mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal comprising: a control section configured to determine order of hybrid automatic repeat request acknowledgement, HARQ-ACK, information bits, which correspond to a semi-static HARQ-ACK codebook including HARQ-ACK corresponding to more than one physical downlink shared channel, PDSCH, of a semi-persistent scheduling, SPS, SPS PDSCH, in order of ascending order of an occasion of the SPS PDSCH, ascending order of an SPS configuration index, and ascending order of a serving cell index; and a transmitting section configured to transmit the HARQ-ACK information bits by using a physical uplink control channel, PUCCH. a control section configured to determine order of hybrid automatic repeat request acknowledgement, HARQ-ACK, information bits, which correspond to a semi-static HARQ-ACK codebook including HARQ-ACK corresponding to more than one physical downlink shared channel, PDSCH, of a semi-persistent scheduling, SPS, SPS PDSCH, in order of ascending order of an occasion of the SPS PDSCH, ascending order of an SPS configuration index, and ascending order of a serving cell index; and a transmitting section configured to transmit the HARQ-ACK information bits by using a physical uplink control channel, PUCCH.
A data transmission method, comprising: determining a data flow mapped onto a data radio bearer, DRB; and controlling a transmission rate of the data flow based on the transmission rate of the data flow, a guaranteed flow bit rate, GFBR, of the data flow, and a maximum flow bit rate, MFBR, of the data flow, wherein the MFBR of the data flow is greater than or equal to the GFBR of the data flow, characterized by the controlling the transmission rate of the data flow based on the transmission rate of the data flow, the GFBR of the data flow, and a MFBR of the data flow comprises: when the transmission rate of the data flow is greater than the GFBR of the data flow and is less than or equal to the MFBR of the data flow in a first transmission period, determining M data packets in the data flow based on the transmission rate of the data flow, the GFBR of the data flow, and the MFBR of the data flow in the first transmission period, wherein M is an integer greater than 0, and M is a difference between a quantity of data packets that can be transmitted according to the transmission rate of the data flow and a quantity of data packets that can be transmitted according to the GFBR of the data flow; buffering the M data packets; and if the transmission rate of the data flow is greater than or equal to the GFBR of the data flow throughout a preset second time period after the buffering the M data packets, discarding the M data packets after the second time period ends. determining a data flow mapped onto a data radio bearer, DRB; and controlling a transmission rate of the data flow based on the transmission rate of the data flow, a guaranteed flow bit rate, GFBR, of the data flow, and a maximum flow bit rate, MFBR, of the data flow, wherein the MFBR of the data flow is greater than or equal to the GFBR of the data flow, characterized by the controlling the transmission rate of the data flow based on the transmission rate of the data flow, the GFBR of the data flow, and a MFBR of the data flow comprises: when the transmission rate of the data flow is greater than the GFBR of the data flow and is less than or equal to the MFBR of the data flow in a first transmission period, determining M data packets in the data flow based on the transmission rate of the data flow, the GFBR of the data flow, and the MFBR of the data flow in the first transmission period, wherein M is an integer greater than 0, and M is a difference between a quantity of data packets that can be transmitted according to the transmission rate of the data flow and a quantity of data packets that can be transmitted according to the GFBR of the data flow; buffering the M data packets; and if the transmission rate of the data flow is greater than or equal to the GFBR of the data flow throughout a preset second time period after the buffering the M data packets, discarding the M data packets after the second time period ends.
A Steam ironing appliance comprising a base containing a device for producing a stream of steam connected by a conduit to a smoothing accessory comprising at least one hole for emitting steam, said base comprising a coat hanger on which the garment to be smoothed can be hung while the steaming accessory is in use, the coat hanger being pivotally mounted on the base around an axis by means of a pivot connection and being able to be prevented from rotating by means of a locking device, the locking device comprising a control member (7; 107) that can be moved by the user by hand from an unlocked position that allows the coat hanger to rotate freely into a locked position in which the coat hanger is prevented from rotating, characterised in that the movement of the control member (7; 107) from the unlocked position into the locked position causes the movement and/or deformation of a braking element (8; 108) from an initial position that allows free rotation of the pivot connection, towards a braked position in which the braking element (8; 108) is kept pressed against an element to prevent the coat hanger from rotating and to allow a locking of the coat hanger around the axis in any angular position.
