mhurhangee/ep-ind-claims huggingface dataset:
An anion generator comprising a plasma-generating apparatus, the plasma-generating apparatus comprising: - a plate-like dielectric layer; - a plate-like first electrode disposed on a first face of the dielectric layer; - a second electrode array disposed on a second face of the dielectric layer opposite the first face, wherein the second electrode array includes a plurality of electrode bars arranged in parallel with each other or dot-like electrodes arranged spacedly apart from each other in a matrix form; - at least one porous dielectric member disposed between the electrode bars or the dot-like electrodes of the second electrode array; and - a voltage source configured to apply a voltage to and between the first electrode and the second electrode array, wherein when a voltage is applied to the first electrode and the second electrode array by the voltage source, dielectric barrier discharge plasma is generated between the first electrode and the second electrode array, characterized in that: - the at least one porous dielectric member is partially immersed in liquid, the at least one porous dielectric member is partially located in the plasma generation region. - a plate-like dielectric layer; - a plate-like first electrode disposed on a first face of the dielectric layer; - a second electrode array disposed on a second face of the dielectric layer opposite the first face, wherein the second electrode array includes a plurality of electrode bars arranged in parallel with each other or dot-like electrodes arranged spacedly apart from each other in a matrix form; - at least one porous dielectric member disposed between the electrode bars or the dot-like electrodes of the second electrode array; and - a voltage source configured to apply a voltage to and between the first electrode and the second electrode array, wherein when a voltage is applied to the first electrode and the second electrode array by the voltage source, dielectric barrier discharge plasma is generated between the first electrode and the second electrode array, - the at least one porous dielectric member is partially immersed in liquid, the at least one porous dielectric member is partially located in the plasma generation region.
A device for transmitting a physical parameter using analogue signals (A1, A2) for a vehicle controller, comprising: a first module that has a first transducer for converting a physical parameter into a first analogue signal and a second transducer for converting the physical parameter into a second analogue signal; and a second module for receiving the analogue signals (A1, A2) and for determining a plausibility between the two analogue signals (A1, A2), characterised by a switching device that is set to emit the first and second analogue signals (A1, A2) alternately to the second module, the switching device being set to emit a first reference signal to the second module between the first and second analogue signals (A2, A2) a first module that has a first transducer for converting a physical parameter into a first analogue signal and a second transducer for converting the physical parameter into a second analogue signal; and a second module for receiving the analogue signals (A1, A2) and for determining a plausibility between the two analogue signals (A1, A2), characterised by a switching device that is set to emit the first and second analogue signals (A1, A2) alternately to the second module, the switching device being set to emit a first reference signal to the second module between the first and second analogue signals (A2, A2)
A method for predicting the sensitivity of a cancer patient for treatment with a Wnt inhibitor in a sample by using a Wnt inhibitor named 2-[5-methyl-6-(2-methylpyridin-4-yl)pyridin-3-yl]-N-[5-(pyrazin-2-yl)pyridin-2-yl]acetamide, or a pharmaceutically acceptable salt thereof, the method comprising: a) measuring differential gene expression of at least biomarker Notch 1, in the cancer sample obtained from the patient; and b) comparing the differential gene expression of the at least one biomarker with gene expression of said biomarker in a control sample, c) correlating the reduced expression, or decreased activity or function when compared to the control with the patient sensitivity to the treatment with the Wnt inhibitor named 2-[5-methyl-6-(2-methylpyridin-4-yl)pyridin-3-yl]-N-[5-(pyrazin-2-yl)pyridin-2-yl]acetamide, or a pharmaceutically acceptable salt thereof. a) measuring differential gene expression of at least biomarker Notch 1, in the cancer sample obtained from the patient; and b) comparing the differential gene expression of the at least one biomarker with gene expression of said biomarker in a control sample, c) correlating the reduced expression, or decreased activity or function when compared to the control with the patient sensitivity to the treatment with the Wnt inhibitor named 2-[5-methyl-6-(2-methylpyridin-4-yl)pyridin-3-yl]-N-[5-(pyrazin-2-yl)pyridin-2-yl]acetamide, or a pharmaceutically acceptable salt thereof.
