mhurhangee/ep-ind-claims huggingface dataset:
A phase-locked loop clock generator for a wireless audio system including a communications module which does not provide a low jitter clock reference that can be used simultaneously as an audio sampling clock, the PLL clock generator comprising: a PLL core having an input to receive, from the communications module, a module reference clock signal (BT_CLK, 141) having a first frequency, the PLL core being configured to generate a subsystem data clock signal based, at least in part, on the module reference clock signal; and a data clock tracker module configured to receive, from the communications module, a module data clock signal (BITCLK) having a second frequency that varies in relation to the first frequency, and to determine a data clock correction factor based, at least in part, on the module data clock signal and the subsystem data clock signal, wherein the PLL core is further configured to adjust the subsystem data clock signal based, at least in part, on the data clock correction factor by: incrementing the data clock correction factor responsive to each positive edge of the module data clock signal; and decrementing the data clock correction factor responsive to each positive edge of the subsystem data clock signal. a PLL core having an input to receive, from the communications module, a module reference clock signal (BT_CLK, 141) having a first frequency, the PLL core being configured to generate a subsystem data clock signal based, at least in part, on the module reference clock signal; and a data clock tracker module configured to receive, from the communications module, a module data clock signal (BITCLK) having a second frequency that varies in relation to the first frequency, and to determine a data clock correction factor based, at least in part, on the module data clock signal and the subsystem data clock signal, wherein the PLL core is further configured to adjust the subsystem data clock signal based, at least in part, on the data clock correction factor by: incrementing the data clock correction factor responsive to each positive edge of the module data clock signal; and decrementing the data clock correction factor responsive to each positive edge of the subsystem data clock signal. incrementing the data clock correction factor responsive to each positive edge of the module data clock signal; and decrementing the data clock correction factor responsive to each positive edge of the subsystem data clock signal.
Method for controlling the temperature of a charging cable for a fast charging station for fast charging a battery of a vehicle having an electric drive, comprising the steps heating the charging cable for producing an electrical connection of the charging cable to the vehicle, detecting a connection of the charging cable to the vehicle, ending the heating of the charging cable for the fast charging of the battery of the vehicle, cooling the charging cable during the fast charging, detecting an imminent disconnection of the charging cable from the vehicle, heating the charging cable to disconnect the charging cable from the vehicle. heating the charging cable for producing an electrical connection of the charging cable to the vehicle, detecting a connection of the charging cable to the vehicle, ending the heating of the charging cable for the fast charging of the battery of the vehicle, cooling the charging cable during the fast charging, detecting an imminent disconnection of the charging cable from the vehicle, heating the charging cable to disconnect the charging cable from the vehicle.
A method for identifying a woman having an increased risk of developing venous thrombosis, the method comprises genotyping the woman with respect to at least one of the F9 G32023A polymorphism and the F9 5:32164:6/4 polymorphism, wherein detecting the presence of the genotype AA of the F9 G32023A polymorphism and/or the genotype GT6/GT6 of the F9 5:32164:6/4 polymorphism is indicative for an increased risk for developing venous thrombosis.
