mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for use with a magnetic resistance-based memory, comprising: a tracking cell including a magnetic random access memory (MRAM) cell disposed in an MRAM array, the MRAM array including a plurality of MRAM cells, the tracking cell arranged to generate an output in response to receiving a read signal applied at the MRAM device; and a tracking amplifier (136, 340) including an analog amplifer configured to receive the output of the tracking cell and in response generate an output tracking signal with an applied selective delay; wherein the tracking amplifier further includes a controllable delay circuit configured to receive a digital control signal, the digital control signal configured to control the selective delay of the output tracking signal, whereby the output tracking signal is used to initiate an enable signal to enable a sense amplifier to generate a data signal corresponding to data values in one of the plurality of MRAM cells. a tracking cell including a magnetic random access memory (MRAM) cell disposed in an MRAM array, the MRAM array including a plurality of MRAM cells, the tracking cell arranged to generate an output in response to receiving a read signal applied at the MRAM device; and a tracking amplifier (136, 340) including an analog amplifer configured to receive the output of the tracking cell and in response generate an output tracking signal with an applied selective delay; wherein the tracking amplifier further includes
A method comprising: receiving, by a first user equipment, UE, a UE-specific radio resource control, RRC, signal for indicating a resource pool configuration and a sidelink configured grant, SL CG, configuration, the resource pool configuration comprising an indication of a plurality of transmission resources available for SL transmissions, and the SL CG configuration comprising an indication of a transmission resource from the plurality of transmission resources, the transmission resource for communicating a SL CG transmission between the first UE and a second UE; and transmitting, by the first UE, the SL CG transmission to the second UE using the transmission resource indicated by the SL CG configuration; characterized in that the transmission resource for communicating the SL CG transmission comprises a SL control channel resource and a SL data channel resource, and wherein transmitting the SL CG transmission comprises transmitting SL control information using the SL control channel resource and transmitting SL data using the SL data channel resource, wherein the SL control information indicates resources being used for a current sidelink transmission, and/or future sidelink transmissions. receiving, by a first user equipment, UE, a UE-specific radio resource control, RRC, signal for indicating a resource pool configuration and a sidelink configured grant, SL CG, configuration, the resource pool configuration comprising an indication of a plurality of transmission resources available for SL transmissions, and the SL CG configuration comprising an indication of a transmission resource from the plurality of transmission resources, the transmission resource for communicating a SL CG transmission between the first UE and a second UE; and transmitting, by the first UE, the SL CG transmission to the second UE using the transmission resource indicated by the SL CG configuration; characterized in that the transmission resource for communicating the SL CG transmission comprises a SL control channel resource and a SL data channel resource, and wherein transmitting the SL CG transmission comprises transmitting SL control information using the SL control channel resource and transmitting SL data using the SL data channel resource, wherein the SL control information indicates resources being used for a current sidelink transmission, and/or future sidelink transmissions.
An agricultural plough arrangement comprising: an agricultural work vehicle; a plough implement connected to the agricultural work vehicle and comprising at least one ground-engaging tool; at least one actuator mechanism that is configured to move the at least one ground-engaging tool laterally with respect to the agricultural work vehicle; and a control unit that is configured to: receive field data indicative of conditions of a field across which the agricultural plough arrangement is being moved; and automatically determine an actuator control signal for the actuator mechanism based on the field data, wherein the actuator control signal is for moving the at least one ground-engaging tool laterally with respect to the agricultural work vehicle on the basis of the field data received wherein the field data comprises ground contour data associated with current or previous ground contours of the field across which the plough implement is being moved characterised in that the ground contour data are averaged over the width of the plough implement for lateral contour data or averaged over the length of the plough implement for longitudinal contour data. an agricultural work vehicle; a plough implement connected to the agricultural work vehicle and comprising at least one ground-engaging tool; at least one actuator mechanism that is configured to move the at least one ground-engaging tool laterally with respect to the agricultural work vehicle; and a control unit that is configured to: receive field data indicative of conditions of a field across which the agricultural plough arrangement is being moved; and automatically determine an actuator control signal for the actuator mechanism based on the field data, wherein the actuator control signal is for moving the at least one ground-engaging tool laterally with respect to the agricultural work vehicle on the basis of the field data received wherein the field data comprises ground contour data associated with current or previous ground contours of the field across which the plough implement is being moved characterised in that the ground contour data are averaged over the width of the plough implement for lateral contour data or averaged over the length of the plough implement for longitudinal contour data. receive field data indicative of conditions of a field across which the agricultural plough arrangement is being moved; and automatically determine an actuator control signal for the actuator mechanism based on the field data, wherein the actuator control signal is for moving the at least one ground-engaging tool laterally with respect to the agricultural work vehicle on the basis of the field data received wherein the field data comprises ground contour data associated with current or previous ground contours of the field across which the plough implement is being moved characterised in that the ground contour data are averaged over the width of the plough implement for lateral contour data or averaged over the length of the plough implement for longitudinal contour data.
