mhurhangee/ep-ind-claims huggingface dataset:
A control apparatus of electric power steering wherein a program execution monitoring dedicated circuit for monitoring an execution sequence and an execution time of a task executed by a control program of said an electric power steering is mounted on said control apparatus; characterized in that: said program execution monitoring dedicated circuit is provided with at least an execution sequence monitoring comparison circuit, an execution time monitoring timer circuit and a setting register, monitoring of said execution sequence of said task is performed by comparing respective head addresses of a plurality of tasks that are preliminarily registered in said setting register with a head address in command fetch by means of said execution sequence monitoring comparison circuit, monitoring of said execution time is performed by comparing an execution time of said each task with an execution time threshold preliminarily set for every task by means of said execution time monitoring timer circuit, and in a case that said execution sequence of said task is different from a sequence preliminarily set or/and in a case that said execution time of said task exceeds a threshold preliminarily set, said program execution monitoring dedicated circuit continues a steering assist by outputting a signal preliminarily set and performing a predetermined alternative fail-safe processing. said program execution monitoring dedicated circuit is provided with at least an execution sequence monitoring comparison circuit, an execution time monitoring timer circuit and a setting register, monitoring of said execution sequence of said task is performed by comparing respective head addresses of a plurality of tasks that are preliminarily registered in said setting register with a head address in command fetch by means of said execution sequence monitoring comparison circuit, monitoring of said execution time is performed by comparing an execution time of said each task with an execution time threshold preliminarily set for every task by means of said execution time monitoring timer circuit, and in a case that said execution sequence of said task is different from a sequence preliminarily set or/and in a case that said execution time of said task exceeds a threshold preliminarily set, said program execution monitoring dedicated circuit continues a steering assist by outputting a signal preliminarily set and performing a predetermined alternative fail-safe processing.
A resin composition comprising: an aliphatic epoxy-modified silicone compound; a multibranched imide resin having an isocyanurate ring and a carboxyl group; titanium dioxide; and a dispersing agent. an aliphatic epoxy-modified silicone compound; a multibranched imide resin having an isocyanurate ring and a carboxyl group; titanium dioxide; and a dispersing agent.
A polypeptide comprising a fibronectin type III tenth domain ( 10 Fn3) wherein the 10 Fn3 domain comprises an amino acid sequence at least 80% identical to the non-loop regions of SEQ ID NO:1, and a BC loop selected from SEQ ID NO:2-6, a DE loop selected from SEQ ID NO:7-48, and a FG loop selected from SEQ ID NO:49-59, wherein the polypeptide binds the p19 subunit of IL-23.
A liquid electrophotography ink developer comprising: a developer roller; an ink inlet chamber; a first electrode between the inlet chamber and the developer roller, the first electrode being spaced from the developer roller by a first gap; a second electrode between the inlet chamber and the developer roller, the second electrode being spaced from the developer roller by a second gap; and an ink flow path extending from the inlet chamber on a first side of the first electrode between the first electrode and the second electrode, through the first gap, and through a return passage which extends from the first gap back to the inlet chamber; wherein the ink inlet chamber is to receive ink from an inlet opening and from the return passage. a developer roller; an ink inlet chamber; a first electrode between the inlet chamber and the developer roller, the first electrode being spaced from the developer roller by a first gap; a second electrode between the inlet chamber and the developer roller, the second electrode being spaced from the developer roller by a second gap; and an ink flow path extending from the inlet chamber on a first side of the first electrode between the first electrode and the second electrode, through the first gap, and through a return passage which extends from the first gap back to the inlet chamber; wherein the ink inlet chamber is to receive ink from an inlet opening and from the return passage.
A method for differential diagnosis between neuromyelitis optica and multiple sclerosis, comprising detecting an index marker for neuromyelitis optica from a body fluid or a central neural cell derived from a test subject and determining whether the test subject has neuromyelitis optica or multiple sclerosis on the basis of the detection results; said index marker consisting of a2-macroglobulin or fragment thereof, comprising a N-acetylglucosamine residue at a non-reducing terminus and having an α2,6 sialic acid-free sugar chain.
A base station antenna, comprising power dividers, network calibration modules, and connectors, wherein the base station antenna further comprises at least two phase shifters (121; 122), the phase shifters (121; 122) comprise a first phase shifter and a second phase shifter, wherein the first phase shifter is integrated with a first combiner and a second combiner, wherein integration refers to an integrated setting, that is, interconnection without using cables, where two circuits are directly connected by using a circuit board or a metallic circuit, the connectors are connected to the network calibration modules, and the network calibration modules are connected to the phase shifters (121; 122), wherein the combined port of each combiner (131, 132) is connected to a respective power divider, and at least one output port of the second phase shifter is connected to a respective combiner (131, 132).
