mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting at least one target using pulse-Doppler radar, comprising the following steps: a) generating a burst of coherent radioelectric pulses (I 1...I N); b) receiving, demodulating and sampling signals likely to contain echoes from said pulses originating from said or at least one said target; and c) filtering said signals by means of a plurality of filters (F -n...F 0...F n), each of said filters being a filter that is matched to said burst of pulses with a different frequency shift; wherein: - said radioelectric pulses of said burst are separated by a time interval (Tr(k)) that is variable from one pulse to the next; characterised in that: - at least some of said filters belong to a same ambiguity category, an ambiguity category being made up of filters for which said frequency shifts are spaced apart from each other by multiple integers of a mean repetition frequency of the pulses of said burst; and in that - said method further comprises a step d) of resolving radial speed ambiguity by determining, from among the signals output from the filters of a same ambiguity category, the signal with the highest magnitude. a) generating a burst of coherent radioelectric pulses (I 1...I N); b) receiving, demodulating and sampling signals likely to contain echoes from said pulses originating from said or at least one said target; and c) filtering said signals by means of a plurality of filters (F -n...F 0...F n), each of said filters being a filter that is matched to said burst of pulses with a different frequency shift; - said radioelectric pulses of said burst are separated by a time interval (Tr(k)) that is variable from one pulse to the next; - at least some of said filters belong to a same ambiguity category, an ambiguity category being made up of filters for which said frequency shifts are spaced apart from each other by multiple integers of a mean repetition frequency of the pulses of said burst; and in that - said method further comprises a step d) of resolving radial speed ambiguity by determining, from among the signals output from the filters of a same ambiguity category, the signal with the highest magnitude.
A device adapted to provide electrical stimulation by charging and discharging an electrode, comprising: a battery; the electrode; a switching regulator having a first terminal coupled to the battery, and a second terminal coupled to the electrode; and a controller configured to operate the switching regulator to charge and discharge the electrode, wherein, to charge the electrode, the controller operates the switching regulator to transfer energy from the battery to the electrode, and, to discharge the electrode, the controller operates the switching regulator to transfer energy from the electrode to the battery. a battery; the electrode; a switching regulator having a first terminal coupled to the battery, and a second terminal coupled to the electrode; and a controller configured to operate the switching regulator to charge and discharge the electrode, wherein, to charge the electrode, the controller operates the switching regulator to transfer energy from the battery to the electrode, and, to discharge the electrode, the controller operates the switching regulator to transfer energy from the electrode to the battery.
A delivery system operating as a dental drill for removing a portion of a tooth in a pressure range of about 1.7 MPa to about 117 MPa; wherein the delivery system includes a reservoir, a pressurizing device, an applicator and a controller; wherein the reservoir comprises a container; wherein the container is containing a slurry comprising 0.05 to 0.5 wt% mechanical suspension material comprising a hydroscopic material, 5 to 30 wt% abrasive media, 70-95 wt% liquid; wherein the applicator comprises a nozzle comprising an aperture through which the slurry can be expelled under pressure by the pressurizing device; wherein, once sufficiently mixed into the hydrated polymeric material formed by the combination of the mechanical suspension material with the liquid, the abrasive media is mechanically suspended and remains maintained substantially evenly distributed within the hydrated polymeric material by polymer chains to create shelf life of at least one month; and wherein the shelf life defines a period of time over which the abrasive media is maintained substantially evenly distributed within the liquid, the mechanical suspension material or some combination of both the liquid and the mechanical suspension material.
