mhurhangee/ep-ind-claims huggingface dataset:
Method for the corrosion-inhibiting coating of metal surfaces, characterized in that in a first step, the metal surface is cleaned and optionally treated with a pretreatment composition, and in a second step, the metal surface cleaned and optionally pretreated in step is coated with a primer comprising at least one binder and at least one crosslinking agent, and also at least one phosphorus-containing polyester component, wherein is an acidic esterification product of phosphonic acid, of monophosphoric acid and/or of polyphosphoric acid, and/or of the anhydrides thereof and/or of the esters thereof, with at least one polyester which contains at least two hydroxyl groups, and the drying and/or curing of the primer is carried out at peak temperatures (peak metal temperature), found beforehand on the metal, of at least 80°C. in a first step, the metal surface is cleaned and optionally treated with a pretreatment composition, and in a second step, the metal surface cleaned and optionally pretreated in step is coated with a primer comprising at least one binder and at least one crosslinking agent, and also at least one phosphorus-containing polyester component, wherein is an acidic esterification product of phosphonic acid, of monophosphoric acid and/or of polyphosphoric acid, and/or of the anhydrides thereof and/or of the esters thereof, with at least one polyester which contains at least two hydroxyl groups, and the drying and/or curing of the primer is carried out at peak temperatures (peak metal temperature), found beforehand on the metal, of at least 80°C.
MEK inhibitor for use in a method for the treatment of a co-infection comprising a bacterial infection and an influenza virus infection, wherein the MEK inhibitor is selected from the group consisting of PLX-4032, AZD6244, AZD8330, AS-703026, GSK-1120212, RDEA-119, RO-5126766, RO-4987655, CI-1040, PD-0325901, GDC-0973, TAK-733, PD98059, ARRY-438162, PF-3644022 and PD184352, preferably AZD8330, GSK-1120212, GDC-0973, CI-1040, PD0325901, ARRY-438162, PF-3644022 and AZD6244.
A device comprising: a sealed enclosure; an organic light-emitting diode placed within the enclosure; a device (103, 105, 107) for measuring a quantity representative of at least one of the following parameters: a) the luminous efficiency of the diode; and b) the impedance of the diode; and a processing circuit memorizing, in the alternative a), a law representative of the time variation of the luminous efficiency of the diode in the absence of a leak in the sealed enclosure and a law representative of the time variation of the luminous efficiency of the diode in the presence of a leak in the sealed enclosure, and in the alternative b), a law representative of the time variation of the impedance of the diode in the absence of a leak in the sealed enclosure and a law representative of the time variation of the impedance of the diode in the presence of a leak in the sealed enclosure, said laws being determined during a characterization phase when designing the device, and the processing circuit being capable of comparing said quantity to one or a plurality of reference values output from said laws, and of deducing therefrom the possible presence of oxygen or humidity of abnormal proportions within the enclosure, wherein the processing circuit is capable of controlling an alarm when it detects a presence of oxygen or of humidity of abnormal proportions within the enclosure. a sealed enclosure; an organic light-emitting diode placed within the enclosure; a device (103, 105, 107) for measuring a quantity representative of at least one of the following parameters: a) the luminous efficiency of the diode; and b) the impedance of the diode; and a) the luminous efficiency of the diode; and b) the impedance of the diode; and a processing circuit memorizing, in the alternative a), a law representative of the time variation of the luminous efficiency of the diode in the absence of a leak in the sealed enclosure and a law representative of the time variation of the luminous efficiency of the diode in the presence of a leak in the sealed enclosure, and in the alternative b), a law representative of the time variation of the impedance of the diode in the absence of a leak in the sealed enclosure and a law representative of the time variation of the impedance of the diode in the presence of a leak in the sealed enclosure, said laws being determined during a characterization phase when designing the device, and the processing circuit being capable of comparing said quantity to one or a plurality of reference values output from said laws, and of deducing therefrom the possible presence of oxygen or humidity of abnormal proportions within the enclosure, wherein the processing circuit is capable of controlling an alarm when it detects a presence of oxygen or of humidity of abnormal proportions within the enclosure.
A laser-based light source comprising at least one or more lasers (110, 111), at least one conversion device and at least one manipulation device, wherein the one or more lasers (110, 111) are adapted to emit first laser light, wherein the first laser light comprises linearly polarized laser light with a first polarization component parallel to a plane of incidence of the first laser light with respect to a first surface of the conversion device and a second polarization component perpendicular to the plane of incidence, wherein the conversion device is adapted to convert a first part of the first laser light to first light and to reflect a second part of the first laser light at the first surface of the conversion device, wherein the first light is in a different wavelength range as the first laser light, and wherein the manipulation device is arranged to manipulate a first intensity of the first part and a second intensity of the second part using an angular dependence of the reflection of the first and the second polarization component of the first laser light at the first surface of the conversion device.