A device comprising: a sensor configured to detect a concentration of an analyte selected from the group consisting of molecular oxygen, carbon dioxide, nitric oxides, dissolved analytes in plasma and tissue, and hydrogen ions; a matrix compatible with said sensor, at least a portion of said matrix is at least one of accessible and permeable to said analyte; and a dressing comprising a therapeutic portion and a sensing/diagnostic portion, said sensing/diagnostic portion having said matrix and said sensor; and a single interacting portion including an actuating portion for generating an actuating signal to the dressing and a detecting portion for detecting a response signal from the dressing; wherein said device is configured to emit a signal in response to the concentration of said analyte detected by said sensor by modulation of inelastic scattering of an electromagnetic field, including at least one of phosphorescence, fluorescence, and absorption, wherein said therapeutic portion is configured to deliver at least one of a therapeutic agent, a biomarker, and a diagnostic agent to a tissue surface of a patient; wherein said therapeutic portion further comprises an actuated therapeutic release mechanism configured to release at least one of the therapeutic agent, the biomarker, and the diagnostic agent to tissue surfaces of the patient, wherein said actuated therapeutic release mechanism comprises a light actuated polymeric matrix configured to be responsive to said signal. a sensor configured to detect a concentration of an analyte selected from the group consisting of molecular oxygen, carbon dioxide, nitric oxides, dissolved analytes in plasma and tissue, and hydrogen ions; a matrix compatible with said sensor, at least a portion of said matrix is at least one of accessible and permeable to said analyte; and a dressing comprising a therapeutic portion and a sensing/diagnostic portion, said sensing/diagnostic portion having said matrix and said sensor; and a single interacting portion including an actuating portion for generating an actuating signal to the dressing and a detecting portion for detecting a response signal from the dressing; wherein said device is configured to emit a signal in response to the concentration of said analyte detected by said sensor by modulation of inelastic scattering of an electromagnetic field, including at least one of phosphorescence, fluorescence, and absorption, wherein said therapeutic portion is configured to deliver at least one of a therapeutic agent, a biomarker, and a diagnostic agent to a tissue surface of a patient; wherein said therapeutic portion further comprises an actuated therapeutic release mechanism configured to release at least one of the therapeutic agent, the biomarker, and the diagnostic agent to tissue surfaces of the patient, wherein said actuated therapeutic release mechanism comprises a light actuated polymeric matrix configured to be responsive to said signal.
A process for preparing 3,7-bis(dimethylamino)phenothiazin-5-ylium iodide, this process using phenothiazine as starting product and comprising the following steps: a) treating phenothiazine with diiodine, b) treating the reaction medium directly resulting from step a) with dimethylamine. a) treating phenothiazine with diiodine, b) treating the reaction medium directly resulting from step a) with dimethylamine.
A carriage for arranging a supply unit including a wire supply, comprising wheels disposed thereon, a device for measuring the weight (g) of the supply unit including the wire supply, a device connected with the measuring device for evaluating the measurement values, and a display for displaying the falling below a predetermined residual value (g Rest) of the weight (g) of the wire supply, characterized in that a moveable measurement platform is provided for arranging the supply unit including the wire supply, and that the measuring device is arranged between the measurement platform and a lower platform and is designed for measuring the weight (g) of the supply unit including the wire supply below a threshold value (g s) of the weight (g) of the supply unit including the wire supply and for displaying the maximum measurement value when the weight (g) of the supply unit including the wire supply exceeds the threshold value (g s).
A fitting assembly suitable for use as a drag brace for an aircraft landing gear assembly, comprising: a fitting, which comprises a pocket having a web extending inward from a perimeter of the pocket, the web having an aperture defining an inner edge; characterized in that the fitting assembly further comprises a stiffening insert, comprising: (i) a lattice; and (ii) a coupler configured to engage at least a portion of the web, the coupler coupling the lattice to the web. (i) a lattice; and (ii) a coupler configured to engage at least a portion of the web, the coupler coupling the lattice to the web.
