mhurhangee/ep-ind-claims huggingface dataset:
A vehicle control device characterized in comprising: a variable-damping-force shock absorber of adjustable damping force; sprung vibration damping control means for calculating a sprung vibration damping control amount constituting damping force for minimizing vibration of a sprung mass; unsprung vibration damping control means for calculating an unsprung vibration damping control amount constituting damping force for minimizing vibration of an unsprung mass; driving state-determining means for determining whether a vehicle is traveling in a straight line or turning; damping force distribution factor-calculating means for calculating a damping force distribution factor for individual wheels corresponding to a target orientation; and damping force control means that, when the driving state-determining means determines that the vehicle is traveling in a straight line, controls the damping force of the variable-damping-force shock absorber on the basis of whichever of the unsprung vibration damping control amount and the sprung vibration damping control amount is greater, and that, when the driving state-determining means determines that the vehicle is turning, calculates the damping force control amount on the basis of the unsprung vibration damping control amount so as to maintain the damping force distribution factor and controls the damping force of the variable-damping-force shock absorber on the basis of whichever of the calculated damping force control amount and the sprung vibration damping control amount is greater. a variable-damping-force shock absorber of adjustable damping force; sprung vibration damping control means for calculating a sprung vibration damping control amount constituting damping force for minimizing vibration of a sprung mass; unsprung vibration damping control means for calculating an unsprung vibration damping control amount constituting damping force for minimizing vibration of an unsprung mass; driving state-determining means for determining whether a vehicle is traveling in a straight line or turning; damping force distribution factor-calculating means for calculating a damping force distribution factor for individual wheels corresponding to a target orientation; and damping force control means that, when the driving state-determining means determines that the vehicle is traveling in a straight line, controls the damping force of the variable-damping-force shock absorber on the basis of whichever of the unsprung vibration damping control amount and the sprung vibration damping control amount is greater, and that, when the driving state-determining means determines that the vehicle is turning, calculates the damping force control amount on the basis of the unsprung vibration damping control amount so as to maintain the damping force distribution factor and controls the damping force of the variable-damping-force shock absorber on the basis of whichever of the calculated damping force control amount and the sprung vibration damping control amount is greater.
Multi-compartment device comprising: i) a first compartment including a dyeing composition comprising one or more oxidation dyes and one or more alkaline agents, ii) a second compartment including a composition comprising one or more oxidizing agents, and iii) one or more self-foaming agents having a boiling point of at least 1°C present in at least one of the compositions and/or; said self-foaming agent being chosen from volatile aliphatic C 4 -C 6 hydrocarbons having a boiling point ranging from 1°C to 28°C at atmospheric pressure (760 mm of mercury). i) a first compartment including a dyeing composition comprising one or more oxidation dyes and one or more alkaline agents, ii) a second compartment including a composition comprising one or more oxidizing agents, and iii) one or more self-foaming agents having a boiling point of at least 1°C present in at least one of the compositions and/or; said self-foaming agent being chosen from volatile aliphatic C 4 -C 6 hydrocarbons having a boiling point ranging from 1°C to 28°C at atmospheric pressure (760 mm of mercury).
A transport device, with a flat transport element, which is driven, and with at least one basic carrier, which is mounted on the latter by means of rollers (31,33) and onto which at least one article carrier is mounted, characterized in that the transport element is configured as a single flexible belt having longitudinal edges (27,29), and that a coupling by positive locking occurs between the longitudinal edges (27,29) of the transport element and the rollers (31,33) of the basic carrier.
