mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication of a first cell (810a,910a), comprising: transmitting disabling information to a user equipment, UE, (820;920) indicating that open loop transmission power control, TPC, is to be disabled based on a range expansion status of the UE in a range expanded region of a second cell, wherein the range expanded region is expanded from the second cell through enhanced inter-cell interference coordination between a remote radio head, RRH, (1110b-1) and a macro node and through interference cancellation performed by the UE (820;920); communicating with the second cell (810b-1;910b-1) in relation to a coordinated multipoint, CoMP, transmission of control information by the first cell (810a;910a) and data by the second cell (810b-1;910b-1) to the UE (820;920) in the range expanded region of the second cell (810b-1;910b-1); receiving a desired transmission power level for the UE (820;920) from the second cell (810b-1;910b-1); generating control information based on the desired transmission power level; and transmitting the control information to the UE (820;920). transmitting disabling information to a user equipment, UE, (820;920) indicating that open loop transmission power control, TPC, is to be disabled based on a range expansion status of the UE in a range expanded region of a second cell, wherein the range expanded region is expanded from the second cell through enhanced inter-cell interference coordination between a remote radio head, RRH, (1110b-1) and a macro node and through interference cancellation performed by the UE (820;920); communicating with the second cell (810b-1;910b-1) in relation to a coordinated multipoint, CoMP, transmission of control information by the first cell (810a;910a) and data by the second cell (810b-1;910b-1) to the UE (820;920) in the range expanded region of the second cell (810b-1;910b-1); receiving a desired transmission power level for the UE (820;920) from the second cell (810b-1;910b-1); generating control information based on the desired transmission power level; and transmitting the control information to the UE (820;920).
A method of manufacturing a fluid distribution system, said method comprising: providing a first distribution line configured to channel a fluid in a first direction; providing at least one internal support member including a base portion and a plurality of support legs extending radially outward from the base portion, wherein the base portion has a circular shape and is sized to slide onto an outer surface of the first distribution line, wherein the at least one internal support member includes a brazing material disposed on an inner surface of the base portion, and wherein an outer surface of each support leg of the plurality of support legs of the at least one internal support member includes a brazing material disposed thereon; heating the at least one internal support member to braze the at least one internal support member to the first distribution line so as to couple the at least one internal support member to the outer surface of the first distribution line; aligning a second distribution line concentrically with and circumscribing the first distribution line, the second distribution line configured to channel the fluid in an opposite second direction; and heating the second distribution line to braze the plurality of support legs to the second distribution line so as to couple the plurality of support legs to the inner surface of the second distribution line. providing a first distribution line configured to channel a fluid in a first direction; providing at least one internal support member including a base portion and a plurality of support legs extending radially outward from the base portion, wherein the base portion has a circular shape and is sized to slide onto an outer surface of the first distribution line, wherein the at least one internal support member includes a brazing material disposed on an inner surface of the base portion, and wherein an outer surface of each support leg of the plurality of support legs of the at least one internal support member includes a brazing material disposed thereon; heating the at least one internal support member to braze the at least one internal support member to the first distribution line so as to couple the at least one internal support member to the outer surface of the first distribution line; aligning a second distribution line concentrically with and circumscribing the first distribution line, the second distribution line configured to channel the fluid in an opposite second direction; and heating the second distribution line to braze the plurality of support legs to the second distribution line so as to couple the plurality of support legs to the inner surface of the second distribution line.
Apparatus for ascertaining, on the basis of objective refraction data of an eye to be examined, predicted subjective refraction data or predicted subjective correction values of the eye to be examined, said apparatus comprising an evaluation device, which comprises a calculation unit that calculates the predicted subjective refraction data or predicted subjective correction values of the eye by means of a function from the objective refraction data of the eye, wherein the function is the result of training a regression model or classification model, wherein the regression model or classification model has been trained on the basis of a training data record, which, for a multiplicity of subjects, in each case comprises at least ascertained objective refraction data and assigned subjective refraction data ascertained by subjective refraction or assigned subjective correction values ascertained by subjective refraction, characterized in that - the function is a nonlinear multidimensional function or a family of nonlinear multidimensional functions. - the function is a nonlinear multidimensional function or a family of nonlinear multidimensional functions.
