mhurhangee/ep-ind-claims huggingface dataset:
A signal processing method for a vibration type density meter in which at least one flow tube or a pair of flow tubes (2, 3) which is included in a measurement flow tube is alternately driven by causing a vibrator to be actuated by a driving device to vibrate the at least one flow tube or the pair of flow tubes (2, 3), and a vibration frequency acting on the at least one flow tube or the pair of flow tubes (2, 3) is detected by two velocity sensors or acceleration sensors which are vibration detection sensors, to thereby obtain a density of a fluid to be measured, the signal processing method comprising: performing frequency conversion, that is, generation of a composite frequency signal which is generated by combining an arbitrary oscillation frequency with each of two signals obtained by A/D conversion on input signals of the vibration frequency acting on the at least one flow tube or the pair of flow tubes (2, 3), which are detected by the two velocity sensors or acceleration sensors, to obtain a composite frequency signal; measuring the frequency of the composite frequency signal associated with at least one of the two velocity sensors or acceleration sensors; transmitting a control signal based on the measured frequency; controlling the frequency of a sum or difference frequency component of the composite frequency signal of the two signals obtained by A/D conversion on input signals of the vibration frequency acting on the at least one flow tube or the pair of flow tubes (2, 3) and the control signal to a constant value; characterized by comprising the step of obtaining a resonance frequency of the at least one flow tube or the pair of flow tubes based on the control signal, and calculating the density of the fluid to be measured based on the control signal. performing frequency conversion, that is, generation of a composite frequency signal which is generated by combining an arbitrary oscillation frequency with each of two signals obtained by A/D conversion on input signals of the vibration frequency acting on the at least one flow tube or the pair of flow tubes (2, 3), which are detected by the two velocity sensors or acceleration sensors, to obtain a composite frequency signal; measuring the frequency of the composite frequency signal associated with at least one of the two velocity sensors or acceleration sensors; transmitting a control signal based on the measured frequency; controlling the frequency of a sum or difference frequency component of the composite frequency signal of the two signals obtained by A/D conversion on input signals of the vibration frequency acting on the at least one flow tube or the pair of flow tubes (2, 3) and the control signal to a constant value;
A cementitious freeze-thaw damage resistant composition comprising hydraulic cement wherein the composition has a volume of voids that is 6 volume percent or less and at least partially degradable polymeric particles wherein the degradable polymeric particles have an average diameter of 100 μm or less.
A method of treating wheat fungal pathogens, comprising applying an electrolyzed water composition to a wheat crop affected with pathogens or area containing a wheat crop affected with pathogens, in which the electrolyzed water composition is prepared by a method comprising: preparing an electrolyte solution comprising water, at least one carbonate salt selected from anhydrous alkali metal carbonate salts, and at least one chloride salt selected from: alkali metal chloride salts; introducing the aqueous electrolyte solution into an electrolytic cell comprising a plurality of boron-doped diamond electrodes; and operating a power supply to apply a predetermined voltage to the electrolyte solution to produce an electrolyzed water biocidal composition comprising a plurality of active molecular and ionic species having biocidal activity, in which the mixture of at least two salts of the electrolyte are selected such that the dissolved O 3 concentration is in the range of from 0.1 to 1,000 ppm. preparing an electrolyte solution comprising water, at least one carbonate salt selected from anhydrous alkali metal carbonate salts, and at least one chloride salt selected from: alkali metal chloride salts; introducing the aqueous electrolyte solution into an electrolytic cell comprising a plurality of boron-doped diamond electrodes; and operating a power supply to apply a predetermined voltage to the electrolyte solution to produce an electrolyzed water biocidal composition comprising a plurality of active molecular and ionic species having biocidal activity, in which the mixture of at least two salts of the electrolyte are selected such that the dissolved O 3 concentration is in the range of from 0.1 to 1,000 ppm.
Loading aid for a passenger car, comprising a loading platform which, in a retracted position, is arranged horizontally in the boot of the passenger car, wherein the loading platform is movable linearly from the retracted position into an extended position in which the loading platform is arranged horizontally, outside the boot, at substantially the same height as in the retracted position, wherein the loading platform is movable linearly from the extended position into a lowered position in which the loading platform is arranged horizontally, outside the boot, at a lower point than in the extended position, characterized in that the movement of the loading platform from the extended position into the lowered position runs obliquely rearwards and downwards in the direction of travel of the passenger car, wherein the loading platform is movable from the extended position into the lowered position by means of two lateral telescopic rails, wherein the lower end of the telescopic rail is fastened to the end of the loading platform at the front in the direction of travel of the passenger car, wherein a gas pressure damper is arranged between the telescopic rail and the end of the loading platform at the rear in the direction of travel, wherein the end of the gas pressure damper that is fixed to the telescopic rail is movable at or together with said rear end of the loading platform, and therefore the gas pressure damper in the lowered position is arranged parallel to the position of the gas pressure damper in the extended position.