A green area maintenance system having: - an autonomous mobile green area maintenance robot, - a border sensing device (30, 70) for sensing position-related data (x1, y1, x3, y3, B1, B3) of a delimiting border of an area to be maintained, the border sensing device being designed for detachable attachment to the green area maintenance robot, - a recording device, the recording device being designed for the purpose of recording a series of border data (x1, y1, B1) sensed by means of the border sensing device of the delimiting border while the border sensing device is detached from the green area maintenance robot and is being guided along the delimiting border, and - a control unit, the control unit being designed for the purpose of controlling a movement of the green area maintenance robot on the area to be maintained in dependence on robot data (x3, y3, B3), in particular sensed by means of the border sensing device, and the recorded series of border data (x1, y1, x2, y2, B1) while the border sensing device is attached to the green area maintenance robot in such a way that the green area maintenance robot stays on the area to be maintained, characterized in - that the border sensing device (30, 70) comprises a rechargeable energy store (38, 78) for supplying the detached border sensing device with operating energy, and - that the green area maintenance robot is designed for the recharging of the energy store of the attached border sensing device. - an autonomous mobile green area maintenance robot, - a border sensing device (30, 70) for sensing position-related data (x1, y1, x3, y3, B1, B3) of a delimiting border of an area to be maintained, the border sensing device being designed for detachable attachment to the green area maintenance robot, - a recording device, the recording device being designed for the purpose of recording a series of border data (x1, y1, B1) sensed by means of the border sensing device of the delimiting border while the border sensing device is detached from the green area maintenance robot and is being guided along the delimiting border, and - a control unit, the control unit being designed for the purpose of controlling a movement of the green area maintenance robot on the area to be maintained in dependence on robot data (x3, y3, B3), in particular sensed by means of the border sensing device, and the recorded series of border data (x1, y1, x2, y2, B1) while the border sensing device is attached to the green area maintenance robot in such a way that the green area maintenance robot stays on the area to be maintained, - that the border sensing device (30, 70) comprises a rechargeable energy store (38, 78) for supplying the detached border sensing device with operating energy, and - that the green area maintenance robot is designed for the recharging of the energy store of the attached border sensing device.
Length measuring device having - a scale, - a slider unit which scans said scale and generates a measured position value, - a hollow scale base which accommodates the scale and the slider unit, the scale being fastened adjacently on an inner surface of the scale base, and installation openings for installing the scale base being present laterally alongside the scale on the scale base spaced apart from one another in the measuring direction, and there being present installing surfaces which come into contact with the surface where the installation is done, characterized in that the installing surfaces are arranged in installing portions on the periphery of the installing openings and, viewed in the measuring direction, there is present between the in each case two installing portions a surface region which is recessed with respect to the installing surfaces and does not touch the surface where the installation is done, the installing surfaces and the recessed surface regions being integrally formed on the scale base. - a scale, - a slider unit which scans said scale and generates a measured position value, - a hollow scale base which accommodates the scale and the slider unit,
Delay-locked loop circuit, comprising - a delay line, designed to generate at least one output clock signal (O1, O2,..., ON) on the basis of an input clock signal and a control signal; - a phase detector configured to perform a phase comparison between the input clock signal and one of the output clock signals (O1, O2,..., ON) and to generate a first detector signal at a first detector output and a second detector signal at a second detector output based on the phase comparison; - wherein the phase detector is configured to perform the phase comparison with respect to a target phase difference between the two clock signals, the first detector signal takes a value different from zero, representing logic 1, if the phase difference between the input clock signal and the last output clock signal is larger than the target phase and logic 0 otherwise, and the second detector signal takes a value different from zero representing logic 1 when the phase difference between the input clock signal and the last output clock signal is smaller than the target phase; - an operational transconductance amplifier, comprising a first amplifier input coupled to the first detector output, a second amplifier input coupled to the second detector output, and an amplifier output; and - a loop filter with an input coupled to the amplifier output and with an output for supplying the control signal. - a delay line, designed to generate at least one output clock signal (O1, O2,..., ON) on the basis of an input clock signal and a control signal; - a phase detector configured to perform a phase comparison between the input clock signal and one of the output clock signals (O1, O2,..., ON) and to generate a first detector signal at a first detector output and a second detector signal at a second detector output based on the phase comparison; - wherein the phase detector is configured to perform the phase comparison with respect to a target phase difference between the two clock signals, the first detector signal takes a value different from zero, representing logic 1, if the phase difference between the input clock signal and the last output clock signal is larger than the target phase and logic 0 otherwise, and the second detector signal takes a value different from zero representing logic 1 when the phase difference between the input clock signal and the last output clock signal is smaller than the target phase; - an operational transconductance amplifier, comprising a first amplifier input coupled to the first detector output, a second amplifier input coupled to the second detector output, and an amplifier output; and - a loop filter with an input coupled to the amplifier output and with an output for supplying the control signal.
