mhurhangee/ep-ind-claims huggingface dataset:
Vehicle wheel having a compressed-air-filled inner region and an outer region, wherein the outer region comprises a multiplicity of tyre components and at least a tread, and wherein the inner region has a compressed-air chamber with a tyre bead, wherein a suspension element in the form of a foam ring composed of at least one foam material is arranged in the central region between the compressed-air-filled inner region and the outer region; characterized in that a sidewall in the form of a closure is arranged on the side of the foam ring, wherein the sidewall bridges the inner region and the outer region of the vehicle wheel. wherein the outer region comprises a multiplicity of tyre components and at least a tread, and wherein the inner region has a compressed-air chamber with a tyre bead, wherein a suspension element in the form of a foam ring composed of at least one foam material is arranged in the central region between the compressed-air-filled inner region and the outer region; characterized in that a sidewall in the form of a closure is arranged on the side of the foam ring, wherein the sidewall bridges the inner region and the outer region of the vehicle wheel.
A method for analyzing a sample containing at least one analyte, the method comprising: a) subjecting the sample to a first liquid chromatographic separation mode at a first pH with a first mobile phase; b) collecting at least one fraction from the first chromatographic separation; c) concentrating or diluting the at least one fraction; d) subjecting the diluted or concentrated at least one fraction to a second liquid chromatographic separation mode at a second pH with a second mobile phase; e) detecting the presence or absence of the at least one analyte in the sample; wherein the first pH and the second pH differ by at least 3 pH units and the first and second chromatographic separation modes are high performance liquid chromatography (HPLC). a) subjecting the sample to a first liquid chromatographic separation mode at a first pH with a first mobile phase; b) collecting at least one fraction from the first chromatographic separation; c) concentrating or diluting the at least one fraction; d) subjecting the diluted or concentrated at least one fraction to a second liquid chromatographic separation mode at a second pH with a second mobile phase; e) detecting the presence or absence of the at least one analyte in the sample;
An agricultural harvester, in particular a forage harvester, comprising a harvesting attachment for picking up crop material from a field stand, a conveyor assembly having at least one intake roller (5a, 5b, 5c, 5d) for conveying the picked-up crop material, a processing assembly to which the crop material is conveyed by the conveyor assembly and which processes the crop material, and a metal detection device coupled to one of the intake rollers (5a, 5b, 5c, 5d) in such a way that metallic foreign bodies in the crop material taken past the intake roller can be detected, wherein the harvester has a control device which checks the metal detection performance in a diagnostic mode, characterised in that the control device based on a detection signal stops the intake roller and then reverses it and upon crop material-free rotation of the intake roller coupled to the metal detection device the metal detection performance of the metal detection device is checked and displayed.
Device for controlling the sharpening state of a blade having a cutting edge delimited by two sides (21, 22) converging towards a plane that contains the cutting edge itself, comprising two control surfaces each of which is in contact with a corresponding side (21, 22) of said cutting edge and is connected with at least one transducer (R1, R2, R4), which produces an electrical displacement signal (S1, S2; S4) proportional to a displacement of the control surface with respect to said plane, wherein said control surfaces are the outer surfaces of two rotating feeler probes (30, 31), said feeler probes (30, 31) being hinged around two respective axes (Y0, Y1).