A surfactant mixture containing a) at least one surfactant of the formula R 1 -O- n -SO3 - X +, b) at least one surfactant of the formula R 2 -O- m -H, c) at least one surfactant of the formula R 3 -A-SO 3 - Y + in which R 1, R 2, R 3 represent, independently of one another, a linear or branched, substituted or unsubstituted alkyl, aryl or alkylaryl functional group, AO represents an ethylene oxide or propylene oxide grouping, n, m represent integers from 1 to 50, A represents -O- or a chemical bond, X, Y represent, independently of one another, a monovalent cation or the nth part of an n-valent cation, characterized in that, based on the total amount of surfactants [a) + b) + c)], said surfactant mixture contains - 38 to 40 wt.%, preferably 38.5 to 39.5 wt.%, and in particular 38.8 to 39.2 wt.% fatty alcohol ether sulfate(s) [surfactant a)], - 29.5 to 31.5 wt.%, preferably 30.0 to 31.0 wt.%, and in particular 30.25 to 30.75 wt.% fatty alcohol ethoxylate(s) [surfactant b)], - 29.5 to 31.5 wt.%, preferably 30.0 to 31.0 wt.%, and in particular 30.25 to 30.75 wt.% alkylbenzene sulfonate(s) [surfactant c)]. a) at least one surfactant of the formula R 1 -O- n -SO3 - X +, b) at least one surfactant of the formula R 2 -O- m -H, c) at least one surfactant of the formula R 3 -A-SO 3 - Y + R 1, R 2, R 3 represent, independently of one another, a linear or branched, substituted or unsubstituted alkyl, aryl or alkylaryl functional group, AO represents an ethylene oxide or propylene oxide grouping, n, m represent integers from 1 to 50, A represents -O- or a chemical bond, X, Y represent, independently of one another, a monovalent cation or the nth part of an n-valent cation, - 38 to 40 wt.%, preferably 38.5 to 39.5 wt.%, and in particular 38.8 to 39.2 wt.% fatty alcohol ether sulfate(s) [surfactant a)], - 29.5 to 31.5 wt.%, preferably 30.0 to 31.0 wt.%, and in particular 30.25 to 30.75 wt.% fatty alcohol ethoxylate(s) [surfactant b)], - 29.5 to 31.5 wt.%, preferably 30.0 to 31.0 wt.%, and in particular 30.25 to 30.75 wt.% alkylbenzene sulfonate(s) [surfactant c)].
An electronic device (600, 700) comprising: a printed circuit board; a display screen (502, 748) secured to the printed circuit board; and a suspension and tolerance absorption subassembly (100, 758) mounted to the printed circuit board and interposed between the display screen (502, 748) and the printed circuit board, wherein the suspension and tolerance absorption subassembly (100, 758) comprises: a first member affixed to the printed circuit board; and a second member having an outer portion bearing against a rear surface of the display screen (502, 748) and a flexible inner portion bearing against the outer portion and the first member, characterised in that the outer portion of the second member is substantially rigid and in that the first member and the second member are attached by a snap-fit assembly (130, 132), the snap-fit assembly having openings in the first member larger than projections on the outer portion of the second member to permit limited movement of the second member relative to the first member. a printed circuit board; a display screen (502, 748) secured to the printed circuit board; and a suspension and tolerance absorption subassembly (100, 758) mounted to the printed circuit board and interposed between the display screen (502, 748) and the printed circuit board, wherein the suspension and tolerance absorption subassembly (100, 758) comprises: a first member affixed to the printed circuit board; and a second member having an outer portion bearing against a rear surface of the display screen (502, 748) and a flexible inner portion bearing against the outer portion and the first member, characterised in that the outer portion of the second member is substantially rigid and in that the first member and the second member are attached by a snap-fit assembly (130, 132), the snap-fit assembly having openings in the first member larger than projections on the outer portion of the second member to permit limited movement of the second member relative to the first member. a first member affixed to the printed circuit board; and a second member having an outer portion bearing against a rear surface of the display screen (502, 748) and a flexible inner portion bearing against the outer portion and the first member, characterised in that the outer portion of the second member is substantially rigid and in that the first member and the second member are attached by a snap-fit assembly (130, 132), the snap-fit assembly having openings in the first member larger than projections on the outer portion of the second member to permit limited movement of the second member relative to the first member.