A three-dimensional woven preform comprising: a plurality of groups of warp yarns (11, 12, 13, 14, 15, 16, 17, 18, 21, 22, 23, 24, 25, 26, 27, 28); a plurality of groups of weft yarns (50, 52, 54, 69, 71, 72, 74, 76, 78, 93), characterized in that the warp yarns are woven with the weft yarns to form a mock leno structure having a plurality of layers of the 3D woven preform, wherein a first group of warp yarns (11, 12, 13, 14) in a particular layer includes a first set of at least one warp central yarn (12, 13) that binds weft yarns (54, 69, 78, 93) in the particular layer (52, 71, 76, 95) to weft yarns in a subsequent layer and at least two first warp edge yarns (11, 14), one on each side of the first set of the at least one warp central yarn, and wherein a second group of warp yarns (15, 16, 17, 18) in the particular layer includes a second set of at least one warp central yarn (16, 17) that binds weft yarns in the particular layer (54, 69, 78, 93) to weft yarns in a preceding layer (50, 72, 74, 76) and at least two second warp edge yarns (15, 18), one on each side of the second set of the at least one warp central yarn (16, 17), such that through thickness channels are formed in the multilayer preform, wherein the first warp edge yarns (11, 14) are woven opposite to the second warp edge yarns (15, 18) such that the first warp edge yarns (11, 14) are woven under weft yarns (54, 93) that second warp edge yarns (15, 18) are woven over. a plurality of groups of warp yarns (11, 12, 13, 14, 15, 16, 17, 18, 21, 22, 23, 24, 25, 26, 27, 28); a plurality of groups of weft yarns (50, 52, 54, 69, 71, 72, 74, 76, 78, 93), characterized in that the warp yarns are woven with the weft yarns to form a mock leno structure having a plurality of layers of the 3D woven preform, wherein a first group of warp yarns (11, 12, 13, 14) in a particular layer includes a first set of at least one warp central yarn (12, 13) that binds weft yarns (54, 69, 78, 93) in the particular layer (52, 71, 76, 95) to weft yarns in a subsequent layer and at least two first warp edge yarns (11, 14), one on each side of the first set of the at least one warp central yarn, and wherein a second group of warp yarns (15, 16, 17, 18) in the particular layer includes a second set of at least one warp central yarn (16, 17) that binds weft yarns in the particular layer (54, 69, 78, 93) to weft yarns in a preceding layer (50, 72, 74, 76) and at least two second warp edge yarns (15, 18), one on each side of the second set of the at least one warp central yarn (16, 17), such that through thickness channels are formed in the multilayer preform, wherein the first warp edge yarns (11, 14) are woven opposite to the second warp edge yarns (15, 18) such that the first warp edge yarns (11, 14) are woven under weft yarns (54, 93) that second warp edge yarns (15, 18) are woven over.
A method of prediction coding of a current block implemented by a decoding device or an encoding device, comprising: obtaining an intra prediction mode of a left neighbor block of the current block; obtaining an intra prediction mode of an above neighbor block of the current block; constructing a Most Probable Mode, MPM, list of intra prediction modes for the current block, characterized in that the MPM list consists of 6 entries of intra prediction modes as follows: { MPM =Planar, MPM =ang, MPM =2 + (( ang + 61) % 64), MPM =2 + (( ang - 1) % 64), MPM =2 + (( ang + 60) % 64), MPM =2 + (( ang) % 64)} when at least a first condition is fulfilled, wherein the first condition includes that the intra prediction mode of the left neighbor block and the intra prediction mode of the above neighbor block are the same angular mode, and wherein ang represents the intra prediction mode of the left neighbor block or the intra prediction mode of the above neighbor block; wherein MPM[j] represents the (j+1)a, entry in the MPM list. obtaining an intra prediction mode of a left neighbor block of the current block; obtaining an intra prediction mode of an above neighbor block of the current block; constructing a Most Probable Mode, MPM, list of intra prediction modes for the current block, characterized in that the MPM list consists of 6 entries of intra prediction modes as follows: { MPM =Planar, MPM =ang, MPM =2 + (( ang + 61) % 64), MPM =2 + (( ang - 1) % 64), MPM =2 + (( ang + 60) % 64), MPM =2 + (( ang) % 64)} when at least a first condition is fulfilled, wherein the first condition includes that the intra prediction mode of the left neighbor block and the intra prediction mode of the above neighbor block are the same angular mode, and wherein ang represents the intra prediction mode of the left neighbor block or the intra prediction mode of the above neighbor block; wherein MPM[j] represents the (j+1)a, entry in the MPM list. MPM =ang, MPM =2 + (( ang + 61) % 64), MPM =2 + (( ang - 1) % 64), MPM =2 + (( ang + 60) % 64), MPM =2 + (( ang) % 64)} when at least a first condition is fulfilled, wherein the first condition includes that the intra prediction mode of the left neighbor block and the intra prediction mode of the above neighbor block are the same angular mode, and wherein ang represents the intra prediction mode of the left neighbor block or the intra prediction mode of the above neighbor block; wherein MPM[j] represents the (j+1)a, entry in the MPM list.
