mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling data transmission on a downlink common transport channel by a network in a wireless communication system, the method comprising: receiving, by a base station, a random access preamble from a user equipment; transmitting a preamble response message from the base station to the user equipment in response to the random access preamble; receiving, by a radio network controller, RNC, a radio resource control, RRC, message from the user equipment, the RRC message including measurement information which comprises a result of measurement performed by the user equipment, characterized by receiving, by the base station, the measurement information from the RNC; and determining, by the base station, a transmission power for transmission of downlink data to the user equipment on the downlink common transport channel based on the measurement information received from the RNC. receiving, by a base station, a random access preamble from a user equipment; transmitting a preamble response message from the base station to the user equipment in response to the random access preamble; receiving, by a radio network controller, RNC, a radio resource control, RRC, message from the user equipment, the RRC message including measurement information which comprises a result of measurement performed by the user equipment,
An active bypass system comprising: an active bypass module comprising a first receiver connected to a first transmitter and a repeater connected intermediate the first receiver and the first transmitter; and a slave node comprising a second receiver, a second transmitter and a process node connected therebetween; the first receiver being connected to the second receiver and the second transmitter being connected to the first transmitter; wherein in normal operation, the first receiver is adapted to receive data and pass said data to both the second receiver and the repeater, the data sent via the second receiver passing to the process node for processing, after which the process node is adapted to pass a response via the second transmitter to the first transmitter, and in the event of a failure of the slave node, the first receiver is adapted to receive data and pass said data directly through the repeater module to the first transmitter, thereby bypassing the slave node, the repeater comprising a watchdog adapted to monitor the functioning of the process node and to activate the repeater when it detects that the process node is not functioning. an active bypass module comprising a first receiver connected to a first transmitter and a repeater connected intermediate the first receiver and the first transmitter; and a slave node comprising a second receiver, a second transmitter and a process node connected therebetween; the first receiver being connected to the second receiver and the second transmitter being connected to the first transmitter; wherein in normal operation, the first receiver is adapted to receive data and pass said data to both the second receiver and the repeater, the data sent via the second receiver passing to the process node for processing, after which the process node is adapted to pass a response via the second transmitter to the first transmitter, and in the event of a failure of the slave node, the first receiver is adapted to receive data and pass said data directly through the repeater module to the first transmitter, thereby bypassing the slave node, the repeater comprising a watchdog adapted to monitor the functioning of the process node and to activate the repeater when it detects that the process node is not functioning.
An elevator system, comprising: a hoistway having a plurality of landings including a top landing and a bottom landing; an elevator car configured to move within the hoistway between the plurality of landings, the elevator car including a car floor and a car roof; a counterweight configured to move within the hoistway; at least one tension member operably coupled to the elevator car and the counterweight; a support member mounted within the hoistway; and a machine assembly mounted to the support member, wherein when the elevator car is parked at a desired landing, the machine assembly is arranged between the car floor and the car roof and is accessible from an interior of the elevator car; characterized in that the support member includes a deflector sheave integrated with a side of the support member adjacent the elevator car and configured to receive the at least one tension member and to prevent the at least one tension member from directly contacting the support member. a hoistway having a plurality of landings including a top landing and a bottom landing; an elevator car configured to move within the hoistway between the plurality of landings, the elevator car including a car floor and a car roof; a counterweight configured to move within the hoistway; at least one tension member operably coupled to the elevator car and the counterweight; a support member mounted within the hoistway; and a machine assembly mounted to the support member, wherein when the elevator car is parked at a desired landing, the machine assembly is arranged between the car floor and the car roof and is accessible from an interior of the elevator car; characterized in that the support member includes a deflector sheave integrated with a side of the support member adjacent the elevator car and configured to receive the at least one tension member and to prevent the at least one tension member from directly contacting the support member.
