mhurhangee/ep-ind-claims huggingface dataset:
A process control apparatus (10, 20), comprising: a program execution unit (11, 21) configured to execute a non-update target program (PA11, PA21) which is not an update target and an update target program (PB12, PB 13, PB21, PB22) which is the update target; a first program update manager (15, 25) configured to pause the non-update target program (PA11, PA21) based on a pause request from an engineering equipment, and to transfer a context of the non-update target program (PA11, PA21); and a second program update manager (15, 25) configured to restore the context of the non-update target program (PA11, PA21) by using the context transferred from the first program update manager (15, 25), and to initialize a context of the update target program (PB12, PB 13, PB21, PB22) after its update, and to cause the program execution unit (11, 21) to resume the non-update target program (PA11, PA21) and the update target program (PB12, PB 13, PB21, PB22) after its update, based on a resuming request from the engineering equipment, characterized in that when it is determined that processing of the update target program (PB12, PB 13, PB21, PB22) requested by the non-update target program (PA11, PA21) is in progress, the first program update manager (15, 25) is configured to set an execution position of the non-update target program (PA11, PS21) to a position immediately before requesting the processing of the update target program (PB12, PB 13, PB21, PB22) and to delete information indicating that the processing of the update target program (PB12, PB 13, PB21, PB22) is in progress. a program execution unit (11, 21) configured to execute a non-update target program (PA11, PA21) which is not an update target and an update target program (PB12, PB 13, PB21, PB22) which is the update target; a first program update manager (15, 25) configured to pause the non-update target program (PA11, PA21) based on a pause request from an engineering equipment, and to transfer a context of the non-update target program (PA11, PA21); and a second program update manager (15, 25) configured to restore the context of the non-update target program (PA11, PA21) by using the context transferred from the first program update manager (15, 25), and to initialize a context of the update target program (PB12, PB 13, PB21, PB22) after its update, and to cause the program execution unit (11, 21) to resume the non-update target program (PA11, PA21) and the update target program (PB12, PB 13, PB21, PB22) after its update, based on a resuming request from the engineering equipment, characterized in that when it is determined that processing of the update target program (PB12, PB 13, PB21, PB22) requested by the non-update target program (PA11, PA21) is in progress, the first program update manager (15, 25) is configured to set an execution position of the non-update target program (PA11, PS21) to a position immediately before requesting the processing of the update target program (PB12, PB 13, PB21, PB22) and to delete information indicating that the processing of the update target program (PB12, PB 13, PB21, PB22) is in progress.
A method comprising: receiving, by an application server system (102, 202, 302) comprising one or more processors, and from one or more client computing devices, application error data associated with at least one error that occurred during execution of at least one application on the one or more client computing devices; receiving, by the application server system, mapping data (108, 508) that provides a mapping between (i) library-dependent source code of the at least one application and (ii) at least one third-party library from which the library-dependent source code is loaded during execution of the at least one application; determining, by the application server system and based on the application error data and the mapping data, a match between the library-dependent source code and at least one portion of the application error data; responsive to determining the match, attributing, by the application server system, the at least one error that occurred during execution of the at least one application to the at least one third-party library; generating, by the application server system, library error data associated with the at least one third-party library, wherein the library error data includes the at least one portion of the application error data; and sending, by the application server system and to at least one third-party library development system that develops the at least one third-party library, the library error data. receiving, by an application server system (102, 202, 302) comprising one or more processors, and from one or more client computing devices, application error data associated with at least one error that occurred during execution of at least one application on the one or more client computing devices; receiving, by the application server system, mapping data (108, 508) that provides a mapping between (i) library-dependent source code of the at least one application and (ii) at least one third-party library from which the library-dependent source code is loaded during execution of the at least one application; determining, by the application server system and based on the application error data and the mapping data, a match between the library-dependent source code and at least one portion of the application error data; responsive to determining the match, attributing, by the application server system, the at least one error that occurred during execution of the at least one application to the at least one third-party library; generating, by the application server system, library error data associated with the at least one third-party library, wherein the library error data includes the at least one portion of the application error data; and sending, by the application server system and to at least one third-party library development system that develops the at least one third-party library, the library error data.
