mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a vehicle information system, wherein a detection is performed as to whether an intervention of a driver assistance system of a vehicle is present, wherein a measure of a takeover capability of a vehicle driver is determined, characterized in that at least one item of information about the type of intervention is output to the vehicle driver if the intervention is complete and the measure of the takeover capability meets a takeover capability-specific criterion.
A method for the preparation of compound of formula, the method comprises two steps STEP1 and STEP2, in STEP1 compound of formula is reacted in a reaction REAC1 with KNO 2 in the presence of HCl providing the diazonium salt of compound of formula; in STEP2 the diazonium salt of compound of formula is reacted in a reaction REAC2 with KI providing compound of formula. the method comprises two steps STEP1 and STEP2, in STEP1 compound of formula is reacted in a reaction REAC1 with KNO 2 in the presence of HCl providing the diazonium salt of compound of formula; in STEP2 the diazonium salt of compound of formula is reacted in a reaction REAC2 with KI providing compound of formula.
A helicopter power plant comprising: at least two turboshaft engines each having an engine shaft with a turbine at a distal end and a one-way clutch at a proximal end; a gearbox having an input driven by the one way clutch of each engine and an output driving a helicopter rotor; a bypass clutch disposed between the proximal end of at least one of the engine shafts and the input of the gearbox; and power plant controls for activating the bypass clutch when a rotary speed of an associated engine shaft is less than a rotary speed of the gearbox input; characterised in that: the bypass clutch is co-axial with the one-way clutch and the engine shaft; and the bypass clutch has friction surfaces that are configured to be actuated axially to engage together to transmit rotation between the input of the gearbox and the engine shaft while the one-way clutch is disengaged. at least two turboshaft engines each having an engine shaft with a turbine at a distal end and a one-way clutch at a proximal end; a gearbox having an input driven by the one way clutch of each engine and an output driving a helicopter rotor; a bypass clutch disposed between the proximal end of at least one of the engine shafts and the input of the gearbox; and power plant controls for activating the bypass clutch when a rotary speed of an associated engine shaft is less than a rotary speed of the gearbox input; the bypass clutch is co-axial with the one-way clutch and the engine shaft; and the bypass clutch has friction surfaces that are configured to be actuated axially to engage together to transmit rotation between the input of the gearbox and the engine shaft while the one-way clutch is disengaged.
A sensor assembly for detecting at least one analyte in a body fluid, comprising: - at least one sensor, wherein the sensor is an electrochemical sensor; - at least one body mount configured for attachment to a body of a user; - at least one insertion element for transferring the sensor to the body mount; - at least one first adhesive element attached to one or both of the body mount or the sensor, configured for attaching the sensor to the body mount; - at least one second adhesive element attached to one or both of the sensor or the insertion element, configured for releasably attaching the sensor to the insertion element, wherein the insertion element is configured to transfer the sensor from an initial position, in which the sensor is attached to the insertion element via the second adhesive element, into a final position in which the sensor is attached to the body mount via the first adhesive element and released from the insertion element. - at least one sensor, wherein the sensor is an electrochemical sensor; - at least one body mount configured for attachment to a body of a user; - at least one insertion element for transferring the sensor to the body mount; - at least one first adhesive element attached to one or both of the body mount or the sensor, configured for attaching the sensor to the body mount; - at least one second adhesive element attached to one or both of the sensor or the insertion element, configured for releasably attaching the sensor to the insertion element,
A method for operating an autonomous vehicle, the method comprising: autonomously controlling a vehicle in operation using a primary control system; operating an auxiliary control unit (130, 132, 134, 230, 232) to monitor for and detect a predetermined condition or event, the auxiliary control unit (130, 132, 134, 230, 232) being independent of the primary control system; generating, using the auxiliary control unit (130, 132, 134, 230, 232), a vehicle response output that specifies a vehicle state or action based on the detected predetermined condition or event; the method being characterized by: communicating, by the auxiliary control unit (130, 132, 134, 230, 232), the vehicle response output to the primary control system; receiving, by the auxiliary control unit (130, 132, 134, 230, 232), trajectory data from the primary control system for a planned trajectory of the vehicle, and determining the vehicle response output based at least in part on sensor data and the trajectory data. autonomously controlling a vehicle in operation using a primary control system; operating an auxiliary control unit (130, 132, 134, 230, 232) to monitor for and detect a predetermined condition or event, the auxiliary control unit (130, 132, 134, 230, 232) being independent of the primary control system; generating, using the auxiliary control unit (130, 132, 134, 230, 232), a vehicle response output that specifies a vehicle state or action based on the detected predetermined condition or event; communicating, by the auxiliary control unit (130, 132, 134, 230, 232), the vehicle response output to the primary control system; receiving, by the auxiliary control unit (130, 132, 134, 230, 232), trajectory data from the primary control system for a planned trajectory of the vehicle, and determining the vehicle response output based at least in part on sensor data and the trajectory data.
