mhurhangee/ep-ind-claims huggingface dataset:
A method for driver assistance in a vehicle; the driver assistance method comprises the steps of: determining the current value of a driving variable correlated with the driving of the vehicle; and displaying the current value of the driving variable in an instrument (14; 21) of an instrument panel of the vehicle; the driver assistance method is characterized in that it comprises the further steps of: determining an optimal value of the driving variable in the future and after a given amount of time has elapsed since the current instant starting from the current state of the vehicle and supposing an excellent action upon the driving controls (6, 10, 11) of the vehicle; determining an expected value of the driving variable in the future and after the given amount of time has elapsed since the current instant starting from the current state of the vehicle and supposing a constant action on the driving controls (6, 10, 11) of the vehicle; and displaying the optimal value and the expected value of the driving variable in the instrument (14; 21) in addition to the current value of the driving variable. determining the current value of a driving variable correlated with the driving of the vehicle; and displaying the current value of the driving variable in an instrument (14; 21) of an instrument panel of the vehicle; the driver assistance method is characterized in that it comprises the further steps of: determining an optimal value of the driving variable in the future and after a given amount of time has elapsed since the current instant starting from the current state of the vehicle and supposing an excellent action upon the driving controls (6, 10, 11) of the vehicle; determining an expected value of the driving variable in the future and after the given amount of time has elapsed since the current instant starting from the current state of the vehicle and supposing a constant action on the driving controls (6, 10, 11) of the vehicle; and displaying the optimal value and the expected value of the driving variable in the instrument (14; 21) in addition to the current value of the driving variable. determining an optimal value of the driving variable in the future and after a given amount of time has elapsed since the current instant starting from the current state of the vehicle and supposing an excellent action upon the driving controls (6, 10, 11) of the vehicle; determining an expected value of the driving variable in the future and after the given amount of time has elapsed since the current instant starting from the current state of the vehicle and supposing a constant action on the driving controls (6, 10, 11) of the vehicle; and displaying the optimal value and the expected value of the driving variable in the instrument (14; 21) in addition to the current value of the driving variable.
Insert designed to be included in a part moulded by injection, comprising a body extending along a longitudinal axis of the insert, and a base situated at one end of the body and provided with at least one plate comprising at least one pass-through opening and extending along a secondary axis perpendicular to the longitudinal axis, characterized in that at least one pass-through opening of the base is oriented in a direction that is inclined with respect to the longitudinal axis of the insert and inclined with respect to the secondary axis.
A process for forming a fragrance carrier system comprising an encapsulated fragrance composition, the process comprising - forming an aqueous emulsion containing a fragrance compound and a continuous phase, - adding tetraalkoxysilane to the continuous phase under shear, and - conducting an ex situ polymerisation of the tetraalkoxysilane to form a shell that encapsulates the fragrance composition, wherein the fragrance composition contains an emulsion of a fragrance compound in an aqueous medium, and the shell has a mean diameter size comprised between 1.5 and 7 micrometer. - forming an aqueous emulsion containing a fragrance compound and a continuous phase, - adding tetraalkoxysilane to the continuous phase under shear, and - conducting an ex situ polymerisation of the tetraalkoxysilane to form a shell that encapsulates the fragrance composition,
A method of mitigating multipath coupling interference in a repeater system comprising: measuring an error signal in a signal path of the repeater system wherein the error signal contains desired communication signals and multipath coupling interference signals; determining the cepstrum of the error signal, wherein the cepstrum is reflective of an open-loop gain of the system; extracting the impulse response of the open-loop gain from the cepstrum of the error signal; calculating a plurality of cancellation filter coefficients using the extracted impulse response of the open-loop gain; and adaptively applying the plurality of filter coefficients to an adjustable filter to generate a cancellation signal to mitigate the multipath coupling interference. measuring an error signal in a signal path of the repeater system wherein the error signal contains desired communication signals and multipath coupling interference signals; determining the cepstrum of the error signal, wherein the cepstrum is reflective of an open-loop gain of the system; extracting the impulse response of the open-loop gain from the cepstrum of the error signal; calculating a plurality of cancellation filter coefficients using the extracted impulse response of the open-loop gain; and adaptively applying the plurality of filter coefficients to an adjustable filter to generate a cancellation signal to mitigate the multipath coupling interference.
