mhurhangee/ep-ind-claims huggingface dataset:
A disinfectant composition comprising: from about 0.1 wt.% to about 10 wt.% of a primary antiviral agent, wherein the primary antiviral agent includes a polyprotic acid having a first acid dissociation constant of about 3.0 or less; from about 0.1 wt.% to about 15 wt.% of a secondary antiviral agent; and from about 70 wt.% to about 99.5 wt.% of a solvent system that includes one or more solvents, wherein water constitutes at least 50 wt.% of the solvent system; wherein the composition has a pH of about 4.5 or less, wherein the composition exhibits a reduction in virus infectivity of about 30% or more after being exposed to a non-enveloped virus for 10 minutes; and (i) wherein the polyprotic acid is maleic acid and the secondary antiviral agent is decylamine oxide; aluminum chlorohydrate; zinc chloride; or copper chloride; or (ii) wherein the polyprotic acid is sulfosuccinic acid and the secondary antiviral agent is a metal halide salt; or (iii) wherein the polyprotic acid is phosphoric acid and the secondary antiviral agent is sodium methyl oleoyl taurate, copper chloride, urea, guanidine hydrochloride, or aminoguanidine hydrochloride. from about 0.1 wt.% to about 10 wt.% of a primary antiviral agent, wherein the primary antiviral agent includes a polyprotic acid having a first acid dissociation constant of about 3.0 or less; from about 0.1 wt.% to about 15 wt.% of a secondary antiviral agent; and from about 70 wt.% to about 99.5 wt.% of a solvent system that includes one or more solvents, wherein water constitutes at least 50 wt.% of the solvent system; wherein the composition has a pH of about 4.5 or less, wherein the composition exhibits a reduction in virus infectivity of about 30% or more after being exposed to a non-enveloped virus for 10 minutes; and (i) wherein the polyprotic acid is maleic acid and the secondary antiviral agent is decylamine oxide; aluminum chlorohydrate; zinc chloride; or copper chloride; or (ii) wherein the polyprotic acid is sulfosuccinic acid and the secondary antiviral agent is a metal halide salt; or (iii) wherein the polyprotic acid is phosphoric acid and the secondary antiviral agent is sodium methyl oleoyl taurate, copper chloride, urea, guanidine hydrochloride, or aminoguanidine hydrochloride. (i) wherein the polyprotic acid is maleic acid and the secondary antiviral agent is decylamine oxide; aluminum chlorohydrate; zinc chloride; or copper chloride; or (ii) wherein the polyprotic acid is sulfosuccinic acid and the secondary antiviral agent is a metal halide salt; or (iii) wherein the polyprotic acid is phosphoric acid and the secondary antiviral agent is sodium methyl oleoyl taurate, copper chloride, urea, guanidine hydrochloride, or aminoguanidine hydrochloride.
An exhaust gas purification apparatus for an internal combustion engine comprising: an NOx selective reduction catalyst that is arranged in an exhaust passage of the internal combustion engine and reduces NOx by using NH 3 as a reducing agent; a filter that is arranged in the exhaust passage at the upstream side of said NOx selective reduction catalyst and traps particulate matter contained in an exhaust gas; an NH 3 generation catalyst (3, 5) that is arranged in the exhaust passage at the upstream side of said NOx selective reduction catalyst and generates NH 3 when an air fuel ratio of the exhaust gas is equal to or less than a stoichiometric air fuel ratio; a regeneration unit that regenerates said filter by supplying oxygen to said filter while raising the temperature of said filter; and a generation unit that makes the air fuel ratio of the exhaust gas equal to or less than the stoichiometric air fuel ratio, thereby causing NH 3 to be generated in said NH 3 generation catalyst (3, 5), characterized in that said regeneration unit inhibits the regeneration of said filter until the generation of NH 3 by said generation unit is completed, wherein said generation unit causes NH 3 to be generated until said NOx selective reduction catalyst adsorbs an amount of NH 3 required for removing NOx to be discharged from said internal combustion engine when the regeneration of said filter is carried out. an NOx selective reduction catalyst that is arranged in an exhaust passage of the internal combustion engine and reduces NOx by using NH 3 as a reducing agent; a filter that is arranged in the exhaust passage at the upstream side of said NOx selective reduction catalyst and traps particulate matter contained in an exhaust gas; an NH 3 generation catalyst (3, 5) that is arranged in the exhaust passage at the upstream side of said NOx selective reduction catalyst and generates NH 3 when an air fuel ratio of the exhaust gas is equal to or less than a stoichiometric air fuel ratio; a regeneration unit that regenerates said filter by supplying oxygen to said filter while raising the temperature of said filter; and a generation unit that makes the air fuel ratio of the exhaust gas equal to or less than the stoichiometric air fuel ratio, thereby causing NH 3 to be generated in said NH 3 generation catalyst (3, 5), characterized in that said regeneration unit inhibits the regeneration of said filter until the generation of NH 3 by said generation unit is completed, wherein said generation unit causes NH 3 to be generated until said NOx selective reduction catalyst adsorbs an amount of NH 3 required for removing NOx to be discharged from said internal combustion engine when the regeneration of said filter is carried out.