A rotating shaft body for connecting two rotating components, comprising a first arc-shaped surface and a second arc-shaped surface bending toward a same side, wherein the first arc-shaped surface and the second arc-shaped surface have a common side edge between the first arc-shaped surface and the second arc-shaped surface, an axis of rotation defined by the first arc-shaped surface for one of the two rotating components and an axis of rotation defined by the second arc-shaped surface for the other of the two rotating components are on the same side and are parallel and spaced apart, the first arc-shaped surface is provided with a first stopper part on an end distal to the second arc-shaped surface, and the second arc-shaped surface is provided with a second stopper part on an end distal to the first arc-shaped surface; the rotating shaft body further comprises a supporting surface, the supporting surface is provided on the same side as the axes of rotation defined by the two arc-shaped surfaces (11, 12), the supporting surface has a convex orientation toward the two arc-shaped surfaces (11, 12), and two opposite ends of the supporting surface are provided with a third stopper part and a fourth stopper part respectively; characterized in that the rotating shaft body further comprises a first stopping surface connecting the first stopper part and the third stopper part, and a second stopping surface connecting the second stopper part and the fourth stopper part, wherein the first stopping surface connects the first arc-shaped surface and the supporting surface, the second stopping surface connects the supporting surface and the second arc-shaped surface, and the first stopping surface and the second stopping surface are located in a same plane. the rotating shaft body further comprises a supporting surface, the supporting surface is provided on the same side as the axes of rotation defined by the two arc-shaped surfaces (11, 12), the supporting surface has a convex orientation toward the two arc-shaped surfaces (11, 12), and two opposite ends of the supporting surface are provided with a third stopper part and a fourth stopper part respectively; characterized in that the rotating shaft body further comprises a first stopping surface connecting the first stopper part and the third stopper part, and a second stopping surface connecting the second stopper part and the fourth stopper part, wherein the first stopping surface connects the first arc-shaped surface and the supporting surface, the second stopping surface connects the supporting surface and the second arc-shaped surface, and the first stopping surface and the second stopping surface are located in a same plane.
A multirate system for controlling an actuator, comprising: an incremental command limiter configured to output a limited incremental command; a lead-lag filter configured to filter said limited incremental command to attenuate frequencies greater than the bandwidth of the multirate system to produce a shaped limited incremental command; a position error signal derived from the shaped limited incremental command and from a position feedback signal from the actuator; an amplifier configured to produce a rate command from said position error signal; a feed forward path configured to produce a feed forward rate command derived from said shaped limited incremental command; and, a summer configured to produce a rate output signal for controlling the actuator from said rate command and said feed forward rate command; wherein said multirate system comprises a first control system and a second control system, and wherein said incremental command limiter is configured to interpolate a position command from said first control system to produce a limited incremental command of said second control system; and wherein said first control system has a first sampling rate, and said second control system has a second sampling rate different than said first sampling rate. an incremental command limiter configured to output a limited incremental command; a lead-lag filter configured to filter said limited incremental command to attenuate frequencies greater than the bandwidth of the multirate system to produce a shaped limited incremental command; a position error signal derived from the shaped limited incremental command and from a position feedback signal from the actuator; an amplifier configured to produce a rate command from said position error signal; a feed forward path configured to produce a feed forward rate command derived from said shaped limited incremental command; and, a summer configured to produce a rate output signal for controlling the actuator from said rate command and said feed forward rate command;
