mhurhangee/ep-ind-claims huggingface dataset:
A method for calibrating a wagon weighbridge by means of a track maintenance machine which can be moved on a track and comprises work units (5, 6) for treating the track and/or a ballast bed, with at least one work unit (5, 6) having at least one force introduction point which can be lowered and lifted by a drive, with the drive and thus the movement of the force introduction point being force-controlled or displacement-controlled by means of a set-up control and regulation system, with the track maintenance machine being positioned on the track prior to the start of a calibration process in such a way that the at least one force introduction point assumes a vertical position above the area of the wagon weighbridge to be calibrated, with a measuring unit being attached to at least the one force introduction point, with the measuring unit being coupled with the wagon weighbridge at a track section/support point associated with the wagon weighbridge, with at least the one force introduction point being lowered at the start of the calibration process and a defined force being applied to the wagon weighbridge by this lowering.
A method comprising: creating, in a computing network, a hierarchal routing topology for reaching a destination, the hierarchal routing topology comprising a single parent supernode providing reachability to the destination, and a plurality of child supernodes, each child supernode comprising one or more exit network devices each providing a corresponding link to the parent supernode; receiving, in one of the child supernodes, a data packet for delivery to the destination; causing the data packet to traverse along any available data link in the one child supernode independent of any routing topology established by network devices in the one child supernode, until the data packet reaches one of the exit network devices; and the one exit network device forwarding the data packet to the parent supernode, via the corresponding link, for delivery to the destination. creating, in a computing network, a hierarchal routing topology for reaching a destination, the hierarchal routing topology comprising a single parent supernode providing reachability to the destination, and a plurality of child supernodes, each child supernode comprising one or more exit network devices each providing a corresponding link to the parent supernode; receiving, in one of the child supernodes, a data packet for delivery to the destination; causing the data packet to traverse along any available data link in the one child supernode independent of any routing topology established by network devices in the one child supernode, until the data packet reaches one of the exit network devices; and the one exit network device forwarding the data packet to the parent supernode, via the corresponding link, for delivery to the destination.
A method for providing an amine with formula (R 1 R 2 NR 3) 2 NH wherein - each of R 1 and R 2 are chosen from the group consisting of a methyl group, an ethyl group, an iso-propyl group and an n-propyl group; - R 3 being an alkoxyalkyl group chosen from the group consisting of - CH 2 CH 2 OCH 2 CH 2 -, -CH 2 CH 2 OCH 2 CH 2 CH 2 - and -CH 2 CH 2 CH 2 OCH 2 CH 2 CH 2 -; the method comprising the steps of: (α)reacting R 1 R 2 NR 3 with ammonia, thereby providing a mixture comprising (R 1 R 2 NR 3) 2 NH; (β) separating (R 1 R 2 NR 3) 2 NH from said mixture. - each of R 1 and R 2 are chosen from the group consisting of a methyl group, an ethyl group, an iso-propyl group and an n-propyl group; - R 3 being an alkoxyalkyl group chosen from the group consisting of - CH 2 CH 2 OCH 2 CH 2 -, -CH 2 CH 2 OCH 2 CH 2 CH 2 - and -CH 2 CH 2 CH 2 OCH 2 CH 2 CH 2 -; (α)reacting R 1 R 2 NR 3 with ammonia, thereby providing a mixture comprising (R 1 R 2 NR 3) 2 NH; (β) separating (R 1 R 2 NR 3) 2 NH from said mixture.
A method of analyzing touch screen events based on characterization of features derived from each touch event, the method comprising: detecting a sequence of touch events on a touch sensitive surface; generating vibro-acoustic waveform signals using at least one sensor associated with the sequence of touch events; converting the waveform signals into at least one frequency domain signal; extracting distinguishing features from said frequency domain signal; and classifying the sequence of touch events into a sequence of hand parts touching the touch sensitive surface by analyzing said features by employing spatiotemporal event data to weight the analysis, wherein said spatiotemporal event data relates to sequences of multiple touch events, and wherein event sequence weights to weight the analysis are generated based on a history of spatiotemporal event data corresponding to a likelihood of each possible sequence of hand parts, wherein weighting the analysis comprises combining a confidence level of each touch event being interpreted as each possible hand part with the likelihood for each possible sequence of hand parts. detecting a sequence of touch events on a touch sensitive surface; generating vibro-acoustic waveform signals using at least one sensor associated with the sequence of touch events; converting the waveform signals into at least one frequency domain signal; extracting distinguishing features from said frequency domain signal; and classifying the sequence of touch events into a sequence of hand parts touching the touch sensitive surface by analyzing said features by employing spatiotemporal event data to weight the analysis, wherein said spatiotemporal event data relates to sequences of multiple touch events, and wherein event sequence weights to weight the analysis are generated based on a history of spatiotemporal event data corresponding to a likelihood of each possible sequence of hand parts, wherein weighting the analysis comprises combining a confidence level of each touch event being interpreted as each possible hand part with the likelihood for each possible sequence of hand parts.