Combination of a process valve (1; 20) with an actuating device (100; 200; 300; 400) for actuating the process valve (1; 20), for use in foodstuffs technology, - the process valve (1; 20) having a valve member (4; 50,90) and an actuating element (14; 21, 23; 414) being moved upon the shifting of the valve member (4; 50, 90), in such a way that the position of the actuating element (14; 21, 23; 414) is a measure of the position of the valve member (4; 50, 90), - the actuating device (100; 200; 300; 400) having a housing (110, 140) including a cover and a sensor (151; 251; 351; 551; 651; 751; 851) that is arranged and/or realized in such a way that its output signal is a measure of the position of the actuating element (14; 21, 23; 414), characterized in that - the actuating device (100; 200; 300; 400) has a sensor module (150; 250; 350; 550; 650; 750; 850), said sensor module being located within the housing (110, 140) and comprising the sensor and a hood (154; 254; 554; 654; 754; 854), in which the actuating element (14; 21, 23; 414) is arranged or at least enters upon a valve member movement, and - one or more windows (555, 556, 557; 655, 656, 657; 756, 856) of a translucent and/or transparent and/or non-opaque material are realized in the hood (154; 254; 554; 654; 754; 854) enabling a view of the actuating element (14; 21; 23; 414). - the process valve (1; 20) having a valve member (4; 50,90) and an actuating element (14; 21, 23; 414) being moved upon the shifting of the valve member (4; 50, 90), in such a way that the position of the actuating element (14; 21, 23; 414) is a measure of the position of the valve member (4; 50, 90), - the actuating device (100; 200; 300; 400) having a housing (110, 140) including a cover and a sensor (151; 251; 351; 551; 651; 751; 851) that is arranged and/or realized in such a way that its output signal is a measure of the position of the actuating element (14; 21, 23; 414), characterized in that - the actuating device (100; 200; 300; 400) has a sensor module (150; 250; 350; 550; 650; 750; 850), said sensor module being located within the housing (110, 140) and comprising the sensor and a hood (154; 254; 554; 654; 754; 854), in which the actuating element (14; 21, 23; 414) is arranged or at least enters upon a valve member movement, and - one or more windows (555, 556, 557; 655, 656, 657; 756, 856) of a translucent and/or transparent and/or non-opaque material are realized in the hood (154; 254; 554; 654; 754; 854) enabling a view of the actuating element (14; 21; 23; 414).
Water-absorbing composition comprising water-absorbing polymer structures, on the surface of which is at least one tannin fraction which has a number-average molecular weight, determined in accordance with the test method described herein, of at least 1,000 g/mol or which has a weight-average molecular weight, determined in accordance with the test method described herein, of at least 1,000 g/mol, wherein the water-absorbing composition comprises the tannin in an amount in a range of from 0.001 to 10 wt. %, based on the total weight of the water-absorbing composition.
A method for controlling supply of fuel gas (SG, NG) to a burner of a gas turbine; the method comprising the steps of: - sending a gas with low calorific value from a source to said burner; - sending a gas with high calorific value to said burner in addition to the gas with low calorific value in order to reach a required load; the gas with high calorific value being added to the gas with low calorific value before reaching said burner; - detecting a delivery pressure (p_SG) of the gas with low calorific value coming from said source; - regulating the flowrate of a fuel comprising the gas with low calorific value and sent to said burner as a function of said delivery pressure (p_SG); the flowrate of gas with high calorific value being regulated as a function of said delivery pressure (p_SG); characterized in that: - the flowrate of the fuel sent to said burner is regulated so as to maintain said delivery pressure (p_SG) above a minimum pressure (pSGMIN); - steam is added to the mixture of the two gases; - the flowrate of steam is regulated as a function of the detected heating value (SGLHV) of the gas with low calorific value coming from said source. - sending a gas with low calorific value from a source to said burner; - sending a gas with high calorific value to said burner in addition to the gas with low calorific value in order to reach a required load; the gas with high calorific value being added to the gas with low calorific value before reaching said burner; - detecting a delivery pressure (p_SG) of the gas with low calorific value coming from said source; - regulating the flowrate of a fuel comprising the gas with low calorific value and sent to said burner as a function of said delivery pressure (p_SG); - the flowrate of the fuel sent to said burner is regulated so as to maintain said delivery pressure (p_SG) above a minimum pressure (pSGMIN); - steam is added to the mixture of the two gases; - the flowrate of steam is regulated as a function of the detected heating value (SGLHV) of the gas with low calorific value coming from said source.
