mhurhangee/ep-ind-claims huggingface dataset:
A process for selective catalytic reduction of nitrogen oxides (NOx) with effective suppression of ammonia salt formation in a gas stream comprising ammonia, the NOx, SO 2 and water, the process comprising: reducing the NOx via the ammonia by passing the gas stream over a catalytic bed comprising a reducing only catalyst portion that comprises a first amount of tungsten; and oxidizing remaining ammonia while simultaneously further reducing NOx by passing the gas stream over a reducing-plus-oxidizing catalyst portion downstream from the reducing only catalyst portion in the catalytic bed, the reducing-plus-oxidizing catalyst portion comprising a second amount of tungsten, wherein the reducing-plus-oxidizing catalyst portion has a greater concentration of tungsten than the reducing only catalyst portion, wherein the reducing-plus-oxidizing catalyst portion comprises an additional 2-8 wt. % of tungsten relative to the reducing only catalyst portion. reducing the NOx via the ammonia by passing the gas stream over a catalytic bed comprising a reducing only catalyst portion that comprises a first amount of tungsten; and oxidizing remaining ammonia while simultaneously further reducing NOx by passing the gas stream over a reducing-plus-oxidizing catalyst portion downstream from the reducing only catalyst portion in the catalytic bed, the reducing-plus-oxidizing catalyst portion comprising a second amount of tungsten, wherein the reducing-plus-oxidizing catalyst portion has a greater concentration of tungsten than the reducing only catalyst portion, wherein the reducing-plus-oxidizing catalyst portion comprises an additional 2-8 wt. % of tungsten relative to the reducing only catalyst portion.
A warewash machine, comprising: a chamber for receiving wares to be washed, the chamber including spray nozzles for spraying liquid; a first chemical flow path (56, 58) for feeding a first chemical to the chamber, the first chemical flow path (56, 58) including a first flow through chemical sensor (68, 70) therealong; a second chemical flow path for feeding a second chemical to the chamber, the second chemical flow path including a second flow through chemical sensor therealong; the first flow through chemical sensor (68, 70) includes a first fluid passage therethrough and first and second electrodes (92, 94) thereon, the first and second electrodes (92, 94) in communication with the first fluid passage; and the second flow through chemical sensor includes a second fluid passage therethrough and third and fourth electrodes (92, 94') thereon, the third and fourth electrodes (92,94') in communication with the second fluid passage, the third and fourth electrodes (92, 94') arranged in an electrode opposed configuration, wherein the electrodes are positioned in an opposed relationship to each other and the path of electrical contact between the electrodes (92, 94') runs generally across the fluid flow direction, characterized in that the first and second electrodes (92, 94) are arranged in an electrode parallel configuration, wherein the electrodes are positioned side by side each other and the path of electrical contact between the two electrodes (92 94) runs generally parallel to the fluid flow direction. a chamber for receiving wares to be washed, the chamber including spray nozzles for spraying liquid; a first chemical flow path (56, 58) for feeding a first chemical to the chamber, the first chemical flow path (56, 58) including a first flow through chemical sensor (68, 70) therealong; a second chemical flow path for feeding a second chemical to the chamber, the second chemical flow path including a second flow through chemical sensor therealong; the first flow through chemical sensor (68, 70) includes a first fluid passage therethrough and first and second electrodes (92, 94) thereon, the first and second electrodes (92, 94) in communication with the first fluid passage; and the second flow through chemical sensor includes a second fluid passage therethrough and third and fourth electrodes (92, 94') thereon, the third and fourth electrodes (92,94') in communication with the second fluid passage, the third and fourth electrodes (92, 94') arranged in an electrode opposed configuration, wherein the electrodes are positioned in an opposed relationship to each other and the path of electrical contact between the electrodes (92, 94') runs generally across the fluid flow direction, characterized in that the first and second electrodes (92, 94) are arranged in an electrode parallel configuration, wherein the electrodes are positioned side by side each other and the path of electrical contact between the two electrodes (92 94) runs generally parallel to the fluid flow direction.
A method for Fourier ptychographic microscopy, the method comprising: providing a light emitting diode array microscope with a programmable array of light emitting diodes; illuminating a sample with a multiplexed sequence of illuminations of light emitting diodes in the array wherein multiple light emitting diodes are turned on for each image, whereby the light emitting diodes that are used simultaneously to illuminate the sample during one image represent distinct, non-overlapping areas of Fourier space; acquiring images of the sample from each illumination in the sequence, wherein the multiplexed sequence of illuminations generates images having an overlap; and reconstructing a final image from the acquired overlapping images. providing a light emitting diode array microscope with a programmable array of light emitting diodes; illuminating a sample with a multiplexed sequence of illuminations of light emitting diodes in the array wherein multiple light emitting diodes are turned on for each image, whereby the light emitting diodes that are used simultaneously to illuminate the sample during one image represent distinct, non-overlapping areas of Fourier space; acquiring images of the sample from each illumination in the sequence, wherein the multiplexed sequence of illuminations generates images having an overlap; and reconstructing a final image from the acquired overlapping images.
