mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communications, comprising: receiving a signal, wherein the signal includes an indication of a multiplexing mode, the multiplexing mode being one of simultaneous transmission of data and control channels or multiplexing data and control signals in different time slots; determining a multiplexing mode based on the received signal; identifying a first set of component carriers to be used for transmission of data based on the received signal, wherein the first set of component carriers comprises one or more component carriers; identifying a second set of component carriers to be used for transmission of control signals based on the received signal, wherein the second set of component carriers comprises one or more component carriers; and transmitting one or more data signals and one or more control signals on the identified first and second sets of component carriers based on the multiplexing mode. receiving a signal, wherein the signal includes an indication of a multiplexing mode, the multiplexing mode being one of simultaneous transmission of data and control channels or multiplexing data and control signals in different time slots; determining a multiplexing mode based on the received signal; identifying a first set of component carriers to be used for transmission of data based on the received signal, wherein the first set of component carriers comprises one or more component carriers; identifying a second set of component carriers to be used for transmission of control signals based on the received signal, wherein the second set of component carriers comprises one or more component carriers; and transmitting one or more data signals and one or more control signals on the identified first and second sets of component carriers based on the multiplexing mode.
A method for providing information relating to network attributes associated with a WLAN access point to a mobile communication device, comprising the steps of: a) determining, by a WLAN access point, network attributes associated with the WLAN access point, wherein said WLAN access point is located at a hotspot, b) generating, by the WLAN access point, depending on the determined network attributes, a machine-readable web page, which comprises information on the determined network attributes, and c) transmitting, by the WLAN access point, said web page from a webserver, which is integrated in the WLAN access point, to at least one mobile communication device via a WLAN communication, wherein the mobile communication device automatically interprets the received web page to extract network attribute information. a) determining, by a WLAN access point, network attributes associated with the WLAN access point, wherein said WLAN access point is located at a hotspot, b) generating, by the WLAN access point, depending on the determined network attributes, a machine-readable web page, which comprises information on the determined network attributes, and c) transmitting, by the WLAN access point, said web page from a webserver, which is integrated in the WLAN access point, to at least one mobile communication device via a WLAN communication, wherein the mobile communication device automatically interprets the received web page to extract network attribute information.
Device (5, 6) for controlling a motor vehicle alternator of the type of those automatically controlling a direct voltage (B+A) generated by said alternator with respect to a predetermined voltage setpoint (U 0) by governing the intensity of an excitation current (I EXC) flowing through an excitation circuit including an excitation winding for a rotor of said alternator and furthermore holding at least one current temperature of the components of said alternator below at least one predetermined admissible maximum temperature (T max), characterized in that it comprises a voltage automatic control loop (7, 8) including: - means for acquiring said direct voltage (B+A) providing a measured voltage (U b+); - a first subtracter of said measured voltage (U b+) from said voltage setpoint (U 0) generating a voltage error (ε v); - means for conditioning said voltage error (ε v); - a saturation module providing, as a function of said input voltage error (ε v), an output excitation percentage (r) limited to a maximum admissible excitation percentage (r max); - a generator of a pulse width modulated signal having a duty cycle equal to said excitation percentage (r); - a semiconductor switch controlled by said pulse width modulated signal governing said intensity (I EXC); and in that it further includes a temperature automatic control loop (17, 18) including: - at least one temperature sensor providing said at least one current temperature of said components; - at least one second subtracter of said at least one current temperature from said at least one admissible maximum temperature (T max) generating at least one temperature error (ε T); - a control module providing said maximum admissible excitation percentage (r max) as a function of said at least one temperature error (ε T) according to a predetermined control law. - means for acquiring said direct voltage (B+A) providing a measured voltage (U b+); - a first subtracter of said measured voltage (U b+) from said voltage setpoint (U 0) generating a voltage error (ε v); - means for conditioning said voltage error (ε v); - a saturation module providing, as a function of said input voltage error (ε v), an output excitation percentage (r) limited to a maximum admissible excitation percentage (r max); - a generator of a pulse width modulated signal having a duty cycle equal to said excitation percentage (r); - a semiconductor switch controlled by said pulse width modulated signal governing said intensity (I EXC); - at least one temperature sensor providing said at least one current temperature of said components; - at least one second subtracter of said at least one current temperature from said at least one admissible maximum temperature (T max) generating at least one temperature error (ε T); - a control module providing said maximum admissible excitation percentage (r max) as a function of said at least one temperature error (ε T) according to a predetermined control law.