An electric pulse generator for an electroporator having a poring pulse generating means and a transfer pulse generating means, the electric pulse generator comprising, as the poring pulse generating means: an n-stage Cockroft-Walton circuit, wherein n represents any integer of 2 or more; and a circuit that is branched from a branching point of wiring on an output side of the circuit recited in, and comprises: a switching switch that is turned off in a high-voltage mode and turned on in a low-voltage mode, a voltage value for switching between the high-voltage mode and the low-voltage mode being a voltage value in a range of 200 to 1400 V; and a circuit in which m 2 series of m 1 series-connected capacitors are connected in parallel (m 1 represents any integer of 1 or more, and m 2 represents any integer of 2 or more), wherein the switch recited in and the circuit recited in are connected in series, and wiring on an output side of the circuit recited in is merged with wiring on the output side of the circuit recited in on the output side of the branching point, wherein in circuitry constituting the poring pulse generating means, a withstand voltage of the circuit recited in is any value in a range of 1500 to 5000 V in the high-voltage mode, and wherein the circuitry constituting the poring pulse generating means includes only one set of a poring pulse generating direct-current power source and a capacitor charging circuit. an n-stage Cockroft-Walton circuit, wherein n represents any integer of 2 or more; and a circuit that is branched from a branching point of wiring on an output side of the circuit recited in, and comprises: a switching switch that is turned off in a high-voltage mode and turned on in a low-voltage mode, a voltage value for switching between the high-voltage mode and the low-voltage mode being a voltage value in a range of 200 to 1400 V; and a circuit in which m 2 series of m 1 series-connected capacitors are connected in parallel (m 1 represents any integer of 1 or more, and m 2 represents any integer of 2 or more), wherein the switch recited in and the circuit recited in are connected in series, and wiring on an output side of the circuit recited in is merged with wiring on the output side of the circuit recited in on the output side of the branching point, a switching switch that is turned off in a high-voltage mode and turned on in a low-voltage mode, a voltage value for switching between the high-voltage mode and the low-voltage mode being a voltage value in a range of 200 to 1400 V; and a circuit in which m 2 series of m 1 series-connected capacitors are connected in parallel (m 1 represents any integer of 1 or more, and m 2 represents any integer of 2 or more),
Motor vehicle chassis comprising two lateral floor supports and a seat-cushion support part positioned between two lateral raisers fixed on top of the lateral floor supports and assembled with the lateral floor supports, two seat-cushion support reinforcers each assembled with a lateral floor support and with a lateral raiser, each seat-cushion support reinforcer comprising: - a substantially horizontal plate extending the seat-cushion support part laterally, - a supporting leg extending downward from the plate, assembled with the lateral floor support characterized in that the plate is assembled with the lateral raiser along a substantially vertical mating edge of the plate, in that the leg is a single leg and in that its assembly end is positioned in vertical alignment with the plate some distance from a projection onto the horizontal of the mating edge. - a substantially horizontal plate extending the seat-cushion support part laterally, - a supporting leg extending downward from the plate, assembled with the lateral floor support characterized in that the plate is assembled with the lateral raiser along a substantially vertical mating edge of the plate, in that the leg is a single leg and in that its assembly end is positioned in vertical alignment with the plate some distance from a projection onto the horizontal of the mating edge.
A fluid dispenser head for mounting on a dispenser member, such as a pump, and including a bearing surface (16; 41; 34') for actuating the dispenser member, and a spray wall that is perforated with a network of holes through which the fluid under pressure passes so as to be sprayed in small droplets, the dispenser head being characterized in that it further includes a suction chamber (30; 30') of volume that is variable such that the volume of the suction chamber (30; 30') decreases when pressure is exerted on the bearing surface (16; 41; 34') and increases when the pressure on the bearing surface (16; 41; 34') is relaxed.
A photovoltaic cell configured for use in a concentrating photovoltaic system to absorb radiant solar energy and generate electrical power, the photovoltaic cell comprising: a semiconductor wafer having a sunward surface, wherein the sunward surface is the surface of bare semiconductor material or the surface of any coating on the semiconductor wafer; a network of gridlines on the sunward surface; and a selectively patterned, transparent, conductive coating on the sunward surface, the selectively patterned TCC defining a plurality of TCC portions that covers a plurality of areas of the sunward surface, each of the plurality of TCC portions being contiguous with at least some of the gridlines, wherein the plurality of TCC portions forms extensions of the at least some of the gridlines, but does not completely cover the sunward surface of the semiconductor wafer between the gridlines. a semiconductor wafer having a sunward surface, wherein the sunward surface is the surface of bare semiconductor material or the surface of any coating on the semiconductor wafer; a network of gridlines on the sunward surface; and a selectively patterned, transparent, conductive coating on the sunward surface, the selectively patterned TCC defining a plurality of TCC portions that covers a plurality of areas of the sunward surface, each of the plurality of TCC portions being contiguous with at least some of the gridlines, wherein the plurality of TCC portions forms extensions of the at least some of the gridlines, but does not completely cover the sunward surface of the semiconductor wafer between the gridlines.
