mhurhangee/ep-ind-claims huggingface dataset:
Method for coating a turbine component with a wear protection layer, comprising the following steps: - providing a coating agent which comprises at least one binder, at least one reactive substance having NiAl pigments, and at least one particulate matrix-forming agent selected from a group comprising high-temperature-stable metallic and/or intermetallic pigments, in particular MCrAlY alloy powder materials where M=Ni and/or Co, intermetallic hard material powders, in particular carbides, silicides and nitrides, and powders containing intermetallic components; - applying the coating agent to a surface of the turbine component; - heating the coating agent to a first temperature at which the at least one binder hardens, wherein the first temperature is selected in a temperature range of between 150°C and 350°C; - heating the coating agent to a second temperature which is above the first temperature, at which second temperature the reactive substance exothermically transforms and the at least one matrix-forming agent forms the wear protection layer on the surface of the turbine component by means of the at least one reactive substance, wherein the second temperature is selected in a temperature range of between 550°C and 750°C. - providing a coating agent which comprises at least one binder, at least one reactive substance having NiAl pigments, and at least one particulate matrix-forming agent selected from a group comprising high-temperature-stable metallic and/or intermetallic pigments, in particular MCrAlY alloy powder materials where M=Ni and/or Co, intermetallic hard material powders, in particular carbides, silicides and nitrides, and powders containing intermetallic components; - applying the coating agent to a surface of the turbine component; - heating the coating agent to a first temperature at which the at least one binder hardens, wherein the first temperature is selected in a temperature range of between 150°C and 350°C; - heating the coating agent to a second temperature which is above the first temperature, at which second temperature the reactive substance exothermically transforms and the at least one matrix-forming agent forms the wear protection layer on the surface of the turbine component by means of the at least one reactive substance, wherein the second temperature is selected in a temperature range of between 550°C and 750°C.
A display system configured to receive input image data specified in a first color space and configured to output image data specified in a second color space, said display system further comprising: a display panel comprising a subpixel repeating group configured to display the output image data specified in the second color space; and an adjustable gamut mapping module configured to receive the input image data specified in the first color space and configured to output the image data specified in the second color space in accordance with an adjustable gamut mapping algorithm, the adjustable gamut mapping module further configured to receive parameters to control adjustment of the adjustable gamut mapping algorithm wherein said parameters are based upon an arrangement of said subpixels in said subpixel repeating group, wherein said subpixel repeating group comprises R, G, B and W subpixels and said parameters comprise: the ratio of the physical maximum luminosity of said W subpixel to the sum of the physical maximum output luminosity of said R, G, B and W subpixels; the ratio of the sum of the physical maximum luminosity of said R, G and B subpixels to the sum of the physical maximum output luminosity of said R, G, B and W subpixels; and the ratio of the physical maximum luminosity of said W subpixel to the sum of the physical maximum output luminosity of said R, G and B subpixels. a display panel comprising a subpixel repeating group configured to display the output image data specified in the second color space; and an adjustable gamut mapping module configured to receive the input image data specified in the first color space and configured to output the image data specified in the second color space in accordance with an adjustable gamut mapping algorithm, the adjustable gamut mapping module further configured to receive parameters to control adjustment of the adjustable gamut mapping algorithm wherein said parameters are based upon an arrangement of said subpixels in said subpixel repeating group, wherein said subpixel repeating group comprises R, G, B and W subpixels and said parameters comprise: the ratio of the physical maximum luminosity of said W subpixel to the sum of the physical maximum output luminosity of said R, G, B and W subpixels; the ratio of the sum of the physical maximum luminosity of said R, G and B subpixels to the sum of the physical maximum output luminosity of said R, G, B and W subpixels; and the ratio of the physical maximum luminosity of said W subpixel to the sum of the physical maximum output luminosity of said R, G and B subpixels. the ratio of the physical maximum luminosity of said W subpixel to the sum of the physical maximum output luminosity of said R, G, B and W subpixels; the ratio of the sum of the physical maximum luminosity of said R, G and B subpixels to the sum of the physical maximum output luminosity of said R, G, B and W subpixels; and the ratio of the physical maximum luminosity of said W subpixel to the sum of the physical maximum output luminosity of said R, G and B subpixels.
