mhurhangee/ep-ind-claims huggingface dataset:
An arrangement for a fuel cell, having - at least one electrode (A, K), present in reduced form - an electrolyte, - a metallic porous carrier substrate as a carrier for the electrode (A, K) and the electrolyte, - an adaptation layer arranged between the reduced electrode present and the electrolyte for adapting the electrolyte to this electrode (A, K), characterised in that - the adaptation layer has an average pore size which is smaller than the average pore size of the reduced electrode present (A, K), and - having an adaptation layer made from doped zirconium oxide, wherein the doping contains at least one oxide of the doping elements from the group Y, Sc, Al, Sr, Ca, or - having an adaptation layer made from doped cerium oxide, wherein the doping contains at least one oxide of the doping elements from the group of the rare earth elements and/or from the group Y, Sc, Al, Sr, Ca - wherein the electrolyte is a gastight thin layer electrolyte with a maximum layer thickness of 10 μm. - at least one electrode (A, K), present in reduced form - an electrolyte, - a metallic porous carrier substrate as a carrier for the electrode (A, K) and the electrolyte, - an adaptation layer arranged between the reduced electrode present and the electrolyte for adapting the electrolyte to this electrode (A, K), characterised in that - the adaptation layer has an average pore size which is smaller than the average pore size of the reduced electrode present (A, K), and - having an adaptation layer made from doped zirconium oxide, wherein the doping contains at least one oxide of the doping elements from the group Y, Sc, Al, Sr, Ca, or - having an adaptation layer made from doped cerium oxide, wherein the doping contains at least one oxide of the doping elements from the group of the rare earth elements and/or from the group Y, Sc, Al, Sr, Ca - wherein the electrolyte is a gastight thin layer electrolyte with a maximum layer thickness of 10 μm.
An object-based auto-focus method, comprising: (a) acquiring a digital image and detecting one or more regions within the digital image that appear to contain respective focus-generic objects of interest; and for each one of the detected regions: (b) separately applying (802, 814, 826, 24) a plurality of focus-specific condition classifier programs to the region, said focus-specific condition classifier programs including: a classifier program for sharply focussed objects of interest; and at least one classifier program for out of focus objects of interest; (c) verifying that the region contains said respective object of interest within the digital image and determining (818, 830) an out of focus condition for the object of interest as a result of the applying of at least one of the focus-specific condition classifier programs; (d) correcting the out of focus condition of the object of interest based on the determining, to thereby generate an image containing a corrected object of interest; and (e) electronically capturing, combining with another image, storing, transmitting, applying an object recognition program to, editing, or displaying the image containing the corrected object of interest, or combinations thereof. (a) acquiring a digital image and detecting one or more regions within the digital image that appear to contain respective focus-generic objects of interest; (b) separately applying (802, 814, 826, 24) a plurality of focus-specific condition classifier programs to the region, said focus-specific condition classifier programs including: a classifier program for sharply focussed objects of interest; and at least one classifier program for out of focus objects of interest; (c) verifying that the region contains said respective object of interest within the digital image and determining (818, 830) an out of focus condition for the object of interest as a result of the applying of at least one of the focus-specific condition classifier programs; (d) correcting the out of focus condition of the object of interest based on the determining, to thereby generate an image containing a corrected object of interest; and (e) electronically capturing, combining with another image, storing, transmitting, applying an object recognition program to, editing, or displaying the image containing the corrected object of interest, or combinations thereof.