A hair-highlighting device having a handle, a reservoir for storing a highlighting composition, the device being adapted to dispense a tape of barrier material and being adapted to simultaneously dispense the highlighting composition via a reservoir outlet to a lock of hair, characterized in that device comprises manually operated means to expel highlighting composition from the reservoir such that when the device is in use a user may vary the amount of highlighting composition dispensed from the reservoir by varying the pressure that is applied to the manually operated means.
A method of forming an ophthalmic Lens Precursor, the method comprising the steps of: positioning a single substrate with an optical quality area in contact with a volume of reactive mixture, wherein the reactive mixture comprises a radiation absorbing component; and transmitting sufficient actinic radiation through the single substrate to polymerize a portion of the volume of reactive mixture and form the ophthalmic Lens Precursor, characterized by that the ophthalmic Lens Precursor comprises a first surface portion along the optical quality area and a second surface portion that is free-formed by the radiation absorbing component absorbing sufficient radiation along a vector of radiation transmittance to cease polymerization in the direction of the vector thereby forming the second surface portion according to a series of vectors and a depth of polymerization of each vector. positioning a single substrate with an optical quality area in contact with a volume of reactive mixture, wherein the reactive mixture comprises a radiation absorbing component; and transmitting sufficient actinic radiation through the single substrate to polymerize a portion of the volume of reactive mixture and form the ophthalmic Lens Precursor, characterized by that the ophthalmic Lens Precursor comprises a first surface portion along the optical quality area and a second surface portion that is free-formed by the radiation absorbing component absorbing sufficient radiation along a vector of radiation transmittance to cease polymerization in the direction of the vector thereby forming the second surface portion according to a series of vectors and a depth of polymerization of each vector.
Improved turbocompound system, the system comprising - an internal combustion engine having an exhaust manifold (Ex) and an exhaust line connected to and adjacent with the exhaust manifold, the internal combustion engine being equipped with a gearbox having a secondary output shaft, - an exhaust gas purification system arranged on said exhaust line, - a power turbine, arranged on the exhaust line downstream of said purification system, wherein the power turbine has a respective shaft connected with said secondary output shaft, downstream of the gearbox for providing torque to the wheels and eliminate traction gaps when shifting. - an internal combustion engine having an exhaust manifold (Ex) and an exhaust line connected to and adjacent with the exhaust manifold, the internal combustion engine being equipped with a gearbox having a secondary output shaft, - an exhaust gas purification system arranged on said exhaust line, - a power turbine, arranged on the exhaust line downstream of said purification system,
A computer-implemented method for determining if a continuous analyte sensor has been reused, comprising: evaluating a plurality of risk factors associated with end of life symptoms of a sensor, wherein the evaluating a plurality of risk factors comprises translating outputs of the plurality of risk factor evaluations to end of life risk factor values and wherein translating an output of end of life risk factor values comprises determining a likelihood of recovery; determining an end of life status of the sensor by performing an end of life function based on the evaluation of the plurality of risk factors; and providing an output related to a sensor reuse within a predetermined time frame after sensor initialization if the end of life status meets one or more predetermined sensor reuse criteria, wherein the plurality of risk factors comprise at least two risk factors selected from the group consisting of a number of days the sensor has been in use, a rate of change of sensor sensitivity, end of life noise, oxygen concentration, glucose patterns, error between reference values, and sensor values in clinical units. evaluating a plurality of risk factors associated with end of life symptoms of a sensor, wherein the evaluating a plurality of risk factors comprises translating outputs of the plurality of risk factor evaluations to end of life risk factor values and wherein translating an output of end of life risk factor values comprises determining a likelihood of recovery; determining an end of life status of the sensor by performing an end of life function based on the evaluation of the plurality of risk factors; and providing an output related to a sensor reuse within a predetermined time frame after sensor initialization if the end of life status meets one or more predetermined sensor reuse criteria,
