mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a high strength coated steel sheet having an improved ductility and an improved formability, the sheet having a yield strength YS of at least 800 MPa, a tensile strength TS of at least 1180 MPa, a total elongation of at least 14% and a hole expansion ratio HER, measured according to ISO standard 16630:2009, of at least 30%, by heat treating and coating a steel sheet wherein the chemical composition of the steel contains: 0.13% ≤ C ≤ 0.22% 1.9% ≤ Si ≤ 2.3% 2.4% ≤ Mn ≤ 3% Al ≤0.5% Ti ≤ 0.05 % Nb ≤ 0.05 % the remainder being Fe and unavoidable impurities, including less than 0.05% Ni, less than 0.05% Cr, less than 0.02% Mo, less than 0.03 % Cu, less than 0.007% V, less than 0.0010% B, less than 0.007 % S, less than 0.02% P and less than 0.010% N, and wherein the heat treatment and the coating comprise the following steps: - annealing the sheet at an annealing temperature TA higher than Ac3 but less than 1000°C for a time of more than 30 s, - quenching the sheet by cooling it down to a quenching temperature QT between 200°C and 280°C, at a cooling speed sufficient to obtain a structure consisting of austenite and at least 50% of martensite, the austenite content being such that the final structure i.e. after treatment, coating and cooling to the room temperature, contains between 3% and 15% of residual austenite and between 85% and 97% of the sum of martensite and bainite, without ferrite, - heating the sheet up to a partitioning temperature PT between 430°C and 490°C and maintaining the sheet at this temperature for a partitioning time Pt between 10 s and 100 s, this step being a partitioning step, and, during partitioning, the temperature of the sheet remaining between PT - 20°C and PT + 20°C or linearly decreasing from the temperature of reheating to a temperature between 455°C and 465°C, - hot dip coating the sheet and, - cooling the sheet down to the room temperature. 0.13% ≤ C ≤ 0.22% 1.9% ≤ Si ≤ 2.3% 2.4% ≤ Mn ≤ 3% Al ≤0.5% Ti ≤ 0.05 % Nb ≤ 0.05 % - annealing the sheet at an annealing temperature TA higher than Ac3 but less than 1000°C for a time of more than 30 s, - quenching the sheet by cooling it down to a quenching temperature QT between 200°C and 280°C, at a cooling speed sufficient to obtain a structure consisting of austenite and at least 50% of martensite, the austenite content being such that the final structure i.e. after treatment, coating and cooling to the room temperature, contains between 3% and 15% of residual austenite and between 85% and 97% of the sum of martensite and bainite, without ferrite, - heating the sheet up to a partitioning temperature PT between 430°C and 490°C and maintaining the sheet at this temperature for a partitioning time Pt between 10 s and 100 s, this step being a partitioning step, and, during partitioning, the temperature of the sheet remaining between PT - 20°C and PT + 20°C or linearly decreasing from the temperature of reheating to a temperature between 455°C and 465°C, - hot dip coating the sheet and, - cooling the sheet down to the room temperature.
A plasma device configured to receive ionizable media, comprising: a first pair of dielectric substrates 51, 52) each having an inner surface (55a, 57a) and an outer surface (55b, 57b), the first pair of dielectric substrates 51, 52) disposed in spaced, parallel relation relative to one another with the inner surfaces (55a, 57a) thereof facing one another; characterised in that the plasma device further comprises a first pair of spiral coils (54, 56) each disposed on the inner surface (55a, 57a) of the dielectric substrates, wherein the first pair of spiral coils (54, 56) is configured to couple to a power source and configured to inductively couple to an ionizable media passed therebetween to ignite the ionizable media to form a plasma effluent. a first pair of dielectric substrates 51, 52) each having an inner surface (55a, 57a) and an outer surface (55b, 57b), the first pair of dielectric substrates 51, 52) disposed in spaced, parallel relation relative to one another with the inner surfaces (55a, 57a) thereof facing one another; characterised in that the plasma device further comprises a first pair of spiral coils (54, 56) each disposed on the inner surface (55a, 57a) of the dielectric substrates, wherein the first pair of spiral coils (54, 56) is configured to couple to a power source and configured to inductively couple to an ionizable media passed therebetween to ignite the ionizable media to form a plasma effluent.