Agricultural transversal processing device for processing ground cover arranged between plants of a plant row comprising a) a processing tool (51; 52) being movable for an oscillating movement in transversal direction and b) an oscillation drive by which it is possible to move the processing tool (51; 52) in an oscillating fashion between an open position (67; 68) and a closed position (65, 66), c) a capturing device which captures information concerning the plants and/or the ground cover located between the plants, characterised in that d) a control device is provided which controls the oscillation drive in a way such that it is possible to change da) an opening stroke and/or a closing stroke of the processing tool, db) an open position (67; 68) of the processing tool (51; 52) and/or dc) a closed position (65, 66) of the processing tool (51; 52) and/or dd) a centre position between the processing tool and an adjacent processing tool dependent on the information captured by the capturing device. a) a processing tool (51; 52) being movable for an oscillating movement in transversal direction and b) an oscillation drive by which it is possible to move the processing tool (51; 52) in an oscillating fashion between an open position (67; 68) and a closed position (65, 66), c) a capturing device which captures information concerning the plants and/or the ground cover located between the plants, characterised in that d) a control device is provided which controls the oscillation drive in a way such that it is possible to change da) an opening stroke and/or a closing stroke of the processing tool, db) an open position (67; 68) of the processing tool (51; 52) and/or dc) a closed position (65, 66) of the processing tool (51; 52) and/or dd) a centre position between the processing tool and an adjacent processing tool dependent on the information captured by the capturing device. da) an opening stroke and/or a closing stroke of the processing tool, db) an open position (67; 68) of the processing tool (51; 52) and/or dc) a closed position (65, 66) of the processing tool (51; 52) and/or dd) a centre position between the processing tool and an adjacent processing tool
A light distribution control method for a vehicular headlamp (L-HL, R-HL) in which plural illumination regions (A1, A2) are arranged in the left-right direction and illuminated by a headlamp in a desired light distribution pattern, and vehicle positions of a vehicle ahead are detected and selected ones of the plural illumination regions are reduced in light quantity according to corrected vehicle positions, wherein: corrected vehicle positions (aLP, aRP) are set that are obtained by adding margins (Lm, Rm) to the detected vehicle positions (LP, RP) in the left and right directions, respectively; position variations of the vehicle positions are detected, and the margins are increased or decreased according to temporal variation rates of the position variations; illumination regions of the plural illumination regions in which the corrected vehicle positions exist are detected; and the detected illumination regions of the plural illumination regions are the ones which are selected to be reduced in light quantity. corrected vehicle positions (aLP, aRP) are set that are obtained by adding margins (Lm, Rm) to the detected vehicle positions (LP, RP) in the left and right directions, respectively; position variations of the vehicle positions are detected, and the margins are increased or decreased according to temporal variation rates of the position variations; illumination regions of the plural illumination regions in which the corrected vehicle positions exist are detected; and the detected illumination regions of the plural illumination regions are the ones which are selected to be reduced in light quantity.
An electromagnetic position tracking system comprising: an electromagnetic field emission device comprising at least one emitter coil (BE 1, BE 2, BE 3) and, connected to said at least one emitter coil, a first generator of an electric signal for exciting said at least one emitter coil; a device for receiving the electromagnetic field emitted by the emission device, comprising at least one receiver coil (BR 1, BR 2, BR 3) and, connected to said at least one receiver coil, a circuit for reading an electric signal induced in said at least one receiver coil; and a system for measuring at least one parameter of the reception device, comprising a second generator of an electric signal for exciting said at least one receiver coil characterized in that said second generator is directly connected to said at least one receiver coil by a conductive track or wire. an electromagnetic field emission device comprising at least one emitter coil (BE 1, BE 2, BE 3) and, connected to said at least one emitter coil, a first generator of an electric signal for exciting said at least one emitter coil; a device for receiving the electromagnetic field emitted by the emission device, comprising at least one receiver coil (BR 1, BR 2, BR 3) and, connected to said at least one receiver coil, a circuit for reading an electric signal induced in said at least one receiver coil; and a system for measuring at least one parameter of the reception device, comprising a second generator of an electric signal for exciting said at least one receiver coil characterized in that said second generator is directly connected to said at least one receiver coil by a conductive track or wire.