An implantable rate responsive pacemaker, comprising: a sensor module configured to produce an activity signal correlated to a metabolic demand of a patient and a posture signal correlated to patient posture; a pulse generator configured to generate and deliver pacing pulses to a patient's heart via a pair of electrodes (162, 164) coupled to the pacemaker; and a control module coupled to the pulse generator and the sensor module and configured to: determine a sensor indicated pacing rate from the activity signal; compare the posture signal to verification criteria for confirming an exercising posture of the patient; and withhold an adjustment of a pacing rate to the sensor indicated pacing rate responsive to the verification criteria not being met, wherein the control module is further configured to: compare the sensor indicated pacing rate to a rate threshold, and compare the posture signal to the verification criteria only in response to the sensor indicated pacing rate being greater than the rate threshold. a sensor module configured to produce an activity signal correlated to a metabolic demand of a patient and a posture signal correlated to patient posture; a pulse generator configured to generate and deliver pacing pulses to a patient's heart via a pair of electrodes (162, 164) coupled to the pacemaker; and a control module coupled to the pulse generator and the sensor module and configured to: determine a sensor indicated pacing rate from the activity signal; compare the posture signal to verification criteria for confirming an exercising posture of the patient; and withhold an adjustment of a pacing rate to the sensor indicated pacing rate responsive to the verification criteria not being met, wherein the control module is further configured to: compare the sensor indicated pacing rate to a rate threshold, and compare the posture signal to the verification criteria only in response to the sensor indicated pacing rate being greater than the rate threshold. determine a sensor indicated pacing rate from the activity signal; compare the posture signal to verification criteria for confirming an exercising posture of the patient; and withhold an adjustment of a pacing rate to the sensor indicated pacing rate responsive to the verification criteria not being met, wherein the control module is further configured to: compare the sensor indicated pacing rate to a rate threshold, and compare the posture signal to the verification criteria only in response to the sensor indicated pacing rate being greater than the rate threshold.
A receiver optical sub-assembly, comprising a first transistor-outline can, wherein the first transistor-outline can comprises a header and a cap disposed on the header, a light incident hole is disposed on the first transistor-outline can, a first demultiplexer, a first optical receiver, a second optical receiver, and an optical lens combination are disposed inside the cap, and the first optical receiver and the second optical receiver are connected to the header; light enters the first demultiplexer through the light incident hole, and the first demultiplexer is configured to transmit an optical signal of a first wavelength and reflect an optical signal of a second wavelength; the first optical receiver is disposed on a transmission optical path of the first demultiplexer, and the first optical receiver is configured to receive the optical signal of the first wavelength; the optical lens combination is disposed on a reflection optical path of the first demultiplexer, the optical lens combination is configured to guide, to the second optical receiver, the optical signal of the second wavelength that is reflected by the first demultiplexer, and the second optical receiver is configured to receive the optical signal of the second wavelength. light enters the first demultiplexer through the light incident hole, and the first demultiplexer is configured to transmit an optical signal of a first wavelength and reflect an optical signal of a second wavelength; the first optical receiver is disposed on a transmission optical path of the first demultiplexer, and the first optical receiver is configured to receive the optical signal of the first wavelength; the optical lens combination is disposed on a reflection optical path of the first demultiplexer, the optical lens combination is configured to guide, to the second optical receiver, the optical signal of the second wavelength that is reflected by the first demultiplexer, and the second optical receiver is configured to receive the optical signal of the second wavelength.