An agricultural vehicle comprising a sensor arrangement for detecting a mechanical stress on a component of the agricultural vehicle, wherein the component is a rotary part, in particular a shaft, preferably an axle shaft of the vehicle, wherein the component has a physical property which is characteristic of the mechanical stress thereof and which can be detected by means of a pickup, characterised in that the pickup is one or more magnetic field sensors (7, 8) which are suitable for detecting a magnetic field impressed in the component and that there is provided an evaluation device which is in signal-conducting relationship with the magnetic field sensors (7, 8) and which is suitable for ascertaining from a change in the magnetic field of the component, that is caused by torsion and bending of the component, a torque which engages the component, in particular a drive torque and a force (F Radlast, F Triebkraft) which engages same and which acts in particular on a part of the running gear, wherein the component has at least two axial portions (10, 11) at which a tangentially oriented magnetic field is introduced into the component, wherein the magnetic field of each of the axially magnetised portions (10, 11) can be detected by means of the the associated magnetic field sensor (7, 8), wherein each of the axial magnetised portions (10, 11) has a peripheral coding formed by different magnetic polarity, wherein the component itself is part of a sensor based on the principle of inverse magnetostriction in that the physical property is a magnetic field of the component, that is dependent on the mechanical stress on the component, wherein the orientation of magnetisation in the two axial magnetised portions (10, 11) is respectively in opposite relationship to permit difference measurement, wherein the sensor arrangement can be used for detecting a moment acting on the axle shaft, for which purpose axially oriented magnetic field coils are arranged around the axle shaft in the region of the axial magnetised portions (10, 11), wherein the sensor arrangement can be used for detecting forces (F Radlast, F Triebkraft) engaging the axle shaft, for which purpose tangentially oriented magnetic field coils are arranged around the axle shaft in the region of the axial magnetized portions (10, 11).
A power management system, comprising: a power management module configured to receive a requested duration of time for powering an electronic device by a battery, the power management module configured to control use of power-consuming applications that are executable on the electronic device based on a prioritization of the power-consuming applications to enable powering of the electronic device by the battery for at least the requested duration of time, wherein the power management module is configured to reduce the power consumption of the electronic device by automatically closing a particular power-consuming application, wherein the power management module is configured to prevent opening and/or otherwise initiating a particular power-consuming application, wherein the prioritization is dynamic and comprises at least two different priority levels of the power-consuming applications, wherein one or more of the power-consuming applications has a variable priority, and wherein, in response to opening and/or otherwise initiating a particular power consuming application having a variable priority, the priority level of the particular power consuming application is changed to a higher level. a power management module configured to receive a requested duration of time for powering an electronic device by a battery, the power management module configured to control use of power-consuming applications that are executable on the electronic device based on a prioritization of the power-consuming applications to enable powering of the electronic device by the battery for at least the requested duration of time, wherein the power management module is configured to reduce the power consumption of the electronic device by automatically closing a particular power-consuming application, wherein the power management module is configured to prevent opening and/or otherwise initiating a particular power-consuming application, wherein the prioritization is dynamic and comprises at least two different priority levels of the power-consuming applications, wherein one or more of the power-consuming applications has a variable priority, and wherein, in response to opening and/or otherwise initiating a particular power consuming application having a variable priority, the priority level of the particular power consuming application is changed to a higher level.