A data transmission method in a coordinated communication system, comprising: precoding, by a first transmitter, its private data (p 1) by using a first precoding matrix (W 1 t) to obtain first precoded data; precoding, by the first transmitter, coordinated data (c 1 t, c 2 t) by using a second precoding matrix (V 11 t, V 12 t) to obtain second precoded data to cancel interference with the first precoded data at a receiver caused by data transmitted by another transmitter, wherein the coordinated data (c 1 t, c 2 t) comprises coordinated data (c 1 t) of the first transmitter and coordinated data (c 2 t) of the another transmitter, the coordinated data (c 1 t) of the first transmitter is a part of payload data of the first transmitter, the coordinated data (c 2 t) of the another transmitter is a part of payload data that is received by the first transmitter and transmitted by the another transmitter, and payload data refers to the data that actually needs to be transmitted by a transmitter to a receiver and consists of said private data (pi) and said coordinated data (c 1 t) of the transmitter; and transmitting, by the first transmitter, the first precoded data and the second precoded data after the precoding to the receiver. precoding, by a first transmitter, its private data (p 1) by using a first precoding matrix (W 1 t) to obtain first precoded data; precoding, by the first transmitter, coordinated data (c 1 t, c 2 t) by using a second precoding matrix (V 11 t, V 12 t) to obtain second precoded data to cancel interference with the first precoded data at a receiver caused by data transmitted by another transmitter, wherein the coordinated data (c 1 t, c 2 t) comprises coordinated data (c 1 t) of the first transmitter and coordinated data (c 2 t) of the another transmitter, the coordinated data (c 1 t) of the first transmitter is a part of payload data of the first transmitter, the coordinated data (c 2 t) of the another transmitter is a part of payload data that is received by the first transmitter and transmitted by the another transmitter, and payload data refers to the data that actually needs to be transmitted by a transmitter to a receiver and consists of said private data (pi) and said coordinated data (c 1 t) of the transmitter; and transmitting, by the first transmitter, the first precoded data and the second precoded data after the precoding to the receiver.
An electrostatic substrate holder for mounting and holding a substrate, comprising: - a rotor (6, 6', 6", 6'"), comprising a holder (7, 7', 7") for fixing the substrate on a holding surface (7h, 7h', 7h"), - a stator (5, 5', 5", 5 iii, 5 iv) for receiving and mounting the rotor (6, 6', 6", 6′′′), - electrodes (11, 11', 11") for producing an electrostatic holding force for fixing the substrate, wherein the electrodes (11, 11', 11") exert the electrical holding force on the substrate, wherein the stator (5, 5', 5", 5 iii, 5 iv) comprises the electrodes (11, 11', 11"), wherein the electrodes (11, 11', 11") are spaced apart from the holding surface (7h, 7h', 7h"), wherein the rotor (6, 6', 6", 6'") is mounted by electrically conductive bearing elements, wherein the electrically conductive bearing elements contact the electrodes (11, 11', 11") of the stator (5, 5', 5", 5 iii, 5 iv). - a rotor (6, 6', 6", 6'"), comprising a holder (7, 7', 7") for fixing the substrate on a holding surface (7h, 7h', 7h"), - a stator (5, 5', 5", 5 iii, 5 iv) for receiving and mounting the rotor (6, 6', 6", 6′′′), - electrodes (11, 11', 11") for producing an electrostatic holding force for fixing the substrate, wherein the electrodes (11, 11', 11") exert the electrical holding force on the substrate, wherein the stator (5, 5', 5", 5 iii, 5 iv) comprises the electrodes (11, 11', 11"), wherein the electrodes (11, 11', 11") are spaced apart from the holding surface (7h, 7h', 7h"), wherein the rotor (6, 6', 6", 6'") is mounted by electrically conductive bearing elements, wherein the electrically conductive bearing elements contact the electrodes (11, 11', 11") of the stator (5, 5', 5", 5 iii, 5 iv). wherein the stator (5, 5', 5", 5 iii, 5 iv) comprises the electrodes (11, 11', 11"), wherein the electrodes (11, 11', 11") are spaced apart from the holding surface (7h, 7h', 7h"), wherein the rotor (6, 6', 6", 6'") is mounted by electrically conductive bearing elements, wherein the electrically conductive bearing elements contact the electrodes (11, 11', 11") of the stator (5, 5', 5", 5 iii, 5 iv).