Apparatus for delivery of a defibrillation shock, whereby said apparatus comprises: At least one ECG signal detection unit, A chest compression measurement unit, A defibrillation shock delivery unit, and A processor, whereby said processor is capable of determining whether the patient has a shockable rhythm with a first algorithm, whereby said first algorithm is adapted to analyze an ECG signal for shockable,rhythms in the presence of chest compression and wherein the first algorithm only performs reliably if a chest compression is present, and whereby said processor is further capable of determining whether a patient has a shockable rhythm with a second algorithm, whereby said second algorithm is adapted to analyze an ECG signal in the absence of chest compression,wherein the second algorithm only performs reliably if a chest compression is absent and wherein, the second algorithm is adapted to take over once the end of chest compression is detected by a third algorithm, At least one ECG signal detection unit, A chest compression measurement unit, A defibrillation shock delivery unit, and A processor, whereby said processor is capable of determining whether the patient has a shockable rhythm with a first algorithm, whereby said first algorithm is adapted to analyze an ECG signal for shockable,rhythms in the presence of chest compression and wherein the first algorithm only performs reliably if a chest compression is present, and whereby said processor is further capable of determining whether a patient has a shockable rhythm with a second algorithm, whereby said second algorithm is adapted to analyze an ECG signal in the absence of chest compression,wherein the second algorithm only performs reliably if a chest compression is absent and wherein, the second algorithm is adapted to take over once the end of chest compression is detected by a third algorithm,
A curable composition comprising components: a) at least one ethylene-propylene-(nonconjugated diene) terpolymers; b) at least one ethylene-propylene copolymer; c) at least one bis(halomethyl)triazine crosslinker; and d) at least one tackifiers, wherein a weight ratio of component a) to component b) is in a range of from 15:85 to 85:15. a) at least one ethylene-propylene-(nonconjugated diene) terpolymers; b) at least one ethylene-propylene copolymer; c) at least one bis(halomethyl)triazine crosslinker; and d) at least one tackifiers,
A device for transferring electrical energy from the track (2, 3) to the vehicle in a magnetic levitation railway, wherein the vehicle contains at least one magnet assembly which is secured to a magnet back connected to a vehicle body, wherein on the track (2, 3) at least one primary conductor configured as a transmitting coil attached to a voltage source and on the vehicle at least one receiver coil mounted on the magnet back are provided, characterized in that the receiver coil is configured in the manner of a layer winding arranged in a winding plane which has longitudinal sections (48a, 48b) extended parallel to the primary conductor and winding heads (48d, 48e) connecting said longitudinal sections, wherein the receiver coil is mounted within a casing of the magnet back and does not enclose the primary conductor.
An in vitro method of detecting the presence of pancreatic cancer in a subject, the method comprising: determining an expression level of HSP90BB (heat shock protein 90kDa alpha (cytosolic), class B member 2, pseudogene (HSP90AB2P)) in a sample comprising a test cell from the subject to obtain a test value; and comparing the test value to a reference value, wherein a test value that is significantly above the reference value indicates that the subject has pancreatic cancer. determining an expression level of HSP90BB (heat shock protein 90kDa alpha (cytosolic), class B member 2, pseudogene (HSP90AB2P)) in a sample comprising a test cell from the subject to obtain a test value; and comparing the test value to a reference value, wherein a test value that is significantly above the reference value indicates that the subject has pancreatic cancer.
An inner race and boot sleeve combination of a constant velocity joint, comprising: an inner race having a first inner surface round in cross-section, wherein a set of splines is located on the first inner surface for engaging a pinion shaft, and a second inner surface with an elliptical cross section and an elliptical groove formed in said second inner surface, wherein said first inner surface has a smaller diameter than said second inner surface; a boot sleeve having an outer surface, a first end portion, a second end portion, and a hollow interior for receiving the pinion shaft, wherein said first end portion has an elliptical cross section complementary to said inner race elliptical cross section, said first end portion also having a circumferential groove in said outer surface; characterised in that the combination further comprises a ring in said inner race groove and said boot sleeve groove to axially fix said inner race and said boot sleeve together. an inner race having a first inner surface round in cross-section, wherein a set of splines is located on the first inner surface for engaging a pinion shaft, and a second inner surface with an elliptical cross section and an elliptical groove formed in said second inner surface, wherein said first inner surface has a smaller diameter than said second inner surface; a boot sleeve having an outer surface, a first end portion, a second end portion, and a hollow interior for receiving the pinion shaft, wherein said first end portion has an elliptical cross section complementary to said inner race elliptical cross section, said first end portion also having a circumferential groove in said outer surface; characterised in that the combination further comprises a ring in said inner race groove and said boot sleeve groove to axially fix said inner race and said boot sleeve together.
A multi-graphics processor system comprising a first graphics processor and a second graphics processor, wherein image data that has been processed by the first graphics processor is provided from the first graphics processor to the second graphics processor, is processed by the second graphics processor, is returned to the first graphics processor, and is output as a video signal from a video output terminal provided in the first graphics processor, wherein the second graphics processor is an older-generation processor than the first graphics processor, and wherein the image data is generated by processing an application that is compatible with the second graphics processor and incompatible with the first graphics processor.