Method for improving the chromatographic detection limit for an analyte, comprising the following steps: a) producing a chromatogram with a peak of the analyte, b) calculating a regression line for the baseline from measured values of a section (4, 5) in the chromatogram without a peak, c) calculating a regression function, consisting of a Gaussian function and the regression line, from measured values of the peak, d) subtracting the regression function from the chromatogram, e) calculating a regression polynomial for the baseline from the values of the chromatogram modified in step d), f) calculating a further regression function, consisting of the Gaussian function from step c) and the regression polynomial, from the measured values of the peak in the original chromatogram, g) calculating the peak area between the regression polynomial and the further regression function, h) repeating step d), with the further regression function in place of the regression function, and steps e), f) and g) until the calculated peak area changes by less than a predetermined amount. a) producing a chromatogram with a peak of the analyte, b) calculating a regression line for the baseline from measured values of a section (4, 5) in the chromatogram without a peak, c) calculating a regression function, consisting of a Gaussian function and the regression line, from measured values of the peak, d) subtracting the regression function from the chromatogram, e) calculating a regression polynomial for the baseline from the values of the chromatogram modified in step d), f) calculating a further regression function, consisting of the Gaussian function from step c) and the regression polynomial, from the measured values of the peak in the original chromatogram, g) calculating the peak area between the regression polynomial and the further regression function, h) repeating step d), with the further regression function in place of the regression function, and steps e), f) and g) until the calculated peak area changes by less than a predetermined amount.
A method of monitoring utilities, the method comprising: charging a rechargeable battery of an unmanned aerial vehicle using an electromagnetic field of a high voltage power line and a recharging system of the unmanned aerial vehicle; flying the unmanned aerial vehicle along the high voltage power line and at a specified distance from the high voltage power line during the charging, and along a route of the high voltage power line; inspecting utilities using a sensor of the unmanned aerial vehicle while flying the unmanned aerial vehicle along the high voltage power line and at the specified distance from the high voltage power line; the method further comprising: detecting the high voltage power line using an impact prevention sensor; and maintaining the unmanned aerial vehicle the specified distance from the high voltage power line during charging using measurements from the impact prevention sensor. charging a rechargeable battery of an unmanned aerial vehicle using an electromagnetic field of a high voltage power line and a recharging system of the unmanned aerial vehicle; flying the unmanned aerial vehicle along the high voltage power line and at a specified distance from the high voltage power line during the charging, and along a route of the high voltage power line; inspecting utilities using a sensor of the unmanned aerial vehicle while flying the unmanned aerial vehicle along the high voltage power line and at the specified distance from the high voltage power line; the method further comprising: detecting the high voltage power line using an impact prevention sensor; and maintaining the unmanned aerial vehicle the specified distance from the high voltage power line during charging using measurements from the impact prevention sensor. detecting the high voltage power line using an impact prevention sensor; and maintaining the unmanned aerial vehicle the specified distance from the high voltage power line during charging using measurements from the impact prevention sensor.
Method for manufacturing a PMOS transistor having a low threshold voltage between -0.4 volts and +0.5 volts, comprising the following steps: - providing a p-doped semiconductor substrate with an upper side, - generating an n-doped well region by implanting an n-dopant through the upper side of the semiconductor substrate and into the latter, - defining a channel region on the upper side of the semiconductor substrate within the well region, - masking the channel region by means of a recessed shadow mask on the upper side of the semiconductor substrate, - implanting one or several n-dopants through the recesses of the shadow mask into the channel region to affect the threshold voltage in the range between -0.4 volts and +0.5 volts, and - thermal diffusing of the dopants of the dopant implantation zones introduced through the recesses of the shadow mask in the channel region for generating a substantially homogenous or non-uniform dopant concentration in the channel region, whereby the threshold voltage is determined in the range between -0.4 volts and +0.5 volts, - defining of spaced apart, p-doped source and drain junction regions (24, 26) on the upper side of the semiconductor substrate within the well region. - providing a p-doped semiconductor substrate with an upper side, - generating an n-doped well region by implanting an n-dopant through the upper side of the semiconductor substrate and into the latter, - defining a channel region on the upper side of the semiconductor substrate within the well region, - masking the channel region by means of a recessed shadow mask on the upper side of the semiconductor substrate, - implanting one or several n-dopants through the recesses of the shadow mask into the channel region to affect the threshold voltage in the range between -0.4 volts and +0.5 volts, and - thermal diffusing of the dopants of the dopant implantation zones introduced through the recesses of the shadow mask in the channel region for generating a substantially homogenous or non-uniform dopant concentration in the channel region, whereby the threshold voltage is determined in the range between -0.4 volts and +0.5 volts, - defining of spaced apart, p-doped source and drain junction regions (24, 26) on the upper side of the semiconductor substrate within the well region.