An optical cable tensioning member comprising an expandable mandrel, wherein said expandable mandrel comprises a first bracket and a second bracket forming a cable winding circumference, the first bracket having a first inner surface and the second bracket having a second inner surface which is at a distance from said first inner surface, characterized in that said expandable mandrel further comprises a rotatable central member which is configured, when turned, to increase said distance and expand said cable winding circumference.
Process for producing a cold-rolled steel strip from a high-strength manganesecontaining steel having TRIP properties containing (in wt.%): C: 0.05 to 0.42 Mn: more than 5.0 to < 10 and one or more of the following elements (in wt.%) Al: 0.1 to 5, in particular > 0.5 to 3 Si: 0.05 to 3, in particular > 0.1 to 1.5 Cr: 0.1 to 4, in particular > 0.5 to 2.5 the remainder being iron, including unavoidable steel-accompanying elements, with the optional alloying addition of one or more of the following elements (in wt.%): Nb: up to 1.5 V: up to 1.5 Ti: up to 1.5 Mo: up to 3 Cu: up to 3 Sn: up to 0.5 W: up to 5 Co: up to 8 Zr: up to 0.5 Ta: up to 0.5 Te: up to 0.5 B: up to 0.15 P: max. 0.1, in particular < 0.04 S: max. 0.1, in particular < 0.02 N: max. 0.1, in particular < 0.05 Ca: up to 0.1, characterised in that the cold rolling to a required final thickness takes place at a temperature, prior to the first pass of the cold rolling, of 70°C to 250°C. C: 0.05 to 0.42 Mn: more than 5.0 to < 10 and one or more of the following elements (in wt.%) Al: 0.1 to 5, in particular > 0.5 to 3 Si: 0.05 to 3, in particular > 0.1 to 1.5 Cr: 0.1 to 4, in particular > 0.5 to 2.5 the remainder being iron, including unavoidable steel-accompanying elements, with the optional alloying addition of one or more of the following elements (in wt.%): Nb: up to 1.5 V: up to 1.5 Ti: up to 1.5 Mo: up to 3 Cu: up to 3 Sn: up to 0.5 W: up to 5 Co: up to 8 Zr: up to 0.5 Ta: up to 0.5 Te: up to 0.5 B: up to 0.15 P: max. 0.1, in particular < 0.04 S: max. 0.1, in particular < 0.02 N: max. 0.1, in particular < 0.05 Ca: up to 0.1, characterised in that the cold rolling to a required final thickness takes place at a temperature, prior to the first pass of the cold rolling, of 70°C to 250°C. Nb: up to 1.5 V: up to 1.5 Ti: up to 1.5 Mo: up to 3 Cu: up to 3 Sn: up to 0.5 W: up to 5 Co: up to 8 Zr: up to 0.5 Ta: up to 0.5 Te: up to 0.5 B: up to 0.15 P: max. 0.1, in particular < 0.04 S: max. 0.1, in particular < 0.02 N: max. 0.1, in particular < 0.05 Ca: up to 0.1, characterised in that the cold rolling to a required final thickness takes place at a temperature, prior to the first pass of the cold rolling, of 70°C to 250°C.
An absorbent nonwoven material having a fibrous structure comprising a mixture of continuous spunlaid filaments and short fibers comprising natural fibers and/or staple fibers sufficient to exhibit an absorbency time when measured according to ISO 12625-8, of equal to or less than 1.5 s and exhibiting an antimicrobial effect, the fibrous structure being hydroentangled and having a total basis weight of 40-120 g/m 2, and wherein the fibrous structure comprises zinc oxide containing fibers in an amount of at least 5 wt% of the fibrous structure.