Wringing device of a cleaning system for a mop, in particular for a flat mop, the wringing device comprising a first and a second gratings (42, 50), the first grating and the second grating each comprising a sequence of parallel bars, the sequence of parallel bars of the second grating being suitable for intertwining with the sequence of bars of the first grating forming the walls of a wringing recess of the cleaning system inside the wringing device, the first and second gratings (42, 50) being suitable for moving relative to one another in order to deform the recess, wherein an end portion of the bars of the second grating extends beyond the first grating, the end portion of the bars of the second grating forming stop means for keeping the sequence of bars of the second grating intertwined with the sequence of bars of the first grating.
Reactor configuration for the production of propylene copolymers comprising at least three reactors R1, R2 and R3, all reactors having inlet and outlet, whereby reactors R2 and R3 are configured in parallel both downstream of reactor R1; and whereby reactor R1 is configured in series and upstream of reactors R2 and R3, whereby the outlet of reactor R1 is coupled with the inlets of both reactors R2 and R3, and whereby R1, R2 and R3 are gas phase polymerization reactors. whereby reactors R2 and R3 are configured in parallel both downstream of reactor R1; and whereby reactor R1 is configured in series and upstream of reactors R2 and R3, whereby the outlet of reactor R1 is coupled with the inlets of both reactors R2 and R3, and whereby R1, R2 and R3 are gas phase polymerization reactors.
A process for removing acidic gases from a fluid stream selected from gases, which has a total pressure of at least 3.0 bar, in which the fluid stream is contacted with an absorbent, comprising an aqueous solution comprising: a) a tertiary amine; b) a sterically hindered secondary amine of the general formula in which R 1 and R 2 are each independently selected from C 1-4 -alkyl and C 1-4 -hydroxyalkyl; R 3, R 4, R 5 and R 6 are each independently selected from hydrogen, C 1-4 -alkyl and C 1-4 -hydroxyalkyl, with the proviso that at least one R 4 and/or R 5 radical on the carbon atom bonded directly to the nitrogen atom is C 1-4 -alkyl or C 1-4 -hydroxyalkyl when R 3 is hydrogen; x and y are integers from 2 to 4 and z is an integer from 1 to 4; where the molar ratio of b) to a) is in the range from 0.3 to 0.7, and c) an acid in an amount, calculated as neutralization equivalent relative to the protonatable nitrogen atoms in a) and b), of 1.0 to 9.0%; wherein there is a partial hydrogen sulfide pressure of at least 0,1 bar and/or a partial carbon dioxide pressure of at least 0.2 bar in the fluid stream. a) a tertiary amine; b) a sterically hindered secondary amine of the general formula in which R 1 and R 2 are each independently selected from C 1-4 -alkyl and C 1-4 -hydroxyalkyl; R 3, R 4, R 5 and R 6 are each independently selected from hydrogen, C 1-4 -alkyl and C 1-4 -hydroxyalkyl, with the proviso that at least one R 4 and/or R 5 radical on the carbon atom bonded directly to the nitrogen atom is C 1-4 -alkyl or C 1-4 -hydroxyalkyl when R 3 is hydrogen; x and y are integers from 2 to 4 and z is an integer from 1 to 4; where the molar ratio of b) to a) is in the range from 0.3 to 0.7, and c) an acid in an amount, calculated as neutralization equivalent relative to the protonatable nitrogen atoms in a) and b), of 1.0 to 9.0%;
A method of fabricating a semiconductor light emitting device comprising: placing a suspension comprising phosphor particles suspended in solvent on at least a portion of a light emitting surface (110a; 110b) of a semiconductor light emitting element; wherein the light emitting surface (110a; 110b) is in a cavity and wherein placing comprises placing the suspension comprising phosphor particles suspended in solvent in the cavity, wherein said cavity is an LED reflector cavity and the semiconductor light emitting element is mounted in said cavity; and evaporating at least some of the solvent to cause the phosphor particles to deposit on the at least a portion of the light emitting surface and form a coating thereon comprising the phosphor particles, wherein said semiconductor light emitting element is a light emitting diode. placing a suspension comprising phosphor particles suspended in solvent on at least a portion of a light emitting surface (110a; 110b) of a semiconductor light emitting element; wherein the light emitting surface (110a; 110b) is in a cavity and wherein placing comprises placing the suspension comprising phosphor particles suspended in solvent in the cavity, wherein said cavity is an LED reflector cavity and the semiconductor light emitting element is mounted in said cavity; and evaporating at least some of the solvent to cause the phosphor particles to deposit on the at least a portion of the light emitting surface and form a coating thereon comprising the phosphor particles, wherein said semiconductor light emitting element is a light emitting diode.
