mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a user equipment, UE, (13; 37; 1900; 2100) in a wireless communication system, the method comprising: receiving, from a base station (11; 31; 2000; 2200), information associated with an uplink resource being allocated by the base station (11; 31; 2000; 2200); identifying a number of padding bits filling a remaining portion of the uplink resource except a number of data to be transmitted, based on the information associated with the uplink resource being allocated; in case that the number of padding bits is smaller than a number of bits for a transmission of a long buffer status report, BSR, identifying whether the number of padding bits is enough to include a long truncated BSR; transmitting, to the base station (11; 31; 2000; 2200), a short truncated BSR based on the padding bit, in case that the number of padding bits is not enough to include the long truncated BSR; and transmitting, to the base station (11; 31; 2000; 2200), a long truncated BSR based on the padding bit, in case that the number of padding bits is enough to include the long truncated BSR, wherein the short truncated BSR includes information on a identifier for a logical channel group, LCG, and information on a buffer size for the LCG, wherein a size of the short truncated BSR is 8 bits and a size of the information on the identifier for the LCG is 3bits, wherein the long truncated BSR includes a bit map for a plurality of LCGs and information on a buffer size for at least one LCG among the plurality of LCGs, and wherein a number of the information on the buffer size for the at least one LCG is determined based on the number of padding bits. receiving, from a base station (11; 31; 2000; 2200), information associated with an uplink resource being allocated by the base station (11; 31; 2000; 2200); identifying a number of padding bits filling a remaining portion of the uplink resource except a number of data to be transmitted, based on the information associated with the uplink resource being allocated; in case that the number of padding bits is smaller than a number of bits for a transmission of a long buffer status report, BSR, identifying whether the number of padding bits is enough to include a long truncated BSR; transmitting, to the base station (11; 31; 2000; 2200), a short truncated BSR based on the padding bit, in case that the number of padding bits is not enough to include the long truncated BSR; and transmitting, to the base station (11; 31; 2000; 2200), a long truncated BSR based on the padding bit, in case that the number of padding bits is enough to include the long truncated BSR, wherein the short truncated BSR includes information on a identifier for a logical channel group, LCG, and information on a buffer size for the LCG, wherein a size of the short truncated BSR is 8 bits and a size of the information on the identifier for the LCG is 3bits, wherein the long truncated BSR includes a bit map for a plurality of LCGs and information on a buffer size for at least one LCG among the plurality of LCGs, and wherein a number of the information on the buffer size for the at least one LCG is determined based on the number of padding bits.
A memory system, said system comprising the following elements: a programmable non-volatile memory, a controller; a plurality of electrical contacts (11-17, 91, 92) configured to connect the memory system to a host system external to the memory system, said electrical contacts including more than one data contact (11, 17, 91, 92), wherein the controller controls the electrical contacts (11-17, 91, 92) so that in a first mode of operation, only one of the data contacts is used for data transfer to or from the memory from or to the host system and in a second mode of operation, a plurality of the data contacts (11, 17, 91, 92) are used for data transfer to or from the memory from or to the host system; and a first circuit configured to select one or more of the data contacts to transfer test data from the memory system for diagnosis to the host system; wherein the first circuit interrogates internal operational data of the controller to detect a condition where the controller is not operating normally and wherein the first circuit generates and transfers the test data when said condition is detected. a programmable non-volatile memory, a controller; a plurality of electrical contacts (11-17, 91, 92) configured to connect the memory system to a host system external to the memory system, said electrical contacts including more than one data contact (11, 17, 91, 92), wherein the controller controls the electrical contacts (11-17, 91, 92) so that in a first mode of operation, only one of the data contacts is used for data transfer to or from the memory from or to the host system and in a second mode of operation, a plurality of the data contacts (11, 17, 91, 92) are used for data transfer to or from the memory from or to the host system; and a first circuit configured to select one or more of the data contacts to transfer test data from the memory system for diagnosis to the host system; wherein the first circuit interrogates internal operational data of the controller to detect a condition where the controller is not operating normally and wherein the first circuit generates and transfers the test data when said condition is detected.