An article comprising: a substrate; at least one coating layer disposed on the substrate, the at least one coating layer including: a silicate glass matrix, an oxygen scavenger phase dispersed through the silicate glass matrix, and at least one metal in metallic form; wherein the oxygen scavenger phase includes molybdenum disilicide; and/or at least one boride or silicide of an element selected from the group consisting of aluminum, tantalum, tungsten, platinum, nickel, cobalt, vanadium, niobium, rhenium, rhodium, indium, iridium, chromium, titanium, hafnium, zirconium, yttrium, and combinations thereof. a substrate; at least one coating layer disposed on the substrate, the at least one coating layer including: a silicate glass matrix, an oxygen scavenger phase dispersed through the silicate glass matrix, and at least one metal in metallic form; a silicate glass matrix, an oxygen scavenger phase dispersed through the silicate glass matrix, and at least one metal in metallic form;
An ice protection system, for example, an aircraft ice protection system, comprising: a heating substrate; a coating; and an interface between the heating substrate and the coating; characterised in that the coating is in intimate physical and thermal contact with the heating substrate, and in that the thermal effusivities (ε f, ε s) of the heating substrate and the coating are different from one another such that local heat amplification or attenuation is generated by interference of thermal waves reflected from the interface with thermal waves generated in the heating substrate. a heating substrate; a coating; and an interface between the heating substrate and the coating; characterised in that the coating is in intimate physical and thermal contact with the heating substrate, and in that the thermal effusivities (ε f, ε s) of the heating substrate and the coating are different from one another such that local heat amplification or attenuation is generated by interference of thermal waves reflected from the interface with thermal waves generated in the heating substrate.
A system for controlling LEDs in a vehicle, comprising: a first LED driver circuit (LED Driver 1) and an electronic control unit which is configured to control current, voltage, or power to the first LED driver circuit (LED Driver 1); one or more first LEDs (Low Beam Spot, Low Beam Wide, High Beam, DRL1) electrically connected to the first LED driver circuit (LED Driver 1); and a first shunt configured to electrically bypass the one or more first LEDs (Low Beam Spot, Low Beam Wide, High Beam, DRL1) to form one or more first LED functions; characterised by: a second LED driver circuit (LED Driver 2), wherein the electronic control unit is further configured to control current, voltage, or power to the second LED driver circuit (LED Driver 2); a second LED (Turn) electrically connected to the first LED driver circuit (LED Driver 1) and the second LED driver circuit (LED Driver 2); and a diode or second shunt configured to selectively power the second LED (Turn) from the first LED driver circuit (LED Driver 1) or the second LED driver circuit (LED Driver 2), to form a second LED function (LED function 2). a first LED driver circuit (LED Driver 1) and an electronic control unit which is configured to control current, voltage, or power to the first LED driver circuit (LED Driver 1); one or more first LEDs (Low Beam Spot, Low Beam Wide, High Beam, DRL1) electrically connected to the first LED driver circuit (LED Driver 1); and a first shunt configured to electrically bypass the one or more first LEDs (Low Beam Spot, Low Beam Wide, High Beam, DRL1) to form one or more first LED functions; characterised by: a second LED driver circuit (LED Driver 2), wherein the electronic control unit is further configured to control current, voltage, or power to the second LED driver circuit (LED Driver 2); a second LED (Turn) electrically connected to the first LED driver circuit (LED Driver 1) and the second LED driver circuit (LED Driver 2); and a diode or second shunt configured to selectively power the second LED (Turn) from the first LED driver circuit (LED Driver 1) or the second LED driver circuit (LED Driver 2), to form a second LED function (LED function 2). a second LED driver circuit (LED Driver 2), wherein the electronic control unit is further configured to control current, voltage, or power to the second LED driver circuit (LED Driver 2); a second LED (Turn) electrically connected to the first LED driver circuit (LED Driver 1) and the second LED driver circuit (LED Driver 2); and a diode or second shunt configured to selectively power the second LED (Turn) from the first LED driver circuit (LED Driver 1) or the second LED driver circuit (LED Driver 2), to form a second LED function (LED function 2).