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station, configuration information on a plurality of scheduling request, SR, configurations, wherein each of the plurality of SR configurations corresponds to periodicity information depending on a subcarrier spacing for SR transmission, and wherein at least one of the plurality of SR configurations is configured for licensed band and at least one of the plurality of SR configurations is configured for unlicensed band; in case that an SR is triggered, identifying an SR configuration corresponding to the SR among the plurality of SR configurations; in case that an SR prohibit timer configured for the SR configuration is not running and a number of SR transmissions counted for the SR configuration is lower than a maximum number of SR transmissions configured for the SR configuration and the SR configuration is said at least one of the plurality of SR configurations configured for unlicensed band, identifying whether a channel where the SR is to be transmitted is occupied based on a result of channel sensing in the unlicensed band; and in case that the channel is not occupied, transmitting the SR to the base station and increasing the number of SR transmissions counted for the SR configuration by 1, wherein an SR prohibit timer is configured for each of the plurality of SR configurations, wherein a maximum number of SR transmissions is configured for each of the plurality of SR configurations, and wherein a number of SR transmissions is counted for each of the plurality of SR configurations. receiving, from a base station, configuration information on a plurality of scheduling request, SR, configurations, wherein each of the plurality of SR configurations corresponds to periodicity information depending on a subcarrier spacing for SR transmission, and wherein at least one of the plurality of SR configurations is configured for licensed band and at least one of the plurality of SR configurations is configured for unlicensed band; in case that an SR is triggered, identifying an SR configuration corresponding to the SR among the plurality of SR configurations; in case that an SR prohibit timer configured for the SR configuration is not running and a number of SR transmissions counted for the SR configuration is lower than a maximum number of SR transmissions configured for the SR configuration and the SR configuration is said at least one of the plurality of SR configurations configured for unlicensed band, identifying whether a channel where the SR is to be transmitted is occupied based on a result of channel sensing in the unlicensed band; and in case that the channel is not occupied, transmitting the SR to the base station and increasing the number of SR transmissions counted for the SR configuration by 1, wherein an SR prohibit timer is configured for each of the plurality of SR configurations, wherein a maximum number of SR transmissions is configured for each of the plurality of SR configurations, and wherein a number of SR transmissions is counted for each of the plurality of SR configurations.
A method comprising: receiving an input signal captured by one or more first sensors associated with an active noise reduction, ANR, device; processing the input signal using a first filter disposed in an ANR signal path to generate a first signal for an acoustic transducer of the ANR device; processing the input signal in a pass-through signal path disposed in parallel with the ANR signal path to generate a second signal for the acoustic transducer, wherein the pass-through signal path is configured to allow at least a portion of the input signal to pass through to the acoustic transducer in accordance with a variable gain associated with the pass-through signal path; detecting, using one or more second sensors, an existence of a condition likely to cause instability in the pass-through signal path which may cause the acoustic transducer to produce acoustic artifacts, wherein the one or more second sensors comprise at least one of: an infrared, IR, sensor, an object sensor and a proximity sensor of the ANR device; responsive to detecting the existence of the condition likely to cause instability in the pass-through signal path, adjusting the variable gain associated with the pass-through signal path, said detecting and adjusting the variable gain associated with the pass-through signal path being performed to prevent said instability and acoustic artifacts before they occur; and generating a driver signal for the acoustic transducer using an output of the pass-through signal path, the output being based on the adjusted gain. receiving an input signal captured by one or more first sensors associated with an active noise reduction, ANR, device; processing the input signal using a first filter disposed in an ANR signal path to generate a first signal for an acoustic transducer of the ANR device; processing the input signal in a pass-through signal path disposed in parallel with the ANR signal path to generate a second signal for the acoustic transducer, wherein the pass-through signal path is configured to allow at least a portion of the input signal to pass through to the acoustic transducer in accordance with a variable gain associated with the pass-through signal path; detecting, using one or more second sensors, an existence of a condition likely to cause instability in the pass-through signal path which may cause the acoustic transducer to produce acoustic artifacts, wherein the one or more second sensors comprise at least one of: an infrared, IR, sensor, an object sensor and a proximity sensor of the ANR device; responsive to detecting the existence of the condition likely to cause instability in the pass-through signal path, adjusting the variable gain associated with the pass-through signal path, said detecting and adjusting the variable gain associated with the pass-through signal path being performed to prevent said instability and acoustic artifacts before they occur; and generating a driver signal for the acoustic transducer using an output of the pass-through signal path, the output being based on the adjusted gain.
