mhurhangee/ep-ind-claims huggingface dataset:
A device, comprising: one or more processors including a graphics processing unit and a central processing unit including one or more CPU cores (100, 202, 323); a memory coupled to the one or more processors; and an operating system OS stored in the memory configured to run on at least a subset of the one or more processors, wherein the operating system is configured to selectively run in a normal mode or a timing testing mode, wherein in the timing testing mode the device is configured to disrupt timing of processing that takes place on the GPU while running an application with the GPU and test the application for errors in synchronization between at least one of device hardware components and software components while the device is running in the timing testing mode, wherein in the timing testing mode, the device is configured to disrupt timing of processing that takes place on the GPU while running an application with the GPU by: the OS replacing firmware of the GPU with firmware with timings different from normal operation of the device; or changing the GPU caching behavior and GPU cache lookup behavior from being based on a virtual address to being based on a physical address; or changing the GPU caching behavior and GPU cache lookup behavior from being based on a physical address to being based on a virtual address. one or more processors including a graphics processing unit and a central processing unit including one or more CPU cores (100, 202, 323); a memory coupled to the one or more processors; and an operating system OS stored in the memory configured to run on at least a subset of the one or more processors, wherein the operating system is configured to selectively run in a normal mode or a timing testing mode, wherein in the timing testing mode the device is configured to disrupt timing of processing that takes place on the GPU while running an application with the GPU and test the application for errors in synchronization between at least one of device hardware components and software components while the device is running in the timing testing mode, wherein in the timing testing mode, the device is configured to disrupt timing of processing that takes place on the GPU while running an application with the GPU by: the OS replacing firmware of the GPU with firmware with timings different from normal operation of the device; or changing the GPU caching behavior and GPU cache lookup behavior from being based on a virtual address to being based on a physical address; or changing the GPU caching behavior and GPU cache lookup behavior from being based on a physical address to being based on a virtual address. the OS replacing firmware of the GPU with firmware with timings different from normal operation of the device; or changing the GPU caching behavior and GPU cache lookup behavior from being based on a virtual address to being based on a physical address; or changing the GPU caching behavior and GPU cache lookup behavior from being based on a physical address to being based on a virtual address.
A vehicle-height control system configured to control a vehicle height for a wheel, the vehicle-height control system comprising: a vehicle-height control actuator provided so as to be associated to the wheel; an engine-operating-state-detector configured to detect an engine operating state; wheel speed sensors configured to detect values to detect a vehicle speed; a pressure-medium supply and discharge device configured to supply and discharge a pressure medium to and from the vehicle-height control actuator; and a vehicle height controller (80, 90, 92, 93, 94) configured to control the vehicle height for the wheel by controlling the pressure-medium supply and discharge device based on an inside temperature (Ti) and an outside-air temperature (To) to control at least one of supply and discharge of the pressure medium to and from the vehicle-height control actuator, the inside temperature (Ti) being a temperature in the vehicle-height control system, characterized in that the vehicle height controller (80, 90, 92, 93, 94) comprises a temperature difference obtainer configured to determine during running, based on the engine operating state and the vehicle speed, whether the inside temperature (Ti) is greater than the outside-air temperature (To) by a set value (ΔTth'), wherein when the temperature difference (ΔT) is greater than the set value (ΔTth'), a temperature-difference-dependent correction value (At) is set to a fixed number (At') greater than zero and when the temperature difference is not greater than the set value (ΔTth'), the temperature-difference-dependent correction value (At) is set to zero. a vehicle-height control actuator provided so as to be associated to the wheel; an engine-operating-state-detector configured to detect an engine operating state; wheel speed sensors configured to detect values to detect a vehicle speed; a pressure-medium supply and discharge device configured to supply and discharge a pressure medium to and from the vehicle-height control actuator; and a vehicle height controller (80, 90, 92, 93, 94) configured to control the vehicle height for the wheel by controlling the pressure-medium supply and discharge device based on an inside temperature (Ti) and an outside-air temperature (To) to control at least one of supply and discharge of the pressure medium to and from the vehicle-height control actuator, the inside temperature (Ti) being a temperature in the vehicle-height control system, characterized in that the vehicle height controller (80, 90, 92, 93, 94) comprises a temperature difference obtainer configured to determine during running, based on the engine operating state and the vehicle speed, whether the inside temperature (Ti) is greater than the outside-air temperature (To) by a set value (ΔTth'), wherein when the temperature difference (ΔT) is greater than the set value (ΔTth'), a temperature-difference-dependent correction value (At) is set to a fixed number (At') greater than zero and when the temperature difference is not greater than the set value (ΔTth'), the temperature-difference-dependent correction value (At) is set to zero.