A method to determine or monitor the amount or distribution of additional material present in a flow of a flowable substance, said method comprising the steps of - providing a flow of a flowable substance in an open channel; said flow of said flowable substance comprising bulk material comprising concrete or mortar and additional material comprising magnetic material; - determining the volume flow of said flow of said flowable substance at one or more detection points X along said flow of said flowable substance; - determining a signal caused by said additional material present in said flow of said flowable substance at one or more detection points Y along said flow of said flowable substance, said signal being proportional to the inductance or magnetic properties of said additional material present in said flow of said flowable substance passing said one or more detection points Y; - converting said signal caused by said additional material present in said flow of said flowable substance in a signal per unit of volume of said flow of said flowable substance. - providing a flow of a flowable substance in an open channel; said flow of said flowable substance comprising bulk material comprising concrete or mortar and additional material comprising magnetic material; - determining the volume flow of said flow of said flowable substance at one or more detection points X along said flow of said flowable substance; - determining a signal caused by said additional material present in said flow of said flowable substance at one or more detection points Y along said flow of said flowable substance, said signal being proportional to the inductance or magnetic properties of said additional material present in said flow of said flowable substance passing said one or more detection points Y; - converting said signal caused by said additional material present in said flow of said flowable substance in a signal per unit of volume of said flow of said flowable substance.
A method for cross-terminal browsing, comprising: obtaining, by a second terminal, a 2D bar code generated by a first terminal corresponding to a web content currently being presented on a webpage on the first terminal, wherein after the first terminal receives an instruction of generating the 2D bar code from a user, the 2D bar code is generated when the web content is being presented on the webpage on the first terminal, and the 2D bar code includes at least presentation information of the web content; parsing, by the second terminal, the 2D bar code to obtain the presentation information of the web content contained in the 2D bar code; establishing, by the second terminal, a link using the presentation information of the web content to realize cross-terminal presentation of the web content on the second terminal; and presenting, by the second terminal, the web content presented on the first terminal based on the link, wherein in a case that the web content is a currently playing video, the presentation information of the web content includes video playback information of the currently playing video; and in a case that the web content is a document, the presentation information of the web content includes document reading information of the currently displaying document. obtaining, by a second terminal, a 2D bar code generated by a first terminal corresponding to a web content currently being presented on a webpage on the first terminal, wherein after the first terminal receives an instruction of generating the 2D bar code from a user, the 2D bar code is generated when the web content is being presented on the webpage on the first terminal, and the 2D bar code includes at least presentation information of the web content; parsing, by the second terminal, the 2D bar code to obtain the presentation information of the web content contained in the 2D bar code; establishing, by the second terminal, a link using the presentation information of the web content to realize cross-terminal presentation of the web content on the second terminal; and presenting, by the second terminal, the web content presented on the first terminal based on the link, wherein in a case that the web content is a currently playing video, the presentation information of the web content includes video playback information of the currently playing video; and in a case that the web content is a document, the presentation information of the web content includes document reading information of the currently displaying document.
