mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communications by a base station, comprising: identifying a first type of one or more user equipments, UEs, that is to receive enhanced downlink, DL, coverage relative to a second type of UEs, wherein the first and second type of UEs coexist in the wireless communication system and are both serviced by the base station; and utilizing one or more DL coverage enhancement techniques when communicating with the identified first type of UEs, the one or more DL coverage enhancement techniques designed to adjust at least for reduced DL processing gain of the first type of UEs relative to the second type of UEs, wherein the one or more DL coverage enhancement techniques comprises at least one of: reducing a payload size of one or more control channels when transmitting to the first type of UEs relative to a payload size of the same control channels when transmitting to the second type of UEs, or increasing resources available for one or more control channels to support a reduced coding rate, or transmission time interval, TTI, bundling wherein redundant versions of a downlink channel are transmitted over a bundle of multiple DL subframes, or utilizing additional beamforming gain. identifying a first type of one or more user equipments, UEs, that is to receive enhanced downlink, DL, coverage relative to a second type of UEs, wherein the first and second type of UEs coexist in the wireless communication system and are both serviced by the base station; and utilizing one or more DL coverage enhancement techniques when communicating with the identified first type of UEs, the one or more DL coverage enhancement techniques designed to adjust at least for reduced DL processing gain of the first type of UEs relative to the second type of UEs, wherein the one or more DL coverage enhancement techniques comprises at least one of: reducing a payload size of one or more control channels when transmitting to the first type of UEs relative to a payload size of the same control channels when transmitting to the second type of UEs, or increasing resources available for one or more control channels to support a reduced coding rate, or transmission time interval, TTI, bundling wherein redundant versions of a downlink channel are transmitted over a bundle of multiple DL subframes, or utilizing additional beamforming gain. reducing a payload size of one or more control channels when transmitting to the first type of UEs relative to a payload size of the same control channels when transmitting to the second type of UEs, or increasing resources available for one or more control channels to support a reduced coding rate, or transmission time interval, TTI, bundling wherein redundant versions of a downlink channel are transmitted over a bundle of multiple DL subframes, or utilizing additional beamforming gain.
An automatic method for testing metal products, in which: a) a pulsed and recurring ultrasound beam (Em) is applied to a metal product subjected to movement relative to the beam, b) the echo signals (Dv,Ds) returned by the metal product are captured, and c) the echo signals are selected, in at least one determined part (Fe1, Fe2) of each recurrence (Tr), in order to identify any defects in the metal product, characterized in that step c) comprises c1) the construction of a time curve (ECHODYN) of the echo intensities in the corresponding parts of a plurality of successive recurrences, called an echodynamic curve, the intensity of the echoes in the echodynamic curve being kept constant between two successive recurrences, the changes over time in the intensity maximums of received echo signals (Ds, Dv) forming echodynamic curves, and c2) the analysis of fluctuations in the echodynamic signals represented by that echodynamic curve, in order to automatically detect complex echodynamic signals resulting from the convolution of at least two elementary peaks, which signify the presence of layered defects comprising the search for at least two bumps, which are successive in the signals of the echodynamic curve (ECHODYN). a) a pulsed and recurring ultrasound beam (Em) is applied to a metal product subjected to movement relative to the beam, b) the echo signals (Dv,Ds) returned by the metal product are captured, and c) the echo signals are selected, in at least one determined part (Fe1, Fe2) of each recurrence (Tr), in order to identify any defects in the metal product, characterized in that step c) comprises c1) the construction of a time curve (ECHODYN) of the echo intensities in the corresponding parts of a plurality of successive recurrences, called an echodynamic curve, the intensity of the echoes in the echodynamic curve being kept constant between two successive recurrences, the changes over time in the intensity maximums of received echo signals (Ds, Dv) forming echodynamic curves, and c2) the analysis of fluctuations in the echodynamic signals represented by that echodynamic curve, in order to automatically detect complex echodynamic signals resulting from the convolution of at least two elementary peaks, which signify the presence of layered defects comprising the search for at least two bumps, which are successive in the signals of the echodynamic curve (ECHODYN). c1) the construction of a time curve (ECHODYN) of the echo intensities in the corresponding parts of a plurality of successive recurrences, called an echodynamic curve, the intensity of the echoes in the echodynamic curve being kept constant between two successive recurrences, the changes over time in the intensity maximums of received echo signals (Ds, Dv) forming echodynamic curves, and c2) the analysis of fluctuations in the echodynamic signals represented by that echodynamic curve, in order to automatically detect complex echodynamic signals resulting from the convolution of at least two elementary peaks, which signify the presence of layered defects comprising the search for at least two bumps, which are successive in the signals of the echodynamic curve (ECHODYN).
