mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a terminal (120, 130) in a wireless communication system, the method comprising: receiving a plurality of reference signals for a first period; receiving a plurality of reference signals for a second period; identifying a difference value based on a first measurement set for the plurality of reference signals for the first period and a second measurement set for the plurality of reference signals for the second period; and identifying that a beam misalignment occurs by: determining that the difference value is greater than a first threshold; and determining that a measurement pattern change counter is greater than a second threshold, wherein the measurement pattern change counter is increased in case that an order of measurement values of the first measurement set is different from an order of measurement values of the second measurement set. receiving a plurality of reference signals for a first period; receiving a plurality of reference signals for a second period; identifying a difference value based on a first measurement set for the plurality of reference signals for the first period and a second measurement set for the plurality of reference signals for the second period; and identifying that a beam misalignment occurs by: determining that the difference value is greater than a first threshold; and determining that a measurement pattern change counter is greater than a second threshold, determining that the difference value is greater than a first threshold; and determining that a measurement pattern change counter is greater than a second threshold, wherein the measurement pattern change counter is increased in case that an order of measurement values of the first measurement set is different from an order of measurement values of the second measurement set.
Camping trailer for a motor vehicle, especially tent trailer for a passenger car, comprising a lower trailer part with wheels and an upper trailer part which is movably connected to the lower trailer part and which can be pivoted from a traveling position, in which it forms a lower trailer part cover, into a camping position, in which the camping trailer is suitable for accommodating persons, the lower trailer part having a recess which, in the camping position, forms a footwell for a person sitting in the camping trailer, characterized in that the lower part of the trailer has a height-adjustable plate (35; 35b) which is designed for use as a seating or lying surface and which is pivotably articulated to a height-adjustment device.
A fuel system for a gas turbine engine comprising: a plurality of duplex fuel nozzles and a plurality of simplex fuel nozzles defining local circumferential zones with different fuel-air ratio mixtures within a combustor; a primary fuel manifold operable to communicate fuel to a primary flow jet in each of said plurality of duplex fuel nozzles; a secondary fuel manifold operable to communicate fuel to a secondary flow jet in each of said plurality of duplex fuel nozzles and a secondary flow jet in each of said plurality of simplex nozzles; and an equalizer valve in communication with said primary fuel manifold and said secondary fuel manifold, said equalizer valve movable between an open position and a closed position, said closed position operable to permit supply of said primary fuel manifold with greater fuel pressure than said secondary flow manifold, said open position operable to permit supply of said primary fuel manifold with essentially an equal fuel pressure as said secondary flow manifold. a plurality of duplex fuel nozzles and a plurality of simplex fuel nozzles defining local circumferential zones with different fuel-air ratio mixtures within a combustor; a primary fuel manifold operable to communicate fuel to a primary flow jet in each of said plurality of duplex fuel nozzles; a secondary fuel manifold operable to communicate fuel to a secondary flow jet in each of said plurality of duplex fuel nozzles and a secondary flow jet in each of said plurality of simplex nozzles; and an equalizer valve in communication with said primary fuel manifold and said secondary fuel manifold, said equalizer valve movable between an open position and a closed position, said closed position operable to permit supply of said primary fuel manifold with greater fuel pressure than said secondary flow manifold, said open position operable to permit supply of said primary fuel manifold with essentially an equal fuel pressure as said secondary flow manifold.
A heavy-duty vehicle with two or more axles comprising: a low-floor structure having a top portion forming a level floor of the vehicle; and a battery power source, wherein the battery power source includes a plurality of battery packs housed within the low-floor structure of the vehicle under the level floor, the battery packs being further located within cavities in the low-floor structure; wherein the low-floor structure is formed from one or more molded pieces of at least one composite material and is substantially level throughout an area between the axles of the heavy-duty vehicle. a low-floor structure having a top portion forming a level floor of the vehicle; and a battery power source, wherein the battery power source includes a plurality of battery packs housed within the low-floor structure of the vehicle under the level floor, the battery packs being further located within cavities in the low-floor structure; wherein the low-floor structure is formed from one or more molded pieces of at least one composite material and is substantially level throughout an area between the axles of the heavy-duty vehicle.