A method for producing polycarbonate by melt polymerization, comprising: (a) adding acetone, diaryl carbonate, and dihydroxy compound to the melt polymerization unit, wherein the acetone is added to the melt polymerization unit as a mixture with the diaryl carbonate and/or the dihydroxy compound, wherein the acetone is present in the mixture added to the melt polymerization unit in an amount of greater than 3 weight%, based upon a total weight of the mixture; (b) adding a catalyst to the melt polymerization unit, without separating out acetone prior to the addition of the catalyst; and (c) operating the melt polymerization unit under conditions so that the dihydroxy compound reacts with the diaryl carbonate to produce polycarbonate with a desired specification, and a phenol by-product. (a) adding acetone, diaryl carbonate, and dihydroxy compound to the melt polymerization unit, wherein the acetone is added to the melt polymerization unit as a mixture with the diaryl carbonate and/or the dihydroxy compound, wherein the acetone is present in the mixture added to the melt polymerization unit in an amount of greater than 3 weight%, based upon a total weight of the mixture; (b) adding a catalyst to the melt polymerization unit, without separating out acetone prior to the addition of the catalyst; and (c) operating the melt polymerization unit under conditions so that the dihydroxy compound reacts with the diaryl carbonate to produce polycarbonate with a desired specification, and a phenol by-product.
A method for calibrating parameters of a transmission line (221, 223, 305, 306) coupled to an electrosurgical device, the method comprising: applying electrosurgical energy generated by the electrosurgical device separately to a plurality of test loads having a range of rated resistance or impedance values, sensing a voltage and a current of the electrosurgical energy at an output of the electrosurgical device to obtain a plurality of sensed voltages and a plurality of sensed currents; calculating a sensor impedance value for each of the plurality of test loads based on the plurality of sensed voltages and the plurality of sensed currents; determining a phase value for each of the plurality of test loads based on a polynomial function of the sensor impedance value to obtain determined phase values; calculating (608, 610) impedance loss model parameters associated with the transmission line based on the determined phase values, predetermined load impedance values of the plurality of test loads, the sensed voltages, the sensed currents, each of the plurality of test loads, and previous impedance loss model parameters. applying electrosurgical energy generated by the electrosurgical device separately to a plurality of test loads having a range of rated resistance or impedance values, sensing a voltage and a current of the electrosurgical energy at an output of the electrosurgical device to obtain a plurality of sensed voltages and a plurality of sensed currents; calculating a sensor impedance value for each of the plurality of test loads based on the plurality of sensed voltages and the plurality of sensed currents; determining a phase value for each of the plurality of test loads based on a polynomial function of the sensor impedance value to obtain determined phase values; calculating (608, 610) impedance loss model parameters associated with the transmission line based on the determined phase values, predetermined load impedance values of the plurality of test loads, the sensed voltages, the sensed currents, each of the plurality of test loads, and previous impedance loss model parameters.
A method for producing an FRP precursor for a printed wiring board, wherein the method is to produce the FRP precursor by adhering a thermosetting resin film to one surface of an aggregate that is in a form of a sheet under an atmospheric pressure, wherein the aggregate is a glass fiber, characterized in that the method comprises a process in which the thermosetting resin film and the aggregate are press-adhered by heating by means of a pressure roll having a temperature in a range of +10°C to +35°C relative to a temperature at which a minimum melt viscosity of the film is exhibited, wherein the temperature at which the minimum melt viscosity of the resin film is exhibited is the value measured with a rheometer, and a roll linear pressure of the pressure roll is in a range of 0.4 to 1.0 MPa. the method is to produce the FRP precursor by adhering a thermosetting resin film to one surface of an aggregate that is in a form of a sheet under an atmospheric pressure, wherein the aggregate is a glass fiber, the method comprises a process in which the thermosetting resin film and the aggregate are press-adhered by heating by means of a pressure roll having a temperature in a range of +10°C to +35°C relative to a temperature at which a minimum melt viscosity of the film is exhibited, wherein the temperature at which the minimum melt viscosity of the resin film is exhibited is the value measured with a rheometer, and a roll linear pressure of the pressure roll is in a range of 0.4 to 1.0 MPa.
Facade element comprising a coloring transparent or semi-transparent first pane and a mechanically supporting transparent second pane which are firmly connected to one another by an intermediate layer, wherein the first pane has a front surface arranged on the light incidence side and an opposite back surface, wherein at least one surface (4, 5), selected from the front and back surfaces, has at least one structured region (8, 8'), wherein at least one optical interference layer (9, 9') is arranged on at least one surface (4, 5), selected from the front and back surfaces, for reflecting light within a predetermined wavelength range, wherein the at least one structured region (8, 8') has the following features: - perpendicular to the plane of the first pane, a height profile comprising peaks and valleys, wherein an average height difference between the peaks and valleys is at least 2 μm, - at least 50% of the structured region is composed of segments which are inclined with respect to the plane of the first pane, wherein, with respect to the plane of the first pane, at least 20% of the segments have an angle of inclination in the range from greater than 0° to a maximum of 15° and at least 30% of the segments have an angle of inclination in the range from greater than 15° to a maximum of 45°, wherein - the segments are each planar and have a segment area of at least 1 μm 2, wherein the segments each have an average roughness of less than 15% of a layer thickness of the at least one optical interference layer. - perpendicular to the plane of the first pane, a height profile comprising peaks and valleys, wherein an average height difference between the peaks and valleys is at least 2 μm, - at least 50% of the structured region is composed of segments which are inclined with respect to the plane of the first pane, wherein, with respect to the plane of the first pane, at least 20% of the segments have an angle of inclination in the range from greater than 0° to a maximum of 15° and at least 30% of the segments have an angle of inclination in the range from greater than 15° to a maximum of 45°, wherein - the segments are each planar and have a segment area of at least 1 μm 2, wherein the segments each have an average roughness of less than 15% of a layer thickness of the at least one optical interference layer.