Container filling and weight-related dosing device for containers with cylindrical neck and ring around the neck, consisting of connected gripping device and mechanism for container drawing and weighing during the process of container filling, where the gripping device comprises two jaws moving in a horizontal plane, mounted on the supporting plate and interconnected by means of a spring, which jaws form a round circular opening at their front end for gripping the neck of the container, wherein the spring of the gripping device is concurrently connected to the rear ends of the two movable jaws, which are mounted onto the supporting plate, and wherein the rear end of the supporting plate is connected to the weighing mechanism, which is of a closed, air-tight type, the device being characterized in that a changeable fixing element is mounted between the middle parts of the two movable jaws, touching them, consisting of a bearing body mounted on the supporting plate, with the fixing element being attached to the bearing body by means of swivel joint under spring pressure, wherein the front end of the fixing element has a protrusion, allowing part of the upper surface of the ring on the cylindrical neck of the container to be pressed, and in that the supporting plate has a round-shaped area, supporting and pressing part of the lower surface of the ring on the cylindrical neck of the container.
A computing system, comprising: a content addressable memory, CAM; a data storage device; an acknowledgment coalescing module configured in the data storage device configured to be in communication with the content addressable memory; and one or more processors in communication with the content addressable memory module and the acknowledgment coalescing module, the one or more processors configured to: receive one or more data packets; generate one or more acknowledgement packets in response to receiving the one or more data packets; perform a lookup operation to access data entries stored in the content addressable memory; when a match is found between the accessed data entries and the generated one or more acknowledgement packets, coalesce the one or more acknowledgement packets in the acknowledgment coalescing module; evict the coalesced acknowledgement packets as a single acknowledgment packet when a pre-programmed threshold of acknowledgement packet count is reached; and uninstall the accessed data entries in the content addressable memory after the coalesced acknowledgement packets are evicted. a content addressable memory, CAM; a data storage device; an acknowledgment coalescing module configured in the data storage device configured to be in communication with the content addressable memory; and one or more processors in communication with the content addressable memory module and the acknowledgment coalescing module, the one or more processors configured to: receive one or more data packets; generate one or more acknowledgement packets in response to receiving the one or more data packets; perform a lookup operation to access data entries stored in the content addressable memory; when a match is found between the accessed data entries and the generated one or more acknowledgement packets, coalesce the one or more acknowledgement packets in the acknowledgment coalescing module; evict the coalesced acknowledgement packets as a single acknowledgment packet when a pre-programmed threshold of acknowledgement packet count is reached; and uninstall the accessed data entries in the content addressable memory after the coalesced acknowledgement packets are evicted. receive one or more data packets; generate one or more acknowledgement packets in response to receiving the one or more data packets; perform a lookup operation to access data entries stored in the content addressable memory; when a match is found between the accessed data entries and the generated one or more acknowledgement packets, coalesce the one or more acknowledgement packets in the acknowledgment coalescing module; evict the coalesced acknowledgement packets as a single acknowledgment packet when a pre-programmed threshold of acknowledgement packet count is reached; and uninstall the accessed data entries in the content addressable memory after the coalesced acknowledgement packets are evicted.