An intravascular catheter with fluoroscopically visible indicium of rotational orientation, comprising: an elongate flexible tubular body, having a proximal end, a distal end and a tubular side wall defining at least one lumen extending there through; first, second, and third opposing pairs of radiopaque rings in the side wall, spaced axially apart from each other, each ring surrounding an exit aperture (130, 132, 134) formed within an eyelet in the side wall; wherein a first transverse axis extending through the first pair of rings is rotationally offset within the range of from about 10° to about 60° from a second transverse axis extending through the second pair of rings, and the second transverse axis is rotationally offset within the range of from about 10° to about 60° from a third transverse axis extending through the third pair of rings. an elongate flexible tubular body, having a proximal end, a distal end and a tubular side wall defining at least one lumen extending there through; first, second, and third opposing pairs of radiopaque rings in the side wall, spaced axially apart from each other, each ring surrounding an exit aperture (130, 132, 134) formed within an eyelet in the side wall; wherein a first transverse axis extending through the first pair of rings is rotationally offset within the range of from about 10° to about 60° from a second transverse axis extending through the second pair of rings, and the second transverse axis is rotationally offset within the range of from about 10° to about 60° from a third transverse axis extending through the third pair of rings.
A method of generating a purified sample comprising: (a) contacting a body fluid sample comprising high density lipoprotein molecules with a population of HDL tagging molecules to generate a mixed sample comprising a population of tagged HDL molecules, wherein each HDL tagging molecule comprises: (i) a HDL lipophilic core binding peptide; and (ii) an affinity tag, and wherein the population of tagged HDL molecules comprises at least some HDL tagging molecules bound to at least some HDL molecules; (b) generating a purified sample by contacting the mixed sample with a population of capture molecules that are specific for the affinity tag, wherein at least 90% of all proteins in the purified sample are the HDL molecules, and wherein said HDL tagging molecules are tagged apolipoprotein (Apo) A1 and the ratio of said HDL tagging molecules to the non-tagged Apo A1 molecules is 1:2 - 1:1, and optionally, wherein the purified sample is generated from the body fluid sample in 1 hour or less. (a) contacting a body fluid sample comprising high density lipoprotein molecules with a population of HDL tagging molecules to generate a mixed sample comprising a population of tagged HDL molecules, wherein each HDL tagging molecule comprises: (i) a HDL lipophilic core binding peptide; and (ii) an affinity tag, and wherein the population of tagged HDL molecules comprises at least some HDL tagging molecules bound to at least some HDL molecules; (b) generating a purified sample by contacting the mixed sample with a population of capture molecules that are specific for the affinity tag, wherein at least 90% of all proteins in the purified sample are the HDL molecules, and
A machine for making and dispensing liquid and/or semi-liquid food products; the machine comprising: - a tank for supplying and containing a basic product and which is equipped with a loading mouth through which the ingredients of the basic product are loaded; and - a lid for opening and closing the loading mouth; the machine being characterized in that the lid comprises a covering wall with at least two parts which are foldable relative to each other; the parts being joined to each other by a folding line. - a tank for supplying and containing a basic product and which is equipped with a loading mouth through which the ingredients of the basic product are loaded; and - a lid for opening and closing the loading mouth;
Antiviral composition for use in the treatment of a viral condition, comprising: (a) a therapeutically effective amount of a silver-containing substance selected from the group consisting of colloidal silver, silver nitrate, and any combination thereof; and (b) a therapeutically effective amount of unripe fig; (c) wherein the antiviral composition is suitable for treatment of the viral condition in a subject in need thereof. (a) a therapeutically effective amount of a silver-containing substance selected from the group consisting of colloidal silver, silver nitrate, and any combination thereof; and (b) a therapeutically effective amount of unripe fig; (c) wherein the antiviral composition is suitable for treatment of the viral condition in a subject in need thereof.
A pickling method for removing oxide scale of a steel sheet with a content of Si of 0.1 to 3.5 mass%, characterized by having a step A of pickling the steel sheet with a pickling solution in a pickling tank (3, 4), a step B consisting of taking out the steel sheet from the pickling tank (3, 4) and then blowing gas toward at least part of the surfaces of the steel sheet in the air after said step A such that the pickling solution deposited on the surface of the steel sheet at the part blown upon partially evaporates and its acid concentration becomes higher with allowing the deposited pickling solution to remain at the surface of the steel sheet to be concentrated, and a step C of pickling said steel sheet subsequently after said step B, wherein an angle θ (°) formed between a blowing direction of said gas and at least part of the surfaces of the steel sheet is 1°≤θ≤75°.