A method for controlling a mixer that includes a housing, a cup body disposed on the housing, a motor and a fan disposed within the housing and a mixing part disposed within the cup body and co-axially connected to the motor, wherein the fan and the motor are opposite to each other, including: sending a fan initiation control signal to the fan when obtaining an instruction for initiating the mix from a user, to allow the fan to operate at a pre-set fan rotation speed; sending a motor initiation control signal to the motor to allow the motor to operate at a pre-set motor rotation speed within a pre-set mixing time period; wherein the instruction for initiating the mix includes the mixing time period; sending a motor stop control signal to the motor when the mixing time period is ended, to stop the operation of the motor; and sending a fan stop control signal to the fan after a pre-set first delayed time period, to stop the operation of the fan. sending a fan initiation control signal to the fan when obtaining an instruction for initiating the mix from a user, to allow the fan to operate at a pre-set fan rotation speed; sending a motor initiation control signal to the motor to allow the motor to operate at a pre-set motor rotation speed within a pre-set mixing time period; wherein the instruction for initiating the mix includes the mixing time period; sending a motor stop control signal to the motor when the mixing time period is ended, to stop the operation of the motor; and sending a fan stop control signal to the fan after a pre-set first delayed time period, to stop the operation of the fan.
A continuous high-pressure polymerization process for the preparation of a liquid ethylene copolymer which comprises in polymerized form - ethylene; and - an acrylate, which comprises - a polar acrylate selected from C 1 -C 5 alkyl (meth)acrylate, and - an unpolar acrylate selected from C 6 -C 22 alkyl (meth)acrylate, where the ethylene copolymer comprises in polymerized form - 25 to 55 wt% of the ethylene, - at least 20 wt% of the polar acrylate, and - at least 15 wt% of the unpolar acrylate, and where a monomer feed comprising the ethylene and the acrylate is polymerized in the presence of at least 2 wt% of a chain transfer agent. - ethylene; and - an acrylate, which comprises - a polar acrylate selected from C 1 -C 5 alkyl (meth)acrylate, and - an unpolar acrylate selected from C 6 -C 22 alkyl (meth)acrylate, where the ethylene copolymer comprises in polymerized form - a polar acrylate selected from C 1 -C 5 alkyl (meth)acrylate, and - an unpolar acrylate selected from C 6 -C 22 alkyl (meth)acrylate, where the ethylene copolymer comprises in polymerized form - 25 to 55 wt% of the ethylene, - at least 20 wt% of the polar acrylate, and - at least 15 wt% of the unpolar acrylate, and
A garnet-related structure crystal represented by the chemical composition Li 7-x-y La 3 Zr 2-x-y Ta x Nb y O 12 (0.05 ≤ x + y ≤ 0.2, x ≥ 0, y ≥ 0), the crystal structure being an orthorhombic system.
A lawn mower comprising: a mower deck; a cutting implement disposed below the mower deck; a handle coupled to the mower deck; a battery receiver configured to receive one or more batteries; a rear drive wheel (116, 116A, 116B); a forward drive wheel (114, 114A, 114B); a rear transmission coupled to the rear drive wheel (116, 116A, 116B) and configured to receive power from the one or more batteries; a forward transmission coupled to the forward drive wheel (114, 114A, 114B) and configured to receive power from the one or more batteries; and a controller configured to control the rear transmission and the forward transmission to selectively propel the lawn mower in a single-axle drive mode or an all-wheel drive mode, characterized in that the controller is configured to automatically revert to the single-axle drive mode when a power level of the one or more batteries drops below a critical threshold. a mower deck; a cutting implement disposed below the mower deck; a handle coupled to the mower deck; a battery receiver configured to receive one or more batteries; a rear drive wheel (116, 116A, 116B); a forward drive wheel (114, 114A, 114B); a rear transmission coupled to the rear drive wheel (116, 116A, 116B) and configured to receive power from the one or more batteries; a forward transmission coupled to the forward drive wheel (114, 114A, 114B) and configured to receive power from the one or more batteries; and a controller configured to control the rear transmission and the forward transmission to selectively propel the lawn mower in a single-axle drive mode or an all-wheel drive mode, characterized in that the controller is configured to automatically revert to the single-axle drive mode when a power level of the one or more batteries drops below a critical threshold.