Module for a motor vehicle door handle assembly, having an antenna carrier which accommodates at least one antenna with a ferromagnetic core and a coil wound about the core , at least one connecting piece through which electrically conducting contact pins are guided, at least from the antenna to a circuit board populated with electronic components, and are connected with said circuit board, wherein the circuit board is connected to a plug which serves to create electrical contacts for one or several sensors and/or electronic components of the module , and wherein the circuit board is connected to electronic contact pins of the plug , characterised in that the circuit board forms a bearing component of the module .
A radar system comprising: a first IC , arranged to receive a reference clock signal and configurable to generate a common local oscillator signal based on said reference clock signal ; a second IC , arranged to receive the common local oscillator signal from the first IC ; characterised by further comprising: a controller , adapted to detect a fault in said first IC , and configured, upon detection of said fault in said first IC , to send at least one signal to said second IC for reconfiguring said second IC from a slave mode to a master mode; wherein, when operating in said slave mode, said second IC is configured to use the common local oscillator signal generated by the first IC , and, when operating in said master mode, said second IC is configured to use an internally-generated local oscillator signal. a first IC , arranged to receive a reference clock signal and configurable to generate a common local oscillator signal based on said reference clock signal ; a second IC , arranged to receive the common local oscillator signal from the first IC ; a controller , adapted to detect a fault in said first IC , and configured, upon detection of said fault in said first IC , to send at least one signal to said second IC for reconfiguring said second IC from a slave mode to a master mode; wherein, when operating in said slave mode, said second IC is configured to use the common local oscillator signal generated by the first IC , and, when operating in said master mode, said second IC is configured to use an internally-generated local oscillator signal.
Prestressed anchor for securing a geological formation , the prestressed anchor having an internally hollow anchor rod , a drill bit attached to a front end of the anchor rod , and an encasing tube , and the anchor rod being encompassed by the encasing tube in a region arranged at a distance from the drill bit , and the encasing tube being positively couplable or coupled to the anchor rod in order to rotate the encasing tube together with the anchor rod during a drilling operation by means of at least one coupling of the prestressed anchor in at least one circumferential direction around a longitudinal-extension direction of the anchor rod , characterised in that the encasing tube is decoupled from the anchor rod in the longitudinal-extension direction of the anchor rod by means of the coupling .
A connecting member (210; 220; 310; 320; 410; 420; 510; 530; 610; 710) for electrically connecting a circuit board (300; 400; 500; 600; 700) and a component in an electronic device, the connecting member comprising: at least one elastic bending part (216; 226; 716), the connecting member being characterized in that it further comprises: a pad part (214; 224) connected to the bending part and configured to be attached to a side surface of the circuit board; and a fixing part (212; 222; 712) extending from the pad part and configured to fix the connecting member to one of a front surface or a rear surface of the circuit board, wherein the bending part contacts the component at the side of the circuit board, and is pressed by the component toward the side surface of the circuit board. at least one elastic bending part (216; 226; 716), the connecting member being characterized in that it further comprises: a pad part (214; 224) connected to the bending part and configured to be attached to a side surface of the circuit board; and a fixing part (212; 222; 712) extending from the pad part and configured to fix the connecting member to one of a front surface or a rear surface of the circuit board, wherein the bending part contacts the component at the side of the circuit board, and is pressed by the component toward the side surface of the circuit board. a pad part (214; 224) connected to the bending part and configured to be attached to a side surface of the circuit board; and a fixing part (212; 222; 712) extending from the pad part and configured to fix the connecting member to one of a front surface or a rear surface of the circuit board, wherein the bending part contacts the component at the side of the circuit board, and is pressed by the component toward the side surface of the circuit board.