A bottom hole assembly comprising: a drill collar, a power source, comprising: a dynamically variable displacement axial piston pump (400,70) having a dynamically adjustable swash plate, and a drilling mud powered fluid turbine that drives an input shaft of the dynamically variable displacement axial piston pump (400,70), and a microcontroller assembly comprising: a processor, a nonvolatile memory element, and a program stored in the nonvolatile memory configured to control the amplitude of the power source output by changing the angle of the dynamically adjustable swash plate of the dynamically variable displacement axial piston pump (400,70), wherein the dynamically variable displacement axial piston pump (400,70) includes: a rotating cylinder driven by the input shaft, the rotating cylinder being configured with two or more pistons which are symmetrically arranged in the rotating cylinder, wherein the two or more pistons are configured to reciprocate in a direction that is parallel to an axis of rotation of the rotating cylinder, and one end of each of the two or more pistons ends with a slipper cup that contacts and slides on the face of the dynamically adjustable swash plate. a drill collar, a power source, comprising: a dynamically variable displacement axial piston pump (400,70) having a dynamically adjustable swash plate, and a drilling mud powered fluid turbine that drives an input shaft of the dynamically variable displacement axial piston pump (400,70), and a dynamically variable displacement axial piston pump (400,70) having a dynamically adjustable swash plate, and a drilling mud powered fluid turbine that drives an input shaft of the dynamically variable displacement axial piston pump (400,70), and a microcontroller assembly comprising: a processor, a nonvolatile memory element, and a program stored in the nonvolatile memory configured to control the amplitude of the power source output by changing the angle of the dynamically adjustable swash plate of the dynamically variable displacement axial piston pump (400,70), a processor, a nonvolatile memory element, and a program stored in the nonvolatile memory configured to control the amplitude of the power source output by changing the angle of the dynamically adjustable swash plate of the dynamically variable displacement axial piston pump (400,70), wherein the dynamically variable displacement axial piston pump (400,70) includes: a rotating cylinder driven by the input shaft, the rotating cylinder being configured with two or more pistons which are symmetrically arranged in the rotating cylinder, wherein the two or more pistons are configured to reciprocate in a direction that is parallel to an axis of rotation of the rotating cylinder, and one end of each of the two or more pistons ends with a slipper cup that contacts and slides on the face of the dynamically adjustable swash plate.
A method performed by a wireless device for determining a time-domain resource allocated to the wireless device by a network node for a scheduled transmission in downlink, the method comprising: obtaining first information available to both the wireless device and the network node, selecting a time-domain resource allocation table from multiple different time-domain resource allocation tables based on the first information, wherein a time domain resource allocation table is defined by a plurality of entries each specifying a different combination of starting orthogonal frequency division multiplexing, OFDM, symbol and duration in OFDM symbols for a time-domain resource allocation, determining a time-domain resource allocation entry within the selected time-domain resource allocation table based on a time-domain resource allocation field in a downlink control information, DCI, received from the network node, wherein the first information is distinct from information in the time-domain resource allocation field of the DCI. obtaining first information available to both the wireless device and the network node, selecting a time-domain resource allocation table from multiple different time-domain resource allocation tables based on the first information, wherein a time domain resource allocation table is defined by a plurality of entries each specifying a different combination of starting orthogonal frequency division multiplexing, OFDM, symbol and duration in OFDM symbols for a time-domain resource allocation, determining a time-domain resource allocation entry within the selected time-domain resource allocation table based on a time-domain resource allocation field in a downlink control information, DCI, received from the network node, wherein the first information is distinct from information in the time-domain resource allocation field of the DCI.