A treatment device (200, 300, 400) for controlling systemic inflammatory response at an internal tissue site, the treatment device (200, 300, 400) comprising: an encapsulated leg member (205, 402), the encapsulated leg member (205, 402) comprising a leg manifold member (206, 416); an encapsulating envelope (208, 306, 412) formed with fenestrations (218, 308, 410) and enveloping the leg manifold member (206, 416); a connecting interface (220, 314, 418) coupled to the encapsulated leg member (205, 402) and fluidly coupled to the leg manifold member (206, 416); and a reduced-pressure delivery conduit for fluidly coupling a reduced-pressure source and the connecting interface (220, 314, 418); wherein the internal tissue site is an abdominal cavity interior to a patient's peritoneum and the treatment device is configured to remove pro-inflammatory stimuli proximate the internal tissue site, wherein the leg manifold member (206, 416) comprises a first leg manifold member and a second leg manifold member; the first leg manifold member and the second leg manifold member intersect to form a central connection site; and the encapsulating envelope comprises an exterior layer over the first leg manifold member, the second leg manifold member, and the central connection site. an encapsulated leg member (205, 402), the encapsulated leg member (205, 402) comprising a leg manifold member (206, 416); an encapsulating envelope (208, 306, 412) formed with fenestrations (218, 308, 410) and enveloping the leg manifold member (206, 416); a connecting interface (220, 314, 418) coupled to the encapsulated leg member (205, 402) and fluidly coupled to the leg manifold member (206, 416); and a reduced-pressure delivery conduit for fluidly coupling a reduced-pressure source and the connecting interface (220, 314, 418); wherein the internal tissue site is an abdominal cavity interior to a patient's peritoneum and the treatment device is configured to remove pro-inflammatory stimuli proximate the internal tissue site, wherein the leg manifold member (206, 416) comprises a first leg manifold member and a second leg manifold member; the first leg manifold member and the second leg manifold member intersect to form a central connection site; and the encapsulating envelope comprises an exterior layer over the first leg manifold member, the second leg manifold member, and the central connection site.
A method of inserting tin into a porphyrin compound or a salt thereof comprising: providing a porphyrin compound or salt thereof, providing tin oxide, and contacting the tin oxide with the porphyrin compound or salt thereof under acidic conditions, whereby the tin oxide inserts into the porphyrin ring to yield a metal porphyrin compound. providing a porphyrin compound or salt thereof, providing tin oxide, and contacting the tin oxide with the porphyrin compound or salt thereof under acidic conditions, whereby the tin oxide inserts into the porphyrin ring to yield a metal porphyrin compound.
Motor vehicle lock comprising an adjusting element arrangement, wherein the adjusting element arrangement is equipped with a drive motor and a pivotable or rotatable adjusting element arranged downstream of the drive motor, wherein the adjusting element is designed as a control shaft with at least one axial control portion for initiating control movements, wherein the control shaft has an actuating portion with at least one screw contour (7, 8), wherein an actuating element that interacts with the screw contour (7, 8) is provided for manual actuation of the control shaft, characterized in that the actuating element is longitudinally guided in the direction of the geometrical axis of the control shaft and interacts with the actuating portion in such a way that a longitudinal movement of the actuating element can be transformed into a pivoting or rotating movement of the control shaft about its geometrical axis.
A wearable electronic device, comprising: a handling portion that facilitates donning the wearable electronic device on a user, wherein the handling portion comprises a ring; a biometric authentication sensor associated with the handling portion, wherein the biometric authentication sensor comprises a fingerprint sensor configured to sense a fingerprint of the user while the user is donning the wearable electronic device; a wear status indicator module to determine whether the wearable electronic devices is being worn; a storage to store a fingerprint or extracted features thereof of an authorized user of the ring; and a security module (114; 314) to determine whether a scanned fingerprint matches a stored fingerprint of the authorized user of the ring, to determine whether the ring is on the finger of the user; and if the scanned fingerprint matches the fingerprint of the authorized user of the ring and the ring is on the finger of the user, to authorize communication of the ring with one or more other electronic devices. a handling portion that facilitates donning the wearable electronic device on a user, wherein the handling portion comprises a ring; a biometric authentication sensor associated with the handling portion, wherein the biometric authentication sensor comprises a fingerprint sensor configured to sense a fingerprint of the user while the user is donning the wearable electronic device; a wear status indicator module to determine whether the wearable electronic devices is being worn; a storage to store a fingerprint or extracted features thereof of an authorized user of the ring; and a security module (114; 314) to determine whether a scanned fingerprint matches a stored fingerprint of the authorized user of the ring, to determine whether the ring is on the finger of the user; and if the scanned fingerprint matches the fingerprint of the authorized user of the ring and the ring is on the finger of the user, to authorize communication of the ring with one or more other electronic devices.