Drum shear for cross cutting rolled stock, comprising: - two drums (10, 20) arranged opposite one another, which can be driven by means of a driving device at a peripheral speed corresponding to the throughput speed of the rolled stock, - wherein each drum (10, 20) has a first part, which is mounted so as to be rotatable about an axis of rotation, and a second part, which carries a blade, - wherein a guide is formed between the first part and the second part, enabling the second part to be adjusted in a sliding movement between an initial position and a cutting position by means of an actuating device, characterized in that the actuating device comprises a first hydraulic cylinder and a second hydraulic cylinder, wherein the first hydraulic cylinder is arranged between the first part and the second hydraulic cylinder, and the second hydraulic cylinder is arranged between the first hydraulic cylinder and the second part. - two drums (10, 20) arranged opposite one another, which can be driven by means of a driving device at a peripheral speed corresponding to the throughput speed of the rolled stock, - wherein each drum (10, 20) has a first part, which is mounted so as to be rotatable about an axis of rotation, and a second part, which carries a blade, - wherein a guide is formed between the first part and the second part, enabling the second part to be adjusted in a sliding movement between an initial position and a cutting position by means of an actuating device, characterized in that the actuating device comprises a first hydraulic cylinder and a second hydraulic cylinder, wherein the first hydraulic cylinder is arranged between the first part and the second hydraulic cylinder, and the second hydraulic cylinder is arranged between the first hydraulic cylinder and the second part.
A head mounted display for game play via a game cloud system, the head mounted display comprising: a camera configured to capture a plurality of images of a real-world environment in which a user is wearing the head mounted display; a wireless access circuit coupled to the camera, wherein the wireless access circuit is configured to encode the images to output a plurality of encoded images of the real-world environment, wherein the wireless access circuit is configured to packetize the encoded images of the real-world environment to output packetized data of the real-world environment, wherein the wireless access circuit is configured to send the packetized data having the encoded images via a router and a network, to the game cloud system for processing by the game cloud system, wherein the wireless access circuit is configured to depacketize a stream of encoded media data received from the game cloud system via the router and the network to provide depacketized data, wherein the wireless access circuit is configured to decode the depacketized data to output computer-generated interactive media; and a game processing circuit coupled to the wireless access circuit, wherein the game processing circuit is configured to drive a portion of interactivity associated with a game program by superimposing the computer-generated interactive media on at least one of the images, the computer-generated interactive media generated based on the images. a camera configured to capture a plurality of images of a real-world environment in which a user is wearing the head mounted display; a wireless access circuit coupled to the camera, wherein the wireless access circuit is configured to encode the images to output a plurality of encoded images of the real-world environment, wherein the wireless access circuit is configured to packetize the encoded images of the real-world environment to output packetized data of the real-world environment, wherein the wireless access circuit is configured to send the packetized data having the encoded images via a router and a network, to the game cloud system for processing by the game cloud system, wherein the wireless access circuit is configured to depacketize a stream of encoded media data received from the game cloud system via the router and the network to provide depacketized data, wherein the wireless access circuit is configured to decode the depacketized data to output computer-generated interactive media; and a game processing circuit coupled to the wireless access circuit, wherein the game processing circuit is configured to drive a portion of interactivity associated with a game program by superimposing the computer-generated interactive media on at least one of the images, the computer-generated interactive media generated based on the images.