A cylinder block comprising a bearing body having a fitting recess part to which a bearing cap can be fitted, and a bearing part formed in the bottom surface of said fitting recess part, and configured so as to axially support a crank shaft between the bearing body and the bearing cap in a rotatable fashion, wherein the cylinder block is configured such that: the fitting recess part has a bottom surface corner part which is abutted by a corner part of the bearing cap; and in the bottom surface corner part, formed is a recess groove having a substantially arched shape when seen from the axial direction of the crank shaft and extending in the axial direction, characterized in that the recess groove has different depths, in the extension direction of said recess groove, in accordance with the magnitude of the stress acting on said recess groove. the fitting recess part has a bottom surface corner part which is abutted by a corner part of the bearing cap; and in the bottom surface corner part, formed is a recess groove having a substantially arched shape when seen from the axial direction of the crank shaft and extending in the axial direction, characterized in that the recess groove has different depths, in the extension direction of said recess groove, in accordance with the magnitude of the stress acting on said recess groove.
A method of wireless communication, comprising: determining that respective resources allocated to each of a plurality of scheduling request, SR, opportunities are within a same time period, the SR opportunities each corresponding to a respective one of a plurality of logical channels; identifying a subset of the plurality of SR opportunities for transmission; partitioning the subset into one or more groups of SR opportunities, each group of SR opportunities comprising one or more SR opportunities; and characterized by transmitting one or more SR bits representing the one or more groups of SR opportunities, wherein each of the one or more SR bits represents at least two of the SR opportunities of each of the one or more groups of SR opportunities. determining that respective resources allocated to each of a plurality of scheduling request, SR, opportunities are within a same time period, the SR opportunities each corresponding to a respective one of a plurality of logical channels; identifying a subset of the plurality of SR opportunities for transmission; partitioning the subset into one or more groups of SR opportunities, each group of SR opportunities comprising one or more SR opportunities; and characterized by transmitting one or more SR bits representing the one or more groups of SR opportunities, wherein each of the one or more SR bits represents at least two of the SR opportunities of each of the one or more groups of SR opportunities.
A method for reconstructing an image of a subject while correcting for gradient nonlinearity effects using a magnetic resonance imaging ("MRI") system, the steps of the method comprising: (a) providing magnetic resonance data acquired from a subject using an MRI system; (b) providing an estimate of a gradient distortion field associated with the MRI system; (c) reconstructing at least one image of the subject from the magnetic resonance data while correcting for errors associated with a gradient nonlinearity by using an integrated image reconstruction and gradient nonlinearity correction technique which incorporates the estimate of the gradient distortion field into a magnetic resonance signal model to account for the errors associated with the gradient nonlinearity during image reconstruction, thereby simultaneously reconstructing the at least one image of the subject and correcting the at least one image for the errors associated with the gradient nonlinearity. (a) providing magnetic resonance data acquired from a subject using an MRI system; (b) providing an estimate of a gradient distortion field associated with the MRI system; (c) reconstructing at least one image of the subject from the magnetic resonance data while correcting for errors associated with a gradient nonlinearity by using an integrated image reconstruction and gradient nonlinearity correction technique which incorporates the estimate of the gradient distortion field into a magnetic resonance signal model to account for the errors associated with the gradient nonlinearity during image reconstruction, thereby simultaneously reconstructing the at least one image of the subject and correcting the at least one image for the errors associated with the gradient nonlinearity.
Method for queue recognition by means of wireless vehicle-to-vehicle communication, in which an ego vehicle, in which the method for queue recognition is performed, receives speed and position values from surrounding vehicles (5.x) situated in the reception area of the vehicle-to-vehicle communication and in which the following method steps are executed: - a relevance for surrounding vehicles (5.x) from which the ego vehicle receives messages is checked by means of comparison with relevance criteria and a relevance is established if the relevance criteria are satisfied, wherein a relevance region is defined as relevance criteria; - the speed and position values that are associated with relevant surrounding vehicles (5.x) and have the speed values indicating a direction of travel that is the same as that of the ego vehicle are selected; characterized in that the following is effected - defining of at least one first virtual vehicle (B, C) to which the mean values of at least one portion of the or all the selected speed and position values are allocated as speed and position values for the virtual vehicle (B, C); - recording of the time profile of the speed and position values of the virtual vehicle (B, C); - recording of the time profile of changes in the speed and position values of the virtual vehicle (B, C) as at least one change value; - comparing of the change value with at least one prescribed queue criterion; - all the selected speed and position values are recorded in one virtual vehicle. - a relevance for surrounding vehicles (5.x) from which the ego vehicle receives messages is checked by means of comparison with relevance criteria and a relevance is established if the relevance criteria are satisfied, wherein a relevance region is defined as relevance criteria; - the speed and position values that are associated with relevant surrounding vehicles (5.x) and have the speed values indicating a direction of travel that is the same as that of the ego vehicle are selected; - defining of at least one first virtual vehicle (B, C) to which the mean values of at least one portion of the or all the selected speed and position values are allocated as speed and position values for the virtual vehicle (B, C); - recording of the time profile of the speed and position values of the virtual vehicle (B, C); - recording of the time profile of changes in the speed and position values of the virtual vehicle (B, C) as at least one change value; - comparing of the change value with at least one prescribed queue criterion; - all the selected speed and position values are recorded in one virtual vehicle.