A tire (100, 200) with a defined radial direction r, an axial direction y, and a tire centerline (C/L), the tire comprising: a pair of opposing bead portions (102, 104); a pair of opposing sidewall portions (106, 108, 206) connected with the opposing bead portions; a crown portion (110, 210) connecting the opposing sidewall portions; a body ply extending between the bead portions and through the sidewall and crown portions, the body ply having a curve along a meridian plane, wherein s is the length in mm along the curve from the centerline of the tire; and one or more belt plies (112, 114, 116, 241, 243) positioned in the crown portion, wherein s M is one-half of the maximum curvilinear width, along the axial direction, of the widest belt of the one or more belt plies; and wherein when a basis curve is constructed using the shape the body ply would have when the tire was mounted on an application rim at a reference inflation pressure of 0.5 bar, in a cross-section along the meridian plane the body ply is located radially inward of the basis curve along at least one side of the tire centerline with a deviation D(s), with -7.5 mm ≤ D(s) ≤ -3 mm at a point s b +54 mm along the curve of the body ply, and where s b is equal to s M - 60 mm. a pair of opposing bead portions (102, 104); a pair of opposing sidewall portions (106, 108, 206) connected with the opposing bead portions; a crown portion (110, 210) connecting the opposing sidewall portions; a body ply extending between the bead portions and through the sidewall and crown portions, the body ply having a curve along a meridian plane, wherein s is the length in mm along the curve from the centerline of the tire; and one or more belt plies (112, 114, 116, 241, 243) positioned in the crown portion,
A throttle valve for adjusting the feeding of a gas to a fuel cell; the throttle valve comprises: a valve body including a first and a second portion; a gas feeding duct obtained in the first portion of the valve body; a throttle plate, arranged in the feeding duct; a shaft, which is rotatably mounted in the first portion of the valve body and supports the throttle plate; and an actuator, which is mounted in the second portion of the valve body and is configured to rotate the shaft; the throttle valve is characterized in that it comprises: a magnetic joint, which transmits the motion from the actuator to the shaft and comprises a first half coupled to the shaft and a second half facing the first half and coupled to the actuator; and an insulating wall which is configured to insulate the first portion of the valve body, in a pneumatically sealed manner, from the second portion of the valve body and is arranged between the two halves (25, 26) of the magnetic joint. a valve body including a first and a second portion; a gas feeding duct obtained in the first portion of the valve body; a throttle plate, arranged in the feeding duct; a shaft, which is rotatably mounted in the first portion of the valve body and supports the throttle plate; and an actuator, which is mounted in the second portion of the valve body and is configured to rotate the shaft; the throttle valve is characterized in that it comprises: a magnetic joint, which transmits the motion from the actuator to the shaft and comprises a first half coupled to the shaft and a second half facing the first half and coupled to the actuator; and an insulating wall which is configured to insulate the first portion of the valve body, in a pneumatically sealed manner, from the second portion of the valve body and is arranged between the two halves (25, 26) of the magnetic joint. a magnetic joint, which transmits the motion from the actuator to the shaft and comprises a first half coupled to the shaft and a second half facing the first half and coupled to the actuator; and an insulating wall which is configured to insulate the first portion of the valve body, in a pneumatically sealed manner, from the second portion of the valve body and is arranged between the two halves (25, 26) of the magnetic joint.
A positive active material for a nonaqueous electrolyte secondary battery, containing a lithium-transition metal composite oxide, wherein the lithium-transition metal composite oxide has an α-NaFeO 2 structure, with a molar ratio Li/Me of Li to the transition metal (Me) being 1.05 ≤ Li/Me < 1.4, and contains Ni and Mn, or contains Ni, Co, and Mn as the transition metal (Me), with a molar ratio Mn/Me of Mn to Me being 0.4 ≤ Mn/Me < 0.6, and a molar ratio Ni/Me of Ni to Me being 0.2 ≤ Ni/Me ≤ 0.6, and has a density of 2.7 g/cm 3 or more in the case of press at a pressure of 40 MPa as determined by the method disclosed in paragraphs and of the description. wherein the lithium-transition metal composite oxide has an α-NaFeO 2 structure, with a molar ratio Li/Me of Li to the transition metal (Me) being 1.05 ≤ Li/Me < 1.4, and contains Ni and Mn, or contains Ni, Co, and Mn as the transition metal (Me), with a molar ratio Mn/Me of Mn to Me being 0.4 ≤ Mn/Me < 0.6, and a molar ratio Ni/Me of Ni to Me being 0.2 ≤ Ni/Me ≤ 0.6, and has a density of 2.7 g/cm 3 or more in the case of press at a pressure of 40 MPa as determined by the method disclosed in paragraphs and of the description.
