mhurhangee/patent-ind-claim-en huggingface dataset:
A method of scheduling tasks within a GPU, the method comprising: whilst executing a first GPU task and in response to a second GPU task becoming ready to run , determining which of the first and second GPU task has a higher priority ; and in response to determining that the second GPU task has a higher priority than the currently executing first GPU task: estimating a completion time for each of the first and second GPU tasks ; determining, using the estimated completion times, whether both the first and second GPU tasks can be completed before a deadline associated with the second GPU task ; and in response to determining that both the first and second GPU tasks can be completed before the deadline associated with the second GPU task, allowing the first GPU task to continue execution and setting a timer to a time given by D-(E+C), wherein D is the deadline for the second GPU task, E is the estimated time to complete the second GPU task, and C is the time taken to perform the context switch from the first GPU task to the second GPU task; and in response to the timer expiring prior to completion of execution of the first GPU task , interrupting the execution of the first GPU task and executing the second GPU task . whilst executing a first GPU task and in response to a second GPU task becoming ready to run , determining which of the first and second GPU task has a higher priority ; and in response to determining that the second GPU task has a higher priority than the currently executing first GPU task: estimating a completion time for each of the first and second GPU tasks ; determining, using the estimated completion times, whether both the first and second GPU tasks can be completed before a deadline associated with the second GPU task ; and in response to determining that both the first and second GPU tasks can be completed before the deadline associated with the second GPU task, allowing the first GPU task to continue execution and setting a timer to a time given by D-(E+C), wherein D is the deadline for the second GPU task, E is the estimated time to complete the second GPU task, and C is the time taken to perform the context switch from the first GPU task to the second GPU task; and estimating a completion time for each of the first and second GPU tasks ; determining, using the estimated completion times, whether both the first and second GPU tasks can be completed before a deadline associated with the second GPU task ; and in response to determining that both the first and second GPU tasks can be completed before the deadline associated with the second GPU task, allowing the first GPU task to continue execution and setting a timer to a time given by D-(E+C), wherein D is the deadline for the second GPU task, E is the estimated time to complete the second GPU task, and C is the time taken to perform the context switch from the first GPU task to the second GPU task; and in response to the timer expiring prior to completion of execution of the first GPU task , interrupting the execution of the first GPU task and executing the second GPU task .
An upstream data equalization method, wherein the method is applied to an optical line terminal , OLT, and comprises: receiving capability information that is sent by an optical network unit , ONU, by using a first preamble, wherein the capability information is used to indicate whether the ONU has an equalization capability; calculating a tap coefficient based on the received first preamble if the capability information indicates that the ONU has the equalization capability; sending the tap coefficient to the ONU , wherein the ONU updates a tap coefficient of a first equalizer in the ONU based on the received tap coefficient, and when subsequently sending upstream data, sends, by using a second preamble, the upstream data equalized by using the first equalizer, and a length of the second preamble is less than a length of the first preamble; receiving the equalized upstream data, that was equalized by using the first equalizer and sent by the ONU by using the second preamble; and equalizing the received upstream data based on the second preamble by using a second equalizer in the OLT . receiving capability information that is sent by an optical network unit , ONU, by using a first preamble, wherein the capability information is used to indicate whether the ONU has an equalization capability; calculating a tap coefficient based on the received first preamble if the capability information indicates that the ONU has the equalization capability; sending the tap coefficient to the ONU , wherein the ONU updates a tap coefficient of a first equalizer in the ONU based on the received tap coefficient, and when subsequently sending upstream data, sends, by using a second preamble, the upstream data equalized by using the first equalizer, and a length of the second preamble is less than a length of the first preamble; receiving the equalized upstream data, that was equalized by using the first equalizer and sent by the ONU by using the second preamble; and equalizing the received upstream data based on the second preamble by using a second equalizer in the OLT .