Lumber soft fibre plate with at least two edges (1a, 1b) facing one another, of which the one has at least a groove and the other has at least a ridge for engaging the groove of a second lumber soft fibre plate, characterized in that - the ridge is formed by at least three areas (2a, 2b, 2c), an element-sided area with parallel surfaces, a rounded area at the end of the ridge and an area arranged between the parallel area and the rounded area, which tapers with respect to diameter, with oblique surfaces running towards one another; - the areas (2a, 2b, 2c) merge seamlessly, in such a way that the corresponding edges are rounded; and - the groove has a corresponding shape. - the ridge is formed by at least three areas (2a, 2b, 2c), an element-sided area with parallel surfaces, a rounded area at the end of the ridge and an area arranged between the parallel area and the rounded area, which tapers with respect to diameter, with oblique surfaces running towards one another; - the areas (2a, 2b, 2c) merge seamlessly, in such a way that the corresponding edges are rounded; and - the groove has a corresponding shape.
Cladding element for a motor vehicle, comprising - a walling that encompasses an inner space of the cladding element, - one or more through openings that extend through the walling, - an illumination device disposed in the inner space of the cladding element and which can be connected to a light source, and - an adjustment device, by means of which the illumination device can be adjusted between an open position, in which light emitted by the illumination device can flow through the through openings, and a closed position, in which light emitted by the illumination device cannot flow through the through openings, characterized in that the illumination device comprises at least one light conductor that engages with the adjustment device and which comprises one or more decoupling sections in which the light can escape from the light conductor, wherein, in the open position, the adjustment device arranges the decoupling sections respective to the through openings such that the light can flow through the through openings. - a walling that encompasses an inner space of the cladding element, - one or more through openings that extend through the walling, - an illumination device disposed in the inner space of the cladding element and which can be connected to a light source, and - an adjustment device, by means of which the illumination device can be adjusted between an open position, in which light emitted by the illumination device can flow through the through openings, and a closed position, in which light emitted by the illumination device cannot flow through the through openings,
Catalytic burner arrangement comprising at least a catalytic burner unit with a housing having a reaction chamber in which a catalyst is arranged, wherein the catalyst is adapted to react a fuel, particularly a hydrogen containing fluid, with an oxidant, particularly air, for producing heat, said housing having a fluid inlet for supplying a fluid stream into the housing and a fluid outlet for exiting a fluid stream from the housing, and said catalytic burner arrangement further comprises a mixing unit forming a mixing chamber in which fuel and oxidant are mixed, wherein said mixing unit comprises a fuel inlet, an oxidant inlet and a fuel-oxidant- mixture outlet, wherein the fluid inlet of the catalytic burner unit merges with the fuel-oxidant- outlet of the mixing unit for transferring the fuel-oxidant-mixture from the mixing chamber to the reaction chamber of the catalytic burner unit, and wherein said fuel inlet of the mixing chamber is arranged upstream of said oxidant inlet of the mixing unit, wherein the fuel inlet and the oxidant inlet are arranged angled to a direction of a main fluid stream streaming through the fuel-oxidant-mixture outlet to the reaction chamber of the catalytic burner unit.
