant eigenfrequencies of the wind turbine, - adjusting structural design parameters of the wind turbine so that at least one of the dominant eigenfrequencies is located below the significant wave frequency (fc).