Device for filling pressurized gas tanks, particularly vehicle pressurized hydrogen tanks, the device comprising a liquefied gas source, a transfer circuit comprising two parallel transfer lines each having an upstream end linked to the liquefied gas source, each transfer line comprising a downstream end intended to be removably connected to a tank to be filled, each of the two transfer lines comprising: a pump, a unit for evaporating the pumped fluid, a branch for bypassing the evaporating unit and a distribution valve(s) (7, 8) set configured to control the flow of fluid pumped and distributed between the evaporating unit and the bypass branch, the device further comprising a buffer storage(s) (9, 10) set, which buffer storage(s) is(are) connected in parallel to each of the two transfer lines via a valve(s) set.
Reinforcing fabric, for reinforcing a render layer, wherein the reinforcing fabric has elongate spacers, preferably spacer profiles, which extend approximately parallel to one another and at a distance from one another in the or over the reinforcing fabric and which, including the reinforcing fabric, predetermine a minimum application thickness for the render layer, wherein spacers have a roll-up-promoting design which is nevertheless reliable for their spacing function characterized in that a cross-sectional profile of the spacer comprises at least one region which can be folded over or be unfolded to lie flat approximately parallel to the reinforcement fabric and wherein this foldable region is designed or arranged for automatic straightening-up when unrolling the reinforcing fabric.
A signal transmitting method for a mobile communication system, comprising: determining correlations between transmitting antennas (24A-24D); determining a detection efficiency of each of a plurality of symbols, wherein the detection efficiency for each symbol is determined based on the distance of the symbol from the origin in a 16 Quadrature Amplitude Modulation, QAM, constellation, such that symbols farthest from the origin, which are more easily detected compared to symbols closest to the origin, have higher detection efficiency than symbols closest to the origin; - allocating the symbols to the transmitting antennas (24A-24D) according to the correlation between the transmitting antennas and according to the detection efficiency of each of the symbols, wherein symbols in the 16 QAM constellation farthest from the origin are allocated to a pair of the transmitting antennas having a higher correlation among the transmitting antennas, and wherein symbols in the 16 QAM constellation closest to the origin are allocated to a pair of the transmitting antennas having a lower correlation among the transmitting antennas, and - transmitting the allocated symbols via the transmitting antennas (24A-24D) to a receiver. determining correlations between transmitting antennas (24A-24D); determining a detection efficiency of each of a plurality of symbols, wherein the detection efficiency for each symbol is determined based on the distance of the symbol from the origin in a 16 Quadrature Amplitude Modulation, QAM, constellation, such that symbols farthest from the origin, which are more easily detected compared to symbols closest to the origin, have higher detection efficiency than symbols closest to the origin; - allocating the symbols to the transmitting antennas (24A-24D) according to the correlation between the transmitting antennas and according to the detection efficiency of each of the symbols, wherein symbols in the 16 QAM constellation farthest from the origin are allocated to a pair of the transmitting antennas having a higher correlation among the transmitting antennas, and wherein symbols in the 16 QAM constellation closest to the origin are allocated to a pair of the transmitting antennas having a lower correlation among the transmitting antennas, and - transmitting the allocated symbols via the transmitting antennas (24A-24D) to a receiver. - allocating the symbols to the transmitting antennas (24A-24D) according to the correlation between the transmitting antennas and according to the detection efficiency of each of the symbols, wherein symbols in the 16 QAM constellation farthest from the origin are allocated to a pair of the transmitting antennas having a higher correlation among the transmitting antennas, and wherein symbols in the 16 QAM constellation closest to the origin are allocated to a pair of the transmitting antennas having a lower correlation among the transmitting antennas, and - transmitting the allocated symbols via the transmitting antennas (24A-24D) to a receiver.
Method for capturing and displaying images of surroundings conditions at at least one obstacle which is to be approached by a utility vehicle, in particular a lorry and/or a bus, in which method an image-capturing device is mounted on the at least one obstacle, by means of which utility-vehicle-specific data on the utility vehicle which is approaching the at least one obstacle are captured graphically and transmitted by means of a transmission device in a wireless fashion to a utility-vehicle-side receiver unit and displayed by means of a display device, wherein the image-capturing device is formed by at least one camera (4 to 9; 18a, 18b, 18c) which is mounted on the at least one obstacle in such a way that said image-capturing device records an image of the surroundings of the obstacle together with the utility vehicle which is approaching the at least one obstacle, wherein this image is transmitted in real time to the receiver unit and displayed by the display device; wherein the image-capturing device is formed by a plurality of cameras (4 to 9) which are spaced apart from one another and which record the surroundings of the obstacle, together with the vehicle which is approaching the at least one obstacle, from different viewing angles, wherein at least one camera (4 to 9), whose image is displayed on the vehicle side or made available for display on the vehicle side, is selected by the transmission device and/or by the receiver unit and/or by a selection and/or display device (15, 16) which is coupled by means of the transmission device and/or the receiver unit, characterized in that the transmission device is a component of a local radio network (WLAN) which defines a hotspot in which the receiver unit of the utility vehicle sets up a wireless communication with the transmission device automatically or after the inputting of an identification code.