Method for the automatic management of a flow of electrical energy produced by at least one first group of prosumers and consumed by said first group of prosumers and at least one second group of consumers, wherein each entity of each group determines, at the beginning of a predetermined period, a production forecast and/or a consumption forecast of electrical energy for the predetermined period, the method being characterized in that it comprises the following operations: - a) determining, for each group, an order for consulting the entities of the group, - b) consulting the prosumers according to the order determined in step a), each prosumer calculating a residual production forecast taking account of its own production forecasts, a residual production forecast transmitted by a preceding entity and a portion of a consumption forecast that can be supplied by the residual production forecast, and transmitting this residual production forecast to the prosumer according to the determined order, - c) reiterating step b) as long as all the prosumers have not been consulted, - d) when the residual production forecasts are in surplus, transmitting said residual production forecasts to the group of consumers, - e) consulting the consumers according to the order determined in step a), each consumer calculating and transmitting, to the consumer according to the determined order, the residual production forecast taking account of the residual production forecast transmitted by the preceding entity and of its portion of consumption forecast that can be supplied, - f) reiterating step e) as long as all the consumers have not been consulted, - g) reiterating steps b) to f) as long as a predetermined convergence criterion has not been reached. - a) determining, for each group, an order for consulting the entities of the group, - b) consulting the prosumers according to the order determined in step a), each prosumer calculating a residual production forecast taking account of its own production forecasts, a residual production forecast transmitted by a preceding entity and a portion of a consumption forecast that can be supplied by the residual production forecast, and transmitting this residual production forecast to the prosumer according to the determined order, - c) reiterating step b) as long as all the prosumers have not been consulted, - d) when the residual production forecasts are in surplus, transmitting said residual production forecasts to the group of consumers, - e) consulting the consumers according to the order determined in step a), each consumer calculating and transmitting, to the consumer according to the determined order, the residual production forecast taking account of the residual production forecast transmitted by the preceding entity and of its portion of consumption forecast that can be supplied, - f) reiterating step e) as long as all the consumers have not been consulted, - g) reiterating steps b) to f) as long as a predetermined convergence criterion has not been reached.
A computer-implemented method for mining pedestrian probe data from mix-mode probe data comprising: a. receiving a probe trajectory including a vehicle mode of travel, a pedestrian mode of travel, or a combination thereof; b. splitting the probe trajectory into two chunks; c. processing the probe trajectory to determine at least one speed value and at least one sinuosity value for each chunk; d. determining a pedestrian probe detection metric, PDM, for each chunk based on the at least one speed value and the at least one sinuosity value of each chunk, the PDM describing how pedestrian heavy each chunk is; e. calculating a homogeneity ratio between the PDMs of each chunk; f. unless the homogeneity ratio exceeds a homogeneity criterion or a threshold minimum number of probes in each chunk is reached, splitting each chunk into two further chunks and repeating steps c-f with each of the further chunks; and g. ranking each chunk of the probe trajectory among a plurality of probe trajectories based on the pedestrian probe detection metric. a. receiving a probe trajectory including a vehicle mode of travel, a pedestrian mode of travel, or a combination thereof; b. splitting the probe trajectory into two chunks; c. processing the probe trajectory to determine at least one speed value and at least one sinuosity value for each chunk; d. determining a pedestrian probe detection metric, PDM, for each chunk based on the at least one speed value and the at least one sinuosity value of each chunk, the PDM describing how pedestrian heavy each chunk is; e. calculating a homogeneity ratio between the PDMs of each chunk; f. unless the homogeneity ratio exceeds a homogeneity criterion or a threshold minimum number of probes in each chunk is reached, splitting each chunk into two further chunks and repeating steps c-f with each of the further chunks; and g. ranking each chunk of the probe trajectory among a plurality of probe trajectories based on the pedestrian probe detection metric.
