mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a high-strength steel sheet, the method comprising hot rolling and annealing by using a continuous annealing method a steel sheet having a chemical composition consisting of, by mass%, C: 0.03% or more and 0.35% or less, Si: 0.01% or more and 0.50% or less, Mn: 3.6% or more and 8.0% or less, Al: 0.01% or more and 1.0% or less, P: 0.10% or less, S: 0.010% or less, optionally one or more chemical elements selected from among B: 0.001% or more and 0.005% or less, Nb: 0.005% or more and 0.05% or less, Ti: 0.005% or more and 0.05% or less, Cr: 0.001% or more and 1.0% or less, Mo: 0.05% or more and 1.0% or less, Cu: 0.05% or more and 1.0% or less, Ni: 0.05% or more and 1.0% or less, Sn: 0.001% or more and 0.20% or less, Sb: 0.001% or more and 0.20% or less, Ta: 0.001% or more and 0.10% or less, W: 0.001% or more and 0.10% or less, and V: 0.001% or more and 0.10% or less, and the balance being Fe and inevitable impurities, wherein the upper limit of the content of chemical elements other than those mentioned above is 0.10 mass%, and wherein the continuous annealing method comprises performing a heating process at a heating rate of 7°C/sec. or more in a temperature range in the annealing furnace of 450°C or higher and A°C or lower, controlling the maximum end-point temperature of a steel sheet in the annealing furnace to be 600°C or higher and 700°C or lower, controlling the traveling time of the steel sheet in a steel sheet temperature range of 600°C or higher and 700°C or lower to be 30 seconds or more and 10 minutes or less, and controlling the dew point of the atmosphere in a steel sheet temperature range of 600°C or higher and 700°C or lower to be -40°C or lower, where A: 500 ≤ A ≤ 600.
A method for evaluating available conditions of a data path between two end nodes in a data communications network by means of an active measurement process comprising one or more measurement sessions of the data path for determining a measurement result, wherein probe packets are injected at a specified rate at one end node and then observing the changes in the rate at another end node, in a session one of the end nodes is sending probe packet sequences and the other node is receiving said probe packet sequences, the probe packet sending node comprises an interface having one upstream maximum bandwidth capacity and one downstream maximum bandwidth capacity, the method comprising: - Performing a measurement session of said data path for determining a measurement result; - Estimating one or more available conditions of a data path using the measurement result and one or more initial parameter values as input in a calculation algorithm; the method further comprising: - Setting one initial parameter value for the calculation to a maximum bandwidth capacity based on the lowest bandwidth capacity value of the interfaces of both nodes sending said probe packet sequences during said measurement session, wherein the lowest bandwidth capacity value is the lowest of said bandwidth values of the interfaces.. - Performing a measurement session of said data path for determining a measurement result; - Estimating one or more available conditions of a data path using the measurement result and one or more initial parameter values as input in a calculation algorithm; - Setting one initial parameter value for the calculation to a maximum bandwidth capacity based on the lowest bandwidth capacity value of the interfaces of both nodes sending said probe packet sequences during said measurement session, wherein the lowest bandwidth capacity value is the lowest of said bandwidth values of the interfaces..
A system comprising: a user equipment configured to virtualize a cellular connection established with a mobile network operator based on a first subscriber identity as a virtual wireless local area network, WLAN, access point for use by one or more processes executing at the user equipment that are associated with a second subscriber identity.