A microfluidic device comprising: (a) cell culture compartments, in which (i) induced pluripotent stem cell (iPSC)-derived hepatocyte precursor cells; (ii) iPSC-derived intestinal precursor cells; (iii) iPSC-derived renal tubular precursor cells; and (iv) iPSC-derived neuronal precursor cells, are separately deposited; wherein the iPSC-derived precursor cells according to (i), (ii), (iii), and (iv) are obtained from a single donor of iPSC obtained from a single type of somatic cell; and (b) further comprising a reservoir compartment, which serves to add nutrient solution to the system. (a) cell culture compartments, in which (i) induced pluripotent stem cell (iPSC)-derived hepatocyte precursor cells; (ii) iPSC-derived intestinal precursor cells; (iii) iPSC-derived renal tubular precursor cells; and (iv) iPSC-derived neuronal precursor cells, are separately deposited; wherein the iPSC-derived precursor cells according to (i), (ii), (iii), and (iv) are obtained from a single donor of iPSC obtained from a single type of somatic cell; and (i) induced pluripotent stem cell (iPSC)-derived hepatocyte precursor cells; (ii) iPSC-derived intestinal precursor cells; (iii) iPSC-derived renal tubular precursor cells; and (iv) iPSC-derived neuronal precursor cells, are separately deposited; wherein the iPSC-derived precursor cells according to (i), (ii), (iii), and (iv) are obtained from a single donor of iPSC obtained from a single type of somatic cell; and are separately deposited; wherein the iPSC-derived precursor cells according to (i), (ii), (iii), and (iv) are obtained from a single donor of iPSC obtained from a single type of somatic cell; and (b) further comprising a reservoir compartment, which serves to add nutrient solution to the system.
A method for protecting a plant from plant diseases which comprises treating a seed of a plant or a bulb of a plant with an α-methoxyphenylacetic acid compound represented by formula:
Pistol with a handle piece and a slide which is movable thereon along guides and has a barrel, with a blocking device, provided in the handle piece, for the forward movement of the barrel, which blocking device has a retaining platelet, which is movable in a slot and is under the action of a spring, for a barrel projection, characterized in that a spring platelet is provided in the slot between the spring and the retaining platelet, which spring platelet is designed such that it can be partially extracted from the slot transversely with respect to the centre plane of the pistol and, in this position, is pivotable, together with the retaining platelet, against the force of the spring, with the result that the retaining platelet passes out of the movement path of the barrel projection.
A sanitary fitting, at least comprising: - a shower head, - at least one feed inlet, via which the shower head can be connected to a liquid source, - a plurality of diaphragm valves (4, 5, 6) each having an outlet (8, 9, 10), each having a diaphragm for controlling the respective outlet (8, 9, 10) and each having a counter-pressure chamber connected to the at least one feed inlet, wherein the plurality of diaphragm valves (4, 5, 6) is arranged in the shower head, and - a controller for controlling the plurality of diaphragm valves (4, 5, 6), wherein the controller has a plurality of control channels (13, 14, 15), characterized in that the control channels (13, 14, 15) each have a control valve (16, 17, 18) and connect the counter-pressure chambers of the diaphragm valves (4, 5, 6) to the at least one feed inlet, bypassing the diaphragms. - a shower head, - at least one feed inlet, via which the shower head can be connected to a liquid source, - a plurality of diaphragm valves (4, 5, 6) each having an outlet (8, 9, 10), each having a diaphragm for controlling the respective outlet (8, 9, 10) and each having a counter-pressure chamber connected to the at least one feed inlet, wherein the plurality of diaphragm valves (4, 5, 6) is arranged in the shower head, and - a controller for controlling the plurality of diaphragm valves (4, 5, 6), wherein the controller has a plurality of control channels (13, 14, 15),
A measurement apparatus, comprising: a flow channel device including a first flow channel, a second flow channel, and a narrow channel through which particles pass by a flow of a fluid from the first flow channel to the second flow channel, and a measurement electrode section comprising electrodes (21, 22) provided in the vicinity of the narrow channel; a flow control mechanism configured to pump a fluid not containing the particles to an input of the second flow channel, and to pump a fluid containing the particles to an input of the first flow channel; a generation section that generates, in the flow channel device, an AC voltage, the AC voltage being generated in the measurement electrode section between the electrodes (21, 22); and a measurement section that measures, while the AC voltage is applied to the measurement electrode section, at least the conductance between the electrodes (21, 22) obtained when the particles pass through the narrow channel, wherein the AC voltage has a frequency that is higher than a characteristic frequency defined by a conductance of the fluid including the particles in the narrow channel