A pressing machine for plastically deforming a tubular workpiece, in particular a fitting, wherein the pressing machine comprises: a. a motor; b. pressing jaws which are driven by the motor and can apply a force to the workpiece during operation; c. a power transmission unit coupled to the motor and the pressing jaws for transmitting power from the motor to the pressing jaws; d. at least one sensor unit for measuring at least one pressing parameter; and e. a controller, which receives a currently measured value of the press parameter from the sensor unit and determines therewith a slope of a press parameter curve of the press parameter; wherein f. the controller terminates a pressing operation before reaching a maximum possible pressing force (Pmax) when the slope of the press parameter curve of the pressing parameter fulfills a switch-off criterion, wherein the controller terminates the pressing process only when in addition to the switch-off criterion a predetermined minimum value (Pmin) for a pressing parameter has been exceeded and/or if the duration of the pressing process a minimum time (Tmin) has been exceeded. a. a motor; b. pressing jaws which are driven by the motor and can apply a force to the workpiece during operation; c. a power transmission unit coupled to the motor and the pressing jaws for transmitting power from the motor to the pressing jaws; d. at least one sensor unit for measuring at least one pressing parameter; and e. a controller, which receives a currently measured value of the press parameter from the sensor unit and determines therewith a slope of a press parameter curve of the press parameter; wherein f. the controller terminates a pressing operation before reaching a maximum possible pressing force (Pmax) when the slope of the press parameter curve of the pressing parameter fulfills a switch-off criterion, wherein the controller terminates the pressing process only when in addition to the switch-off criterion a predetermined minimum value (Pmin) for a pressing parameter has been exceeded and/or if the duration of the pressing process a minimum time (Tmin) has been exceeded.
Method for operating an autonomously operable motor vehicle which is performed by a control unit of the motor vehicle, comprising: - obtaining a location information item relating to a planned location of the motor vehicle; - ascertaining whether the location is situated in a security zone for which not any persons have access authorization; - ascertaining whether the motor vehicle is authorized to travel to the location planned according to the location information item on the basis of at least one person-related information item relating to at least one person using the motor vehicle; wherein the ascertainment of the authorization is further performed on the basis of location-dependent authorization information items which are stored in a database and define the persons authorized to travel to a location, and, if the control device ascertains that a person is not authorized to travel to the location, at least travel through the location is allowed, wherein the control device then arranges for a door locking system of the motor vehicle to remain locked. - obtaining a location information item relating to a planned location of the motor vehicle; - ascertaining whether the location is situated in a security zone for which not any persons have access authorization; - ascertaining whether the motor vehicle is authorized to travel to the location planned according to the location information item on the basis of at least one person-related information item relating to at least one person using the motor vehicle;
Process for the preparation of a catalyst comprising at least one hydro-dehydrogenating element selected from the group comprising elements of group VIB and of non-precious group VIII of the periodic table, used alone or mixed, and a support comprising the alumina and at least one dealuminated USY zeolite, said process comprising the following stages: b) deposition on said dealuminated zeolite of the element nickel in a quantity comprised between 0.8 and 3% by weight relative to the total mass of the zeolite, said dealuminated USY zeolite having an overall silicon-to-aluminium atomic ratio comprised between 2.5 and 10, a fraction by weight of extra-network aluminium atom greater than 20% relative to the total mass of the aluminium present in the zeolite, a mesopore volume measured by nitrogen porosimetry greater than 0.07 ml.g -1, a micropore volume measured by nitrogen porosimetry greater than 0.20 ml.g -1 and a crystal parameter a 0 of the elemental mesh greater than 24.28 Å, the fraction by weight of extra-network aluminium atom being determined from a NMR-MAS analysis of the solid-state 27 Al on a Brücker Avance 400 MHz spectrometer using a 4-mm probe c) shaping of the mixture of said dealuminated zeolite comprising the nickel obtained at the end of stage b) with the alumina in order to obtain the support; d) introduction of at least one hydro-dehydrogenating element by impregnation of the support with at least one compound of said element, e) drying and calcination of the final product obtained. the obtained catalyst having a hydrogenating active phase deposited on said USY zeolite, during stape b), only constituted of nickel. b) deposition on said dealuminated zeolite of the element nickel in a quantity comprised between 0.8 and 3% by weight relative to the total mass of the zeolite, said dealuminated USY zeolite having an overall silicon-to-aluminium atomic ratio comprised between 2.5 and 10, a fraction by weight of extra-network aluminium atom greater than 20% relative to the total mass of the aluminium present in the zeolite, a mesopore volume measured by nitrogen porosimetry greater than 0.07 ml.g -1, a micropore volume measured by nitrogen porosimetry greater than 0.20 ml.g -1 and a crystal parameter a 0 of the elemental mesh greater than 24.28 Å, the fraction by weight of extra-network aluminium atom being determined from a NMR-MAS analysis of the solid-state 27 Al on a Brücker Avance 400 MHz spectrometer using a 4-mm probe c) shaping of the mixture of said dealuminated zeolite comprising the nickel obtained at the end of stage b) with the alumina in order to obtain the support; d) introduction of at least one hydro-dehydrogenating element by impregnation of the support with at least one compound of said element, e) drying and calcination of the final product obtained.