A method performed by a wireless transmit/receive unit, WTRU,, the method comprising: receiving a downlink transmission; and sending 1 bit of uplink control information, UCI, in each resource block, RB, of an interlace of a plurality of RBs of a physical uplink control channel, PUCCH, transmission over an unlicensed carrier, wherein a base sequence representing the UCI is used for the PUCCH transmission and a resulting sequence comprising the same base sequence after being cyclically shifted is mapped to each RB of the interlace, wherein the resulting sequence has a different cyclic shift of the base sequence in each RB of the interlace, wherein the different cyclic shift of the base sequence used in each RB is a function of a RB index of the respective RB, and wherein the UCI comprises information indicating either an acknowledgement, ACK, or a negative ACK, NACK, of the downlink transmission. receiving a downlink transmission; and sending 1 bit of uplink control information, UCI, in each resource block, RB, of an interlace of a plurality of RBs of a physical uplink control channel, PUCCH, transmission over an unlicensed carrier, wherein a base sequence representing the UCI is used for the PUCCH transmission and a resulting sequence comprising the same base sequence after being cyclically shifted is mapped to each RB of the interlace, wherein the resulting sequence has a different cyclic shift of the base sequence in each RB of the interlace, wherein the different cyclic shift of the base sequence used in each RB is a function of a RB index of the respective RB, and wherein the UCI comprises information indicating either an acknowledgement, ACK, or a negative ACK, NACK, of the downlink transmission.
Installation for producing coated material from granules and recycled coated material aggregates, comprising - a drying drum which is rotatably mounted about a central axis of the drum, the drum having a raised end for the introduction of the granules and a lowered end, - a burner which is configured to generate a stream of hot gas which flows through the drum from the raised end to the lowered end, - one or more recycling ring(s) (12, 14) arranged along the drum for the introduction of recycled coated material aggregates, - a filtering device which is configured to filter hot gases collected at the lowered end of the drum, and - a kneader which is separate from the drum and configured to mix granules and recycled coated material aggregates leaving the drum with a supplementary binder; wherein the drum comprises a plurality of drying sections along the drum, the drum being equipped, in each drying section (TA, TB), on its inside surface, with lifting paddles which are configured to lift the granules and/or the coated material aggregates so as to form, during operation, a curtain of granules and/or of coated material aggregates through which the hot gases flowing through the drum pass; the drum comprises an upstream drying section situated upstream of the recycling ring(s) (12, 14); the installation for producing coated material being characterised in that the drum comprises a downstream drying section situated downstream of the recycling ring(s) (12, 14). - a drying drum which is rotatably mounted about a central axis of the drum, the drum having a raised end for the introduction of the granules and a lowered end, - a burner which is configured to generate a stream of hot gas which flows through the drum from the raised end to the lowered end, - one or more recycling ring(s) (12, 14) arranged along the drum for the introduction of recycled coated material aggregates, - a filtering device which is configured to filter hot gases collected at the lowered end of the drum, and - a kneader which is separate from the drum and configured to mix granules and recycled coated material aggregates leaving the drum with a supplementary binder;
A method of storing a stereoscopic image pair having a desired convergence point comprising: capturing a first image with a first imaging sensor; capturing a second image with a second imaging sensor; forming a first aligned image by shifting, cropping or rotating the first image so it aligns with the second image, wherein the first aligned image has an outside dimension that bounds image data that does not overlap with image data of the second image, and the second image has an outside dimension that bounds image data that does not overlap with image data of the first aligned image; determining a target horizontal image disparity between the first aligned image and the second image based on the desired convergence point of the stereoscopic image pair; cropping the first aligned image and the second image to obtain the desired convergence point, wherein when the target horizontal image disparity is greater than a percent of the final image horizontal resolution, the cropping of the outside dimension of the first aligned image is limited to the percent of the final image horizontal resolution, and the cropping of the outside dimension of the second image is more extensive than the cropping of the outside dimension of the first aligned image; and storing a stereoscopic image pair including images derived from the adjusted first aligned and second images to a data storage. capturing a first image with a first imaging sensor; capturing a second image with a second imaging sensor; forming a first aligned image by shifting, cropping or rotating the first image so it aligns with the second image, wherein the first aligned image has an outside dimension that bounds image data that does not overlap with image data of the second image, and the second image has an outside dimension that bounds image data that does not overlap with image data of the first aligned image; determining a target horizontal image disparity between the first aligned image and the second image based on the desired convergence point of the stereoscopic image pair; cropping the first aligned image and the second image to obtain the desired convergence point, wherein when the target horizontal image disparity is greater than a percent of the final image horizontal resolution, the cropping of the outside dimension of the first aligned image is limited to the percent of the final image horizontal resolution, and the cropping of the outside dimension of the second image is more extensive than the cropping of the outside dimension of the first aligned image; and storing a stereoscopic image pair including images derived from the adjusted first aligned and second images to a data storage.