and an electrical double layer capacitance formed by the measurement electrode section and is within a range such that the measured conductance reflects a size of the particles, and wherein the flow channel device is configured such that the fluid flow in the second flow channel includes a velocity component orthogonal to the flow direction of the fluid including the particle in the narrow channel. a flow channel device including a first flow channel, a second flow channel, and a narrow channel through which particles pass by a flow of a fluid from the first flow channel to the second flow channel, and a measurement electrode section comprising electrodes (21, 22) provided in the vicinity of the narrow channel; a flow control mechanism configured to pump a fluid not containing the particles to an input of the second flow channel, and to pump a fluid containing the particles to an input of the first flow channel; a generation section that generates, in the flow channel device, an AC voltage, the AC voltage being generated in the measurement electrode section between the electrodes (21, 22); and a measurement section that measures, while the AC voltage is applied to the measurement electrode section, at least the conductance between the electrodes (21, 22) obtained when the particles pass through the narrow channel, wherein the AC voltage has a frequency that is higher than a characteristic frequency defined by a conductance of the fluid including the particles in the narrow channel and an electrical double layer capacitance formed by the measurement electrode section and is within a range such that the measured conductance reflects a size of the particles, and wherein the flow channel device is configured such that the fluid flow in the second flow channel includes a velocity component orthogonal to the flow direction of the fluid including the particle in the narrow channel.
An apparatus for handling telephone calls which comprises: means for configuring the operation of the apparatus based on user preferences relating to the handling of calls from particular callers, means for storing the user preferences in a preference database, means for processing incoming calls based on the user preferences, means for answering an incoming call from a caller; means for requiring unknown callers to press a button in order to continue with the call; means for announcing information relating to said incoming caller to the user, wherein said announcement includes a spoken message; means for enabling the user to select, during said incoming call from the caller, one of a plurality of call handling options relating to the handling of that call, and means for classifying without further intervention from the user the incoming call into one of a plurality of respective categories on the basis of that call handling option that has been selected by the user from said plurality of call handling options, said classification being stored as a user preference in the preference database, whereby future calls from said caller are handled in accordance with the call handling option that has been selected by the user for that call.
A method of wireless communication by a user equipment, comprising: detecting a layer one, L1, event associated with at least one of a primary cell, PCell, serving the UE or a primary secondary cell, PSCell, serving the UE; triggering, in response to detecting the L1 event, a beam recovery procedure for at least one of the PCell or the PSCell, wherein triggering the beam recovery procedure includes transmitting a reconfiguration request via an additional secondary cell, SCell, to reconfigure at least one beam for at least one of the PCell or the PSCell; receiving request information via the additional SCell requesting identification information of the at least one beam to reconfigure; transmitting, in response to receiving the request information, the requested identification information of the at least one beam to reconfigure; receiving, in response to transmitting the requested identification information, reconfiguration information for the at least one beam; and communicating, based on the reconfiguration information, with at least one of the PCell or the PSCell using the at least one beam. detecting a layer one, L1, event associated with at least one of a primary cell, PCell, serving the UE or a primary secondary cell, PSCell, serving the UE; triggering, in response to detecting the L1 event, a beam recovery procedure for at least one of the PCell or the PSCell, wherein triggering the beam recovery procedure includes transmitting a reconfiguration request via an additional secondary cell, SCell, to reconfigure at least one beam for at least one of the PCell or the PSCell; receiving request information via the additional SCell requesting identification information of the at least one beam to reconfigure; transmitting, in response to receiving the request information, the requested identification information of the at least one beam to reconfigure; receiving, in response to transmitting the requested identification information, reconfiguration information for the at least one beam; and communicating, based on the reconfiguration information, with at least one of the PCell or the PSCell using the at least one beam.