A method for instituting redistribution of wireless clients to improve service, comprising the steps of: allowing a client to associate to an access point, hereafter AP, the AP being one of a plurality of access points, hereafter APs, in connection with a network; deciding that an associated client should be redistributed based on a connection metric, wherein the decision is based on a probability calculation; and sending the associated client a trigger, wherein the trigger is at least one of, a redistribution request and a disconnect message, wherein the sending is by the AP and the deciding is performed by the APs acting in concert with one another; and wherein the probability calculation comprises: maintaining connection metric distribution statistics for the client; periodically comparing the client connection metric to a relevant selected set of historical client connection metrics, periodically computing distribution percentiles of the client performance metric relative to the selected set; and calculating trigger probability based on a function of the percentile; wherein the step of sending the associated client the trigger is based on the calculated trigger probability. allowing a client to associate to an access point, hereafter AP, the AP being one of a plurality of access points, hereafter APs, in connection with a network; deciding that an associated client should be redistributed based on a connection metric, wherein the decision is based on a probability calculation; and sending the associated client a trigger, wherein the trigger is at least one of, a redistribution request and a disconnect message, wherein the sending is by the AP and the deciding is performed by the APs acting in concert with one another; and wherein the probability calculation comprises: maintaining connection metric distribution statistics for the client; periodically comparing the client connection metric to a relevant selected set of historical client connection metrics, periodically computing distribution percentiles of the client performance metric relative to the selected set; and calculating trigger probability based on a function of the percentile; maintaining connection metric distribution statistics for the client; periodically comparing the client connection metric to a relevant selected set of historical client connection metrics, periodically computing distribution percentiles of the client performance metric relative to the selected set; and calculating trigger probability based on a function of the percentile; wherein the step of sending the associated client the trigger is based on the calculated trigger probability.
A fluid sampling and measuring assembly to take and analyse at least one fluid sample from at least one sampling station of an underwater hydrocarbon extraction and/or production facility, the sampling and measuring assembly (3; 36; 38; 39) comprising: - a sampling and measuring module, configured to sample and analyse a fluid sample; - a picking module configured to contain the fluid sample; - at least one navigation module (20; 21) configured to navigate in the body of water; - at least one interface module (17; 18) configured to hydraulically connect the sampling station, the sampling and measuring module and the picking module; wherein the sampling and measuring module and the picking module are configured to be mechanically and hydraulically coupled to each other and to the sampling station to take and analyse the fluid sample and the picking module is configured to be coupled to the navigation module (20; 21) to transfer the fluid sample to an analysis laboratory; the fluid sampling and measuring assembly comprising a first releasable or permanent connecting device (37, 32), configured to connect mechanically the interface module and the navigation module; a second releasable connecting device configured to connect mechanically, hydraulically, electrically and for data exchange the interface module (17; 18) and the sampling and measuring module or the sampling station; and a second permanent connecting device configured to connect mechanically, hydraulically, electrically and for data exchange the interface module and the picking module. - a sampling and measuring module, configured to sample and analyse a fluid sample; - a picking module configured to contain the fluid sample; - at least one navigation module (20; 21) configured to navigate in the body of water; - at least one interface module (17; 18) configured to hydraulically connect the sampling station, the sampling and measuring module and the picking module; wherein the sampling and measuring module and the picking module are configured to be mechanically and hydraulically coupled to each other and to the sampling station to take and analyse the fluid sample and the picking module is configured to be coupled to the navigation module (20; 21) to transfer the fluid sample to an analysis laboratory;
A method of manufacturing a plurality of radiation emitting devices, comprising the steps of: - providing a compound with a plurality of connection carriers, wherein - each connection carrier comprises a light-transmissive matrix, in which vias are arranged extending therethrough from a first main surface of the connection carrier to a second main surface of the connection carrier, and - the connection carriers are spaced from each other by frames surrounding each connection carrier, - arranging a radiation-emitting semiconductor chip on two vias, and - separating the devices by removing the frames completely or partially. - providing a compound with a plurality of connection carriers, wherein - each connection carrier comprises a light-transmissive matrix, in which vias are arranged extending therethrough from a first main surface of the connection carrier to a second main surface of the connection carrier, and - the connection carriers are spaced from each other by frames surrounding each connection carrier, - each connection carrier comprises a light-transmissive matrix, in which vias are arranged extending therethrough from a first main surface of the connection carrier to a second main surface of the connection carrier, and - the connection carriers are spaced from each other by frames surrounding each connection carrier, - arranging a radiation-emitting semiconductor chip on two vias, and - separating the devices by removing the frames completely or partially.
A display screen for an electronic device, the display screen comprising a first display area, a second display area and an optical fingerprint module, wherein: the first display area is a non-transparent display screen; the second display area is a transparent display screen; and the optical fingerprint module is positioned on a rear side of the display screen and adapted to identify a fingerprint on the second display area. the first display area is a non-transparent display screen; the second display area is a transparent display screen; and the optical fingerprint module is positioned on a rear side of the display screen and adapted to identify a fingerprint on the second display area.