A compound of formula or a pharmaceutically acceptable salt, tautomer(s), solvate or polymorph thereof, wherein R 1 is C 1-6 alkyl, arylalkyl, or heteroarylalkyl each of which is optionally substituted by one or more substituents independently selected from halogen, hydroxyl, amino, C 1-6 alkyl, di-(C 1-6)alkylamino, C 1-6 alkylamino, C 1-6 alkoxy, C 3-6 cycloalkyl, carboxylic acid, carboxylic ester, carboxylic amide, heterocycle, aryl, alkenyl, alkynyl, arylalkyl, heteroaryl, heteroarylalkyl, or nitrile, R 2 is C 1-8 alkyl, optionally substituted by one or more substituents independently selected from halogen, hydroxyl, amino, C 1-3 alkyl, C 1-3 alkoxy, C 3-6 cycloalkyl, carboxylic acid, carboxylic ester, carboxylic amide, di-(C 1-6)alkylamino, C 1-6 alkylamino, aryl, heteroaryl, heteroarylalkyl or nitrile. R 1 is C 1-6 alkyl, arylalkyl, or heteroarylalkyl each of which is optionally substituted by one or more substituents independently selected from halogen, hydroxyl, amino, C 1-6 alkyl, di-(C 1-6)alkylamino, C 1-6 alkylamino, C 1-6 alkoxy, C 3-6 cycloalkyl, carboxylic acid, carboxylic ester, carboxylic amide, heterocycle, aryl, alkenyl, alkynyl, arylalkyl, heteroaryl, heteroarylalkyl, or nitrile, R 2 is C 1-8 alkyl, optionally substituted by one or more substituents independently selected from halogen, hydroxyl, amino, C 1-3 alkyl, C 1-3 alkoxy, C 3-6 cycloalkyl, carboxylic acid, carboxylic ester, carboxylic amide, di-(C 1-6)alkylamino, C 1-6 alkylamino, aryl, heteroaryl, heteroarylalkyl or nitrile.
A system comprising: a logging tool (126,134,800,810,820,830) having a tool axis, the tool (126,134,800,810,820,830) comprising: at least one transmit antenna (802,804,862,864) to transmit an electromagnetic wave into a formation; and at least one receive antenna (806,808,812,822,824,832,834) to receive an electromagnetic wave from the formation, wherein at least one of the transmit and receive antennas (802,804,806,808,812,822,824,832,834,862,864) is tilted with respect to the tool axis; characterized in that the system further comprises at least one processor coupled to the at least one receive antenna (806,808,812,822,824,832,834) to convert the receive antenna's response into at least one antipodal sum value as the sum of the measurements at opposite rotational angles β k as a function of a number of rotational angle bins k of the tool (126,134,800,810,820,830) about the tool axis, and the at least one antipodal sum value is for a given position of the tool (126,134,800,810,820,830) in a borehole in the formation, wherein the at least one processor serves to determine one or more anisotropic formation parameters based at least in part on said at least one antipodal sum value, and wherein the processor is coupled to a user interface to display at least one of said anisotropic formation parameters. a logging tool (126,134,800,810,820,830) having a tool axis, the tool (126,134,800,810,820,830) comprising: at least one transmit antenna (802,804,862,864) to transmit an electromagnetic wave into a formation; and at least one receive antenna (806,808,812,822,824,832,834) to receive an electromagnetic wave from the formation, wherein at least one of the transmit and receive antennas (802,804,806,808,812,822,824,832,834,862,864) is tilted with respect to the tool axis; at least one transmit antenna (802,804,862,864) to transmit an electromagnetic wave into a formation; and at least one receive antenna (806,808,812,822,824,832,834) to receive an electromagnetic wave from the formation, wherein at least one of the transmit and receive antennas (802,804,806,808,812,822,824,832,834,862,864) is tilted with respect to the tool axis; characterized in that the system further comprises at least one processor coupled to the at least one receive antenna (806,808,812,822,824,832,834) to convert the receive antenna's response into at least one antipodal sum value as the sum of the measurements at opposite rotational angles β k as a function of a number of rotational angle bins k of the tool (126,134,800,810,820,830) about the tool axis, and the at least one antipodal sum value is for a given position of the tool (126,134,800,810,820,830) in a borehole in the formation, wherein the at least one processor serves to determine one or more anisotropic formation parameters based at least in part on said at least one antipodal sum value, and wherein the processor is coupled to a user interface to display at least one of said anisotropic formation parameters.