A process for preparing a compound of the formula I: or a pharmaceutically acceptable salt thereof, which comprises: oxidizing a sulfide of the formula II: with a catalytic oxidizing agent and an oxidant; to give a compound of the formula III: followed by catalytic reduction of the compound of the formula III; to give the compound of the formula I: or a pharmaceutically acceptable salt thereof. oxidizing a sulfide of the formula II:
An illumination control system, comprising: a dimming signal generation device adapted to output a square wave voltage signal having an duty cycle corresponding to a dimming level to a dimming signal line from a time point when a predetermined time period has elapsed after power-up, wherein a specific voltage is outputted to the dimming signal line for the predetermined time period after the power-up, wherein the illumination control system comprises: a plurality of solid-state light source lighting devices each of which is adapted to receive the specific voltage and the square wave voltage signal via the dimming signal line such that the plurality of solid-state light source lighting devices are controlled by the dimming signal generation device, characterized in that each of the solid-state light source lighting devices is adapted to control a solid-state light source such that an illuminance of the solid-state light source is controlled according to the specific voltage or the square wave voltage signal, and wherein the dimming signal generation device comprises a voltage output circuit adapted to generate the specific voltage by stepping down, rectifying and clamping an AC power. a plurality of solid-state light source lighting devices each of which is adapted to receive the specific voltage and the square wave voltage signal via the dimming signal line such that the plurality of solid-state light source lighting devices are controlled by the dimming signal generation device, characterized in that each of the solid-state light source lighting devices is adapted to control a solid-state light source such that an illuminance of the solid-state light source is controlled according to the specific voltage or the square wave voltage signal, and wherein the dimming signal generation device comprises a voltage output circuit adapted to generate the specific voltage by stepping down, rectifying and clamping an AC power.
A method for performing integrated access and backhaul, IAB, in a cellular telecommunications network in which Time Division Duplex, TDD, is applied and that comprises a first IAB node and a second IAB node, the method being performed by the first IAB node, the method comprising: scheduling, in a first phase, placed in a first downlink period according to a TDD pattern, downstream backhaul data from the first IAB node to the second IAB node; and receiving, in a third phase, placed in a second downlink period according to the TDD pattern, from the second IAB node, upstream backhaul data as scheduled by the second IAB node. scheduling, in a first phase, placed in a first downlink period according to a TDD pattern, downstream backhaul data from the first IAB node to the second IAB node; and receiving, in a third phase, placed in a second downlink period according to the TDD pattern, from the second IAB node, upstream backhaul data as scheduled by the second IAB node.
Transmission for a motor vehicle, the transmission having at least one rheological actuator, at least one pump and at least one consumer, the rheological actuator having at least one rheological fluid, the rheological actuator having at least one rheological valve, the at least one rheological valve being arranged within the rheological actuator in such a way that the at least one rheological valve assigns the rheological fluid to a respective consumer, characterized in that the at least one rheological valve, preferably a plurality of rheological valves, is/are arranged in the rheological actuator in such a way that the rheological fluid, in particular a pump pressure, is split between different consumers by way of at least partial opening and closing of the at least one rheological valve.