An image forming apparatus comprising: an image forming portion for forming an image on a recording material (P) using toner (S) containing parting material; a heating rotatable member and a pressing rotatable member forming a nip portion for fixing the image formed on the recording material (P) by said image forming portion ; a duct for discharging the air taken in from neighbourhood of an entrance of the nip portion through an air inlet port , a filter provided in an air flow path of said duct to collect fine particles produced from the parting material, a fan for sucking air into said duct, characterized in that the image forming apparatus is configured such that a distance, which is the shortest distance between the center of the air inlet port and the surface of said heating rotatable member , is d in mm, an area of said filter is Fs in cm^2, and an air flow speed in the filter is Fv in cm/s satisfy the following: 1.25 × d − 8.67 × 1000 Fv × 60 ≤ Fs < 200 × 1000 Fv × 60 an image forming portion for forming an image on a recording material (P) using toner (S) containing parting material; a heating rotatable member and a pressing rotatable member forming a nip portion for fixing the image formed on the recording material (P) by said image forming portion ; a duct for discharging the air taken in from neighbourhood of an entrance of the nip portion through an air inlet port , a filter provided in an air flow path of said duct to collect fine particles produced from the parting material, a fan for sucking air into said duct, characterized in that the image forming apparatus is configured such that a distance, which is the shortest distance between the center of the air inlet port and the surface of said heating rotatable member , is d in mm, an area of said filter is Fs in cm^2, and an air flow speed in the filter is Fv in cm/s satisfy the following: 1.25 × d − 8.67 × 1000 Fv × 60 ≤ Fs < 200 × 1000 Fv × 60
A method of positioning an inlet guide vane assembly before start-up of a chiller system including a compressor having a motor , a condenser , and a cooler , characterized in that the method comprises: receiving a first input from sensors located in the cooler and the condenser when the motor is in an idle, non-rotating state; calculating a saturation temperature in the cooler and a saturation temperature in the condenser based on the input from the sensors; receiving a second input indicative of a minimum speed of a motor coupled to the compressor at start-up; determining an allowable position of the inlet guide vane assembly based on the higher one of the calculated saturation temperatures and the second input; and moving the inlet guide vane assembly to the determined allowable position. receiving a first input from sensors located in the cooler and the condenser when the motor is in an idle, non-rotating state; calculating a saturation temperature in the cooler and a saturation temperature in the condenser based on the input from the sensors; receiving a second input indicative of a minimum speed of a motor coupled to the compressor at start-up; determining an allowable position of the inlet guide vane assembly based on the higher one of the calculated saturation temperatures and the second input; and moving the inlet guide vane assembly to the determined allowable position.
An electrode structure , comprising: a first electrode unit having an airflow space therein and comprising a box electrically conductive base with an airflow plane and an air cell cathode disposed on an outer surface of the airflow plane ; a second electrode unit (20A;20C) comprising an electrically conductive base (22;23) and an air cell anode disposed on an outer surface of the electrically conductive base (22;23); and a first insulating frame , wherein the first and second electrode units are adjacent to each other, the first insulating frame spaces and joins the adjacent electrode units (10A,20A;10A,20C) to each other such that the air cell cathode and the air cell anode of the adjacent electrode units (10A,20A;10A,20C) are opposed to each other, and the first insulating frame together with the adjacent electrode units (10A,20A;10A,20C) forms an electrolytic solution container (E), the box electrically conductive base comprises a metal non-gas permeable plate and a metal gas permeable plate , the airflow space is provided by joining the metal non-gas permeable plate and the gas-permeable plate to each other by metal ribs so as to form the box electrically conductive base, and the airflow plane is provided by the metal gas-permeable plate . a first electrode unit having an airflow space therein and comprising a box electrically conductive base with an airflow plane and an air cell cathode disposed on an outer surface of the airflow plane ; a second electrode unit (20A;20C) comprising an electrically conductive base (22;23) and an air cell anode disposed on an outer surface of the electrically conductive base (22;23); and a first insulating frame , wherein the first and second electrode units are adjacent to each other, the first insulating frame spaces and joins the adjacent electrode units (10A,20A;10A,20C) to each other such that the air cell cathode and the air cell anode of the adjacent electrode units (10A,20A;10A,20C) are opposed to each other, and the first insulating frame together with the adjacent electrode units (10A,20A;10A,20C) forms an electrolytic solution container (E), the box electrically conductive base comprises a metal non-gas permeable plate and a metal gas permeable plate , the airflow space is provided by joining the metal non-gas permeable plate and the gas-permeable plate to each other by metal ribs so as to form the box electrically conductive base, and the airflow plane is provided by the metal gas-permeable plate .