Vehicle lighting device comprising: - a lens (1; 101) intended to deflect the light rays emitted by a light source and comprising a wheel sector (11; 111) with a driven surface (12; 112), the wheel sector being made in one piece with the lens as a whole, - a driving means (60; 160) with a driving surface (61'; 161) such that the driving surface is in contact with the driven surface and movement of the driving surface drives movement of the lens; characterized in that the wheel sector is a toothed wheel sector (11; 111), the raised patterns of the driven surface (12; 112) being teeth and the wheel sector (11; 111) forms an arm extending lengthwise between a first end connected to the lens (1; 101) and a free second end, the latter carrying the driven surface (61'; 161). - a lens (1; 101) intended to deflect the light rays emitted by a light source and comprising a wheel sector (11; 111) with a driven surface (12; 112), the wheel sector being made in one piece with the lens as a whole, - a driving means (60; 160) with a driving surface (61'; 161) such that the driving surface is in contact with the driven surface and movement of the driving surface drives movement of the lens; characterized in that the wheel sector is a toothed wheel sector (11; 111), the raised patterns of the driven surface (12; 112) being teeth and the wheel sector (11; 111) forms an arm extending lengthwise between a first end connected to the lens (1; 101) and a free second end, the latter carrying the driven surface (61'; 161).
A method for producing carpet squares with carpet pile and a felt back side, including: - making a semi-finished product including the carpet pile by tufting, weaving, bonding, felting or other method known in the art; - selecting felt for forming the felt back side; - back side coating the semi-finished product with the felt for forming a carpet web; - surface coating the felt back side of the carpet web with a curable polymer; - curing the polymer for dimensional stabilisation and rigidifying the carpet web before punching; and - punching the carpet web into desired shapes and dimensions for the carpet squares; characterised in that coating and curing is executed immediately before the carpet web is conveyed into the punching unit. - making a semi-finished product including the carpet pile by tufting, weaving, bonding, felting or other method known in the art; - selecting felt for forming the felt back side; - back side coating the semi-finished product with the felt for forming a carpet web; - surface coating the felt back side of the carpet web with a curable polymer; - curing the polymer for dimensional stabilisation and rigidifying the carpet web before punching; and - punching the carpet web into desired shapes and dimensions for the carpet squares;
A fill level measuring device for determining a level of a filling material in a vessel using a frequency-modulated continuous wave, FMCW, signal, the fill level measuring device comprising: a high-frequency circuit configured to generate a transmission signal (21, 22), wherein the transmission signal has at least one frequency ramp (212, 222); a transmission apparatus configured to emit the transmission signal (21, 22) towards the filling material; an evaluation unit configured to determine the level of the filling material on the basis of the transmission signal (21, 22) reflected at the filling material; wherein the at least one frequency ramp (212, 222) has a minimal frequency f min and a maximal frequency f max; wherein, when determining the fill level, the evaluation unit is configured to consider only a part of the reflected transmission signal that has frequencies within a fundamental frequency interval, wherein the minimal frequency of the fundamental frequency interval is greater than the minimal frequency f min of the frequency ramp and/or the maximal frequency of the fundamental frequency interval is smaller than the maximal frequency f max of the frequency ramp, characterized in that a part of the frequency ramp is passed during a settling time of parts of the fill level measuring device, and the fundamental frequency interval is reached after the settling time. a high-frequency circuit configured to generate a transmission signal (21, 22), wherein the transmission signal has at least one frequency ramp (212, 222); a transmission apparatus configured to emit the transmission signal (21, 22) towards the filling material; an evaluation unit configured to determine the level of the filling material on the basis of the transmission signal (21, 22) reflected at the filling material; wherein the at least one frequency ramp (212, 222) has a minimal frequency f min and a maximal frequency f max; wherein, when determining the fill level, the evaluation unit is configured to consider only a part of the reflected transmission signal that has frequencies within a fundamental frequency interval, wherein the minimal frequency of the fundamental frequency interval is greater than the minimal frequency f min of the frequency ramp and/or the maximal frequency of the fundamental frequency interval is smaller than the maximal frequency f max of the frequency ramp, characterized in that a part of the frequency ramp is passed during a settling time of parts of the fill level measuring device, and the fundamental frequency interval is reached after the settling time.