A turboprop or turboshaft aircraft engine comprising: a first spool (12;112) including a first turbine (12b;112b) drivingly connected to a first compressor (12a;112a) and a load (16;116), the load (16;116) comprising a propeller or helicopter rotor; a second spool (13;113) including a second turbine (13b;113b) drivingly connected to a second compressor (13a;113a), the second compressor (13a;113a) fluidly connected to the first compressor (12a;112a) to receive compressed air therefrom; and a third spool (14;114) including a third turbine (14b;114b) drivingly connected to a third compressor (14a;114a), the third compressor (14a;114a) fluidly connected to the second compressor (13a;113a) to receive compressed air therefrom, characterised in that: first and second gear boxes (12d,20;120) are respectively provided between the first turbine (12b;112b) and the first compressor (12a;112a) and the first compressor (12a;112a) and the load (16;116), the first gearbox drivingly connecting the first turbine (12b;112b) to the first compressor (12a;112a), the second gearbox (20;120) drivingly connecting the first turbine (126;112b) to the load (16;116). a first spool (12;112) including a first turbine (12b;112b) drivingly connected to a first compressor (12a;112a) and a load (16;116), the load (16;116) comprising a propeller or helicopter rotor; a second spool (13;113) including a second turbine (13b;113b) drivingly connected to a second compressor (13a;113a), the second compressor (13a;113a) fluidly connected to the first compressor (12a;112a) to receive compressed air therefrom; and a third spool (14;114) including a third turbine (14b;114b) drivingly connected to a third compressor (14a;114a), the third compressor (14a;114a) fluidly connected to the second compressor (13a;113a) to receive compressed air therefrom, characterised in that: first and second gear boxes (12d,20;120) are respectively provided between the first turbine (12b;112b) and the first compressor (12a;112a) and the first compressor (12a;112a) and the load (16;116), the first gearbox drivingly connecting the first turbine (12b;112b) to the first compressor (12a;112a), the second gearbox (20;120) drivingly connecting the first turbine (126;112b) to the load (16;116).
A system comprising: a non-destructive testing system comprising: an NDT probe comprising a testing sensor and a motion sensor comprising an accelerometer, a gyroscope, a counter, a magnetometer or any combination thereof, wherein the testing sensor is configured to capture sensor data as the NDT probe moves along an axis lying parallel to an inspection area, and the motion sensor is configured to detect a measurement speed at which the NDT probe moves relative to the inspection area, wherein the motion sensor is further configured to detect a measurement angle of the NDT probe relative to an axis perpendicular to the inspection area; and a processor configured to determine a speed comparison between the measurement speed and a reference speed range, and to determine an angle comparison between the measurement angle and a reference angle range; and to provide feedback to an operator of the probe when the measurement speed at the sample time is outside the reference speed range and/or the measurement angle at the sample time is outside the reference angle range, and recording the sensor data at the sample time only if both said measurement speed and measurement angle are within their respective reference ranges. an NDT probe comprising a testing sensor and a motion sensor comprising an accelerometer, a gyroscope, a counter, a magnetometer or any combination thereof, wherein the testing sensor is configured to capture sensor data as the NDT probe moves along an axis lying parallel to an inspection area, and the motion sensor is configured to detect a measurement speed at which the NDT probe moves relative to the inspection area, wherein the motion sensor is further configured to detect a measurement angle of the NDT probe relative to an axis perpendicular to the inspection area; and a processor configured to determine a speed comparison between the measurement speed and a reference speed range, and to determine an angle comparison between the measurement angle and a reference angle range; and to provide feedback to an operator of the probe when the measurement speed at the sample time is outside the reference speed range and/or the measurement angle at the sample time is outside the reference angle range, and recording the sensor data at the sample time only if both said measurement speed and measurement angle are within their respective reference ranges.
Dishwasher, particularly household dishwasher, comprising a hot water inlet device for the intake of hot water from an external hot water supply, a cold water inlet device for the intake of cold water from an external cold water supply, and a programme control device for controlling a wash cycle of a selected dishwashing programme for cleaning wash items, wherein the programme control device has a first operating mode in which at least one wash programme can be activated which, in at least one partial wash cycle of a wash cycle, specifically makes provision for a drawing of hot water from the external hot water supply, and wherein the programme control device has a second operating mode in which at least one wash programme can be activated which, in at least one partial wash cycle of a wash cycle, specifically makes provision exclusively for a drawing of cold water from the external cold water supply, characterised in that the programme control device is embodied and coupled to the hot water inlet device and the cold water inlet device in such a manner that in the first operating mode for a first group of one or more partial wash cycles (RG, KG) of the wash cycle performed by a selected dishwashing programme, for each of which a specific wash bath hot water temperature higher than the temperature of the cold water from the external cold water supply is required, hot water can be fed from the external hot water supply by means of the hot water inlet device into the wash chamber, specifically to the partial wash cycle, and that for a second group of one or more partial wash cycles (VG, ZG) of the wash cycle of the selected dishwashing programme, for which the cold water temperature of the cold water from the external cold water supply is sufficient or required as the respective specific wash bath hot water temperature, cold water can be fed from the external cold water supply by means of the cold water inlet device into the wash chamber, specifically to the partial wash cycle, wherein a heat exchanger which is present externally, in particular in the form of a water pocket or a storage tank, which is attached to a wall, in particular side wall, of the wash chamber in a heat-transmitting manner, is filled with cold water from the external cold water inlet device at the end of the rinse aid cycle and/or at the start of the subsequent drying cycle of the wash cycle, and that in the event that hot water from the external hot water supply is used for all water-conducting partial wash cycles of the wash cycle carried out by a selected dishwasher programme, the heat exchanger is not filled with hot water at the end of the rinse aid cycle but instead remains empty throughout the duration of the drying cycle of this wash cycle.