A flow dampener comprising: two sections, each section comprising a body shell (260A, 260B) having an interior surface and an elongate groove formed on the interior surface, and a flexible membrane (270A, 270B) sealed to the interior surface of the body shell and covering the elongate groove, the flexible membrane cooperating with the elongate groove to form an elongate flow path (267A, 267B), the elongate flow path having two ends, wherein flexibility of the membrane dampens vibration in a flow of fluid through the elongate flow path; two external flow ports (230A, 230B), one external flow port to one end of the elongate flow path in each section; and a through flow port providing a flow path between the other ends of the elongate flow paths; wherein each of the two external flow ports comprises a hole through the body shell of one section, and the through flow port comprises a hole through the flexible membrane of each section. two sections, each section comprising a body shell (260A, 260B) having an interior surface and an elongate groove formed on the interior surface, and a flexible membrane (270A, 270B) sealed to the interior surface of the body shell and covering the elongate groove, the flexible membrane cooperating with the elongate groove to form an elongate flow path (267A, 267B), the elongate flow path having two ends, wherein flexibility of the membrane dampens vibration in a flow of fluid through the elongate flow path; a body shell (260A, 260B) having an interior surface and an elongate groove formed on the interior surface, and a flexible membrane (270A, 270B) sealed to the interior surface of the body shell and covering the elongate groove, the flexible membrane cooperating with the elongate groove to form an elongate flow path (267A, 267B), the elongate flow path having two ends, wherein flexibility of the membrane dampens vibration in a flow of fluid through the elongate flow path; two external flow ports (230A, 230B), one external flow port to one end of the elongate flow path in each section; and a through flow port providing a flow path between the other ends of the elongate flow paths; wherein each of the two external flow ports comprises a hole through the body shell of one section, and the through flow port comprises a hole through the flexible membrane of each section.
Procedure for predictive maintenance on an electromagnetic flowmeter and/or procedure to determine the electrical conductivity of a medium that flows through an electromagnetic flowmeter, said electromagnetic flowmeter comprising the following components: a magnet system that generates a magnetic field that passes through the measuring tube and is essentially perpendicular to the measuring tube axis; at least two measuring electrodes with a defined rest potential, said electrodes being coupled with the medium and being arranged in an area of the measuring tube that is essentially perpendicular to the magnetic field, and a control/evaluation unit that delivers information about the volume flow or mass flow of the medium in the measuring tube using the measuring voltage induced in the measuring electrodes, characterized in that a first excitation signal with a first frequency (f 1) and at least a second excitation signal with a second frequency (f 2) or an excitation signal that contains at least two frequencies (f 1, f 2) is/are applied to the measuring electrode (4, 5) in such a way that the mean value of the excitation signals/excitation signal at least approximately coincides with the current mean value of the measured electrode potential of the measuring electrode (4, 5), and in that the conductivity (λ) of the medium and/or a change at the surface of the measuring electrode (4, 5) is detected on the basis of at least one impedance value measured between measuring electrode (4, 5) and the reference potential.
A vacuum-assisted biopsy device (100, 200, 300, 400), comprising: a stylet (110, 210, 310, 410) configured to incise tissue, the stylet (110, 210, 310, 410) including a notch; and a vacuum pump (130, 230) in communication with the notch (150, 250, 350, 450) via a vacuum line (120, 220, 320, 420), wherein a conduit provides communication between the notch (150, 250, 350, 450) and the vacuum line (120, 220, 320, 420); wherein the vacuum line (120, 220, 320, 420) is configured to transmit vacuum pressure from the vacuum pump (130, 230) to the notch (150, 250, 350, 450) in order to draw a tissue sample to the notch (150, 250, 350, 450); wherein at least one passageway is extending completely through an annular wall of the vacuum line (120, 220, 320, 420), the passageway being proximal to the notch (150, 250, 350, 450) and spaced from the notch (150, 250, 350, 450); characterised in that the at least one passageway is configured to allow for vacuum to flow between the vacuum line (120, 220, 320, 420) and the environment during vacuum actuation to provide additional travel paths to the vacuum. a stylet (110, 210, 310, 410) configured to incise tissue, the stylet (110, 210, 310, 410) including a notch; and a vacuum pump (130, 230) in communication with the notch (150, 250, 350, 450) via a vacuum line (120, 220, 320, 420), wherein a conduit provides communication between the notch (150, 250, 350, 450) and the vacuum line (120, 220, 320, 420); wherein the vacuum line (120, 220, 320, 420) is configured to transmit vacuum pressure from the vacuum pump (130, 230) to the notch (150, 250, 350, 450) in order to draw a tissue sample to the notch (150, 250, 350, 450); wherein at least one passageway is extending completely through an annular wall of the vacuum line (120, 220, 320, 420), the passageway being proximal to the notch (150, 250, 350, 450) and spaced from the notch (150, 250, 350, 450); characterised in that the at least one passageway is configured to allow for vacuum to flow between the vacuum line (120, 220, 320, 420) and the environment during vacuum actuation to provide additional travel paths to the vacuum.