A method for preparing a high-purity 4'-galactosyl-lactose (4'-GL) composition, the method comprising the steps of: subjecting a 4'-GL-containing galacto-oligosaccharide to activated carbon column chromatography, and performing stepwise elution with plural organic solvent aqueous solutions, wherein the organic solvent aqueous solutions are used such that the concentration of the organic solvent in the organic solvent aqueous solution is higher than the concentration of the organic solvent in the immediately preceding organic solvent aqueous solution with respect to a series of elutions, wherein the organic solvent used in step is methanol and the stepwise elution is performed with an organic solvent aqueous solution containing the organic solvent in a concentration of 10 to 20 mass%, and an organic solvent aqueous solution containing the organic solvent in a concentration of 15 to 30 mass%, in this order; and adding an organic solvent to a final fraction eluted in step, and crystallizing the 4'-GL. subjecting a 4'-GL-containing galacto-oligosaccharide to activated carbon column chromatography, and performing stepwise elution with plural organic solvent aqueous solutions, wherein the organic solvent aqueous solutions are used such that the concentration of the organic solvent in the organic solvent aqueous solution is higher than the concentration of the organic solvent in the immediately preceding organic solvent aqueous solution with respect to a series of elutions, wherein the organic solvent used in step is methanol and the stepwise elution is performed with an organic solvent aqueous solution containing the organic solvent in a concentration of 10 to 20 mass%, and an organic solvent aqueous solution containing the organic solvent in a concentration of 15 to 30 mass%, in this order; and adding an organic solvent to a final fraction eluted in step, and crystallizing the 4'-GL.
A method operating at a client recording device (420, 508) disposed in an adaptive bitrate communications network (400, 500), the method comprising: receiving ABR program fragments of a particular program from a network node (410, 502) for recording at the client recording device (420, 508) via an ABR streaming session, the ABR program fragments comprising segments of varying bitrate quality; and after a predetermined amount of time, applying a constant bitrate quality requirement for receiving ABR program fragments encoded at a specified bitrate, thereby allowing a recording time pointer associated with the client recording device's video buffer to vary with respect to the particular program's real-time content time parameter, wherein the RTP is configured to lag behind the CTP depending on complexity of ABR program content and bandwidth available for the ABR streaming session. receiving ABR program fragments of a particular program from a network node (410, 502) for recording at the client recording device (420, 508) via an ABR streaming session, the ABR program fragments comprising segments of varying bitrate quality; and after a predetermined amount of time, applying a constant bitrate quality requirement for receiving ABR program fragments encoded at a specified bitrate, thereby allowing a recording time pointer associated with the client recording device's video buffer to vary with respect to the particular program's real-time content time parameter, wherein the RTP is configured to lag behind the CTP depending on complexity of ABR program content and bandwidth available for the ABR streaming session.
Basket stretcher weighting system, comprising a basket stretcher with a stretcher body, at least one load sensor provided to measure the load of the stretcher body, a receiver and transmission means to transmit an output of the load sensor representing the measured load to the receiver, characterized in that the receiver is a control unit of a lifting device for lifting the basket stretcher.
An image processing apparatus comprising: detection means (101, 209) configured to detect a face area in an image; determination means (20, 112) configured to determine a saturated pixel area from a smear generated by leakage of electric charge from a saturated pixel, in which pixel values are saturated in the image; extraction means configured to extract features from the face area for use in authentication processing; and memory means configured to register the features extracted by the extraction means as dictionary data to be used in the authentication processing, in a dictionary registration mode, wherein the memory means does not register features in the saturated pixel area as the dictionary data. detection means (101, 209) configured to detect a face area in an image; determination means (20, 112) configured to determine a saturated pixel area from a smear generated by leakage of electric charge from a saturated pixel, in which pixel values are saturated in the image; extraction means configured to extract features from the face area for use in authentication processing; and memory means configured to register the features extracted by the extraction means as dictionary data to be used in the authentication processing, in a dictionary registration mode, wherein the memory means does not register features in the saturated pixel area as the dictionary data.
A diagnostics system for calibrating a mass flow controller, the diagnostics system comprising: a controller communicable coupled to at least one sensor and to a valve, the controller tuned to control the valve based on a predetermined set point value and communication from the at least one sensor, the controller configured to; determine a number of set point value adjustments; and characterized that the controller is further configured to: generate a notification message indicating that the number of set point value adjustments is equal to a predetermined number of set point value adjustments, wherein the predetermined number of set point value adjustments is a function of total fluid hours.