A gas turbine combustion chamber assembly comprising: an inner metal casing; an outer metal casing; an annular combustion chamber having an inner wall and an outer wall of ceramic matrix composite material and a chamber end wall connected to the inner and outer walls; and elastically-deformable link elements (17, 27) connecting the inner wall and the outer wall of the chamber respectively to the inner metal casing and to the outer metal casing, the assembly being characterized in that each of the inner and outer walls (10, 20) of the chamber is subdivided circumferentially into adjacent sectors (100, 200) along longitudinal edges, each sector extending continuously from the chamber end wall to the opposite end of the chamber, each sector being folded outwards from the chamber via each of its longitudinal edges so as to form a channel-section portion, each terminated by a folded-back margin (102, 202) that is spaced apart from the outer face of the corresponding chamber wall, and the link elements (17, 27) are connected to the inner and outer walls of the chamber by being fastened to the margins of the sectors. an inner metal casing; an outer metal casing; an annular combustion chamber having an inner wall and an outer wall of ceramic matrix composite material and a chamber end wall connected to the inner and outer walls; and elastically-deformable link elements (17, 27) connecting the inner wall and the outer wall of the chamber respectively to the inner metal casing and to the outer metal casing, the assembly being characterized in that each of the inner and outer walls (10, 20) of the chamber is subdivided circumferentially into adjacent sectors (100, 200) along longitudinal edges, each sector extending continuously from the chamber end wall to the opposite end of the chamber, each sector being folded outwards from the chamber via each of its longitudinal edges so as to form a channel-section portion, each terminated by a folded-back margin (102, 202) that is spaced apart from the outer face of the corresponding chamber wall, and the link elements (17, 27) are connected to the inner and outer walls of the chamber by being fastened to the margins of the sectors.
System for treatment of engine exhaust gas from an engine, which engine exhaust gas has a temperature of between T 1 and T 2, the system comprising a SCR reactor for converting NO x contained in a medium containing the engine exhaust gas into N 2 and H 2 O, the SCR reactor having an inlet for receiving the medium and an outlet for outputting the NO x reduced medium (M-NO x), characterized in further comprising a mixing unit and a first boiler unit, the first boiler unit having a first outlet for outputting boiler exhaust gas from the first boiler unit, which boiler exhaust gas has a temperature of T 3 or more, T 3 >T 1, the mixing unit being arranged to mix the engine exhaust gas with the boiler exhaust gas to produce said medium, the mixing unit having a first inlet communicating with the engine for receiving the engine exhaust gas, a second inlet communicating with the first outlet of the first boiler unit for receiving the boiler exhaust gas and an outlet for outputting said medium, the outlet of the mixing unit communicating with the inlet of the SCR reactor.