Gearless belt conveyor drive system comprising • a motor drive with • a motor base frame, • a torque arm mounted on the motor base frame or a conveyor baseplate, • a rotationally symmetrical stator (7, 14) of a synchronous motor being fixedly held by the torque arm, • a rotationally symmetrical rotor casing containing permanent magnet elements of the rotor of the synchronous motor, where the rotor casing is directly mountable on a front end of a cylindrical belt conveyor pulley so that the permanent magnet elements of the rotor are rotary around the stator and so that the symmetry axis of the rotor casing and the symmetry axis of the stator are aligned with each other and with the longitudinal axis of the belt conveyor pulley, • a cylindrical belt conveyor pulley which is mounted so as to be rotary around its longitudinal axis, • at least one flange (3, 13) for fixedly connecting the belt conveyor pulley and the rotor casing of the motor drive, • wherein the motor drive is placed not inside the body of the belt conveyor pulley, characterized in that the motor base frame is arranged to be slidable alongside a rail from an operating position to a servicing position and to be fixed to the conveyor baseplate in the operating position. • a motor drive with • a motor base frame, • a torque arm mounted on the motor base frame or a conveyor baseplate, • a rotationally symmetrical stator (7, 14) of a synchronous motor being fixedly held by the torque arm, • a rotationally symmetrical rotor casing containing permanent magnet elements of the rotor of the synchronous motor, where the rotor casing is directly mountable on a front end of a cylindrical belt conveyor pulley so that the permanent magnet elements of the rotor are rotary around the stator and so that the symmetry axis of the rotor casing and the symmetry axis of the stator are aligned with each other and with the longitudinal axis of the belt conveyor pulley, • a motor base frame, • a torque arm mounted on the motor base frame or a conveyor baseplate, • a rotationally symmetrical stator (7, 14) of a synchronous motor being fixedly held by the torque arm, • a rotationally symmetrical rotor casing containing permanent magnet elements of the rotor of the synchronous motor, where the rotor casing is directly mountable on a front end of a cylindrical belt conveyor pulley so that the permanent magnet elements of the rotor are rotary around the stator and so that the symmetry axis of the rotor casing and the symmetry axis of the stator are aligned with each other and with the longitudinal axis of the belt conveyor pulley, • a cylindrical belt conveyor pulley which is mounted so as to be rotary around its longitudinal axis, • at least one flange (3, 13) for fixedly connecting the belt conveyor pulley and the rotor casing of the motor drive, • wherein the motor drive is placed not inside the body of the belt conveyor pulley, characterized in that the motor base frame is arranged to be slidable alongside a rail from an operating position to a servicing position and to be fixed to the conveyor baseplate in the operating position.
A power transmitting unit, comprising: a signal generator configured to generate a signal of a first frequency band for wireless charging; a power generation circuit configured to generate a modulation signal for modulating the signal of the first frequency band generated by the signal generator, and amplify a transmit power of the signal of the first frequency band based on voltage supplied from outside of the power transmitting unit; a power transmission circuit configured to transmit the amplified transmit power to a power receiving unit via a first antenna; a second antenna configured to receive information about a charging state from the power receiving unit through a second frequency band, wherein the charging state comprises a voltage value of a rectifier capacitor of the power receiving unit; and characterised in that it further comprises a control circuit configured to control a duty and frequency of the modulation signal based on the charging state, wherein the frequency of the modulated signal is controlled based on the voltage value of the rectifier capacitor. a signal generator configured to generate a signal of a first frequency band for wireless charging; a power generation circuit configured to generate a modulation signal for modulating the signal of the first frequency band generated by the signal generator, and amplify a transmit power of the signal of the first frequency band based on voltage supplied from outside of the power transmitting unit; a power transmission circuit configured to transmit the amplified transmit power to a power receiving unit via a first antenna; a second antenna configured to receive information about a charging state from the power receiving unit through a second frequency band, wherein the charging state comprises a voltage value of a rectifier capacitor of the power receiving unit; and characterised in that it further comprises a control circuit configured to control a duty and frequency of the modulation signal based on the charging state, wherein the frequency of the modulated signal is controlled based on the voltage value of the rectifier capacitor.
Use of a control device comprising a microprocessor and one or more model calculating units as a control device for controlling an engine system in a motor vehicle, wherein the model calculating unit is designed for selectively calculating an RBF model or a neuron layer of a multilayer perceptron model with a hardwired computing core (11, 13, 14) formed in hardware for calculating a fixedly predefined computing algorithm in coupled functional blocks, wherein the computing core (11, 13, 14) is designed to calculate an output variable (y) for an RBF model depending on one or more input variables of an input variable vector (ut), node points, length scales, and parameters predefined for each node point, wherein the computing core (11, 13, 14) is furthermore designed to calculate, for the neuron layer of the multilayer perceptron model having a number of neurons, an output variable for each neuron depending on the one or more input variables of the input variable vector (ut), a weighting matrix having weighting factors (v 0...p7-1,0...p6-1), and an offset value predefined for each neuron, and wherein the computing core (11, 13, 14) is designed to carry out the selection of the calculation of the RBF model or the neuron layer of the multilayer perceptron model with the aid of a selection variable (cfg_mlp), wherein the control device is configured to provide detected sensor signals as input variable vector (ut) and to control the engine system depending on the calculated output variable (y). wherein the computing core (11, 13, 14) is designed to carry out the selection of the calculation of the RBF model or the neuron layer of the multilayer perceptron model with the aid of a selection variable (cfg_mlp), wherein the control device is configured to provide detected sensor signals as input variable vector (ut) and to control the engine system depending on the calculated output variable (y).