Method for controlling robots for welding three-dimensional workpieces, having the following steps: positioning and tack-welding profiles onto a plate in order to form the workpiece to be welded, positioning the plate on a work table, imaging the workpiece by means of a three-dimensional image detection system in the form of three-dimensional pixels, determining the geometrical data of the plate and of the profiles directly from the three-dimensional pixels as a pixel cloud by segmenting it according to the background and the workpiece, plate and profiles and profiles from each other, by establishing profile courses and examining the individual profiles according to their properties including cutouts and end cut edges from the segmented three-dimensional pixels, wherein the position of the plate plane is determined and the measuring points of the workpiece are transformed into a local workpiece coordinate system, the x-y plane of which coincides with the plane of the plate, thereby separating the pixels of the plate plane and the pixels of the profiles using height coordinates, determining the weld seam data from the geometrical data taking into account the profile placement lines and the contact lines of profiles, assigning the weld seam data to parameterisable specifications for the welding plan to stored predefined movement patterns of the robot and also to commands for controlling and regulating the welding process. positioning and tack-welding profiles onto a plate in order to form the workpiece to be welded, positioning the plate on a work table, imaging the workpiece by means of a three-dimensional image detection system in the form of three-dimensional pixels, determining the geometrical data of the plate and of the profiles directly from the three-dimensional pixels as a pixel cloud by segmenting it according to the background and the workpiece, plate and profiles and profiles from each other, by establishing profile courses and examining the individual profiles according to their properties including cutouts and end cut edges from the segmented three-dimensional pixels, wherein the position of the plate plane is determined and the measuring points of the workpiece are transformed into a local workpiece coordinate system, the x-y plane of which coincides with the plane of the plate, thereby separating the pixels of the plate plane and the pixels of the profiles using height coordinates, determining the weld seam data from the geometrical data taking into account the profile placement lines and the contact lines of profiles, assigning the weld seam data to parameterisable specifications for the welding plan to stored predefined movement patterns of the robot and also to commands for controlling and regulating the welding process.
Method for cooking and flavouring food using a flavouring unit containing at least one flavouring agent and a cooking appliance comprising a steam generator, it being possible to introduce steam into the cooking chamber of the cooking appliance via at least a first steam inlet nozzle of the cooking appliance, characterised in that the steam generated by the steam generator is guided directly into the flavouring unit by means of the first steam inlet nozzle, absorbs flavouring agent in the flavouring unit and is then supplied to the food.
A gas turbine engine comprising: a compressor; a combustor fluidly connected to the compressor via a primary flowpath; a turbine fluidly connected to the combustor via the primary flowpath; and an engine controller (72; 160) communicatively coupled to at least one sensor in the gas turbine engine, the controller (72; 160) including a non-transitory memory and a processor, and the at least one sensor including an inlet temperature sensor, wherein the sensor is disposed aft of a fan (42; 130), characterised in that: the gas turbine engine further comprises an inlet fan section defined by a dimensional relationship L/D of between 0.2 and 0.45, where L is a distance from an inlet to a leading edge of at least one fan blade and D is a diameter of the fan, and said memory stores instructions for causing said processor to synthesize a gas turbine engine inlet temperature based on a temperature at said sensor. a compressor; a combustor fluidly connected to the compressor via a primary flowpath; a turbine fluidly connected to the combustor via the primary flowpath; and an engine controller (72; 160) communicatively coupled to at least one sensor in the gas turbine engine, the controller (72; 160) including a non-transitory memory and a processor, and the at least one sensor including an inlet temperature sensor, wherein the sensor is disposed aft of a fan (42; 130), characterised in that: the gas turbine engine further comprises an inlet fan section defined by a dimensional relationship L/D of between 0.2 and 0.45, where L is a distance from an inlet to a leading edge of at least one fan blade and D is a diameter of the fan, and said memory stores instructions for causing said processor to synthesize a gas turbine engine inlet temperature based on a temperature at said sensor.
Drum cutting arrangement with a drum frame and with two rotationally drivable drums (3, 4) arranged in the drum frame at a spacing from one another and each having at the contour thereof a knife (5, 6), wherein when a metal sheet runs through a gap between the drums (3, 4) the metal sheet can be cut under at least partial rotation of the drums, and wherein at least one first group roller path (10, 11), which is movable into the region of the drum frame, is provided at the inlet side and/or outlet side of the drum frame, characterised in that the at least one group roller path (10, 11) is configured to be horizontally displaceable by means of a drive (12, 14, 13, 15), that the at least one first group roller path (10, 11) is configured to be vertically adjustable by means of a drive and that at least one second group roller path (18, 19) designed to be pivotable about an axis (20, 22) is provided.