Lightning conduction system for wind turbine blades with carbon fiber laminates, fitted with a drop primary cable equipotentialized with carbon fiber laminates in different spots on the blade by bypasses from the primary cable with auxiliary cables connected with a bolted joint to a metal plate connected in turn to the carbon fiber laminate characterized in that at least one auxiliary cable is fitted with a device having two connections facilitating its connection with the primary cable and with the carbon fiber laminate, wherein the device is an inductive element whose inductance varies between 5mH and 50mH based on the length of the blade.
A method for wireless communication, comprising: transmitting information to a wireless communication node based on a length-12 target sequence, wherein the length-12 target sequence is a member of a target sequence set, wherein each length-12 target sequence of the target sequence set is allocated in an individual sequence group of a plurality of sequence groups, wherein the individual sequence group includes at least one sequence of length-X, wherein X=12N and N is an integer larger than 1, wherein the allocation is based, at least in part, on a first value of correlation between the length-12 target sequence and the at least one length-X sequence of the individual sequence group, and wherein each sequence group of the plurality of sequence groups is associated with a distinct group index denoted as u, and wherein each distinct length-12 target sequence is allocated to an individual sequence group in accordance with a relationship between values of φ ( n) and the group indices corresponding to a mathematical form of e jπφ ( n)/4, n = 0,1,2,...,11 that comprises at least one of φ n = 3 − 1 − 3 3 − 3 − 1 3 3 3 − 3 − 1 − 3 for u = 23, φ n = 1 − 1 3 − 1 − 1 − 1 − 3 − 1 1 1 1 − 3 for u = 6, φ n = − 1 − 1 − 1 − 1 1 − 3 − 1 3 3 − 1 − 3 1 for u = 16, φ n = − 3 − 3 3 3 3 − 3 − 1 1 − 3 3 1 − 3 for u = 27, φ n = − 3 3 1 − 3 1 3 − 1 − 1 1 3 3 3 for u = 1, φ n = − 3 3 3 1 − 3 3 − 1 1 3 − 3 3 − 3 for u = 2, φ n = − 3 1 3 − 1 − 1 − 3 − 3 − 1 − 1 3 1 − 3 for u = 15, or φ n = 1 3 − 3 1 3 3 3 1 − 1 1 − 1 3 for u = 14. transmitting information to a wireless communication node based on a length-12 target sequence, wherein the length-12 target sequence is a member of a target sequence set, wherein each length-12 target sequence of the target sequence set is allocated in an individual sequence group of a plurality of sequence groups, wherein the individual sequence group includes at least one sequence of length-X, wherein X=12N and N is an integer larger than 1, wherein the allocation is based, at least in part, on a first value of correlation between the length-12 target sequence and the at least one length-X sequence of the individual sequence group, and wherein each sequence group of the plurality of sequence groups is associated with a distinct group index denoted as u, and wherein each distinct length-12 target sequence is allocated to an individual sequence group in accordance with a relationship between values of φ ( n) and the group indices corresponding to a mathematical form of e jπφ ( n)/4, n = 0,1,2,...,11 that comprises at least one of φ n = 3 − 1 − 3 3 − 3 − 1 3 3 3 − 3 − 1 − 3 for u = 23, φ n = 1 − 1 3 − 1 − 1 − 1 − 3 − 1 1 1 1 − 3 for u = 6, φ n = − 1 − 1 − 1 − 1 1 − 3 − 1 3 3 − 1 − 3 1 for u = 16, φ n = − 3 − 3 3 3 3 − 3 − 1 1 − 3 3 1 − 3 for u = 27, φ n = − 3 3 1 − 3 1 3 − 1 − 1 1 3 3 3 for u = 1, φ n = − 3 3 3 1 − 3 3 − 1 1 3 − 3 3 − 3 for u = 2, φ n = − 3 1 3 − 1 − 1 − 3 − 3 − 1 − 1 3 1 − 3 for u = 15, or φ n = 1 3 − 3 1 3 3 3 1 − 1 1 − 1 3 for u = 14.