Method for determining a position (P) of a water vehicle, wherein a radar image of a coastal region is generated by a vehicle-based radar sensor system , wherein - the radar image is segmented into one or more water segments and one or more land segments, - at least a portion of the radar image is transformed by a multi-scale transformation into a transformed radar image data set, wherein a multi-scale transformation denotes a transformation which transforms the radar image in different resolutions levels, wherein the transformed radar image data set contains image information on or encoded within different scales of the image, - a reduced transformed radar image data set is provided by a dimension reduction operation, wherein a dimension of the transformed radar image data set is reduced by the dimension reduction operation while isometric characteristics or isometric information encoded within the transformed image data set are preserved, - a similarity measure of a similarity between the reduced transformed radar image data set and a map-based reference image data set is determined, wherein position information is assigned to the map-based reference image data set, - the reduced transformed radar image data set and the map-based reference image data set are classified as corresponding image data sets if a similarity criterion is fulfilled, - the position of the water vehicle is determined depending on the position information assigned to the map-based reference image data set if the reduced transformed radar image data set and the map-based reference image data set are classified as corresponding image data sets. - the radar image is segmented into one or more water segments and one or more land segments, - at least a portion of the radar image is transformed by a multi-scale transformation into a transformed radar image data set, wherein a multi-scale transformation denotes a transformation which transforms the radar image in different resolutions levels, wherein the transformed radar image data set contains image information on or encoded within different scales of the image, - a reduced transformed radar image data set is provided by a dimension reduction operation, wherein a dimension of the transformed radar image data set is reduced by the dimension reduction operation while isometric characteristics or isometric information encoded within the transformed image data set are preserved, - a similarity measure of a similarity between the reduced transformed radar image data set and a map-based reference image data set is determined, wherein position information is assigned to the map-based reference image data set, - the reduced transformed radar image data set and the map-based reference image data set are classified as corresponding image data sets if a similarity criterion is fulfilled, - the position of the water vehicle is determined depending on the position information assigned to the map-based reference image data set if the reduced transformed radar image data set and the map-based reference image data set are classified as corresponding image data sets.
A method for performing group communication by transmitting synchronization signals for a Device-to-Device, D2D, link at a user equipment, UE, in a wireless communication system, the method carried out by a UE comprising; receiving a plurality of first synchronization signals for the D2D link, each of the plurality of first synchronization signals including a group ID and a tier count indicating a number of tiers from which a specific UE is apart from a UE that has initially activated the group communication, selecting one of at least one first synchronization signal having a highest priority, the priority being determined using a reception quality of the at least one first synchronization signal and the tier count; generating a second synchronization signal for the D2D link using the selected first synchronization signal the second synchronization signal having a tier count incremented by 1 from the tier count of the selected first synchronization signal; and transmitting the second synchronization signal.
A method of securing radio resources for an LTE-unlicensed, LTE-U, data transmission of a communication device in an unlicensed frequency band , the method characterised by : determining, by the communication device , a time gap remaining until a start time of an LTE subframe ; transmitting, by the communication device , a plurality of bits based on the time gap in the unlicensed frequency band , wherein the plurality of bits is inserted before the LTE-U data transmission to thereby prevent at least one further communication device from using radio resources in the unlicensed frequency band until the unlicensed data transmission starts, wherein the plurality of bits outputs energy at the radio resources that prevents the at least one further communication device from using the radio resources. determining, by the communication device , a time gap remaining until a start time of an LTE subframe ; transmitting, by the communication device , a plurality of bits based on the time gap in the unlicensed frequency band , wherein the plurality of bits is inserted before the LTE-U data transmission to thereby prevent at least one further communication device from using radio resources in the unlicensed frequency band until the unlicensed data transmission starts, wherein the plurality of bits outputs energy at the radio resources that prevents the at least one further communication device from using the radio resources.
A pressure sensor comprising: an electrode ; and a pressure detector comprising: a drive unit which applies a drive signal (Vs) to the electrode ; and a sensing unit which receives, through the electrode , a reception signal including information on a capacitance which is between the electrode and a reference potential layer , wherein the reference potential layer is spaced from the electrode at a predetermined distance (d) which is changed depending on the application of pressure to a touch surface, and the capacitance is changed according to a distance change between the electrode and the reference potential layer ; wherein a first impedance is provided between the drive unit and the electrode , the first impedance being disposed on an electrical path which the drive signal (Vs) passes through, and a second impedance is provided between the sensing unit and the electrode , the second impedance being disposed on an electrical path which the reception signal passes through, characterized in that the first impedance and the second impedance are pure capacitors (C1, C2). an electrode ; and a pressure detector comprising: a drive unit which applies a drive signal (Vs) to the electrode ; and a sensing unit which receives, through the electrode , a reception signal including information on a capacitance which is between the electrode and a reference potential layer , wherein the reference potential layer is spaced from the electrode at a predetermined distance (d) which is changed depending on the application of pressure to a touch surface, and the capacitance is changed according to a distance change between the electrode and the reference potential layer ; wherein a first impedance is provided between the drive unit and the electrode , the first impedance being disposed on an electrical path which the drive signal (Vs) passes through, and a second impedance is provided between the sensing unit and the electrode , the second impedance being disposed on an electrical path which the reception signal passes through, characterized in that the first impedance and the second impedance are pure capacitors (C1, C2). a drive unit which applies a drive signal (Vs) to the electrode ; and a sensing unit which receives, through the electrode , a reception signal including information on a capacitance which is between the electrode and a reference potential layer , wherein the reference potential layer is spaced from the electrode at a predetermined distance (d) which is changed depending on the application of pressure to a touch surface, and the capacitance is changed according to a distance change between the electrode and the reference potential layer ; wherein a first impedance is provided between the drive unit and the electrode , the first impedance being disposed on an electrical path which the drive signal (Vs) passes through, and a second impedance is provided between the sensing unit and the electrode , the second impedance being disposed on an electrical path which the reception signal passes through, characterized in that the first impedance and the second impedance are pure capacitors (C1, C2).