A method, comprising the steps of: A) providing a computer system that includes or is connected to a database of stain information, wherein the database contains a plurality of records associated with a plurality of colored stains, each record including: (i) data representing a transparent or semitransparent wood stain formula, and (ii) at least one of: (a) a first digital color image depicting the stain or (b) first spectral data for the stain as applied to an earlywood region of one or more substrates having or depicting earlywood and latewood regions; B) obtaining at least one of: (i) a second digital color image of or (ii) second spectral data for an earlywood region of a stained target object having or depicting earlywood and latewood regions; and C) selecting a desired stain for a substrate to be stained using a color matching program for color matching an earlywood portion of at least one of the second digital color image or second spectral data to an earlywood portion of a first digital color image or first spectral data from one or more of the database records. A) providing a computer system that includes or is connected to a database of stain information, wherein the database contains a plurality of records associated with a plurality of colored stains, each record including: (i) data representing a transparent or semitransparent wood stain formula, and (ii) at least one of: (a) a first digital color image depicting the stain or (b) first spectral data for the stain as applied to an earlywood region of one or more substrates having or depicting earlywood and latewood regions; (i) data representing a transparent or semitransparent wood stain formula, and (ii) at least one of: (a) a first digital color image depicting the stain or (b) first spectral data for the stain as applied to an earlywood region of one or more substrates having or depicting earlywood and latewood regions; (a) a first digital color image depicting the stain or (b) first spectral data for the stain B) obtaining at least one of: (i) a second digital color image of or (ii) second spectral data for an earlywood region of a stained target object having or depicting earlywood and latewood regions; and (i) a second digital color image of or (ii) second spectral data for C) selecting a desired stain for a substrate to be stained using a color matching program for color matching an earlywood portion of at least one of the second digital color image or second spectral data to an earlywood portion of a first digital color image or first spectral data from one or more of the database records.
A wall-mounted drum type washing machine comprising: a rear panel mounted on a wall surface; a tub containing wash water; a box unit coupled to the rear panel and surrounding the tub; and a reinforcement unit connecting the tub and the rear panel and surrounding the tub, characterized in that the rear panel comprises a plurality of reinforcement ribs on a rear surface thereof, the tub protrudes from the rear panel to a front side, and the reinforcement ribs protrude from the rear panel to a rear side, and the reinforcement unit protrudes from the rear panel to the front side and is integral with the tub. a rear panel mounted on a wall surface; a tub containing wash water; a box unit coupled to the rear panel and surrounding the tub; and a reinforcement unit connecting the tub and the rear panel and surrounding the tub, characterized in that the rear panel comprises a plurality of reinforcement ribs on a rear surface thereof, the tub protrudes from the rear panel to a front side, and the reinforcement ribs protrude from the rear panel to a rear side, and the reinforcement unit protrudes from the rear panel to the front side and is integral with the tub.
A method for producing a planographic printing plate, comprising the steps of: image-wise exposing a positive type planographic printing plate precursor including an intermediate layer and a positive type image-forming layer successively on a support, the intermediate layer having a coating amount after drying of from 2 mg/m 2 to 200 mg/m 2 and including a polymer including a repeating unit represented by the following formula (I-1) and a repeating unit represented by the following formula (I-2); and developing the exposed positive type planographic printing plate precursor by removing image-wise exposed areas using a treatment liquid having a pH of from 7 to 12: wherein, in the formula (I-1), R 1 represents a hydrogen atom, a methyl group, or an ethyl group; L 1 represents a single bond or -COO-(CH 2 CH 2 O) n -; and n represents an integer of from 1 to 12, and wherein, in the formula (I-2), R 2 represents a hydrogen atom, a methyl group, or an ethyl group; R 3 and R 4 each independently represent an alkyl group having 1 to 3 carbon atoms; L 2 represents a linking group selected from -COO-, -CONH-, or an alkylene group having 1 to 5 carbon atoms, or a linking group formed by connecting two or more of these; and L 3 represents an alkylene group or -CH 2 CHOHCH 2 -. image-wise exposing a positive type planographic printing plate precursor including an intermediate layer and a positive type image-forming layer successively on a support, the intermediate layer having a coating amount after drying of from 2 mg/m 2 to 200 mg/m 2 and including a polymer including a repeating unit represented by the following formula (I-1) and a repeating unit represented by the following formula (I-2); and developing the exposed positive type planographic printing plate precursor by removing image-wise exposed areas using a treatment liquid having a pH of from 7 to 12: wherein, in the formula (I-1), R 1 represents a hydrogen atom, a methyl group, or an ethyl group; L 1 represents a single bond or -COO-(CH 2 CH 2 O) n -; and n represents an integer of from 1 to 12, and wherein, in the formula (I-2), R 2 represents a hydrogen atom, a methyl group, or an ethyl group; R 3 and R 4 each independently represent an alkyl group having 1 to 3 carbon atoms; L 2 represents a linking group selected from -COO-, -CONH-, or an alkylene group having 1 to 5 carbon atoms, or a linking group formed by connecting two or more of these; and L 3 represents an alkylene group or -CH 2 CHOHCH 2 -.