A lyophilization vial kit, the kit comprising: - at least one lyophilization vial and - at least one vial stopper, the vial stopper having a stopper body, the stopper body comprising a first circumferential sealing surface for hermetically sealing against an interior surface of a mouth of the vial in a first position of the vial stopper, the stopper body further comprising a second circumferential sealing surface for hermetically sealing against the interior surface of the mouth of the vial in a second position of the vial stopper, the second sealing surface being spaced apart from the first sealing surface in an axial direction of the stopper body, the stopper body further comprising an intermediate region in between the first and second sealing surfaces, the intermediate region having at least one venting element for venting an interior of the vial in at least one intermediate position of the stopper in between the first and second positions, wherein both the first and the second sealing surface have cylindrical shapes, wherein the first and second sealing surfaces have identical diameters, and wherein the first and second sealing surfaces have a larger diameter than the intermediate region, wherein the lyophilization vial has a mouth dimensioned to interact with the vial stopper in such a way that, in a first position of the vial stopper in the mouth, the first circumferential sealing surface hermetically seals against an interior surface of a mouth, wherein, in a second position of the vial stopper in the mouth, the second circumferential sealing surface hermetically seals against an interior surface of a mouth, wherein, in the intermediate position in between the first and second positions, the interior of the vial is vented to the outside of the vial via the at least one venting element. - at least one lyophilization vial and - at least one vial stopper, the vial stopper having a stopper body, the stopper body comprising a first circumferential sealing surface for hermetically sealing against an interior surface of a mouth of the vial in a first position of the vial stopper, the stopper body further comprising a second circumferential sealing surface for hermetically sealing against the interior surface of the mouth of the vial in a second position of the vial stopper, the second sealing surface being spaced apart from the first sealing surface in an axial direction of the stopper body, the stopper body further comprising an intermediate region in between the first and second sealing surfaces, the intermediate region having at least one venting element for venting an interior of the vial in at least one intermediate position of the stopper in between the first and second positions, wherein both the first and the second sealing surface have cylindrical shapes, wherein the first and second sealing surfaces have identical diameters, and wherein the first and second sealing surfaces have a larger diameter than the intermediate region,
A processor implemented method for personalized substitute product recommendation, the method comprising: receiving, by one or more hardware processors, a query image of a product and optionally one or more personalization instructions comprising one or more attributes of the product and values corresponding to the one or more attributes; generating, by the one or more hardware processors, a plurality of feature vectors of the query image using a plurality of Personalized Attribute Search Networks, PAtSNets, wherein each of the plurality of PAtSNets generate one feature vector corresponding to an attribute of the query image; concatenating, by the one or more hardware processors, the plurality of feature vectors into a feature representation vector, wherein the feature vectors corresponding to the one or more attributes in the one or more personalization instructions, if present, are replaced by generic vectors before concatenation; and recommending, by the one or more hardware processors, one or more images of the product from a database of images based on distance between the feature representation vector and vectors of each image in the database of images. receiving, by one or more hardware processors, a query image of a product and optionally one or more personalization instructions comprising one or more attributes of the product and values corresponding to the one or more attributes; generating, by the one or more hardware processors, a plurality of feature vectors of the query image using a plurality of Personalized Attribute Search Networks, PAtSNets, wherein each of the plurality of PAtSNets generate one feature vector corresponding to an attribute of the query image; concatenating, by the one or more hardware processors, the plurality of feature vectors into a feature representation vector, wherein the feature vectors corresponding to the one or more attributes in the one or more personalization instructions, if present, are replaced by generic vectors before concatenation; and recommending, by the one or more hardware processors, one or more images of the product from a database of images based on distance between the feature representation vector and vectors of each image in the database of images.
Method for detecting an object in an opening region of a first door of a motor vehicle by means of at least one first distance sensor (9, 10, 11), wherein the at least one first distance sensor (9, 10, 11) is disposed in and/or on the first door and has a detection region (17, 18, 19), wherein a current opening angle (α2) of the first door is detected in the method and the detection region (17, 18, 19) is adapted on the basis of the detected opening angle (α2), characterized in that a state variable of at least one component of the motor vehicle that differs from the first door is determined, wherein the state variable describes a position and/or an operational setting of a second door of the motor vehicle and/or of a component of the second door, and the detection region (17, 18, 19) of the at least one first distance sensor (9, 10, 11) is additionally adapted on the basis of the determined state variable, wherein the second door is disposed in relation to the first door in such a way that the second door is able to be pivoted into the detection region (17, 18, 19) of the first distance sensor (9, 10, 11) in a predefined relative position of the first door.