A method comprising: receiving at a user equipment a signal comprising a radio configuration time trace parameter from a base station , wherein the radio configuration time trace parameter defines a sequence or list of future, time-limited radio configurations to be used by the user equipment during time steps of a time period; for a time step amongst the time steps, determining at the user equipment a radio access action to be carried out by the user equipment based on a comparison between a value generated by the user equipment and a threshold value for the time step received in the radio configuration time trace parameter, wherein the radio access action comprises triggering an uplink radio access; and using the radio configurations to carry out the determined radio access action. receiving at a user equipment a signal comprising a radio configuration time trace parameter from a base station , wherein the radio configuration time trace parameter defines a sequence or list of future, time-limited radio configurations to be used by the user equipment during time steps of a time period; for a time step amongst the time steps, determining at the user equipment a radio access action to be carried out by the user equipment based on a comparison between a value generated by the user equipment and a threshold value for the time step received in the radio configuration time trace parameter, wherein the radio access action comprises triggering an uplink radio access; and using the radio configurations to carry out the determined radio access action.
A seal bar which is a rod-shaped seal bar having a sealing surface , comprising: a heater provided in a main body and configured to extend in an extending direction (D1) of the main body , and a temperature sensor provided at a position between the sealing surface and the heater in the main body , wherein the temperature sensor is inserted into the main body from an end surface which intersects a long side of the sealing surface , the seal bar being characterized in that the temperature sensor is disposed at a position at which a distance (L2) from the end surface in a direction (D2) perpendicular to the extending direction (D1) and along the sealing surface is equal to or greater than an insertion depth, wherein the insertion depth is 6 times of a diameter of the temperature sensor , and in that the temperature sensor is disposed at a position in which a distance (L1) from the sealing surface in a direction perpendicular to the sealing surface is 5 mm or less. a heater provided in a main body and configured to extend in an extending direction (D1) of the main body , and a temperature sensor provided at a position between the sealing surface and the heater in the main body , wherein the temperature sensor is inserted into the main body from an end surface which intersects a long side of the sealing surface , the seal bar being characterized in that the temperature sensor is disposed at a position at which a distance (L2) from the end surface in a direction (D2) perpendicular to the extending direction (D1) and along the sealing surface is equal to or greater than an insertion depth, wherein the insertion depth is 6 times of a diameter of the temperature sensor , and in that the temperature sensor is disposed at a position in which a distance (L1) from the sealing surface in a direction perpendicular to the sealing surface is 5 mm or less.
A capping member , configured to be coupled to a flexible display panel , the flexible display panel supported by a connecting member and a coupling member , the coupling member facing the connecting member to support the connecting member , the capping member characterized by covering the end of the connecting member , and the capping member comprising: a first side wall configured to be coupled to a side of the flexible display panel ; a second side wall opposite to the first side wall ; a plurality of holes located between the first side wall and the second side wall ; wherein the first side wall and the second side wall are bendable with the side of the flexible display panel and a shape of each of the plurality of holes is changeable during bending the first side wall and the second side wall ; the capping member further characterised by defining a positioning groove , wherein the coupling member is configured to be slidably coupled to the positioning groove . a first side wall configured to be coupled to a side of the flexible display panel ; a second side wall opposite to the first side wall ; a plurality of holes located between the first side wall and the second side wall ; wherein the first side wall and the second side wall are bendable with the side of the flexible display panel and a shape of each of the plurality of holes is changeable during bending the first side wall and the second side wall ; the capping member further characterised by defining a positioning groove , wherein the coupling member is configured to be slidably coupled to the positioning groove .