A method for aligning the phases of a master clock and a slave clock, the method comprising the following steps: A: locking a phase of the master clock; B: measuring phase difference between the slave clock and the master clock; and C: adjusting, based on the phase difference measured in Step B, a phase outputted by the slave clock so as to align the phase outputted by the slave clock with the phase of the master clock, wherein in the Step B, a phase of the slave clock is shifted, and when the phase of the slave clock after the phase shift and the phase of the master clock are aligned, the shifted phase is outputted as the phase difference value; and wherein the Step B comprises the following operations: B1: shifting the phase of the slave clock with a predetermined step length along a predetermined direction; B2: sampling the master clock by using the slave clock after the phase shift; B3: judging, based on the sampling result of Step B2, whether the phase of the slave clock after the phase shift and the phase of the master clock are aligned, wherein if they have been aligned, Step B5 is performed; and if they are not aligned, Step B4 is performed; B4: judging whether a threshold of the phase shift is reached, wherein if the threshold of the phase shift is not reached, Step B1 is performed; and if the phase difference is not obtained when the threshold of the phase shift is reached, the measurement is ended, and the Step C further comprises ending this operation when the phase difference is not obtained; and B5: calculating the phase difference between the master clock and the slave clock according to the number of the phase shifts of the slave clock. A: locking a phase of the master clock; B: measuring phase difference between the slave clock and the master clock; and C: adjusting, based on the phase difference measured in Step B, a phase outputted by the slave clock so as to align the phase outputted by the slave clock with the phase of the master clock, B1: shifting the phase of the slave clock with a predetermined step length along a predetermined direction; B2: sampling the master clock by using the slave clock after the phase shift; B3: judging, based on the sampling result of Step B2, whether the phase of the slave clock after the phase shift and the phase of the master clock are aligned, wherein if they have been aligned, Step B5 is performed; and if they are not aligned, Step B4 is performed; B4: judging whether a threshold of the phase shift is reached, wherein if the threshold of the phase shift is not reached, Step B1 is performed; and if the phase difference is not obtained when the threshold of the phase shift is reached, the measurement is ended, and the Step C further comprises ending this operation when the phase difference is not obtained; and B5: calculating the phase difference between the master clock and the slave clock according to the number of the phase shifts of the slave clock.
A method for touch free optical scanning of three dimensional longitudinally extending scanning contours on a surface of an object with respect to unevenness, in particular indentations, e.g. by a light intersection triangulation method, wherein a line of light that is irradiated onto the scanning contour transversal to a direction of extension of the scanning contour as a three dimensional test using oriented illumination, in particular by laser light and wherein light that is reflected by the scan contour is captured by at least one optical sensor as a line shaped image and processed, wherein the scan contour is illuminated by a diffuse light for two dimensional testing of the scan contour and light reflected by the scan contour in a portion of the previously irradiated line of light is received by at least one optical sensor as an image and processed, characterized in that the linear image from the three dimensional testing is automatically compared with the image from the two dimensional testing to determine whether one of the images (4, 104) shows a void in the scan contour which was not visible in the other image (104, 4).
A torch tip assembly of a plasma arc torch for delivering a diffused stream of plasma arc to a workpiece to perform a gouging operation, the assembly comprising: a nozzle including (i) a nozzle body defining a central longitudinal axis extending between a proximal end and a distal end, (ii) a nozzle exit orifice at the distal end of the nozzle body, the nozzle exit orifice defining at least a bore for conducting the plasma arc therethrough, and a set of gas passages disposed about the bore; and a counter bore, disposed relative to the distal end of the nozzle body, being fluidly connected to the bore and located distally relative to the bore; wherein at least one of the bore or the counter bore has a non-circular cross-sectional shape in a plane perpendicular to the longitudinal axis, the non-circular cross-sectional shape configured to enable a second non-circular cross-sectional shape in the plasma arc adapted to diffuse the plasma arc. a nozzle including (i) a nozzle body defining a central longitudinal axis extending between a proximal end and a distal end, (ii) a nozzle exit orifice at the distal end of the nozzle body, the nozzle exit orifice defining at least a bore for conducting the plasma arc therethrough, and a set of gas passages disposed about the bore; and a counter bore, disposed relative to the distal end of the nozzle body, being fluidly connected to the bore and located distally relative to the bore; wherein at least one of the bore or the counter bore has a non-circular cross-sectional shape in a plane perpendicular to the longitudinal axis, the non-circular cross-sectional shape configured to enable a second non-circular cross-sectional shape in the plasma arc adapted to diffuse the plasma arc.
Method for device-type authentication in a communication system, characterized by the steps of: providing, in a first device connected to said communication system, first header information of a communication message; said first header information being related with a device-type associated commitment; retrieving a shared secret of said first device from a tamper-resistant storage; tamper-resistantly creating a first signature in said first device based on at least device-type specific information of said first device and said retrieved shared secret; providing, in said first device, second header information of said communication message comprising said signature; communicating said communication message to a second device connected to said communication system; and authenticating said first header information by verifying said first signature after said communicating step by use of said shared secret of said first device. providing, in a first device connected to said communication system, first header information of a communication message; said first header information being related with a device-type associated commitment; retrieving a shared secret of said first device from a tamper-resistant storage; tamper-resistantly creating a first signature in said first device based on at least device-type specific information of said first device and said retrieved shared secret; providing, in said first device, second header information of said communication message comprising said signature; communicating said communication message to a second device connected to said communication system; and authenticating said first header information by verifying said first signature after said communicating step by use of said shared secret of said first device.