An engine head cover which includes a blowby gas passage, the engine head cover comprising: a pressure regulating valve disposed on an outlet side of the blowby gas passage; a filter disposed on an inlet side of the blowby gas passage; a labyrinth disposed between the pressure regulating valve and the filter in the blowby gas passage; and a recovery hole which causes a flowdown of oil trapped in the blowby gas passage, wherein the recovery hole is formed at a portion on a downstream side of the filter and on a lower side of the labyrinth and the pressure regulating valve, characterised by a partition member which partitions the labyrinth and the pressure regulating valve from the recovery hole on upper and lower sides of the partition member to communicate a portion of the blowby gas passage between the filter and the labyrinth with the recovery hole. a pressure regulating valve disposed on an outlet side of the blowby gas passage; a filter disposed on an inlet side of the blowby gas passage; a labyrinth disposed between the pressure regulating valve and the filter in the blowby gas passage; and a recovery hole which causes a flowdown of oil trapped in the blowby gas passage, wherein the recovery hole is formed at a portion on a downstream side of the filter and on a lower side of the labyrinth and the pressure regulating valve, characterised by a partition member which partitions the labyrinth and the pressure regulating valve from the recovery hole on upper and lower sides of the partition member to communicate a portion of the blowby gas passage between the filter and the labyrinth with the recovery hole.
Aircraft jet engine with a bypass region positioned radially around a core region, with a flow scoop device for guiding a first airflow from the bypass region, characterized by at least one flow guiding device configured to decouple the flow regime in a region containing a flammable fluid from a flow regime in a region with tip clearance control by at least partially guiding second and third airflows (2, 3) divided from the first airflow, a) the second airflow directed into the region containing flammable fluid, and b) the third airflow directed into a region away from the region containing flammable fluid. a) the second airflow directed into the region containing flammable fluid, and b) the third airflow directed into a region away from the region containing flammable fluid.
A ventilation apparatus comprising: a ventilation unit to exchange air in an indoor space and air in an outdoor space that is a space different from the indoor space, and to ventilate the indoor space; a calculation unit to calculate a threshold on the basis of CO 2 concentration of the air in the outdoor space and a selected operation mode selected in advance from a plurality of operation modes; an operation control unit to control the ventilation unit such that an amount of ventilation is larger when CO 2 concentration of the air in the indoor space is higher than or equal to the threshold than when the CO 2 concentration of the air in the indoor space is lower than the threshold; and a storage unit to store a correction value associated for each of the plurality of operation modes, wherein the correction value is different for each of the operation modes associated, and the calculation unit calculates the threshold on the basis of the CO 2 concentration of the air in the outdoor space and the correction value associated with the operation mode selected as the selected operation mode. a ventilation unit to exchange air in an indoor space and air in an outdoor space that is a space different from the indoor space, and to ventilate the indoor space; a calculation unit to calculate a threshold on the basis of CO 2 concentration of the air in the outdoor space and a selected operation mode selected in advance from a plurality of operation modes; an operation control unit to control the ventilation unit such that an amount of ventilation is larger when CO 2 concentration of the air in the indoor space is higher than or equal to the threshold than when the CO 2 concentration of the air in the indoor space is lower than the threshold; and a storage unit to store a correction value associated for each of the plurality of operation modes, wherein the correction value is different for each of the operation modes associated, and the calculation unit calculates the threshold on the basis of the CO 2 concentration of the air in the outdoor space and the correction value associated with the operation mode selected as the selected operation mode.