A method in a user equipment for configuring a cell change procedure to be used for handover in a wireless communication network, the user equipment being situated in a serving cell, the user equipment comprising a list of active set of cells, which list of active set of cells comprises a list of cells to which the user equipment can move from the serving cell, the method comprising; - sending a measurement report to a network controller comprised in the wireless communication network informing the network controller it can add at least one further cell to an active set; - receiving an active set update from the network controller, the active set update comprising information about at least one further cell to be added to the active set and wherein the active set update further comprising an information element indicating whether the at least one further cell is to be added to a list of cells to which a modified cell change procedure shall be used for handover; - detecting a neighbour cell which is stronger than a current serving cell; - matching the detected stronger neighbour cell with the received list of modified cell change procedure cells; and - applying the modified cell change procedure for the handover to the stronger neighbour cell if the stronger neighbour cell is found matching a cell on the list. - sending a measurement report to a network controller comprised in the wireless communication network informing the network controller it can add at least one further cell to an active set; - receiving an active set update from the network controller, the active set update comprising information about at least one further cell to be added to the active set and wherein the active set update further comprising an information element indicating whether the at least one further cell is to be added to a list of cells to which a modified cell change procedure shall be used for handover; - detecting a neighbour cell which is stronger than a current serving cell; - matching the detected stronger neighbour cell with the received list of modified cell change procedure cells; and - applying the modified cell change procedure for the handover to the stronger neighbour cell if the stronger neighbour cell is found matching a cell on the list.
A projector that is arranged to belong to a multi-projection system that projects an image on a projection surface, the image formed of a plurality of partial images including a first partial image, a second partial image, and a third partial image, the projector comprising: a projection section that is arranged to project the third partial image on the projection surface; and an adjustment instruction section that is arranged to transmit, to a first projector that projects the first partial image, a first adjustment instruction of adjusting a projection area of the first partial image based on a projection area of the third partial image and characterized by the adjustment instruction section being arranged to transmit, to a second projector that projects the second partial image, after transmitting the first adjustment instruction, a second adjustment instruction of adjusting a projection area of the second partial image based on the projection area of the first partial image, wherein a target projection area of the first partial image is in contact and does not overlap with the projection area of the third partial image, wherein a target projection area of the second partial image is in contact and does not overlap with the projection area of the first partial image. a projection section that is arranged to project the third partial image on the projection surface; and an adjustment instruction section that is arranged to transmit, to a first projector that projects the first partial image, a first adjustment instruction of adjusting a projection area of the first partial image based on a projection area of the third partial image and characterized by the adjustment instruction section being arranged to transmit, to a second projector that projects the second partial image, after transmitting the first adjustment instruction, a second adjustment instruction of adjusting a projection area of the second partial image based on the projection area of the first partial image, wherein a target projection area of the first partial image is in contact and does not overlap with the projection area of the third partial image, wherein a target projection area of the second partial image is in contact and does not overlap with the projection area of the first partial image.
Filling system for filling bottles or similar containers with a liquid filling product, with multiple filling points (4.1, 4.2), each of which has at least one filler element (7, 32) and a container holder (8, 8a), and two of which form a respective filling point pair (4, 4a, 4b, 4c), wherein each filler element (7, 32) has a liquid channel in a filler element housing, this channel comprising at least one dispensing opening for dispensing the filling product into the respective container, as well as at least one liquid valve controlling this dispensing, wherein for each filling element, for controlling the filling process, at least one gas path, containing at least one gas path control valve, is provided for the filling points (4.1, 4.2) of each filling point pair (4, 4a, 4b, 4c), as well as at least one lifter device (28, 28a, 28b) for raising and lowering the at least one container holder (8, 8a), characterised in that each lifting device (28a, 28b) comprises at least one pneumatically actuated actuation element, which is connected by a gas path or gas channel to the interior of at least one of the containers, and that the container carriers of the filling points (4.1, 4.2) of each filling point pair (4a, 4b) are configured in each case as a common container carrier, and that this is provided at the lifting device (28a, 28b).