An arrangement for conveying of sheets (2a, b), which arrangement comprises an upper receiving roll, a lower receiving roll, at least one upper belt element and a receiving surface, which upper belt element extends in a region above the receiving surface, which sheets (2a, b) are conveyed in a substantially horizontal direction of movement towards the receiving rolls (3, 4), which receiving rolls (3, 4) during rotation move the sheets (2a, b) one after another between and past the receiving rolls (3, 4), whereupon the respective sheets (2a, b), after passing through and between the receiving rolls (3, 4), are placed between said receiving surface and upper belt element, which sheets (2a, b) between the upper belt element and the receiving surface are placed on one another such that a rear edge of a sheet placed on said receiving surface is overlapped by a front edge of a following sheet, wherein a lifting means is situated in the sheet movement direction after the receiving rolls (3, 4) and is adapted to acting upon sheets (2a, b) passing through the receiving rolls (3, 4) and over the lifting means such that the front edge of a sheet which has passed over and past the lifting means assumes a shape which strengthens it in the sheet movement direction, said lifting means comprising a number of grooves extending in the direction of movement in a surface of the lifting means, which surface said sheets (2a, b) pass over, characterized in that said grooves in the lifting means are so configured that the upper belt element, by its configuration, fits in the grooves.
A holder carrying thereon a sensor to measure a physiological signal of an analyte in a biological fluid, wherein the sensor has a signal detection end and a signal output end, comprising: an implantation hole being a channel for implanting the sensor, and containing a part of the sensor; a containing indentation containing the signal output end, wherein the implantation hole and the containing indentation are respectively positioned along two different longitudinal axes; a fixing indentation fixing thereto the sensor and communicating with the containing indentation; the said holder is characterized in that it comprises: a waterproof seal disposed above the implantation hole; an elastic divider disposed in the implantation hole to separate the implantation hole and covering all over a cross-sectional area of the implantation hole; and a blocking element disposed between the implantation hole and the fixing indentation to hold the sensor. an implantation hole being a channel for implanting the sensor, and containing a part of the sensor; a containing indentation containing the signal output end, wherein the implantation hole and the containing indentation are respectively positioned along two different longitudinal axes; a fixing indentation fixing thereto the sensor and communicating with the containing indentation; a waterproof seal disposed above the implantation hole; an elastic divider disposed in the implantation hole to separate the implantation hole and covering all over a cross-sectional area of the implantation hole; and a blocking element disposed between the implantation hole and the fixing indentation to hold the sensor.
A dental polymerizable composition comprising: a (meth)acrylic block copolymer consisting of a (meth)acrylic polymer block (a) having a curable functional group and a (meth)acrylic polymer block (b) having no curable functional group, the curable functional group having a partial structure represented by the following general formula:, where R 1 represents a hydrogen atom or a hydrocarbon group having 1 to 20 carbon atoms; a polymerizable monomer; and a polymerization initiator. a (meth)acrylic block copolymer consisting of a (meth)acrylic polymer block (a) having a curable functional group and a (meth)acrylic polymer block (b) having no curable functional group, the curable functional group having a partial structure represented by the following general formula:, where R 1 represents a hydrogen atom or a hydrocarbon group having 1 to 20 carbon atoms; a polymerizable monomer; and a polymerization initiator.
A method of producing rubber tyre compounds, comprising a first mixing step in which at least one cross-linkable, unsaturated-chain polymer base, silica, and a silane bonding agent in the alkoxymercaptoalkylsilane class are mixed together; and a final mixing step in which a curing system comprising at least sulphur and accelerants is added to and mixed with the mix; said method being characterized in that a nucleophile compound and zinc oxide are mixed with the polymer base at said first mixing step, and by comprising a second mixing step between said first mixing step and said final mixing step, and in which a silane bonding agent in the polysulphide organosilane class is added to and mixed with the mix from said first mixing step.