An annuloplasty implant comprising first and second support members having a coiled configuration in which the first and second support members are arranged as a coil, with two free ends (104, 105), around a central axis, wherein the first and second support members and the respective free ends are configured to be arranged on opposite ventricular and atrial sides of native heart valve leaflets of a heart valve, wherein, in said coiled configuration, said two free ends are displaced from each other with a peripheral off-set distance extending in a coil plane, said coil plane being substantially parallel to an annular periphery of said coil and perpendicular to said central axis, the annuloplasty implant further comprising a connector attached to at least one of said two free ends, and being adapted to releasably connect to a delivery device wherein said connector is attached to an angled connector extension of said first or second support member, said angled connector extension extending in a direction radially inwards from said annular periphery substantially towards said central axis. first and second support members having a coiled configuration in which the first and second support members are arranged as a coil, with two free ends (104, 105), around a central axis, wherein the first and second support members and the respective free ends are configured to be arranged on opposite ventricular and atrial sides of native heart valve leaflets of a heart valve, wherein, in said coiled configuration, said two free ends are displaced from each other with a peripheral off-set distance extending in a coil plane, said coil plane being substantially parallel to an annular periphery of said coil and perpendicular to said central axis, the annuloplasty implant further comprising a connector attached to at least one of said two free ends, and being adapted to releasably connect to a delivery device wherein said connector is attached to an angled connector extension of said first or second support member, said angled connector extension extending in a direction radially inwards from said annular periphery substantially towards said central axis.
Reversibly deformable outlet for tap water, wherein the outlet has a connecting device for mechanical fastening and establishing a fluidic connection to a water conduit network, wherein the outlet has a dispensing device for dispensing the tap water and wherein the outlet comprises a flexible inner hose which establishes a fluidic connection between the connecting device and the dispensing device, so that tap water conducted into the connecting device passes through the inner hose to the dispensing device and is dispensed there, wherein the outlet has at least one coil spring which gives the outlet its shape and reversible deformability, wherein the coil spring has, in a first portion, a spring axis which is curved in a rest state, wherein the inner hose is guided inside the coil spring so that the inner hose follows the course of the coil spring, wherein a plurality of coils of the coil spring, each adjacent to one another, are spaced apart from one another in the first portion in such a way that they do not touch one another at any point in the rest position of the outlet, wherein the outlet is constructed by means of the coil spring in such a way that it automatically returns to the rest state, characterised in that the coil spring holds the dispensing device at the connecting device and wherein the outlet has a further portion, hereinafter referred to as third portion, in which the coil spring has an at least substantially straight spring axis, which connects the first portion to the dispensing device, wherein the outlet has a second portion, in which the coil spring has an at least substantially straight spring axis, which connects the connecting device to the first portion, wherein the coils of the coil spring are spaced apart in the second portion so that they do not touch each other at any point in the rest position of the outlet.
A method for acquiring uplink synchronization in a user equipment, UE, for which a plurality of cells is configured in a carrier aggregation-based wireless communication system, the method comprising: receiving a physical downlink control channel, PDCCH, order allocating a random access preamble to the UE; transmitting the random access preamble on a first cell belonging to a first timing advance group, TAG, based on the PDCCH order; receiving a random access response message including an uplink timing adjustment value for the first cell after transmitting the random access preamble; and performing uplink transmission in the first cell using the uplink timing adjustment value, the method being characterized in that: transmission timing of the random access preamble is determined based on transmission start timing of an uplink subframe of a second cell belonging to a second TAG different from the first TAG when the UE is configured to use the second cell as an uplink timing reference cell for the first cell, and the transmission timing of the random access preamble is determined based on a reception timing related to a downlink subframe of the first cell when the UE is not configured to use the second cell as the uplink timing reference cell for the first cell. receiving a physical downlink control channel, PDCCH, order allocating a random access preamble to the UE; transmitting the random access preamble on a first cell belonging to a first timing advance group, TAG, based on the PDCCH order; receiving a random access response message including an uplink timing adjustment value for the first cell after transmitting the random access preamble; and performing uplink transmission in the first cell using the uplink timing adjustment value, the method being characterized in that: transmission timing of the random access preamble is determined based on transmission start timing of an uplink subframe of a second cell belonging to a second TAG different from the first TAG when the UE is configured to use the second cell as an uplink timing reference cell for the first cell, and the transmission timing of the random access preamble is determined based on a reception timing related to a downlink subframe of the first cell when the UE is not configured to use the second cell as the uplink timing reference cell for the first cell. transmission timing of the random access preamble is determined based on transmission start timing of an uplink subframe of a second cell belonging to a second TAG different from the first TAG when the UE is configured to use the second cell as an uplink timing reference cell for the first cell, and the transmission timing of the random access preamble is determined based on a reception timing related to a downlink subframe of the first cell when the UE is not configured to use the second cell as the uplink timing reference cell for the first cell.