A method of transmitting in a wireless communication system using multi-user multiple input multiple output, the method comprising: assigning, by a transmitter, group control information to each of a plurality of receivers in a unicasting way, the group control information including address information, a group sequence number, bitmap information and stream information, the bitmap information including a bit indicating whether or not a frame is transmitted to a receiver for the group identified by the group sequence number; and transmitting, by the transmitter, a data frame to the plurality of receivers in accordance with the bitmap information only after assigning the group control information to all of the plurality of receivers, the data frame having the group sequence number, wherein the address information indicates the receiver in the group identified by the group sequence number; wherein the group sequence number indicates a group to which the receiver belongs, and wherein the stream information indicates a location of a stream of a plurality of streams to be received by the receiver that belongs to the group identified by the group sequence number. assigning, by a transmitter, group control information to each of a plurality of receivers in a unicasting way, the group control information including address information, a group sequence number, bitmap information and stream information, the bitmap information including a bit indicating whether or not a frame is transmitted to a receiver for the group identified by the group sequence number; and transmitting, by the transmitter, a data frame to the plurality of receivers in accordance with the bitmap information only after assigning the group control information to all of the plurality of receivers, the data frame having the group sequence number, wherein the address information indicates the receiver in the group identified by the group sequence number; wherein the group sequence number indicates a group to which the receiver belongs, and wherein the stream information indicates a location of a stream of a plurality of streams to be received by the receiver that belongs to the group identified by the group sequence number.
A navigation system comprising: a pressure sensor; a calibration module configured to be in communication with the pressure sensor and configured to determine dynamic pressure model information based at least in part on at least three parameters, the at least three parameters including: static pressure model information, a first measured pressure value from the pressure sensor, and a velocity value of the navigation system; a global navigation satellite system chipset configured to provide a GNSS-based altitude value to the calibration module; wherein the calibration module is further configured to determine a static pressure proportionality coefficient (P 0) based at least in part on the GNSS-based altitude value and a second measured pressure value from the pressure sensor; the navigation system further comprising an altitude module in communication with the calibration module and configured to calculate a sensor-based altitude value based at least in part on the determined dynamic pressure model information, and the static pressure proportionality coefficient determined by the calibration module. a pressure sensor; a calibration module configured to be in communication with the pressure sensor and configured to determine dynamic pressure model information based at least in part on at least three parameters, the at least three parameters including: static pressure model information, a first measured pressure value from the pressure sensor, and a velocity value of the navigation system; static pressure model information, a first measured pressure value from the pressure sensor, and a velocity value of the navigation system; a global navigation satellite system chipset configured to provide a GNSS-based altitude value to the calibration module; wherein the calibration module is further configured to determine a static pressure proportionality coefficient (P 0) based at least in part on the GNSS-based altitude value and a second measured pressure value from the pressure sensor; the navigation system further comprising an altitude module in communication with the calibration module and configured to calculate a sensor-based altitude value based at least in part on the determined dynamic pressure model information, and the static pressure proportionality coefficient determined by the calibration module.
A motor vehicle closing device having a locking mechanism comprising a catch and at least one pawl, the catch being latchable in at least one latching position by means of the pawl, a lock holder (3, 5), it being possible for the lock holder (3, 5) to be brought into engagement with the catch by means of a relative movement between the closing device and the lock holder (3, 5) and it being possible for the locking mechanism to be transferred into a latching position, and a means (12, 18) for locking the lock holder (3, 5) in a main latching position of the locking mechanism, a holding device being provided, the holding device being used to transfer a vehicle part which interacts with the closing device from a closed position into an open position, and the holding device forming at least part of the means (12, 18) for locking the lock holder (3, 5), the holding device having a holder, the holder having a damping means, it being possible for the lock holder to be held by means of the damping means, the holder engaging around the lock holder (3, 5) at least in regions, it being possible for the vehicle part to be held by means of the holder, characterized in that the holding device can be electrically driven.