A method (300, 400) for monitoring status of field devices operating in a process plant, the method comprising: receiving (304, 402), at a remote terminal unit coupled to a field device, data indicative of a status of the field device; storing the received information in a memory of the remote terminal unit; receiving, from a remote host via a communication network, a request for the status of the field device; providing, to the remote host in response to the request, an indication of the status of the field device based on the data stored in the memory of the of the remote terminal unit, characterized by: providing a bit mask to the remote host; checking, at the remote host, a status of the bit mask to determine whether additional information is available; and requesting, from the remote host via the remote terminal unit, additional information from the field device. receiving (304, 402), at a remote terminal unit coupled to a field device, data indicative of a status of the field device; storing the received information in a memory of the remote terminal unit; receiving, from a remote host via a communication network, a request for the status of the field device; providing, to the remote host in response to the request, an indication of the status of the field device based on the data stored in the memory of the of the remote terminal unit, characterized by: providing a bit mask to the remote host; checking, at the remote host, a status of the bit mask to determine whether additional information is available; and requesting, from the remote host via the remote terminal unit, additional information from the field device.
Placeable device for a hob, comprising a handle for handling the placeable device, a controller, a transmitter unit for transmitting signals from the placeable device to the hob, and at least one input unit (10, 14) having at least one input region (12, 16) integrated in the handle for a user of the placeable device to input a user command, the transmitter unit and the input unit (10, 14) being connected to the controller so as to transmit signals, and it being possible to control the hob by means of the user command, characterised in that the handle has a grip portion for gripping for the purpose of manually moving the placeable device, and at least one input portion (20, 22), the input region (12, 16) being arranged in the input portion (20, 22), at least one sensor for detecting the handle being approached and/or for detecting the handle being touched by the user being arranged at least in the grip portion, it being possible to block the input of the user command by means of the controller on the basis of a human hand approaching the input portion of the handle being detected by means of the sensor designed as a proximity sensor, and/or it being possible to block the input of the user command by means of the controller on the basis of the gripping being detected by this sensor.
A method (400, 500) that facilitates generating feedback related to a forward link channel for linear precoding, comprising: estimating (402, 502) a forward link channel to generate a matrix; modifying matrices from a codebook to obtain a set of tailored matrices corresponding to a modified codebook, wherein the matrices from the codebook are modified at least in part based upon implicit channel related information provided via a reverse link channel, and wherein implicit feedback related to at least a portion of the forward link channel is derived from the reverse link channel; quantizing a portion of the matrix to yield explicit feedback, wherein quantizing comprises comparing the matrix with the set of tailored matrices from the modified codebook to identify a closest tailored matrix; and transmitting quantized data over a reverse link channel that provides implicit feedback corresponding to a remainder of the matrix, wherein the implicit feedback is not identical to the explicit feedback, and wherein the implicit feedback provides information about a part of the matrix other than the quantized portion. estimating (402, 502) a forward link channel to generate a matrix; modifying matrices from a codebook to obtain a set of tailored matrices corresponding to a modified codebook, wherein the matrices from the codebook are modified at least in part based upon implicit channel related information provided via a reverse link channel, and wherein implicit feedback related to at least a portion of the forward link channel is derived from the reverse link channel; quantizing a portion of the matrix to yield explicit feedback, wherein quantizing comprises comparing the matrix with the set of tailored matrices from the modified codebook to identify a closest tailored matrix; and transmitting quantized data over a reverse link channel that provides implicit feedback corresponding to a remainder of the matrix, wherein the implicit feedback is not identical to the explicit feedback, and wherein the implicit feedback provides information about a part of the matrix other than the quantized portion.