A device adapted for the thoracoscopic placement of a lead at a target site on an epicardial surface of a heart, the device comprising: (a) an inner tubular lead conduit having a flexible inner tubular lead conduit distal end comprising an inner suction foot portion, said inner tubular lead conduit adapted to conduct a vacuum to said inner suction foot portion; (b) a lead drive head having a flexible distal end and inserted within said inner tubular lead conduit so as to extend to said flexible inner tubular lead conduit distal end; (c) a lead extending through said lead drive head and having a lead distal end portion, said lead distal end portion extending from said distal end of said lead drive head for contact with the epicardial surface of the heart; (d) an outer tubular lead conduit having a flexible outer lead conduit distal end comprising an outer suction foot portion, said outer tubular lead conduit adapted to conduct a vacuum to said outer suction foot portion while being adapted to slidingly conduct said inner tubular lead conduit, so as to permit said inner tubular lead conduit to be extended from said outer lead conduit distal end; (e) an elongated sheath body having a longitudinal axis, a proximal end portion and a distal end portion, and having a proximal inlet and a distal lead outlet for extending said inner and outer lead conduits therethrough, said elongated sheath body comprising a lead receiving passageway for receiving and conducting said inner and outer tubular lead conduits between said proximal inlet and said distal lead outlet; said lead drive head adapted to releasably engage said lead distal end portion such that said engagement is releasable such that said lead drive head may be released from said lead distal end portion once said lead is attached to said epicardial surface of a heart; (f) a first actuator adapted to articulate said inner suction foot portion and said outer suction foot portion while said inner suction foot portion is disposed within said outer suction foot portion; and (g) a second actuator adapted to articulate said inner suction foot portion when said inner suction foot portion is extended from said outer suction foot portion.
Female connector, for fluid connection, adapted for receiving a male connector having a retaining external annular rim, the female connector comprising a body with a bore of axis X, and a housing forming a slide extending generally within a transverse plane YZ perpendicular to axis X, the housing 4 comprising two parallel lateral grooves (41,42) and the housing being open at least at one of its ends in the direction Z of the slide, the female connector comprising a deformable locking ring distinct from the body, adapted to be inserted into the housing and to lock the male connector in the coupling position, the locking ring comprising two diametrically opposed first arched portions, concave as viewed from the axis X, and two diametrically opposed second arched portions of inverse curvature, meaning convex as viewed from the axis X, each of said second arched portions being interposed between two first arched portions, the second arched portions being adapted to flex outward during insertion of the male connector and to abut against the retaining external annular rim to prevent withdrawal of the male connector, whereby, after locking the male connector in the female connector, a definitive locking is obtained.
A method for connecting a diaphragm to a housing of a pressure or force sensor wherein a measurement element is positioned in the housing, said measurement element being adapted to sense a load acting from the outside onto the diaphragm during the use of the finished sensor, and wherein a housing annular surface of the housing faces a diaphragm annular surface of the diaphragm for establishing a connection (13, 14) between said surfaces (6, 10) which is subjected to a compressive load by the load during use of the sensor characterized in that at first a first connection is established in an inner region between the housing annular surface and the diaphragm annular surface until these surfaces (6, 10) rest against each other radially outside of said first connection, and that then a second connection is made between the housing annular surface and the diaphragm annular surface which connects the housing to the diaphragm radially outside of the first connection up to the common outer edge wherein a defined connection depth d of the entire double connection (13, 14) is maintained.
Centrifugal spreader with a storage container which has at least one lower part which tapers to form a hopper and is closed off by a base plate having at least one metering opening, wherein the metering opening can be closed with a metering slide arranged adjustably below the base plate and can be set in its opening width, characterized in that a bead-like sealing ring which directly adjoins the metering opening and encircles the metering opening with the same contour is arranged on the lower side of the base plate, wherein the slide is arranged at a distance from the base plate, and the slide interacts in at least an approximately sealing manner with the bead-like sealing ring.