A vascular implant delivery device, comprising: a body; a syringe attachment formed in the body; an outer sheath extending from the body, wherein the outer sheath comprises an inner surface, a lumen and a distal end configured to receive a vascular implant; an inner carrier catheter slidably disposed within the outer sheath, to carry the vascular implant radially between the inner catheter and the outer sheath; and characterized by: at least three implant support structures extending along the length of the outer sheath radially inward from the distal end of the outer sheath, wherein the implant support structures are configured to support and guide the vascular implant moving through the outer sheath; and the outer sheath further comprises at least three longitudinal voids formed in the inner surface of the outer sheath; each implant support structure being formed between adjacent longitudinal voids. a body; a syringe attachment formed in the body; an outer sheath extending from the body, wherein the outer sheath comprises an inner surface, a lumen and a distal end configured to receive a vascular implant; an inner carrier catheter slidably disposed within the outer sheath, to carry the vascular implant radially between the inner catheter and the outer sheath; at least three implant support structures extending along the length of the outer sheath radially inward from the distal end of the outer sheath, wherein the implant support structures are configured to support and guide the vascular implant moving through the outer sheath; and the outer sheath further comprises at least three longitudinal voids formed in the inner surface of the outer sheath; each implant support structure being formed between adjacent longitudinal voids.
A liquid medicine administration device comprising: a drive mechanism that advances a plunger that pushes a liquid medicine from a liquid medicine container filled with the liquid medicine toward a distal end opening of the liquid medicine container; and a control unit that controls operation of the drive mechanism, wherein the drive mechanism includes a motor that applies, to the plunger, a drive force for advancing the plunger, and a rotation detection unit that detects a rotation of the motor, and when driving the drive mechanism, the control unit starts the rotation detection unit after starting the motor, characterized in that the control unit starts the motor and, then, after a current supplied to the motor is stabilized, starts the rotation detection unit. the drive mechanism includes a motor that applies, to the plunger, a drive force for advancing the plunger, and a rotation detection unit that detects a rotation of the motor, and when driving the drive mechanism, the control unit starts the rotation detection unit after starting the motor, characterized in that the control unit starts the motor and, then, after a current supplied to the motor is stabilized, starts the rotation detection unit.
A cover for an identification document, wherein the cover has at least one material recess, characterized in that at least one material recess has different depths in its extension over its length.
A patient support apparatus comprising a foam frame defining a space; a bladder assembly positioned in the space, the bladder assembly including a plurality of foam-filled bladders (96, 98, 100, 102, 104, 106, 107, 108), each of the foam filled bladders (96, 98, 100, 102, 104, 106, 107, 108) interconnected by a manifold, the manifold having an unpowered relief valve configured to release air from the bladder assembly if the pressure in the bladder assembly exceeds a predetermined limit of the relief valve; and a cover (82, 84) enclosing the foam frame and the bladder assembly, the cover (82, 84) adapted to engage an articulated frame to control movement of portions of the foam frame and the bladder assembly in response to movement of the articulated frame, characterised in that the cover (82, 84) includes a plurality of knobs (174, 176, 178, 180) extending from a bottom surface of the cover (82, 84), the plurality of knobs (174, 176, 178, 180) adapted to be received in receivers (188, 196) formed in portions of the articulated frame to secure the cover (82, 84) to the articulated frame at a plurality of points.