An ion propulsion system, comprising: a plurality of adjacent ion propulsion system thruster grids (206, 208, 210) including outer grids; a low voltage grid clear circuit configured to apply first energy to the outer grids at a first voltage; and a high voltage grid clear circuit configured to apply second energy to the outer grids at a second voltage higher than the first voltage, a plurality of adjacent ion propulsion system thruster grids (206, 208, 210) including outer grids; a low voltage grid clear circuit configured to apply first energy to the outer grids at a first voltage; and a high voltage grid clear circuit configured to apply second energy to the outer grids at a second voltage higher than the first voltage,
A method of receiving, by a user equipment, UE, system information in a time division duplex, TDD, system supporting a narrowband-internet of things, NB-IoT, the method being characterized by: receiving, from a base station, a masterinformationblock, MIB, -narrowband, NB, via an anchor carrier, wherein the MIB-NB comprises (i) first information representing whether a carrier used for a systeminformationblockl, SIB1, -NB is an anchor carrier or a non-anchor carrier, (ii) second information regarding a location of the non-anchor carrier used for the SIB1-NB and (iii) third information related to a repetition number of the SIB1-NB; receiving, from the base station, a narrowband reference signal, NRS, in a subframe #0 and a subframe #5; and receiving, from the base station, the SIB1-NB in a subframe #0 and a subframe #5 on the non-anchor carrier based on the MIB-NB, wherein the MIB-NB further comprises operation mode information for an operation mode of the system, wherein the location of the non-anchor carrier used for the SIB1-NB is determined based on the operation mode, wherein, based on the operation mode being an in-band or standalone, the second information represents the location of the non-anchor carrier relative to the anchor carrier, and wherein the repetition number of the SIB1-NB on the non-anchor carrier is 8 or 16. receiving, from a base station, a masterinformationblock, MIB, -narrowband, NB, via an anchor carrier, wherein the MIB-NB comprises (i) first information representing whether a carrier used for a systeminformationblockl, SIB1, -NB is an anchor carrier or a non-anchor carrier, (ii) second information regarding a location of the non-anchor carrier used for the SIB1-NB and (iii) third information related to a repetition number of the SIB1-NB; receiving, from the base station, a narrowband reference signal, NRS, in a subframe #0 and a subframe #5; and receiving, from the base station, the SIB1-NB in a subframe #0 and a subframe #5 on the non-anchor carrier based on the MIB-NB, wherein the MIB-NB further comprises operation mode information for an operation mode of the system, wherein the location of the non-anchor carrier used for the SIB1-NB is determined based on the operation mode, wherein, based on the operation mode being an in-band or standalone, the second information represents the location of the non-anchor carrier relative to the anchor carrier, and wherein the repetition number of the SIB1-NB on the non-anchor carrier is 8 or 16.
A floating docking device comprising a base, a floating portion, and a position-holding portion, wherein the floating portion is floatable relative to the base and is provided with at least one positioning member, and the positioning member is able to complete docking with an engagement member of a vehicle with a battery to be swapped by means of floating of the floating portion; and wherein the position-holding portion is arranged to enable the floating portion to be fixed relative to the base, characterized in that the floating portion comprises a plurality of floating plates and a floating platform connected to the plurality of the floating plates, and the at least one positioning member is arranged on the floating platform, wherein the position-holding portion comprises at least one jacking mechanism corresponding to each of the floating plates, and the jacking mechanism is able to be jacked up to the floating plate, so that the floating plate is fixed relative to the base. wherein the floating portion is floatable relative to the base and is provided with at least one positioning member, and the positioning member is able to complete docking with an engagement member of a vehicle with a battery to be swapped by means of floating of the floating portion; and wherein the position-holding portion is arranged to enable the floating portion to be fixed relative to the base, characterized in that the floating portion comprises a plurality of floating plates and a floating platform connected to the plurality of the floating plates, and the at least one positioning member is arranged on the floating platform, wherein the position-holding portion comprises at least one jacking mechanism corresponding to each of the floating plates, and the jacking mechanism is able to be jacked up to the floating plate, so that the floating plate is fixed relative to the base.
A computing platform, comprising: a CPU; a power supply; and a platform controller hub comprising at least one PCI Express port configured to communicate with a device, the port having a clock request node which is assertable by the device in a reduced power mode, characterised in that the platform controller hub further comprises a system controller configured to reduce power supplied to link and PHY circuitry for the port when the clock request node is de-asserted. a CPU; a power supply; and a platform controller hub comprising at least one PCI Express port configured to communicate with a device, the port having a clock request node which is assertable by the device in a reduced power mode, characterised in that the platform controller hub further comprises a system controller configured to reduce power supplied to link and PHY circuitry for the port when the clock request node is de-asserted.
Throttle valve body for an internal combustion engine, comprising a through-flow channel and a throttle valve arranged in the channel, the throttle valve being centrically connected to a throttle valve shaft arranged in the channel and being adapted to be rotated in a first sense of rotation to a first blocking position closing the channel, wherein a first curve contour and a second curve contour are formed on an inner wall of the channel, against which the throttle valve abuts in the first blocking position, and wherein the throttle valve is adapted to be turned in a second sense of rotation opposite to the first sense of rotation to a second blocking position closing the channel, characterized in that, between the first curve contour and the second curve contour, a cylindrical section is formed on the inner wall, which is inclined with respect to a main axis of the channel.