A three-dimensional printing system for solidifying a build material at a build plane in a layer-by-layer manner comprising: a laser module for emitting a light beam; along a main optical path from the laser module to the build plane; piano; a scan module including a motorized mirror and a sensor, the motorized mirror including a substrate with an optical coating that reflects at least 90% of the light beam power such that the mirror transmits no more than 10% of the light beam power, the sensor positioned to receive transmitted light from the motorized mirror; and a controller configured to: operate the laser module to emit the light beam along the main optical path; analyze a signal from the sensor; and based upon the analysis, estimate a calibration error for the laser module. a laser module for emitting a light beam; along a main optical path from the laser module to the build plane; piano; a scan module including a motorized mirror and a sensor, the motorized mirror including a substrate with an optical coating that reflects at least 90% of the light beam power such that the mirror transmits no more than 10% of the light beam power, the sensor positioned to receive transmitted light from the motorized mirror; and a controller configured to: operate the laser module to emit the light beam along the main optical path; analyze a signal from the sensor; and based upon the analysis, estimate a calibration error for the laser module. operate the laser module to emit the light beam along the main optical path; analyze a signal from the sensor; and based upon the analysis, estimate a calibration error for the laser module.
Method for producing an adhesive bond, comprising the steps of - providing a cleavable adhesive tape section comprising at least one cleavable adhesive-bonding layer (20, 21), present over at least part of the surface, having a complex viscosity of less than or equal to 10 5 Pas, measured in accordance with ISO 6721-10 at 23°C and a frequency of 1 rad/s, and/or having a loss factor tan delta of greater than or equal to 1, measured by means of dynamic mechanical analysis DMA at 23°C and a frequency of 1 rad/s, comprising at least one settable liquid adhesive, - cleaving the at least one cleavable adhesive-bonding layer (20, 21), and - obtaining at least one adhesive-bonding layer (20', 20'', 21') which has been cleaved at least once, - contacting the at least one cleaved adhesive-bonding layer (20', 20'', 21') with at least one substrate (40, 41) and - setting the at least one liquid adhesive in the adhesive-bonding layer (20', 20'', 21') which has been cleaved at least once. - providing a cleavable adhesive tape section comprising at least one cleavable adhesive-bonding layer (20, 21), present over at least part of the surface, having a complex viscosity of less than or equal to 10 5 Pas, measured in accordance with ISO 6721-10 at 23°C and a frequency of 1 rad/s, and/or having a loss factor tan delta of greater than or equal to 1, measured by means of dynamic mechanical analysis DMA at 23°C and a frequency of 1 rad/s, comprising at least one settable liquid adhesive, - cleaving the at least one cleavable adhesive-bonding layer (20, 21), and - obtaining at least one adhesive-bonding layer (20', 20'', 21') which has been cleaved at least once, - contacting the at least one cleaved adhesive-bonding layer (20', 20'', 21') with at least one substrate (40, 41) and - setting the at least one liquid adhesive in the adhesive-bonding layer (20', 20'', 21') which has been cleaved at least once.
Method for determining a shift sequence of a change of transmission ratio of a gear mechanism device of a vehicle drive train having a drive machine which is connected to the gear mechanism device on the drive mechanism input side and an output which is operatively connected to the gear mechanism device on the gear mechanism output side, starting from an actual transmission ratio engaged in the gear mechanism device in the direction of a target transmission ratio which is to be applied in the gear mechanism device, wherein in order to carry out the change of transmission ratio at least one shift element (A to F) is to be disconnected from a force flux of the vehicle drive train, and at least one further shift element (A to F) is to be connected into the force flux, wherein the shift sequence is determined as a function of an operating state of the vehicle drive train which is present when an actual transmission ratio is engaged in the gear mechanism device, wherein the operating state is characterized by various operating state variables of the vehicle drive train, which represent input variables of a model which models the vehicle drive train, and wherein output variables of the model, at least one target prescription which characterizes the shift sequence and is determined applicatively, in the form of a functional relationship, and limiting values of operating state variables or of combinations of operating state variables are fed as input variables to an optimization routine in the region of which the functional relationship of the at least one target prescription is minimized, and additionally torque profiles which represent the shift sequence, of devices (3, A to F) of the vehicle drive train are determined as a function of the minimum of the functional relationship of the at least one target prescription taking into account the limiting values of the operating state variables, in the region of which in each case a torque is applied to the vehicle drive train and/or a torque which is conducted in the vehicle drive train is changed during the change of the transmission ratio, characterized in that the minimization of the at least one target prescription is carried out iteratively and the profiles of the torques are determined iteratively by means of the optimization routine.