A method for short term oil recovery optimization, which comprises: selecting one or more zones, wells, patterns/clusters or fields; displaying multiple optimization scenarios and corresponding actions for optimization of the one or more selected zones, wells, patterns/clusters or fields; selecting one or more of the optimization scenarios and displaying each corresponding action; selecting a prediction date for each selected optimization scenario; and displaying the one or more selected optimization scenarios and the effect of each corresponding action on the one or more selected zones, wells, patterns/clusters or fields on the prediction date using a computer system and wherein the display of the one or more selected optimization scenarios and the effect of each corresponding action includes infill drilling and re-drilling of water injection positions. selecting one or more zones, wells, patterns/clusters or fields; displaying multiple optimization scenarios and corresponding actions for optimization of the one or more selected zones, wells, patterns/clusters or fields; selecting one or more of the optimization scenarios and displaying each corresponding action; selecting a prediction date for each selected optimization scenario; and displaying the one or more selected optimization scenarios and the effect of each corresponding action on the one or more selected zones, wells, patterns/clusters or fields on the prediction date using a computer system and wherein the display of the one or more selected optimization scenarios and the effect of each corresponding action includes infill drilling and re-drilling of water injection positions.
An internal combustion engine for operating in a starting mode, in which the internal combustion engine is driven by pressurized starting air, and a normal operation mode, in which the internal combustion engine runs on an air/fuel mixture after the internal combustion engine is started, the internal combustion engine comprising: at least one cylinder (26A to 26D) for combusting a mixture of fuel and air therein; and a starting air system configured to provide pressurized starting air to the at least one cylinder (26A to 26D) and configured for monitoring the operability of the starting air system, the starting air system including: a starting air manifold fluidly connected to a pressurized starting air source configured to store pressurized starting air; a starting air venting valve fluidly connected to the starting air manifold and configured to vent the starting air system after the internal combustion engine is started; and a sensing device configured to detect a parameter that is characteristic of the filling of the starting air system. at least one cylinder (26A to 26D) for combusting a mixture of fuel and air therein; and a starting air system configured to provide pressurized starting air to the at least one cylinder (26A to 26D) and configured for monitoring the operability of the starting air system, the starting air system including: a starting air manifold fluidly connected to a pressurized starting air source configured to store pressurized starting air; a starting air venting valve fluidly connected to the starting air manifold and configured to vent the starting air system after the internal combustion engine is started; and a sensing device configured to detect a parameter that is characteristic of the filling of the starting air system. a starting air manifold fluidly connected to a pressurized starting air source configured to store pressurized starting air; a starting air venting valve fluidly connected to the starting air manifold and configured to vent the starting air system after the internal combustion engine is started; and a sensing device configured to detect a parameter that is characteristic of the filling of the starting air system.
A solid electrolytic capacitor, comprising: a capacitor element with an anode electrode foil and a cathode electrode foil wound with an interposed separator, a solid electrolyte layer formed in the capacitor element by using a conductive polymer dispersion in which particles of a conductive polymer are dispersed in a solvent; wherein, voids inside the capacitor element in which the solid electrolyte layer has been formed filled with an electrolytic solution containing less than 9 wt % of an ammonium salt of a composite compound of inorganic acid and organic acid as a solute characterized in that, the electrolytic solution is containing equal to or more than 40 wt % of ethylene glycol in the solvent. a capacitor element with an anode electrode foil and a cathode electrode foil wound with an interposed separator, a solid electrolyte layer formed in the capacitor element by using a conductive polymer dispersion in which particles of a conductive polymer are dispersed in a solvent; wherein, voids inside the capacitor element in which the solid electrolyte layer has been formed filled with an electrolytic solution containing less than 9 wt % of an ammonium salt of a composite compound of inorganic acid and organic acid as a solute characterized in that, the electrolytic solution is containing equal to or more than 40 wt % of ethylene glycol in the solvent.