Mechanical seal arrangement, comprising: - a rotating slide ring and a stationary slide ring which define a sealing gap between them, - a shaft bushing on which the rotating slide ring is arranged, - a support ring which is arranged on the shaft bushing and covers the rotating slide ring at least in part on the outer circumference thereof, - a first O-ring and a second O-ring which are arranged between the rotating slide ring and the support ring and define an intermediate space on the outer circumference of the rotating slide ring between the support ring and the rotating slide ring, and - at least one connecting opening which connects the intermediate space to an outer surface of the support ring. - a rotating slide ring and a stationary slide ring which define a sealing gap between them, - a shaft bushing on which the rotating slide ring is arranged, - a support ring which is arranged on the shaft bushing and covers the rotating slide ring at least in part on the outer circumference thereof, - a first O-ring and a second O-ring which are arranged between the rotating slide ring and the support ring and define an intermediate space on the outer circumference of the rotating slide ring between the support ring and the rotating slide ring, and - at least one connecting opening which connects the intermediate space to an outer surface of the support ring.
Method for actuating an electromechanical roll stabilizer for a vehicle, wherein the electromechanical roll stabilizer has a first stabilizer part, a second stabilizer part, an electric motor and a transmission, wherein the first stabilizer part and the second stabilizer part can be rotated relative to one another by means of the electric motor and the transmission, wherein the method comprises the following features: evaluating a stabilizer moment between the first stabilizer part and the second stabilizer part in order to identify a change in the rotational movement of the transmission; and changing a motor torque, which is generated by the electric motor, depending on the change in the rotational movement and a rotation direction of the electric motor in order to reduce tooth play in the transmission in the event of the change in the rotational movement. evaluating a stabilizer moment between the first stabilizer part and the second stabilizer part in order to identify a change in the rotational movement of the transmission; and changing a motor torque, which is generated by the electric motor, depending on the change in the rotational movement and a rotation direction of the electric motor in order to reduce tooth play in the transmission in the event of the change in the rotational movement.
A method for screening a nucleic acid aptamer comprising: (a) contacting a target molecule immobilized on a solid phase support with a nucleic acid aptamer candidate; (b) collecting the nucleic acid aptamer candidate binding with the target molecule by a capillary electrophoresis; (c) amplifying the nucleic acid aptamer candidate by PCR wherein the solid phase support is a particle. (a) contacting a target molecule immobilized on a solid phase support with a nucleic acid aptamer candidate; (b) collecting the nucleic acid aptamer candidate binding with the target molecule by a capillary electrophoresis; (c) amplifying the nucleic acid aptamer candidate by PCR
System for ventilating a waste water line, comprising a pipe ventilator and a concealed cistern having a front-wall installation, wherein the pipe ventilator is arranged in the front-wall installation of the concealed cistern, wherein the pipe ventilator is arranged in the concealed cistern, characterised in that the pipe ventilator comprises an air inlet which is designed such that the pipe ventilator does not draw in any air from the concealed cistern.
A thermal insulation device comprising: a first plate; a second plate formed to nest adjacent the first plate with a gap between the first and second plates (110, 115); a porous material disposed in the gap between the first and second plates (110, 115); and a sealing layer disposed between the first and second plates (110, 115) such that the porous material is sealed from ambient at a pressure less than ambient; and a vapor generating material included in the porous material in the gap, wherein the vapor generating material has a pressure vs. temperature relationship that modulates the thermal conductance of the vapor in the gap between the enclosure plates, such that the thermal resistance decreases at high temperatures within the gap and increases at lower temperatures. a first plate; a second plate formed to nest adjacent the first plate with a gap between the first and second plates (110, 115); a porous material disposed in the gap between the first and second plates (110, 115); and a sealing layer disposed between the first and second plates (110, 115) such that the porous material is sealed from ambient at a pressure less than ambient; and a vapor generating material included in the porous material in the gap, wherein the vapor generating material has a pressure vs. temperature relationship that modulates the thermal conductance of the vapor in the gap between the enclosure plates, such that the thermal resistance decreases at high temperatures within the gap and increases at lower temperatures.