A thin walled irrigating pipe having a tensile layer formed as a continuous strip upon an outer side of the pipe with increased tensile strength, wherein the pipe comprises axially spaced apart apertures for communicating liquid out of the pipe and the apertures being formed also through the tensile layer , wherein the tensile layer comprising a higher tensile strength than material of the remainder of the pipe outside of the tensile layer , characterized in that the tensile layer comprising a secant-modulus higher than a comparative secant-modulus in the remainder material of the pipe outside of the tensile layer, and in that in a cross section orthogonal to the pipe axis and taken along any location along the pipe's axis, the tensile layer extends only along a portion of the pipe's periphery. the tensile layer comprising a secant-modulus higher than a comparative secant-modulus in the remainder material of the pipe outside of the tensile layer, and in that in a cross section orthogonal to the pipe axis and taken along any location along the pipe's axis, the tensile layer extends only along a portion of the pipe's periphery.
A method comprising: acquiring process data collected in an industrial process control and automation system ; reducing a dimension space of the process data by combining two or more parameters of the process data, wherein the dimension space of the process data is reduced by combining a time constant parameter and a time delay parameter into a response time parameter ; determining a change in a process based on a change in the process data in the reduced dimension space; and outputting a result based on the determined change in the process to generate a process model for re-tuning and maintenance of process control in the industrial process control and automation system. acquiring process data collected in an industrial process control and automation system ; reducing a dimension space of the process data by combining two or more parameters of the process data, wherein the dimension space of the process data is reduced by combining a time constant parameter and a time delay parameter into a response time parameter ; determining a change in a process based on a change in the process data in the reduced dimension space; and outputting a result based on the determined change in the process to generate a process model for re-tuning and maintenance of process control in the industrial process control and automation system.
A method of selecting a subset of settings extracted from one or more virtual machine images, the virtual machine images storing therein values of the settings, the settings used by software executing in virtual machines of the virtual machine images, respectively, the method comprising: selecting a target one of the virtual machine images and obtaining target values of the settings from the target virtual machine image; accessing sample values of the settings, the sample values having been obtained from a plurality of virtual machine images; and forming the subset by identifying similarities and differences of the values between the virtual machine images, said forming comprising executing a peer-pressure algorithm comprising Bayesian statistic functions that operate on counts of the similarities and differences and eliminating highly uniform and highly non-uniform setting values, wherein the target virtual machine image comprises a user-selected virtual machine image, and the plurality of virtual machine images are related to each other and the target virtual machine image, and wherein the plurality of virtual machine images and the target virtual machine image are related as being copies of a same virtual machine image at different points in time; and storing the output of the peer-pressure algorithm. selecting a target one of the virtual machine images and obtaining target values of the settings from the target virtual machine image; accessing sample values of the settings, the sample values having been obtained from a plurality of virtual machine images; and forming the subset by identifying similarities and differences of the values between the virtual machine images, said forming comprising executing a peer-pressure algorithm comprising Bayesian statistic functions that operate on counts of the similarities and differences and eliminating highly uniform and highly non-uniform setting values, wherein the target virtual machine image comprises a user-selected virtual machine image, and the plurality of virtual machine images are related to each other and the target virtual machine image, and wherein the plurality of virtual machine images and the target virtual machine image are related as being copies of a same virtual machine image at different points in time; and storing the output of the peer-pressure algorithm.
An agricultural working machine with ground engaging means disposed on at least one driven axle for transmission of a torque, as well as at least one connecting device to which a mounted implement the working position of which can be adjusted in height and which is operated by the working machine is connected, wherein at least one sensor is disposed on the working machine for determining at least one machine parameter and also wherein at least one sensor for determining at least one operating parameter of the mounted implement is associated with the working machine and wherein the working machine comprises a control unit for specifying the at least one machine parameter of the working machine , wherein, by means of a variation of at least one operating parameter of the mounted implement , a tractive force exerted on the working machine by the mounted implement can be controlled or regulated as a function of at least one machine parameter of the working machine in a manner such that at least the one machine parameter lies in a range which can be specified, characterized in that the control unit is configured for the automatic specification of the at least one machine parameter of the working machine , wherein georeferenced data stored in the control unit are consulted in order to determine a nominal value for the at least one machine parameter, the data being based on information which was recorded during a previous treatment of the ground of the field.