A transformer assembly, comprising: a housing with a sealed housing interior comprising a coolant, a transformer disposed within the housing interior and having a magnetic core with windings wrapped about the core; and being immersed in the coolant, and a condenser mounted to the housing in fluid communication with the housing interior, wherein a surface of the windings bounds a coolant channel extending between the windings and the condenser to convey coolant of a first phase to the condenser and receive coolant of a second phase from the condenser; and further including a bobbin disposed between the core and the windings (24, 26, 28), wherein the bobbin defines at least one slot extending vertically from a side of the windings opposite the condenser along the height of the bobbin and said slot including slot surfaces that in conjunction with a core-facing surface of said winding (24, 26), defines a first coolant channel. a housing with a sealed housing interior comprising a coolant, a transformer disposed within the housing interior and having a magnetic core with windings wrapped about the core; and being immersed in the coolant, and a condenser mounted to the housing in fluid communication with the housing interior, wherein a surface of the windings bounds a coolant channel extending between the windings and the condenser to convey coolant of a first phase to the condenser and receive coolant of a second phase from the condenser; and further including a bobbin disposed between the core and the windings (24, 26, 28), wherein the bobbin defines at least one slot extending vertically from a side of the windings opposite the condenser along the height of the bobbin and said slot including slot surfaces that in conjunction with a core-facing surface of said winding (24, 26), defines a first coolant channel.
A method for removing amplifier glow in a digital image, the amplifier glow being a glow in the digital image that has been caused by a camera sensor itself, the method comprising the steps of: i) providing a machine learning algorithm that is trained for detecting representations of amplifier glow in a digital image; ii) detecting at least one representation of amplifier glow in a digital image using said trained machine learning algorithm and determining an image patch of said digital image, the determined image patch comprising said representation of amplifier glow; iii) generating a corrected patch from said determined patch using a trained Generative Adversarial Network algorithm, wherein the corrected patch does not comprise an amplifier glow representation; iv) using data processing means, replacing said determined patch with said corrected patch, to generate a corrected digital image. i) providing a machine learning algorithm that is trained for detecting representations of amplifier glow in a digital image; ii) detecting at least one representation of amplifier glow in a digital image using said trained machine learning algorithm and determining an image patch of said digital image, the determined image patch comprising said representation of amplifier glow; iii) generating a corrected patch from said determined patch using a trained Generative Adversarial Network algorithm, wherein the corrected patch does not comprise an amplifier glow representation; iv) using data processing means, replacing said determined patch with said corrected patch, to generate a corrected digital image.
Use of an aqueous inkjet ink for decorating a humidity-conditioning construction material, the ink comprising water, a water-dispersible resin, a colorant, and at least one surfactant selected from silicone-based surfactants, wherein the humidity-conditioning construction material has an amount of moisture adsorption, measured after 3 hours in accordance with JIS A 1470-1, that is greater than 15 g/m 2, and wherein a median size of the water-dispersible resin measured by a dynamic light scattering method is not more than 200 nm, and the median size is a volume-based particle size in a particle size distribution measured according to a dynamic light scattering method.
Method for producing wear-resistant and fatigue-resistant edge layers in titanium alloys by gas alloying, in which the gas alloying is carried out using nitrogen as a reaction gas using a laser, a non-vac electron beam unit as a high-intensity energy source or a plasma torch, which nitrogen is interstitially soluble in the titanium alloy used, wherein the partial pressure of the nitrogen in a working gas mixture with an inert gas is held at a volumetric proportion V N in the range of from 1 % to < 10 % such that no nitride titanium phases are produced and a maximum hardness of 560 HV is achieved 0.1 mm below the surface, measured at a cross section, and wherein the volumetric proportion V N of the nitrogen in the working gas mixture is altered during the processing and is adapted to the local load conditions and to the ratio of wear to cyclic stress and/or the volumetric proportion of the supplied nitrogen is selected in consideration of the track overlapping level ü and thus relatively low nitrogen contents are set in the case of relatively high track overlapping levels.