An oxide superconductor wire (A, B, C, D) comprising: a tape-shaped oxide superconductor laminate including a metal tape-shaped substrate that has a substrate front surface and a substrate back surface, an intermediate layer that is provided on the substrate front surface, an oxide superconductor layer that is provided on the intermediate layer, and a protective layer that has a protective front surface and is provided on the oxide superconductor layer; and a coating member that is formed of a metal tape and a low melting point metal layer (7, 8, 9, 17), wherein the metal tape has a wider width than that of the oxide superconductor laminate and covers the protective front surface, both side surfaces of the oxide superconductor laminate, and both end portions of the substrate back surface in a width direction thereof, both end portions of the metal tape in a width direction thereof are provided to cover both the end portions of the substrate back surface, the low melting point metal layer (7, 8, 9, 17) fills gaps between the oxide superconductor laminate and the metal tape that is provided so as to surround the oxide superconductor laminate to join the metal tape and the oxide superconductor laminate to each other, and a part of the filled low melting point metal layer (7, 8, 9, 17) extends to a recessed portion that is formed between both the end portions of the metal tape in the width direction. a tape-shaped oxide superconductor laminate including a metal tape-shaped substrate that has a substrate front surface and a substrate back surface, an intermediate layer that is provided on the substrate front surface, an oxide superconductor layer that is provided on the intermediate layer, and a protective layer that has a protective front surface and is provided on the oxide superconductor layer; and a coating member that is formed of a metal tape and a low melting point metal layer (7, 8, 9, 17), wherein the metal tape has a wider width than that of the oxide superconductor laminate and covers the protective front surface, both side surfaces of the oxide superconductor laminate, and both end portions of the substrate back surface in a width direction thereof, both end portions of the metal tape in a width direction thereof are provided to cover both the end portions of the substrate back surface, the low melting point metal layer (7, 8, 9, 17) fills gaps between the oxide superconductor laminate and the metal tape that is provided so as to surround the oxide superconductor laminate to join the metal tape and the oxide superconductor laminate to each other, and a part of the filled low melting point metal layer (7, 8, 9, 17) extends to a recessed portion that is formed between both the end portions of the metal tape in the width direction.
A valve bridge assembly for a valve train assembly, the valve bridge assembly comprising: a valve bridge; a first cavity formed towards a first end portion of the valve bridge; a hydraulic lash adjuster disposed within the first cavity for engaging a first valve stem; wherein the HLA comprises a first contact surface for engaging the first valve stem, wherein the first contact surface is curved characterized in that said curved surface is disposed inside the first cavity. a valve bridge; a first cavity formed towards a first end portion of the valve bridge; a hydraulic lash adjuster disposed within the first cavity for engaging a first valve stem; wherein the HLA comprises a first contact surface for engaging the first valve stem, wherein the first contact surface is curved characterized in that said curved surface is disposed inside the first cavity.
A method for applying a powder or granule, which has deliquescent or hygroscopic properties, on a base material to be continuously conveyed, wherein the powder or granule is continuously pulled out, by a screw feeder, from a supply unit for temporarily storing the powder or granule, the pulled-out powder or granule is allowed to fall to be received in a vibrating conveyor unit, the powder or granule is conveyed while being dispersed by vibration of a vibrating element of the vibrating conveyor unit, and the powder or granule is continuously applied on the base material from a sprinkling outlet of the vibrating conveyor unit; characterized in that a first measuring means continuously measures the total mass of the supply unit, the screw feeder and the powder or granule therein, and a screw control unit calculates the decrement of the powder or granule per time based on a plurality of the measured values, and controls the screw rotation speed of the screw feeder so that the calculated decrement coincides with a target discharge amount per time.