An antigen presenting cell (APC) comprising: a) an exogenous nucleic acid encoding one or more candidate antigens, wherein the one or more candidate antigens are expressed and presented with MHC class I or MHC class II molecules; b) a molecular reporter of Granzyme B (GzB) activity; and c) an exogenous inhibitor of caspase-activated deoxyribonuclease (CAD)-mediated DNA degradation, a CAD knockout, or a caspase knockout. a) an exogenous nucleic acid encoding one or more candidate antigens, wherein the one or more candidate antigens are expressed and presented with MHC class I or MHC class II molecules; b) a molecular reporter of Granzyme B (GzB) activity; and c) an exogenous inhibitor of caspase-activated deoxyribonuclease (CAD)-mediated DNA degradation, a CAD knockout, or a caspase knockout.
A polymer composition comprising: (A) 65 to 35 parts by mass of a copolymer containing a constitutional unit derived from ethylene and a constitutional unit derived from an α-olefin having 3 to 20 carbon atoms; (B) 35 to 65 parts by mass of a propylene-based polymer having a melting point of 135°C to 170°C measured by DSC (provided that the total of the component (A) and the component (B) is 100 parts by mass); (C) 0.01 to 0.50 parts by mass of fatty acid amide with a molecular weight of 310 to 5,000 relative to 100 parts by mass of the total of the component (A) and the component (B); and (D) 0.01 to 0.50 parts by mass of fatty acid amide with a molecular weight of 298 or less relative to 100 parts by mass of the total of the component (A) and the component (B), wherein, when the amount of the component (C) is designated Wc and the amount of the component (D) is designated Wd, Wc/Wd is 0.5 to 1.5, and the component (A) is not crosslinked. (A) 65 to 35 parts by mass of a copolymer containing a constitutional unit derived from ethylene and a constitutional unit derived from an α-olefin having 3 to 20 carbon atoms; (B) 35 to 65 parts by mass of a propylene-based polymer having a melting point of 135°C to 170°C measured by DSC (provided that the total of the component (A) and the component (B) is 100 parts by mass); (C) 0.01 to 0.50 parts by mass of fatty acid amide with a molecular weight of 310 to 5,000 relative to 100 parts by mass of the total of the component (A) and the component (B); and (D) 0.01 to 0.50 parts by mass of fatty acid amide with a molecular weight of 298 or less relative to 100 parts by mass of the total of the component (A) and the component (B),
A topical composition comprising Prunus mume leaf extract, encapsulated resveratrol, oligopeptide-1, and niacinamide, and optionally one or more of Opuntia tuna fruit extract, malachite extract and/or adenosine.
Cladding element for an interior of a rail vehicle, comprising - an electrically conductive cover plate , which is visible from the interior in an assembled state; - an electrically conductive carrier plate which is connected to the cover plate and which is not visible from the interior in the assembled state, wherein the carrier plate having at least one earthing connection for electrically connecting the cladding element to an earthing line , wherein the connection between the cover plate and the carrier plate is made by means of a planar adhesive layer , wherein the adhesive layer is designed to be electrically conductive in such a way that a measured voltage drop between a first measuring point on the cover plate and a second measuring point on the carrier plate is at most 1 V when a current of 50 A is applied between the cover plate and the carrier plate over a period of 60 s. - an electrically conductive cover plate , which is visible from the interior in an assembled state; - an electrically conductive carrier plate which is connected to the cover plate and which is not visible from the interior in the assembled state, wherein the carrier plate having at least one earthing connection for electrically connecting the cladding element to an earthing line , wherein the connection between the cover plate and the carrier plate is made by means of a planar adhesive layer , wherein the adhesive layer is designed to be electrically conductive in such a way that a measured voltage drop between a first measuring point on the cover plate and a second measuring point on the carrier plate is at most 1 V when a current of 50 A is applied between the cover plate and the carrier plate over a period of 60 s.
Wall hook, having a screw and a hook element for fastening in an anchoring base , wherein the screw has a screw shaft with a thread , and the hook element has a screw shaft receptacle by means of which the hook element can be placed on the screw shaft in such a way that a hook part protrudes laterally from the screw shaft , the hook element being rotatable relative to the screw shaft , characterized in that the screw can be screwed into a screw hole for fastening in the anchoring base , and in that the hook element has an anti-rotation device which extends parallel to the screw shaft in such a way that, when the screw is screwed into the screw hole , the anti-rotation device passes into the screw hole and arrives between the screw shaft and the screw hole , and contacts the screw shaft and the screw hole , and holds the hook element in a rotationally fixed manner on the screw hole , and in that , after the anti-rotation device has penetrated into the screw hole , a distance of the hook part from the anchoring base is continuously adjustable by rotating the screw .