Process for producing a purified gas stream B' using a unit for producing a gas stream and a storage reservoir R comprising impurities I, said process comprising the following steps: a) production of a gas stream A by means of the production unit, b) storage of at least a portion of the gas stream A in the reservoir R, c) extraction, from the reservoir R, of a gas stream B corresponding to at least one portion of the stream A polluted by the impurities I from the storage reservoir R, d) purification of the gas stream B by transfer of at least one portion of the impurities I contained in the gas stream B into the gas stream A, and e) recovery of a purified gas stream B' at the output of the purification, the process comprising a step of extraction of a gas stream C from the storage reservoir R. a) production of a gas stream A by means of the production unit, b) storage of at least a portion of the gas stream A in the reservoir R, c) extraction, from the reservoir R, of a gas stream B corresponding to at least one portion of the stream A polluted by the impurities I from the storage reservoir R, d) purification of the gas stream B by transfer of at least one portion of the impurities I contained in the gas stream B into the gas stream A, and e) recovery of a purified gas stream B' at the output of the purification,
Method for compressing an input data set which comprises one or more input values, comprising the steps of: - for each input value, determining a tolerance range; - generating encoded lossy values by lossy encoding of the input values; - generating decoded lossy values associated with the input values, in particular by decoding the encoded lossy values; - generating difference values by subtracting each decoded lossy value from the respectively associated input value; - comparing each difference value with the respectively associated determined tolerance range in order to ascertain whether the difference value is within the respectively associated tolerance range; - generating encoded correction values associated with the encoded lossy values on the basis of the difference values, wherein the encoded correction values are offset values which can be added to the associated encoded lossy values, wherein encoded correction values are generated only for the difference values that are outside the respectively associated determined tolerance range; and - supplying an output data set based on the comparison of the difference values with the tolerance ranges, wherein supplying the output data set includes supplying combined encoded values, wherein the combined encoded values are obtained by merging the encoded lossy values and the encoded correction values that have associated difference values that are outside the associated determined tolerance range. - for each input value, determining a tolerance range; - generating encoded lossy values by lossy encoding of the input values; - generating decoded lossy values associated with the input values, in particular by decoding the encoded lossy values; - generating difference values by subtracting each decoded lossy value from the respectively associated input value; - comparing each difference value with the respectively associated determined tolerance range in order to ascertain whether the difference value is within the respectively associated tolerance range; - generating encoded correction values associated with the encoded lossy values on the basis of the difference values, wherein the encoded correction values are offset values which can be added to the associated encoded lossy values, wherein encoded correction values are generated only for the difference values that are outside the respectively associated determined tolerance range; and - supplying an output data set based on the comparison of the difference values with the tolerance ranges, wherein supplying the output data set includes supplying combined encoded values, wherein the combined encoded values are obtained by merging the encoded lossy values and the encoded correction values that have associated difference values that are outside the associated determined tolerance range.
An active ingredient comprising: a therapeutically effective amount of TLR4 antagonist, wherein TLR4 antagonist comprises eritoran or a pharmaceutically acceptable salt thereof for use in treating a patient infected with an orthomyxovirus, preferably with influenza virus.
Pneumatic vehicle tyre of a radial design with a tread having a profiled two-layered tread cap with a radially outer cap layer and a radially inner cap layer, characterized in that the two cap layers (3a, 3b) have identical stress values, determined at 300% elongation according to DIN 53504, and in that the radially inner cap layer has a greater dynamic storage modulus at 55°C than the radially outer cap layer, the dynamic storage modulus being determined as the dynamic storage modulus averaged over the strain from a dynamic-mechanical measurement with a strain sweep under a precompression of 20% in the strain range of 0.15% to 8% and a frequency of 10 Hz at a temperature of 55°C on the basis of DIN 53513.