A signal processing device for a measuring system, said signal processing device being adapted for filtering a signal from a sensor and forwarding the signal to a control device, the signal processing device comprising: a data acquisition portion, adapted for acquiring the signal of a time sequence as a time sequence signal, by periodically acquiring the signal from the sensor; and a filter portion, adapted for filtering the time sequence signal acquired by the data acquisition portion according to frequency, wherein the filter portion comprises a plurality of frequency filters (121, 122, 123) connected in series; a filter switching portion, the signal processing device being characterized in that the filter switching portion is adapted for selecting a part of the frequency filters (121, 122, 123) according to the time sequence signal acquired by the data acquisition portion according to frequency in the process of acquiring the time sequence signal by the data acquisition portion; and a forwarding portion, adapted for forwarding the signal filtered by the filter portion according to frequency or the signal acquired by the data acquisition portion to the control device. a data acquisition portion, adapted for acquiring the signal of a time sequence as a time sequence signal, by periodically acquiring the signal from the sensor; and a filter portion, adapted for filtering the time sequence signal acquired by the data acquisition portion according to frequency, wherein the filter portion comprises a plurality of frequency filters (121, 122, 123) connected in series; a filter switching portion, the signal processing device being characterized in that the filter switching portion is adapted for selecting a part of the frequency filters (121, 122, 123) according to the time sequence signal acquired by the data acquisition portion according to frequency in the process of acquiring the time sequence signal by the data acquisition portion; and a forwarding portion, adapted for forwarding the signal filtered by the filter portion according to frequency or the signal acquired by the data acquisition portion to the control device.
Cardiac support system comprising a receiving interface having inflow openings and an outlet interface having outlet openings, a turbomachine which has an impeller which is coupled to an electric motor, a connection cable, and a cannula which is connected to the connecting cable and which extends along an axis and can be arranged centrally in aortic valves, through which a blood flow can be conveyed from the receiving interface to the outlet interface by means of the turbomachine, characterized by a tip connected to a distal end of the cannula and an analysis apparatus for analyzing a viscosity of the blood in the blood flow, the analysis apparatus having the following features: - an ultrasonic element which is arranged in the tip and designed to generate a sound wave in the blood of the blood flow, which sound wave radiates through an inlet region of the receiving interface into the cannula along the axis thereof, in order to detect the Doppler parameter in reflections of sound waves from the blood, - a detection device which is designed to detect the viscosity of the blood in the blood flow using at least one Doppler parameter of a Doppler spectrum of the blood in the blood flow; and - a supply device which is designed to supply or send a viscosity signal which represents the viscosity of the blood in the blood flow that is detected by the detection device. - an ultrasonic element which is arranged in the tip and designed to generate a sound wave in the blood of the blood flow, which sound wave radiates through an inlet region of the receiving interface into the cannula along the axis thereof, in order to detect the Doppler parameter in reflections of sound waves from the blood, - a detection device which is designed to detect the viscosity of the blood in the blood flow using at least one Doppler parameter of a Doppler spectrum of the blood in the blood flow; and - a supply device which is designed to supply or send a viscosity signal which represents the viscosity of the blood in the blood flow that is detected by the detection device.
Method for folding sheet-shaped elements (7a, 7b) in a folding station (3, 4) including at least one folding unit in a folding machine, wherein the sheet-shaped elements (7a, 7b) are supplied to the folding station leading edge (30a, 30b) first in a direction of transport in an overlapping formation, characterized in that the sheet-shaped elements (7a, 7b) are folded downward by a first folding length in the at least one folding unit, creating a fold perpendicular to the direction of transport to obtain a first folded product, so that a respective distance between the leading edge of a first folded sheet-shaped element and the leading edge of a following sheet-shaped element is greater than or equal to zero, the overlap (d) at the maximum corresponding to the first folding length.
A process for the preparation of a propylene homopolymer in a multistage polymerisation process in the presence of a single site catalyst, said process comprising: in a slurry polymerisation step, polymerising propylene in the presence of said single site catalyst; and subsequently in a gas polymerisation step polymerising propylene in the presence of catalyst and polymer from step so as to form a propylene homopolymer; wherein said catalyst comprises (i) a metallocene complex of a Group 4 metal, said metallocene comprising at least two cyclopentadienyl type ligands; (ii) a boron based cocatalyst; and (iii) an aluminoxane cocatalyst; said catalyst being in solid form, preferably in solid particulate form, and being free from an external carrier. in a slurry polymerisation step, polymerising propylene in the presence of said single site catalyst; and subsequently in a gas polymerisation step polymerising propylene in the presence of catalyst and polymer from step so as to form a propylene homopolymer; (i) a metallocene complex of a Group 4 metal, said metallocene comprising at least two cyclopentadienyl type ligands; (ii) a boron based cocatalyst; and (iii) an aluminoxane cocatalyst;