A chair adjustment device having a housing configured for connection to one of a seat and a backrest, and having a first actuating member slidably arranged in the housing and configured for connection to the other one of the seat and the backrest, wherein - a second actuating member is slidably arranged in the housing; and - locking means (8a, 8b) are configured for releasably holding the first actuating member in a fixed position in relation to the housing and being operable by the second actuating member said chair adjustment device being characterized by - force-transmitting means (10, 4) configured for releasably holding the first actuating member and being operable by the second actuating member so as to move the first actuating member in relation to the housing. - a second actuating member is slidably arranged in the housing; and - locking means (8a, 8b) are configured for releasably holding the first actuating member in a fixed position in relation to the housing and being operable by the second actuating member said chair adjustment device being characterized by - force-transmitting means (10, 4) configured for releasably holding the first actuating member and being operable by the second actuating member so as to move the first actuating member in relation to the housing.
Air deflector for a windscreen wiper, the air deflector comprising at least one first part which emerges from a second part, and which comprises at least one deformation member configured to drive a deformation of the first part of the air deflector, this deformation member comprising at least one electrically conductive element, the air deflector being characterized in that the deformation member is embedded in the mass of the air deflector.
A roof girder and consisting of two substantially U-shaped metal sections (8, 10), the lower and upper open sides of which face each other, forming a cavity in between, and which is designed with narrow outwardly bent edges (14, 16), the roof girder being corrugated at opposing upper and lower narrow sides in longitudinal direction, characterised in that the metal sections (8, 10) at the upper and lower open sides, respectively, are interconnected by means of a plurality of connecting plates which are fastened to inner, substantially vertical sides of the metal sections (8, 10) in such a way that there is a spacing between the narrow outwardly bent edges (14, 16) of respective lower and upper metal sections (8, 10); that the cavity is filled with insulation material; and that the plurality of connecting plates are provided at different positions along the roof girder.
A sieve assembly for use in a crop processing system of an agricultural harvester, the sieve assembly comprising a sieve extending along a length defined between a first sieve end and a second sieve end, the sieve configured to process a flow of crop material, the sieve defining a plurality of openings through which cleaned crop material of the flow of crop material is directed, the sieve assembly further comprising a crop material sheet extending along a length defined between a first sheet end and a second sheet end, the crop material sheet configured to receive the cleaned crop material directed through the plurality of openings of the sieve, the crop material sheet transporting the cleaned crop material towards a separate component of the crop processing system, the sieve assembly comprising at least one support element (224; 228A; 228B; 230) directly coupled between the sieve and the crop material sheet, the at least one support element structurally connecting the sieve to the crop material sheet, wherein the at least one support element comprises a lateral support element directly coupled between the sieve and the crop material sheet, the lateral support element extending substantially transverse to the flow of crop material along the sieve, wherein the first sieve end corresponds to an upstream end of the sieve and the second sieve end corresponds to a downstream end of the sieve relative to the flow of crop material, and wherein the first sheet end corresponds to an upstream end of the crop material sheet and the second sheet end corresponds to a downstream end of the crop material sheet relative to a flow of the cleaned crop material and characterised in that the lateral support element is fixedly coupled between the second sieve end and the first sheet end such that a lower side of the sieve contacts a top side of the lateral support element while an upper side of the crop material sheet contacts a bottom side of the lateral support element.
Isolated human bone marrow mesenchymal stem cells, wherein the isolated human bone marrow mesenchymal stem cells are isolated human CD34 + bone marrow mesenchymal stem cells and wherein the isolated human CD34 + bone marrow mesenchymal stem cells fail to form CFU-F (colony-forming units fibroblastic) in plastic cultures, but adhere on mesenchymal stem cell-produced extra-cellular matrix.
A secondary battery negative electrode comprising a current collector, a negative electrode active material layer, and a porous membrane, wherein the porous membrane contains non-conductive particles and a porous membrane polymer that is a non-particulate cross-linked polymer, characterized in that the negative electrode active material layer contains a negative electrode active material and a particulate negative electrode polymer, and the non-conductive particles are particles of a polymer that contains 50% by weight or more of a structural unit formed by polymerization of a (meth)acrylate, the polymer having a softening starting point or decomposition point of 175°C or higher.