An electromagnet for actuating a coin gate in a coin mechanism, with a coil body which has a sleeve section and radial flanges at the ends of the sleeve section for housing a coil, with a a yoke of magnetically active material enclosing the coil body, an axially movable armature in the sleeve section to which a switch is connected and a core arranged in the sleeve section, which has a guide and a seat for the armature, characterised in that the switch is connected to a pin which cooperates in the interior of the hollow armature with the same via a snap connection, and that the switch is moulded in one piece with the pin from a plastic material.
Plug connector comprising: - at least one housing with at least one cutout and - at least one single-piece conductor and an outer conductor, - wherein the at least one conductor comprises a first limb and a second limb, - wherein the second limb of the at least one conductor is partially held in the cutout of the housing, - wherein at least one spring region is arranged between the first limb and the second limb, - wherein the first limb of the at least one conductor is aligned in a plug-in direction and is resiliently deflectable from the spring region for the compensation of an axial offset, - wherein the outer conductor is at least partially arranged around the first limb of the at least one conductor, characterized in that - the outer conductor comprises, at a first end and at a second end, a spring cage, and - in that the spring cage at the second end presses against the cutout of the housing. - at least one housing with at least one cutout and - at least one single-piece conductor and an outer conductor, - wherein the at least one conductor comprises a first limb and a second limb, - wherein the second limb of the at least one conductor is partially held in the cutout of the housing, - wherein at least one spring region is arranged between the first limb and the second limb, - wherein the first limb of the at least one conductor is aligned in a plug-in direction and is resiliently deflectable from the spring region for the compensation of an axial offset, - wherein the outer conductor is at least partially arranged around the first limb of the at least one conductor, - the outer conductor comprises, at a first end and at a second end, a spring cage, and - in that the spring cage at the second end presses against the cutout of the housing.
A portable vaporisation device for generating an inhalable vapour, the device comprising: a mouthpiece with an inhalation passage for delivering an inhalable vapour to a user; a case with a low temperature vaporisation chamber and a hinged door; a heater, the chamber being configured to receive a smokeable material cartridge, access to the chamber being controlled by the hinged door, and the heater being operable to heat a smokeable material in the vaporisation chamber to generate a vapour in the chamber, wherein at least one of the mouthpiece and the case is provided with an air inlet, the air inlet being configured such that, in use of the device, when a user draws on the device, fresh air enters through the air inlet, mixes with the vapour in the vaporisation chamber, and the inhalable vapour formed by the mixture is delivered to the user via the inhalation passage; characterized in that the portable vaporization device further comprises a control configured to allow the user to select a target temperature from a variety of temperature settings. a mouthpiece with an inhalation passage for delivering an inhalable vapour to a user; a case with a low temperature vaporisation chamber and a hinged door; a heater, the chamber being configured to receive a smokeable material cartridge, access to the chamber being controlled by the hinged door, and the heater being operable to heat a smokeable material in the vaporisation chamber to generate a vapour in the chamber, wherein at least one of the mouthpiece and the case is provided with an air inlet, the air inlet being configured such that, in use of the device, when a user draws on the device, fresh air enters through the air inlet, mixes with the vapour in the vaporisation chamber, and the inhalable vapour formed by the mixture is delivered to the user via the inhalation passage; characterized in that the portable vaporization device further comprises a control configured to allow the user to select a target temperature from a variety of temperature settings.
A method of determining an estimated pulse wave velocity of an artery of a subject, comprising: applying a series of counter pressures at a set location on the subject over the artery with a pressure device, wherein each of the series of counter pressures is different from one another, applied at the set location, and between zero and a diastolic pressure of the subject; measuring a first parameter related to pulse wave velocity when each of the series of counter pressures is applied, characterised by: using means to perform the following steps: selecting a model from a predetermined set of models based on a best-fit of the model to the first parameter measured at each of the series of counter pressures; estimating a second parameter in the model establishing a relationship of the first parameter measured to each of the series of counter pressures; and determining the estimated pulse wave velocity using the estimated second parameter and a zero value for a counter pressure in the model. applying a series of counter pressures at a set location on the subject over the artery with a pressure device, wherein each of the series of counter pressures is different from one another, applied at the set location, and between zero and a diastolic pressure of the subject; measuring a first parameter related to pulse wave velocity when each of the series of counter pressures is applied, characterised by: using means to perform the following steps: selecting a model from a predetermined set of models based on a best-fit of the model to the first parameter measured at each of the series of counter pressures; estimating a second parameter in the model establishing a relationship of the first parameter measured to each of the series of counter pressures; and determining the estimated pulse wave velocity using the estimated second parameter and a zero value for a counter pressure in the model. using means to perform the following steps: selecting a model from a predetermined set of models based on a best-fit of the model to the first parameter measured at each of the series of counter pressures; estimating a second parameter in the model establishing a relationship of the first parameter measured to each of the series of counter pressures; and determining the estimated pulse wave velocity using the estimated second parameter and a zero value for a counter pressure in the model. selecting a model from a predetermined set of models based on a best-fit of the model to the first parameter measured at each of the series of counter pressures; estimating a second parameter in the model establishing a relationship of the first parameter measured to each of the series of counter pressures; and determining the estimated pulse wave velocity using the estimated second parameter and a zero value for a counter pressure in the model.