Copolymers of the formula where A, B, D independently of one another = aliphatic (cyclo)alkylene radical, R = C 1 -C 10 alkyl radical, and 3 ≤ x ≤ 10.
A working machine comprising: a hydraulic pump; an electric motor which drives the hydraulic pump; an electric storage device which supplies electric power for power running to the electric motor; and a control device which controls a pump absorption horsepower maximum value in accordance with an amount of electricity stored in the electric storage device; characterized in that: the control device obtains an amount of reduction (ΔQe1) in the amount of electricity stored in the electric storage device within a stored electricity amount change measuring time set in advance, obtains an operation possible time from the obtained amount of reduction (ΔQe1) and a residual amount of electricity (ΔQe2) stored in the electric storage device, determines whether the obtained operation possible time reaches a remaining time of a preset operation scheduled time obtained by subtracting a currently spent real operating time from the operation scheduled time or not, and reduces the pump absorption horsepower maximum value to such a value that the operation possible time can reach the remaining time of the operation scheduled time when determination is made that the operation possible time does not reach the remaining time.
Use of a liquid coating composition comprising i. at least one inorganic binder of the generic formula Si a R 1 b O c (OR 2) d where, a ≥ 2, b ≥ 0, c ≥ 1, d ≥ 5 and R 1 and R 2 = organic moiety, ii. at least one solvent, and at least one oxide pigment which, after addition of a mixture consisting of 15 ml of 1 M oxalic acid and 15 ml of 20% aqueous hydrochloric acid, based on 1 g of substance, under standard conditions, leads to a temperature increase of at least 4°C, for the production of nonconductive coatings, in particular for the production of black matrices. i. at least one inorganic binder of the generic formula Si a R 1 b O c (OR 2) d where, a ≥ 2, b ≥ 0, c ≥ 1, d ≥ 5 and R 1 and R 2 = organic moiety, ii. at least one solvent, and at least one oxide pigment which, after addition of a mixture consisting of 15 ml of 1 M oxalic acid and 15 ml of 20% aqueous hydrochloric acid, based on 1 g of substance, under standard conditions, leads to a temperature increase of at least 4°C, for the production of nonconductive coatings, in particular for the production of black matrices.
A liquid composition comprising a semifluorinated alkane selected from F4H5, F4H6, F6H4, F6H6, F6H8 and F6H10, for use as a medicine for the removal of a foreign agent from the surface of an eye or from the surface of the cornea, the tear fluid, the lacrimal sac, conjunctiva of the sclera and eyelids.
A method of producing a heating element that is comprised essentially of molybdenum silicide type and alloys of this basic material, characterised by producing a material that contains Mo(Si 1-x Al x) 2 and Al 2 O 3 by mixing a molybdenum aluminium silicide Mo(Si 1-y Al y) 2 with bentonite clay in a manner known per se, wherein the bentonite clay is caused to contain impure substances with which molybdenum silicide cannot be alloyed and with which the symmetry of the crystal lattice of the molybdenum silicide is retained with a combined content of less than 2000 ppm, in that x is caused to lie in the range of 0.4 - 0.6 and in that y is larger than x.
Urethane acrylate of the formula in which X is oxygen or sulphur, and R 1, R 2, R 3, independently of one another, are each an olefinically unsaturated organic radical or an aliphatic alcohol, at least one of the radicals R 1, R 2, R 3 being an olefinically unsaturated organic radical and at least one of the radicals R 1, R 2, R 3 being an aliphatic alcohol, characterized in that the aliphatic alcohols are trifluoroethanol and/or 1,1,1,3,3,3-hexafluoropropan-2-ol.
A viscous dispersant liquid suitable for oil spill treatment, said viscous dispersant liquid having a density between 0.8 and 1.02 g/ml and a viscosity between 1 and 10 Pa s (1000 and 10,000 centipoise) and comprising 3-13 weight percent of sorbitan monooleate, 5-15 weight percent of polyoxyethylene sorbitan monooleate, 30-50 weight percent of polyoxyethylene sorbitan trioleate, 20-40 weight percent of alkali metal salt of a dioctyl sulfosuccinate, 5-15 weight percent of hydrocarbon or alcohol solvent, and 1-3 weight percent of microballoons having a density of less than 0.5 grams per milliliter (g/ml).