A seal assembly (150;220;240;260;550) for creating a seal between a first tubular and a second tubular (60; 80), wherein the first tubular is disposed within the second tubular (60;80), the seal assembly comprising: an annular member (100;440;530) attached to the first tubular, the annular member having a groove (140;455;540) formed on an outer surface of the annular member, the groove having a first sidewall, a second sidewall, and a bottom surface; a seal member (135;265;450;535) disposed in the groove, the seal member having: a bottom surface disposed adjacent the bottom surface of the groove; a top surface opposite the bottom surface; a first side disposed adjacent the first sidewall of the groove; a second side disposed adjacent the second sidewall of the groove; and one or more anti-extrusion bands (155,160;460;465;555,560), wherein the seal member is configured to be expandable radially outward into contact with an inner wall of the second tubular by the application of an outwardly directed force supplied to an inner surface of the annular member; and a gap (145;270;470;545) defined between the first side of the seal member and the first sidewall of the groove, wherein the gap is configured to close upon expansion of the annular member in response to engagement of the seal member and the annular member with the second tubular. an annular member (100;440;530) attached to the first tubular, the annular member having a groove (140;455;540) formed on an outer surface of the annular member, the groove having a first sidewall, a second sidewall, and a bottom surface; a seal member (135;265;450;535) disposed in the groove, the seal member having: a bottom surface disposed adjacent the bottom surface of the groove; a top surface opposite the bottom surface; a first side disposed adjacent the first sidewall of the groove; a second side disposed adjacent the second sidewall of the groove; and a bottom surface disposed adjacent the bottom surface of the groove; a top surface opposite the bottom surface; a first side disposed adjacent the first sidewall of the groove; a second side disposed adjacent the second sidewall of the groove; and one or more anti-extrusion bands (155,160;460;465;555,560), wherein the seal member is configured to be expandable radially outward into contact with an inner wall of the second tubular by the application of an outwardly directed force supplied to an inner surface of the annular member; and a gap (145;270;470;545) defined between the first side of the seal member and the first sidewall of the groove, wherein the gap is configured to close upon expansion of the annular member in response to engagement of the seal member and the annular member with the second tubular.
A method of fabricating a carbon based cathode for an electrochemical cell comprising: emitting a sequence of individual droplets of an electrode coating fluid onto a portion of a titanium substrate from at least one orifice of an actuated valve; and further comprising the step of post-processing the electrode coating fluid; and wherein the electrode coating fluid consists of a carbon bearing slurry; and wherein further post-processing consists of heating the deposited material and the titanium substrate at between 600 degrees to 1,000 degrees Celsius at a reduced pressure and/or under a chemically inert cover gas to form a titanium carbide layer at an interface of the titanium and the carbon material; and activating the deposited carbon material by heating in an oxygen-containing atmosphere for between about 0.1 hour to about four hours at temperatures between 200 degrees and 500 degrees Celsius, characterised in that the actuated valve is a piezoelectrically controlled valve emitting a sequence of individual droplets of an electrode coating fluid onto a portion of a titanium substrate from at least one orifice of an actuated valve; and further comprising the step of post-processing the electrode coating fluid; and wherein the electrode coating fluid consists of a carbon bearing slurry; and wherein further post-processing consists of heating the deposited material and the titanium substrate at between 600 degrees to 1,000 degrees Celsius at a reduced pressure and/or under a chemically inert cover gas to form a titanium carbide layer at an interface of the titanium and the carbon material; and activating the deposited carbon material by heating in an oxygen-containing atmosphere for between about 0.1 hour to about four hours at temperatures between 200 degrees and 500 degrees Celsius, characterised in that the actuated valve is a piezoelectrically controlled valve
A method for content recording control of a mobile image recording and capturing device in processing communication with a camera comprising: - receiving a start of a control signal indicating the start of a capture mode; - initiating a capture mode in response to said start of said control signal to generate a captured video data; - initiating a timer in response to said start of said control signal; - receiving an end to said control signal; - stopping said timer in response to said end of said control signal to generate an elapsed time; - comparing said elapsed time to a threshold time; and - saving an image of said captured video data in response to said elapsed time being less than said threshold time in a storage location. - receiving a start of a control signal indicating the start of a capture mode; - initiating a capture mode in response to said start of said control signal to generate a captured video data; - initiating a timer in response to said start of said control signal; - receiving an end to said control signal; - stopping said timer in response to said end of said control signal to generate an elapsed time; - comparing said elapsed time to a threshold time; and - saving an image of said captured video data in response to said elapsed time being less than said threshold time in a storage location.
A decorative laminate comprising a core impregnated with a phenolic resin, associated on at least one of the faces thereof with a sheet (2,4) impregnated with a mixture consisting of an alkylated melamine resin crosslinked with an acrylic polyol resin having at least two hydroxyl functions, and up to 5% by weight, relative to the total weight of the mixture, of one or more additives chosen from anti-UV agents, antioxidants and surfactants, said core is not impregnated with a resin other than the phenolic resin.