An inductor assembly having a thermal management system, comprising: an inductor, the thermal management system comprising a housing (102, 202) around and in thermal communication with the inductor, the housing defining a wall; and characterized by a conductor (103, 203) having a greater heat transfer rate than the wall and being positioned within a groove formed in the wall, wherein the wall of the housing includes an outer wall (104, 204) and an inner wall (106, 206) forming an interior of the housing containing the inductor, wherein at least one of the outer wall or the inner wall defines an inner surface (104a, 106a; 204a, 206a), wherein the inner surface includes the groove defined therein. an inductor, the thermal management system comprising a housing (102, 202) around and in thermal communication with the inductor, the housing defining a wall; and characterized by a conductor (103, 203) having a greater heat transfer rate than the wall and being positioned within a groove formed in the wall, wherein the wall of the housing includes an outer wall (104, 204) and an inner wall (106, 206) forming an interior of the housing containing the inductor, wherein at least one of the outer wall or the inner wall defines an inner surface (104a, 106a; 204a, 206a), wherein the inner surface includes the groove defined therein.
A liner (16, 22) for a filtration apparatus, said liner adapted to be disposed and sealed between a holder plate (12, 13) and a filter element, said liner (16, 22) comprising a flat face adapted to abut said filter element and an opposite face adapted to abut said holder plate (12, 13), said liner (16, 22) having a feed fluid inlet, a feed fluid outlet, a feed fluid path within said liner in fluid communication with said feed fluid inlet and said feed fluid outlet, a retentate fluid inlet, a retentate fluid outlet, and a retentate fluid path within said liner in fluid communication with said retentate fluid inlet and said retentate fluid outlet; wherein said feed fluid path and said retentate fluid path are not in fluid communication within said liner; characterized by said liner (16, 22) further having a feed sensor port in fluid communication with said feed fluid path, and a retentate sensor port in fluid communication with said retentate fluid path; a feed diaphragm sealed to said feed sensor port and a retentate diaphragm sealed to said retentate sensor port; wherein said feed sensor port is configured such that a feed pressure sensor can be removably connected to said feed sensor port for sensing pressure in said feed fluid path through said feed diaphragm without contacting fluid in said feed fluid path, and said retentate sensor port is configured such that a retentate pressure sensor can be removably connected to said retentate sensor port for sensing pressure in said retentate fluid path through said retentate diaphragm without contacting fluid in said retentate fluid path. said liner (16, 22) having a feed fluid inlet, a feed fluid outlet, a feed fluid path within said liner in fluid communication with said feed fluid inlet and said feed fluid outlet, a retentate fluid inlet, a retentate fluid outlet, and a retentate fluid path within said liner in fluid communication with said retentate fluid inlet and said retentate fluid outlet; wherein said feed fluid path and said retentate fluid path are not in fluid communication within said liner; characterized by said liner (16, 22) further having a feed sensor port in fluid communication with said feed fluid path, and a retentate sensor port in fluid communication with said retentate fluid path; a feed diaphragm sealed to said feed sensor port and a retentate diaphragm sealed to said retentate sensor port; wherein said feed sensor port is configured such that a feed pressure sensor can be removably connected to said feed sensor port for sensing pressure in said feed fluid path through said feed diaphragm without contacting fluid in said feed fluid path, and said retentate sensor port is configured such that a retentate pressure sensor can be removably connected to said retentate sensor port for sensing pressure in said retentate fluid path through said retentate diaphragm without contacting fluid in said retentate fluid path.
A lateral capsule rejection structure for capsule coffeemakers, having a case for a capsule coffeemaker, a discharge port and a capsule collector, characterised in that an inclined unloading plate is arranged inside the case for a capsule coffeemaker; a blocking plate is arranged on a sidewall of the case; the capsule collector is arranged below the blocking plate; and the discharge port is formed on the sidewall of the case, and a top sidewall of the discharge port is movably connected to one end of the blocking plate.
A polymerizable composition comprising: a) a phthalonitrile resin; b) a polyoxometalate of Formula I: H n [XM 12 O 40], wherein M is W or Mo, n is 1 to 6, and X is a heteroatom selected from P, Si, S, Ge, As, Te, or Se; and c) a curative. a) a phthalonitrile resin; b) a polyoxometalate of Formula I: H n [XM 12 O 40], wherein M is W or Mo, n is 1 to 6, and X is a heteroatom selected from P, Si, S, Ge, As, Te, or Se; and c) a curative.
A method of applying a spray mixture in an amount of up to 500 l/ha, the spray mixture comprising an active mixture, whereby the concentration of active mixture is between 2 vol% to 35 vol% based on the volume of the spray mixture and wherein the active mixture comprises one or more surfactants in a concentration of 10 vol% to 35 vol% based on the volume of the active mixture, and terpene containing oils in an concentration of 6 vol% to 35 vol%, based on the volume of the active mixture and wherein the spray mixture is applied in the form of micro-droplets having a volume median diameter of 60 μm to 280 μm when measured according to the ASABE S-572 Droplet Standard.