A method of automatically identifying tissue structures in a sample, the method comprising the steps of: measuring a fluorescence response of an area of the sample to illumination with light by obtaining a light image of the sample area; generating a spatial correlation map of the sample area using unsupervised automated image segmentation, and determining a plurality of segments for further analysis, which involves discounting selected segments on the basis of a threshold; automatically establishing a sampling pattern for spectroscopic analysis of one or more locations in said plurality of segments of the spatial correlation map; performing spectroscopic analysis of the sample at each of the one or more locations; classifying said plurality of segments of the spatial correlation map from the spectroscopic analysis performed on the one or more locations therein to identify a tissue structure for said plurality of segments; and providing a diagnostic segmented image of the sample area coloured according to the different tissue structures identified in the plurality of segments. measuring a fluorescence response of an area of the sample to illumination with light by obtaining a light image of the sample area; generating a spatial correlation map of the sample area using unsupervised automated image segmentation, and determining a plurality of segments for further analysis, which involves discounting selected segments on the basis of a threshold; automatically establishing a sampling pattern for spectroscopic analysis of one or more locations in said plurality of segments of the spatial correlation map; performing spectroscopic analysis of the sample at each of the one or more locations; classifying said plurality of segments of the spatial correlation map from the spectroscopic analysis performed on the one or more locations therein to identify a tissue structure for said plurality of segments; and providing a diagnostic segmented image of the sample area coloured according to the different tissue structures identified in the plurality of segments.
An evaporator module, in particular for a coolant circuit of an HVAC system of a motor vehicle, comprising a first evaporator and at least one second evaporator and an ejector with a nozzle member and a cladding member, wherein the ejector has a first input and at least one second input for feeding coolant, wherein the ejector has a common output for discharging a coolant mixture of the two inputs (4a, 4b), wherein at least some of the coolant discharged from the output can be fed to the first evaporator, and wherein the coolant leaving the first evaporator can be fed at least in part to the second input of the ejector, and wherein at least some of the coolant discharged from the output can be fed to the second evaporator, wherein a feed (9a, 9b) of the coolant mixture into the first and second evaporator is formed in the cladding member, wherein the first and second evaporator have collecting boxes (5a, 8a) and the coolant mixture is fed into the collecting boxes (5a, 8a), and wherein the collecting boxes (5a, 8a) also have an outer contour that corresponds substantially to the letter "B", characterised in that the outer contour of the cladding member is adapted at least in part to this contour in order to provide a bearing surface for an integrally bonded connection at the points of passage (4b, 9a, 9b).
A carbon catalyst comprising a carbonized material of a raw material containing an organic substance and a transition metal, wherein the carbonized material comprises a carbon structure in which a carbon dioxide desorption amount at from 150°C to 900°C exhibits a maximum value within a range of from 200°C to 340°C in a temperature programmed desorption method including measuring a desorption amount of carbon dioxide at from 0°C to 1,000°C, wherein the temperature programmed desorption method involves subjecting the carbon catalyst to heat treatment for desorbing a functional group from the carbon structure, chemically adsorbing oxygen to the carbon structure, and then measuring the desorption amount of carbon dioxide from the carbon structure within a temperature range of from 0°C to 1,000°C. wherein the carbonized material comprises a carbon structure in which a carbon dioxide desorption amount at from 150°C to 900°C exhibits a maximum value within a range of from 200°C to 340°C in a temperature programmed desorption method including measuring a desorption amount of carbon dioxide at from 0°C to 1,000°C, wherein the temperature programmed desorption method involves subjecting the carbon catalyst to heat treatment for desorbing a functional group from the carbon structure, chemically adsorbing oxygen to the carbon structure, and then measuring the desorption amount of carbon dioxide from the carbon structure within a temperature range of from 0°C to 1,000°C.
A cellular receiver comprising a differential reception system, the differential reception system comprising a filter, a balun, and a signal amplification, phase discrimination and demodulation module; wherein the filter is configured to filter a signal received by an antenna; the balun is configured to transform the filtered signal into differential signals; and the signal amplification, phase discrimination and demodulation module is configured to perform an amplification and phase discrimination process of the differential signals and compensate a phase of either channel differential signal, and synthesize the processed differential signals and demodulate the synthesized signal; characterized in that the signal amplification, phase discrimination and demodulation module comprises a low noise amplifier, a phase discrimination unit, a digital phase control unit and a signal demodulation device; wherein the low noise amplifier is configured to amplify the differential signals and output the amplified differential signals; the phase discrimination unit is configured to discriminate and lock the phase of the amplified differential signals, and synthesize the processed differential signals; the digital phase control unit is configured to adjust the phase locked by phase discrimination unit on either channel; and the signal demodulation device is configured to demodulate the synthesized signal; wherein the phase discrimination unit comprises two phase-locked loop circuits (2581, 2582) and a differential signal synthesis circuit; wherein the two phase-locked loop circuits (2581, 2582) are set on each differential line for discriminating and locking the phase of the amplified differential signal passed through the differential line; either channel of the two phase-locked loop circuits (2581, 2582) is controlled by the digital phase control unit; and the differential signal synthesis circuit is configured to synthesize the differential signals outputted from the two channel phase-locked loop circuits (2581, 2582), and output the synthesized signal to the signal demodulation device.