Method for the identification of structural parts to be exchanged of a medical device comprising in each case a plurality of structural parts, in particular an MR device, with the following method steps: - reading-in of an error message (fm) from the device; - execution of an identification algorithm for calculating and outputting an exchange data set (ad) identifying a structural part to be exchanged for the read-in error message (fm), wherein the identification algorithm with the read-in error message (fm) accesses a database system in which error patterns (fmu) with exchange data sets are stored which have been calculated from a simulation model in order to calculate as the result the exchange data set (ad) associated with the read-in error message (fm), wherein in the database system error patterns (fmu) are stored which are generated automatically by means of an error pattern generation unit, wherein the error pattern generation unit is embodied to execute a machine-learning method based on a simulation model that enables the continuous learning and storage of error patterns (fmu) by the correlation of input variables (e), wherein in each case an error pattern (fmu) comprises an association between an error type or a combination of error types and an exchange data set (ad) indicating a structural part to be exchanged and wherein the database system or the error pattern generation unit comprises a processor to generate the error pattern (fmu) or interacts therewith, wherein the processor is embodied for generating the error pattern (fmu) for applying Markov processes. - reading-in of an error message (fm) from the device; - execution of an identification algorithm for calculating and outputting an exchange data set (ad) identifying a structural part to be exchanged for the read-in error message (fm), wherein the identification algorithm with the read-in error message (fm) accesses a database system in which error patterns (fmu) with exchange data sets are stored which have been calculated from a simulation model in order to calculate as the result the exchange data set (ad) associated with the read-in error message (fm), wherein in the database system error patterns (fmu) are stored which are generated automatically by means of an error pattern generation unit, wherein the error pattern generation unit is embodied to execute a machine-learning method based on a simulation model that enables the continuous learning and storage of error patterns (fmu) by the correlation of input variables (e), wherein in each case an error pattern (fmu) comprises an association between an error type or a combination of error types and an exchange data set (ad) indicating a structural part to be exchanged and wherein the database system or the error pattern generation unit comprises a processor to generate the error pattern (fmu) or interacts therewith, wherein the processor is embodied for generating the error pattern (fmu) for applying Markov processes.
A stainless steel comprising: a chemical composition containing, in mass%, C: 0.005% to 0.050%, Si: 0.01% to 0.75%, Mn: 0.01% to 1.0%, P: 0.040% or less, S: 0.010% or less, Cr: 15.5% to 18.0%, Ni: 0.01% to 0.6%, Al: 0.001 % to 0.03%, N: 0.005% to 0.06%, optionally one or more selected from Cu: 0.1% to 1.0%, Mo: 0.1% to 0.5%, and Co: 0.01% to 0.5%, and optionally one or more selected from V: 0.01% to 0.05%, Ti: 0.001% to 0.05%, Ca: 0.0002% to 0.0020%, Mg: 0.0002% to 0.0050%, B: 0.0002% to 0.0050%, and REM: 0.01% to 0.10%, with the balance being Fe and incidental impurities; and a microstructure containing a martensite phase of 1% to 5% in volume fraction with respect to a whole volume of the microstructure, with the balance being a ferrite phase, wherein mean elongation after fracture is 25% or more, in-plane anisotropy of elongation after fracture |ΔEl is 3% or less, mean Lankford value is 0.70 or more, in-plane anisotropy of Lankford value |Ar| is 0.30 or less, and ridging height is 2.5 μm or less, with the proviso that the steel is not a steel as disclosed in Examples Nos. 1, 14, 43 and 44 of EP 3 093 362 A1, wherein the mean elongation after fracture, the in-plane anisotropy of elongation after fracture, mean Lankford value and in-plane anisotropy of Lankford value are measured according to paragraph 0012 of the description; wherein the ridging height is measured according to paragraph 0013 of the description. C: 0.005% to 0.050%, Si: 0.01% to 0.75%, Mn: 0.01% to 1.0%, P: 0.040% or less, S: 0.010% or less, Cr: 15.5% to 18.0%, Ni: 0.01% to 0.6%, Al: 0.001 % to 0.03%, N: 0.005% to 0.06%, optionally one or more selected from Cu: 0.1% to 1.0%, Mo: 0.1% to 0.5%, and Co: 0.01% to 0.5%, and optionally one or more selected from V: 0.01% to 0.05%, Ti: 0.001% to 0.05%, Ca: 0.0002% to 0.0020%, Mg: 0.0002% to 0.0050%, B: 0.0002% to 0.0050%, and REM: 0.01% to 0.10%, with the balance being Fe and incidental impurities; and a microstructure containing a martensite phase of 1% to 5% in volume fraction with respect to a whole volume of the microstructure, with the balance being a ferrite phase, wherein mean elongation after fracture is 25% or more, in-plane anisotropy of elongation after fracture |ΔEl is 3% or less, mean Lankford value is 0.70 or more, in-plane anisotropy of Lankford value |Ar| is 0.30 or less, and ridging height is 2.5 μm or less, with the proviso that the steel is not a steel as disclosed in Examples Nos. 1, 14, 43 and 44 of EP 3 093 362 A1, wherein the mean elongation after fracture, the in-plane anisotropy of elongation after fracture, mean Lankford value and in-plane anisotropy of Lankford value are measured according to paragraph 0012 of the description; wherein the ridging height is measured according to paragraph 0013 of the description.