A method of providing through-thickness reinforcement in a laminated material, the method comprising: moving a guide foot to a datum location relative the laminated material, at which the guide foot abuts a reinforcement zone (300, 302) on a surface of the laminated material; moving a carrier for the insertion element relative the guide foot to align the insertion element for insertion through the guide foot when the guide foot is at the datum location, whereby the carrier is translated relative the guide foot along a translation axis; and conducting an insertion operation by inserting an insertion element, having a principal axis which is linear, through the guide foot into the laminated material along an insertion direction when the guide foot is in the datum location, wherein the insertion element comprises: a needle for forming a hole (18, 23) in the laminated material; a reinforcement rod to be received in the laminated material; or a tamping pin for tamping a reinforcement rod received in the laminated material; wherein the translation axis is orthogonal to the insertion direction. moving a guide foot to a datum location relative the laminated material, at which the guide foot abuts a reinforcement zone (300, 302) on a surface of the laminated material; moving a carrier for the insertion element relative the guide foot to align the insertion element for insertion through the guide foot when the guide foot is at the datum location, whereby the carrier is translated relative the guide foot along a translation axis; and conducting an insertion operation by inserting an insertion element, having a principal axis which is linear, through the guide foot into the laminated material along an insertion direction when the guide foot is in the datum location, wherein the insertion element comprises: a needle for forming a hole (18, 23) in the laminated material; a reinforcement rod to be received in the laminated material; or a tamping pin for tamping a reinforcement rod received in the laminated material; a needle for forming a hole (18, 23) in the laminated material; a reinforcement rod to be received in the laminated material; or a tamping pin for tamping a reinforcement rod received in the laminated material; wherein the translation axis is orthogonal to the insertion direction.
A thin film transistor provided on a substrate, comprising: a gate electrode; a gate insulating film covered by the gate electrode; a semiconductor layer placed to face the gate electrode with the gate insulating film interposed therebetween; a source electrode connected to the semiconductor layer; and a drain electrode separated from the source electrode and connected to the semiconductor layer, wherein the semiconductor layer is comprised of a metal oxide semiconductor including an oxide of In and an oxide of at least one of Ga, or Zn, and has a source portion that contacts the source electrode, a drain portion that contacts the drain electrode, and a channel portion that is located between the source and drain portions, and a reduced region in which the oxide of In has been reduced is formed at least in the channel portion of the semiconductor layer, and the reduced region has a higher content of a simple substance of pure metallic In than a remaining portion of the semiconductor layer, and the reduced region extends substantially in the entire channel portion. a gate electrode; a gate insulating film covered by the gate electrode; a semiconductor layer placed to face the gate electrode with the gate insulating film interposed therebetween; a source electrode connected to the semiconductor layer; and a drain electrode separated from the source electrode and connected to the semiconductor layer, wherein the semiconductor layer is comprised of a metal oxide semiconductor including an oxide of In and an oxide of at least one of Ga, or Zn, and has a source portion that contacts the source electrode, a drain portion that contacts the drain electrode, and a channel portion that is located between the source and drain portions, and a reduced region in which the oxide of In has been reduced is formed at least in the channel portion of the semiconductor layer, and the reduced region has a higher content of a simple substance of pure metallic In than a remaining portion of the semiconductor layer, and the reduced region extends substantially in the entire channel portion.
An audio decoder (200; 400) for providing a decoded audio information (220; 412) on the basis of an encoded audio information (210;410), the audio decoder comprising: an error concealment (240; 480; 600) configured to provide an error concealment audio information (242;482;612) for concealing a loss of an audio frame, wherein the error concealment is configured to modify a time domain excitation signal (452,456;610) obtained for one or more audio frames preceding a lost audio frame, in order to obtain the error concealment audio information; characterised in that the error concealment (240;480;600) is configured to time-scale the time domain excitation signal (452,456;610) obtained on the basis of one or more audio frames preceding a lost audio frame, or the one or more copies thereof, in dependence on a prediction of a pitch for the time of the one or more lost audio frames. an error concealment (240; 480; 600) configured to provide an error concealment audio information (242;482;612) for concealing a loss of an audio frame, wherein the error concealment is configured to modify a time domain excitation signal (452,456;610) obtained for one or more audio frames preceding a lost audio frame, in order to obtain the error concealment audio information; characterised in that the error concealment (240;480;600) is configured to time-scale the time domain excitation signal (452,456;610) obtained on the basis of one or more audio frames preceding a lost audio frame, or the one or more copies thereof, in dependence on a prediction of a pitch for the time of the one or more lost audio frames.
A pigment dispersion, comprising: a dispersion medium; a compound represented by a general formula, which is dispersed in the dispersion medium; and a pigment having a quinacridone skeleton, which is dispersed in the dispersion medium: in the general formula, R 1 and R 2 each independently represent a hydrogen atom, an alkyl group, an aryl group, or an aralkyl group. a dispersion medium; a compound represented by a general formula, which is dispersed in the dispersion medium; and a pigment having a quinacridone skeleton, which is dispersed in the dispersion medium: in the general formula, R 1 and R 2 each independently represent a hydrogen atom, an alkyl group, an aryl group, or an aralkyl group.