A high-bypass turbofan arrangement, comprising: a first bypass nozzle section associated with a gas turbine engine bypass passage; and a second bypass nozzle section for controlling a cross-sectional area of a rear exhaust of the bypass passage, and having a plurality of positions relative to the first bypass nozzle section such that there is a gap between the first bypass nozzle section and the second bypass nozzle section in at least one of the positions; a moveable door at least partially between the first bypass nozzle section and the second bypass nozzle section for selectively opening and closing the gap, wherein an entire radially outer surface of the moveable door is radially inward of a radially outer surface of the first bypass nozzle section and a radially outer surface of the second bypass nozzle section, wherein the moveable door is located radially outwards of the gas turbine engine bypass passage relative to the engine centreline axis; a thrust reverser blocker door for thrust reversing connected for movement with the moveable door; and each of the first bypass nozzle section, the second bypass nozzle section, and the movable door includes a radially inner surface and a radially outer surface relative to an or the engine centreline axis, and the radially outer surface of the movable door is approximately flush with the radially outer surface (42a, 42b) of at least one of the first bypass nozzle section or the second bypass nozzle section. a first bypass nozzle section associated with a gas turbine engine bypass passage; and a second bypass nozzle section for controlling a cross-sectional area of a rear exhaust of the bypass passage, and having a plurality of positions relative to the first bypass nozzle section such that there is a gap between the first bypass nozzle section and the second bypass nozzle section in at least one of the positions; a moveable door at least partially between the first bypass nozzle section and the second bypass nozzle section for selectively opening and closing the gap, wherein an entire radially outer surface of the moveable door is radially inward of a radially outer surface of the first bypass nozzle section and a radially outer surface of the second bypass nozzle section, wherein the moveable door is located radially outwards of the gas turbine engine bypass passage relative to the engine centreline axis; a thrust reverser blocker door for thrust reversing connected for movement with the moveable door; and each of the first bypass nozzle section, the second bypass nozzle section, and the movable door includes a radially inner surface and a radially outer surface relative to an or the engine centreline axis, and the radially outer surface of the movable door is approximately flush with the radially outer surface (42a, 42b) of at least one of the first bypass nozzle section or the second bypass nozzle section.
Method for reducing energy consumption in WCDMA cells of a mobile network, the method comprising: monitoring traffic conveyed in the traffic channels of a cell; analyzing certain predetermined parameters in the monitored traffic; and, determining whether said predetermined parameters meet corresponding predetermined conditions, characterised in that the method comprises: when said predetermined conditions are met, switching off continuous transmission of common channels and facilitating intermittent transmission of the common channels during one or more transmission events, thereby causing the cell to enter a cell standby mode. monitoring traffic conveyed in the traffic channels of a cell; analyzing certain predetermined parameters in the monitored traffic; and, determining whether said predetermined parameters meet corresponding predetermined conditions, characterised in that the method comprises: when said predetermined conditions are met, switching off continuous transmission of common channels and facilitating intermittent transmission of the common channels during one or more transmission events, thereby causing the cell to enter a cell standby mode. when said predetermined conditions are met, switching off continuous transmission of common channels and facilitating intermittent transmission of the common channels during one or more transmission events, thereby causing the cell to enter a cell standby mode.
A device for applying adhesives comprising a housing for receiving a fixed, preferably pin- or rod-shaped, plastic element cooperating with electric heat-generating liquefying means, and which at its end offers a housing outlet for outputting an adhesive which is liquefied by the liquefying means, characterised in that the liquefying means are realised as a liquefying body made from a heat-generating electric resistive material, the liquefying body offering a melting contact surface, formed by the liquefying body itself, for cooperating with a, preferably frontal, end section of the adhesive element, wherein the melting contact surface, relative to an axis extending along a feed-in axis of the adhesive element, is inclined towards this axis by an angle of > 0° and < 90°, preferably > 5° and < 40°, further preferably > 10° and < 30°.
A link member for providing an interface between a first part and a second part, the link member has a translational degree of freedom and at least two rotational degrees of freedom, the link member comprising: a joint member having a spherical surface, the joint member for attachment to the first part; a housing for attachment to the second part; and a slider mounted on the spherical surface and within the housing; wherein the slider is free to move in a direction of a translational plane within the housing thereby providing the translational degree of freedom and further wherein the slider is free to slide on the spherical surface and to pivot about a first axis and a second axis thereby providing the two rotational degrees of freedom. a joint member having a spherical surface, the joint member for attachment to the first part; a housing for attachment to the second part; and a slider mounted on the spherical surface and within the housing; wherein the slider is free to move in a direction of a translational plane within the housing thereby providing the translational degree of freedom and further wherein the slider is free to slide on the spherical surface and to pivot about a first axis and a second axis thereby providing the two rotational degrees of freedom.