Magnetic Resonance Imaging method for generating a ratio image with improved contrast characteristics in regions of low SNR, the method comprising the steps of: - generating a Magnetic Resonance Imaging sequence designed for acquiring data from an object to be imaged, wherein said Magnetic Resonance Imaging sequence is configured for acquiring data for generating at least two different images, respectively a first image P and a second image NP, wherein said at least two different images have different contrasts but share the same spatial inhomogeneity in the transmit and receive RF coil B1 profiles used for acquiring said two different images; - acquiring said two different images; - combining said two different images in a ratio image S; characterized in that said ratio image S is obtained by calculating a ratio of the first image P and the second image NP that is tunable by a parameter γ wherein the parameter γ is optimized for maximizing the negentropy of the ratio image S and thus removing noise in the ratio image S and improve the contrast characteristics in regions of low SNR of the ratio image S, wherein said ratio image S is given by one of the following equation: S = P NP + γ or S = Re P ∗ ⋅ NP − γ P 2 + NP 2 + 2 ⁢ γ. - generating a Magnetic Resonance Imaging sequence designed for acquiring data from an object to be imaged, wherein said Magnetic Resonance Imaging sequence is configured for acquiring data for generating at least two different images, respectively a first image P and a second image NP, wherein said at least two different images have different contrasts but share the same spatial inhomogeneity in the transmit and receive RF coil B1 profiles used for acquiring said two different images; - acquiring said two different images; - combining said two different images in a ratio image S; characterized in that said ratio image S is obtained by calculating a ratio of the first image P and the second image NP that is tunable by a parameter γ wherein the parameter γ is optimized for maximizing the negentropy of the ratio image S and thus removing noise in the ratio image S and improve the contrast characteristics in regions of low SNR of the ratio image S, wherein said ratio image S is given by one of the following equation: S = P NP + γ or S = Re P ∗ ⋅ NP − γ P 2 + NP 2 + 2 ⁢ γ.
Axial flux permanent magnet electrical machine with magnetic flux concentration, comprising at least one stator and at least one rotor coaxial with the stator and mounted to allow rotation relative to the stator, the rotor having a plurality of permanent magnets mounted radially, with alternating NS - SN - NS circumferential magnetization and intercalated with magnetic poles, and the stator, having a plurality of discrete windings, mounted radially, at equal distance, on a stator outer windings support, with a plurality of hollow spaces, wherein the stator outer winding support surrounds the outer part of the windings, and on a stator inner windings support, wherein the magnetic poles, are carved creating a hollow space on the opposite of the air-gap side.
A histologic tissue sample support (570; 630; 650), said support (a) being configured to hold a tissue sample, (b) being formed of a material which can be successfully sectioned in a microtome, (c) having means for resisting degradation from solvents and chemicals used to fix, process and stain the tissue sample during a histologic procedure, (d) being porous, (e) having a sample surface onto which, in use, a sample is loaded and which defines a sectioning plane for sectioning the tissue sample and the support in the microtome with the sample lying flat in the sectioning plane, and (f) comprising a bottom portion (572; 651) configured to hold the tissue sample, and a lid (574; 652) configured to couple with said bottom portion (572; 651) to hold the tissue sample in a desired orientation. (a) being configured to hold a tissue sample, (b) being formed of a material which can be successfully sectioned in a microtome, (c) having means for resisting degradation from solvents and chemicals used to fix, process and stain the tissue sample during a histologic procedure, (d) being porous, (e) having a sample surface onto which, in use, a sample is loaded and which defines a sectioning plane for sectioning the tissue sample and the support in the microtome with the sample lying flat in the sectioning plane, and (f) comprising a bottom portion (572; 651) configured to hold the tissue sample, and a lid (574; 652) configured to couple with said bottom portion (572; 651) to hold the tissue sample in a desired orientation.