A method comprising: receiving, at a mobile device, first image data; generating image statistics based on the first image data; receiving, at the mobile device, second image data; generating image statistics based on the second image data; determining whether an extraction criterion is satisfied, wherein the extraction criterion is based on a change amount between the image statistics based on the first image data and the image statistics based on the second image data; not extracting a first subset of features from the second image data where the extraction criterion is not satisfied; or, extracting a first subset of features from the second image data where the extraction criterion is satisfied, the method characterised in that it further comprises the steps of generating context data indicating a context of the image of the second image data based at least in part on the first subset of features; determining a confidence level of the context data wherein the context data indicates the associated confidence level; determining whether the confidence level of the context data generated from the first subset of features satisfies a threshold confidence level; where the threshold confidence level is not satisfied, extracting a second subset of features from the second image data, wherein additional resources are used for said extracting of the second subset of features, to generate a more refined context of the image having a higher confidence level; or, where the threshold confidence level is satisfied, not extracting a second subset of features from the second image data. receiving, at a mobile device, first image data; generating image statistics based on the first image data; receiving, at the mobile device, second image data; generating image statistics based on the second image data; determining whether an extraction criterion is satisfied, wherein the extraction criterion is based on a change amount between the image statistics based on the first image data and the image statistics based on the second image data; not extracting a first subset of features from the second image data where the extraction criterion is not satisfied; or, extracting a first subset of features from the second image data where the extraction criterion is satisfied, the method characterised in that it further comprises the steps of generating context data indicating a context of the image of the second image data based at least in part on the first subset of features; determining a confidence level of the context data wherein the context data indicates the associated confidence level; determining whether the confidence level of the context data generated from the first subset of features satisfies a threshold confidence level; where the threshold confidence level is not satisfied, extracting a second subset of features from the second image data, wherein additional resources are used for said extracting of the second subset of features, to generate a more refined context of the image having a higher confidence level; or, where the threshold confidence level is satisfied, not extracting a second subset of features from the second image data.
A BoNT/A Clostridial toxin comprising a least one inactivation cleavage site located within an inactivation cleavage site region, wherein the inactivation cleavage site region is located in the 871 - 895 domain of SEQ ID NO: 1, wherein the at least one inactivation cleavage site comprises a dual Thrombin-Thrombin site.
Formwork element having a formwork skin, having a frame bearing the latter, and having struts which are arranged within the frame and support the formwork skin, wherein the frame is produced from unprofiled flat steel, wherein at least one strut has at least two plug-through openings, wherein a shortest distance of a first plug-through opening of the at least two plug-through openings to the frame is shorter than a shortest distance of a second plug-through opening of the at least two plug-through openings to the frame, and wherein the second plug-through opening is equidistantly spaced from two mutually adjacent frame legs (8, 9) of the frame, characterized in that the struts are made of open sectional steel with a trapezoidal profile and have a trapezoidal cross-section, and in that the struts are arranged such that the sectional steel is open to the formwork skin.
A process for the production of metal nanoparticles comprising: i. mixing an organic solvent comprising an aryl or polycyclic amine with at least one metal organic precursor; and ii. heating the resulting mixture in a pressurised container; and iii. removing remaining organic residue. i. mixing an organic solvent comprising an aryl or polycyclic amine with at least one metal organic precursor; and ii. heating the resulting mixture in a pressurised container; and iii. removing remaining organic residue.