A method performed by a wireless device configured for use in a wireless communication system, the method comprising: determining that an uplink control channel resource for a multi-slot uplink control channel transmission overlaps in time with an uplink control channel resource for a single-slot uplink control channel transmission in a slot; deciding, for the slot, either to drop whichever of the multi-slot uplink control channel transmission and the single-slot uplink control channel transmission carries uplink control information of a lower priority or to drop the single-slot uplink control channel transmission, depending on whether the multi-slot uplink control channel transmission and the single-slot uplink control channel transmission carry uplink control information of different priorities or the same priority, respectively and dropping the single-slot uplink control channel transmission or the multi-slot uplink control channel transmission in the slot, according to said deciding. determining that an uplink control channel resource for a multi-slot uplink control channel transmission overlaps in time with an uplink control channel resource for a single-slot uplink control channel transmission in a slot; deciding, for the slot, either to drop whichever of the multi-slot uplink control channel transmission and the single-slot uplink control channel transmission carries uplink control information of a lower priority or to drop the single-slot uplink control channel transmission, either to drop whichever of the multi-slot uplink control channel transmission and the single-slot uplink control channel transmission carries uplink control information of a lower priority or to drop the single-slot uplink control channel transmission, depending on whether the multi-slot uplink control channel transmission and the single-slot uplink control channel transmission carry uplink control information of different priorities or the same priority, respectively and dropping the single-slot uplink control channel transmission or the multi-slot uplink control channel transmission in the slot, according to said deciding.
Clamping device for machine tools which are provided with a powered clamping chuck and the clamping jaws of which can be actuated by means of an axially displaceable pull rod, wherein the clamping device comprises a reversible electric driving motor and a movement converter for converting the adjusting movements of the rotor shaft of the driving motor into axial adjusting movements of the pull rod and wherein provided between the driving motor and the movement converter there is a gear unit, the input member of which can be drivingly connected with the driving motor and the output member of which can be drivingly connected with the movement converter, wherein the gear unit can be coupled directly or via intermediate members to the movement converter and wherein the movement converter and the gear unit are individually installed in two housings (22, 32) which are separated from one another and of which the housing receiving the movement converter is connected with a machine spindle so that it cannot turn, wherein the housing receiving the gear unit is supported in a fixed location on a headstock, characterised in that the gear unit is a two-stage planetary gear unit, the input member of which is embodied in the form of a ring gear and the output member of which is embodied in the form of a sun gear, and in that the housing receiving the planetary gear unit is closed, formed in two parts and fluid tight and comprises a housing shell supported in a fixed location and a housing cover which can be mounted on the latter.
A method of transmitting data from a node of a radio access network, RAN, to a radio device that is configured for discontinuous reception, DRX, according to a DRX configuration, the method comprising or triggering the steps of: indicating, via broadcasting system information, whether a wake-up signal, WUS, is to be transmitted in a selective transmission to the radio device; determining whether data is available for transmission to the radio device; selectively transmitting the WUS to the radio device depending on the DRX configuration and the indication via the system information; and if the data is available, transmitting to the radio device on a radio resource according to the DRX configuration at least one of the data and a scheduling assignment for the transmission of the data. indicating, via broadcasting system information, whether a wake-up signal, WUS, is to be transmitted in a selective transmission to the radio device; determining whether data is available for transmission to the radio device; selectively transmitting the WUS to the radio device depending on the DRX configuration and the indication via the system information; and if the data is available, transmitting to the radio device on a radio resource according to the DRX configuration at least one of the data and a scheduling assignment for the transmission of the data.
A total air temperature sensor (100;200;300) comprising: an airfoil body (102;202;302) extending from an airfoil base to an opposed airfoil tip along a longitudinal axis and defining a leading edge and opposed trailing edge, wherein the airfoil body defines an interior flow passage with an inlet (114;312) for fluid communication of fluid into the interior flowpassage; and a temperature probe (128;228;328) mounted within the interior flow passage for measuring temperature of flow through the interior flow passage to determine total air temperature; characterised in that the airfoil body (102;202;302) defines a plurality of outlets (116;216) for exhausting fluid out from the interior flow passage, and wherein the airfoil body defines a plurality of bleed passages (118;218;318) through the airfoil body between the leading edge and the interior flow passage. an airfoil body (102;202;302) extending from an airfoil base to an opposed airfoil tip along a longitudinal axis and defining a leading edge and opposed trailing edge, wherein the airfoil body defines an interior flow passage with an inlet (114;312) for fluid communication of fluid into the interior flowpassage; and a temperature probe (128;228;328) mounted within the interior flow passage for measuring temperature of flow through the interior flow passage to determine total air temperature; characterised in that the airfoil body (102;202;302) defines a plurality of outlets (116;216) for exhausting fluid out from the interior flow passage, and wherein the airfoil body defines a plurality of bleed passages (118;218;318) through the airfoil body between the leading edge and the interior flow passage.