A power generating apparatus for treatment of tissue having a circuit comprising: a direct digital synthesizer DDS operatively coupled to a power amplifier having a target power output; a power output set point controller providing a signal; a peak effective power sensor receiving voltage and current feedback (405, 407) measured at a power delivery target to measure impedance at the power delivery target, the peak effective power sensor providing a signal based on the feedback; and a PID controller, operatively coupled to receive the signals from the power output set point controller and the peak effective power sensor, and operatively coupled to direct a modulating voltage signal to the power amplifier such that output of power from the circuit is maintained within a range about a power output set point in response to the measured impedance at the power delivery target; wherein the circuit is configured to characterize and respond to load variations and modulate power output by taking real-time load measurements in-phase and in quadrature at the target power output. a direct digital synthesizer DDS operatively coupled to a power amplifier having a target power output; a power output set point controller providing a signal; a peak effective power sensor receiving voltage and current feedback (405, 407) measured at a power delivery target to measure impedance at the power delivery target, the peak effective power sensor providing a signal based on the feedback; and a PID controller, operatively coupled to receive the signals from the power output set point controller and the peak effective power sensor, and operatively coupled to direct a modulating voltage signal to the power amplifier such that output of power from the circuit is maintained within a range about a power output set point in response to the measured impedance at the power delivery target; wherein the circuit is configured to characterize and respond to load variations and modulate power output by taking real-time load measurements in-phase and in quadrature at the target power output.
Apparatus for handling products packaged in wrappings connected to each other to define at least a strip of a plurality of packaged products, said apparatus comprising a conveyor member (13; 213) configured to make at least one strip advance on an advance plane (14; 214) defined by said conveyor member (13; 213), and to discharge it in proximity to a discharge end (15; 215) thereof, and a temporary containing zone (19; 119; 219) located under the advance plane (14; 214) and in correspondence with said discharge end (15; 215), provided with a reception surface having a longitudinal extension at least equal to the length or a multiple of the length of the wrappings, and configured to receive said wrappings from the conveyor member (13; 213), characterized in that it comprises a movement member (21; 121; 221) configured to move at least one of either the temporary containing zone (19; 119; 219) or said discharge end (15; 215) so that said reception surface alternately assumes a first position in which it is at least partly under the advance plane (14; 214), and a second position in which it protrudes from the discharge end (15; 215) and is outside the plan bulk of the conveyor member (13; 213) at least for said longitudinal extension.
Rear seat-belt retractor bracket of a motor vehicle, comprising a tray made from a stamped metal sheet elongated in the longitudinal direction of the vehicle, configured to be arranged in said vehicle, comprising a substantially horizontal central zone delimited by an outer side fold intended to be attached vertically to a rear quarter lining panel of the body of said vehicle, an inner side fold having a rear attachment section intended to be attached to a rear side pillar of said body, the central zone comprising holes for attaching the retractor and formed in a front portion of the tray, characterized in that the tray comprises an attachment lug cut out of a rear portion of the central zone and folded downward, said attachment lug being intended to ensure the attachment of a control element for folding down a rear seat or seat backrest of the vehicle.
A method of generating tactile user feedback utilizing a headphone device, comprising: generating signal indicative of a real-world condition utilizing at least one sensor selected from the group consisting of a heart-rate monitor, a GPS, and an altimeter, the at least one sensor operatively connected to a headphone device and a computing device; sending a feedback signal from the computing device to the headphone device in response to the signal from the at least one sensor, the headphone device being operatively connected to the computing device; and generating a tactile vibration utilizing a tactile bass vibrator of the headphone device in response to the feedback signal. generating signal indicative of a real-world condition utilizing at least one sensor selected from the group consisting of a heart-rate monitor, a GPS, and an altimeter, the at least one sensor operatively connected to a headphone device and a computing device; sending a feedback signal from the computing device to the headphone device in response to the signal from the at least one sensor, the headphone device being operatively connected to the computing device; and generating a tactile vibration utilizing a tactile bass vibrator of the headphone device in response to the feedback signal.
A device for heating sheet metal blanks, a heating device being provided and the heating device comprising at least one heating module, wherein the at least one heating module is a box-like element which has a cassette-like design and comprises a plate-shaped or rectangular cavity which has an underside provided with a flat plate, at least one heating element being arranged in the cavity and formed as an electric resistance heating element, wherein the cavity, embedding the at least one heating element and surrounding it, is completely filled with a material of good thermal conductivity, preferably copper, wherein the plates, the side walls and the ceiling wall surrounding the cavity or the cavity filled with copper are formed from a heat-resistant or high-temperature resistant stainless steel and connected to one another such that the core made of a material having good thermal conductivity, in particular a copper core, is hermetically sealed.