A sealing device having a seal lip (25, 26, 27) which is provided with a first seal lip, a second seal lip and a third seal lip, and which seal lip, in use, is capable of slidably coming into close contact with the other member, and which device is further provided with a low base oil viscosity grease, wherein concavities and convexities are formed on each of the sliding surfaces (25a, 26a, 27a) of said seal lips (25, 26, 27) and the low base oil viscosity grease is supplied to the sliding surfaces (25a, 26a, 27a) of said seal lips (25, 26, 27) and is filled in each of spaces (31, 32) among the three seal lips (25, 26, 27), for simultaneously achieving a reduction of a frictional force in the sliding motion and a suppression of the lip abrasion; characterized in that said concavities and convexities have a magnitude between 1.0 and 3.0 μmRa, and said low base oil viscosity grease is a grease in which a base oil kinetic viscosity at 40°C is between 10 and 40 mm 2 /s.
Process for manufacturing a packaging body made from a track material comprising paper, whereby the packaging body comprises a depression for receiving a good to be packaged, comprising the steps: - prestressing the track material, - fixing the track material between a binder and a die, - moulding the depression into the track material, and - demoulding the moulded depression from the die, characterised in that the prestressing step is performed in the middle of the side of the clamps (3a, 3b) on the track material and a pull roll with two rollers (3c, 3d), whereby the track material is led between the two rollers (3c, 3d). - prestressing the track material, - fixing the track material between a binder and a die, - moulding the depression into the track material, and - demoulding the moulded depression from the die,
A die assembly for extruding a material, comprising: a plurality of die plates (4, 5, 6, 7) coupled together to form a die body having: a passage defining an entrance and an exit, wherein the diameter of the exit is smaller than the diameter of the entrance; and a tapered interior surface between the entrance and the exit; wherein each of the die plates (4, 5, 6, 7) has a center bore with an interior surface around the center bore, an interior surface of a center bore in a first die plate being tapered at a smaller angle relative to an axis of the passage than an interior surface of a center bore in a second die plate positioned adjacent to a front face of the first die plate; and a base coupled to the die body, wherein rotation of the base causes the die body to rotate. a plurality of die plates (4, 5, 6, 7) coupled together to form a die body having: a passage defining an entrance and an exit, wherein the diameter of the exit is smaller than the diameter of the entrance; and a tapered interior surface between the entrance and the exit; a passage defining an entrance and an exit, wherein the diameter of the exit is smaller than the diameter of the entrance; and a tapered interior surface between the entrance and the exit; wherein each of the die plates (4, 5, 6, 7) has a center bore with an interior surface around the center bore, an interior surface of a center bore in a first die plate being tapered at a smaller angle relative to an axis of the passage than an interior surface of a center bore in a second die plate positioned adjacent to a front face of the first die plate; and a base coupled to the die body, wherein rotation of the base causes the die body to rotate.
A system comprising: a memory system (130, 200, 630, and 730) having on-die thermal sensors; a memory controller coupled to the memory system (130, 200, 630, and 730); and a processor (110, 610, 710, and 910) coupled to the memory controller, the processor (110, 610, 710, and 910) or the memory controller configured to use the on-die thermal sensors and thermal models to direct how data is mapped and relocated in the memory system (130, 200, 630, and 730); wherein the thermal models are built using information received from the memory system (130, 200, 630, and 730), the information including one or more of absolute energy, relative energy, power, or power density, as a function of traffic to the memory system (130, 200, 630, and 730). a memory system (130, 200, 630, and 730) having on-die thermal sensors; a memory controller coupled to the memory system (130, 200, 630, and 730); and a processor (110, 610, 710, and 910) coupled to the memory controller, the processor (110, 610, 710, and 910) or the memory controller configured to use the on-die thermal sensors and thermal models to direct how data is mapped and relocated in the memory system (130, 200, 630, and 730); wherein the thermal models are built using information received from the memory system (130, 200, 630, and 730), the information including one or more of absolute energy, relative energy, power, or power density, as a function of traffic to the memory system (130, 200, 630, and 730).
A congestion/overload control method, comprising: learning, by a gateway device, information about a congestion/overload control parameter or policy of a User Equipment, UE, group; and if the congestion/overload control parameter or policy of the UE group is reached or exceeded, rejecting by the gateway device, session management request messages of UEs in the UE group, wherein the rejecting the session management request messages of the UE or the UEs in the UE group comprises: sending a session management reject message carrying first time indication information and a group ID of the UE group to a mobility management element for the mobility management element to select other gateway devices for UEs in the UE group, or reject access request messages of the UEs in the UE group within the time range indicated by the first time indication information.