A method implemented by a device, the method comprising: accessing power headroom control information; determining that one or more conditions for generating a power headroom report have been met; generating, based on the determination, a bandwidth part, BWP, based power headroom report comprising one or more active BWP specific power headrooms of a serving cell and reporting, based on the device reporting power headroom in a slot associated with a given numerology on a first cell that overlaps with a plurality of slots associated with a given numerology on a second cell, a power headroom report for a first slot of the plurality of slots associated with the given numerology on the second cell that fully overlaps with the slot associated with the given numerology on the first cell. accessing power headroom control information; determining that one or more conditions for generating a power headroom report have been met; generating, based on the determination, a bandwidth part, BWP, based power headroom report comprising one or more active BWP specific power headrooms of a serving cell and reporting, based on the device reporting power headroom in a slot associated with a given numerology on a first cell that overlaps with a plurality of slots associated with a given numerology on a second cell, a power headroom report for a first slot of the plurality of slots associated with the given numerology on the second cell that fully overlaps with the slot associated with the given numerology on the first cell.
A buffer device with a self-adjustable stop, the device comprising a buffer head in the form of a shank and a socket into which said buffer head in the form of a shank can be driven axially, the device further comprising an annular ring inserted axially in an axial bore of said socket and actuatable in turning to block the axial position of said buffer head in said socket, said ring comprising a bottom edge defining a thrust ramp designed, when said ring is caused to turn, for producing a cam effect with said axial bore in a counterbore in the end of said socket and enabling said buffer head to be raised, the device being characterized in that: • said shank of said buffer head presents along its entire length at least one flat, and adjacent to said at least one flat, at least one zone of touching ribs or grooves forming serrations; • said ring has an inside surface having at least one smooth longitudinal strip that extends axially, and at least one ribbed longitudinal strip that extends adjacent to the at least one said smooth strip; • said shank of said buffer head is prevented from turning under said counterbore in said socket; • the outer annular surface of said ring is provided with a cam path defining a cam profile that co-operates with at least one cam follower finger provided on the top edge of said bore; and • said ring and said shank of said buffer head are designed so that said ring has a first angular position in said socket in which the at least one flat is facing the at least one ribbed longitudinal strip and the at least one zone of touching ribs is facing the at least one smooth longitudinal strip, said buffer head being then able be driven into said ring serration by serration, and a second angular position in which the serrations of the shank of said buffer head are engaged in said ribs of said ring and said buffer head is blocked in axial position. • said shank of said buffer head presents along its entire length at least one flat, and adjacent to said at least one flat, at least one zone of touching ribs or grooves forming serrations; • said ring has an inside surface having at least one smooth longitudinal strip that extends axially, and at least one ribbed longitudinal strip that extends adjacent to the at least one said smooth strip; • said shank of said buffer head is prevented from turning under said counterbore in said socket; • the outer annular surface of said ring is provided with a cam path defining a cam profile that co-operates with at least one cam follower finger provided on the top edge of said bore; and • said ring and said shank of said buffer head are designed so that said ring has a first angular position in said socket in which the at least one flat is facing the at least one ribbed longitudinal strip and the at least one zone of touching ribs is facing the at least one smooth longitudinal strip, said buffer head being then able be driven into said ring serration by serration, and a second angular position in which the serrations of the shank of said buffer head are engaged in said ribs of said ring and said buffer head is blocked in axial position.
An apparatus for applying an alternating electric field to a living subject, the apparatus comprising: a plurality of conductive regions, each of the conductive regions having a front face and a respective area; a plurality of regions of dielectric material, each of the regions of dielectric material having a respective front face and a respective rear face disposed against the front face of a respective one of the conductive regions; a substrate configured to hold the front faces of the regions of dielectric material on or in the subject's body and support the conductive regions at respective positions distributed about a centroid; a plurality of temperature sensors, each of the temperature sensors being disposed in thermal contact with a respective one of the regions of dielectric material; and at least one electrical conductor disposed in electrical contact with the conductive regions; wherein the plurality of conductive regions includes at least one first conductive region and a plurality of second conductive regions, each of the second conductive regions being positioned more peripherally with respect to the centroid than the at least one first conductive region, and a capacitance associated with each of the second conductive regions being at least 10% lower than a capacitance associated with each first conductive region. a plurality of conductive regions, each of the conductive regions having a front face and a respective area; a plurality of regions of dielectric material, each of the regions of dielectric material having a respective front face and a respective rear face disposed against the front face of a respective one of the conductive regions; a substrate configured to hold the front faces of the regions of dielectric material on or in the subject's body and support the conductive regions at respective positions distributed about a centroid; a plurality of temperature sensors, each of the temperature sensors being disposed in thermal contact with a respective one of the regions of dielectric material; and at least one electrical conductor disposed in electrical contact with the conductive regions; wherein the plurality of conductive regions includes at least one first conductive region and a plurality of second conductive regions, each of the second conductive regions being positioned more peripherally with respect to the centroid than the at least one first conductive region, and a capacitance associated with each of the second conductive regions being at least 10% lower than a capacitance associated with each first conductive region.