A water-soluble unit dose article comprising a water-soluble film and a liquid laundry detergent composition; wherein the liquid laundry detergent composition comprises a non-ionic surfactant, wherein the non-ionic surfactant comprises ethoxylated alcohol non-ionic surfactant, wherein the ethoxylated alcohol non-ionic surfactant comprises between 2% and 25% by weight of the liquid laundry detergent composition of a first ethoxylated alcohol non-ionic surfactant, wherein the first ethoxylated alcohol non-ionic surfactant comprises a mixture of surfactant isomers according to Formula I and surfactant isomers according to Formula II: CH 3 - (CH 2) m+n+3 - X wherein m is between 4 and 11, preferably between 6 and 11, and n is between 0 and 5, and wherein 50% to 100%, preferably 90% to 100% by weight of the first ethoxylated alcohol non-ionic surfactant are isomers having m+n equal to 9, or wherein 50% to 100%, preferably 90% to 100% by weight of the first ethoxylated alcohol non-ionic surfactant are isomers having m+n equal to 11; or wherein 50% to 100%, preferably 90% to 100% by weight of the first ethoxylated alcohol non-ionic surfactant are a mixture of isomers having m+n equal to 9 or 11; and wherein between 25% and 50% by weight of the mixture of surfactant isomers of Formula I have n = 0; and wherein from about 0.001% to about 25%, by weight of the first ethoxylated alcohol non-ionic surfactant are surfactant isomers according to Formula II; and wherein X is O- yH, wherein y is the average degree of ethoxylation between 6 and 12, preferably between 8 and 10, most preferably 9. wherein the liquid laundry detergent composition comprises a non-ionic surfactant, wherein the non-ionic surfactant comprises ethoxylated alcohol non-ionic surfactant, wherein the ethoxylated alcohol non-ionic surfactant comprises between 2% and 25% by weight of the liquid laundry detergent composition of a first ethoxylated alcohol non-ionic surfactant, wherein the first ethoxylated alcohol non-ionic surfactant comprises a mixture of surfactant isomers according to Formula I and surfactant isomers according to Formula II: CH 3 - (CH 2) m+n+3 - X wherein m is between 4 and 11, preferably between 6 and 11, and n is between 0 and 5, and wherein 50% to 100%, preferably 90% to 100% by weight of the first ethoxylated alcohol non-ionic surfactant are isomers having m+n equal to 9, or wherein 50% to 100%, preferably 90% to 100% by weight of the first ethoxylated alcohol non-ionic surfactant are isomers having m+n equal to 11; or wherein 50% to 100%, preferably 90% to 100% by weight of the first ethoxylated alcohol non-ionic surfactant are a mixture of isomers having m+n equal to 9 or 11; and wherein between 25% and 50% by weight of the mixture of surfactant isomers of Formula I have n = 0; and wherein from about 0.001% to about 25%, by weight of the first ethoxylated alcohol non-ionic surfactant are surfactant isomers according to Formula II; and wherein X is O- yH, wherein y is the average degree of ethoxylation between 6 and 12, preferably between 8 and 10, most preferably 9.
An autofocus mechanism comprising: a light source configured to emit light through an objective lens onto a work piece; a first detector configured to detect a first portion of the light reflected by the work piece and generate a first signal; a second detector configured to detect a second portion of the reflected light and generate a second signal; a first amplifier configured to amplify the first signal and generate a first amplified signal (A'); a second amplifier configured to amplify the second signal and generate a second amplified signal (B'); a calculator configured to identify a focal position of the objective lens based on the first amplified signal (A') and the second amplified signal (B'); characterized in that the autofocus mechanism further comprises an amplification rate definer configured to: detect which signal of the first amplified signal (A') and the second amplified signal (B') has a higher voltage value, and define an amplification rate of each of the first amplifier and the second amplifier based on the first amplified signal (A') and the second amplified signal (B'), respectively, such that the signal having the higher voltage value has a constant voltage. a light source configured to emit light through an objective lens onto a work piece; a first detector configured to detect a first portion of the light reflected by the work piece and generate a first signal; a second detector configured to detect a second portion of the reflected light and generate a second signal; a first amplifier configured to amplify the first signal and generate a first amplified signal (A'); a second amplifier configured to amplify the second signal and generate a second amplified signal (B'); a calculator configured to identify a focal position of the objective lens based on the first amplified signal (A') and the second amplified signal (B'); characterized in that the autofocus mechanism further comprises an amplification rate definer configured to: detect which signal of the first amplified signal (A') and the second amplified signal (B') has a higher voltage value, and define an amplification rate of each of the first amplifier and the second amplifier based on the first amplified signal (A') and the second amplified signal (B'), respectively, such that the signal having the higher voltage value has a constant voltage. detect which signal of the first amplified signal (A') and the second amplified signal (B') has a higher voltage value, and define an amplification rate of each of the first amplifier and the second amplifier based on the first amplified signal (A') and the second amplified signal (B'), respectively, such that the signal having the higher voltage value has a constant voltage.
A flexible lithium-based energy storage device comprising: - a flexible housing; - an ionic liquid electrolyte comprising lithium mobile ions contained within the housing, wherein the cation of the ionic liquid electrolyte is a pyrrolidinium- or piperidinium-based cation and the electrolyte composition is liquid at the typical usage temperature of the energy storage device; - an anode comprising a current collector and anode material supported on the current collector, the current collector comprising a fabric substrate and an electron-conductive material, wherein the electron-conductive material contains voids to enable penetration of the current collector by the electrolyte; and - a cathode comprising a current collector and cathode material supported on the current collector, the current collector comprising a fabric substrate and an electron-conductive material, wherein the electron-conductive material contains voids to enable penetration of the current collector by the electrolyte; wherein the fabric substrates of the anode and cathode are non-conductive in the absence of the electron-conductive material. - a flexible housing; - an ionic liquid electrolyte comprising lithium mobile ions contained within the housing, wherein the cation of the ionic liquid electrolyte is a pyrrolidinium- or piperidinium-based cation and the electrolyte composition is liquid at the typical usage temperature of the energy storage device; - an anode comprising a current collector and anode material supported on the current collector, the current collector comprising a fabric substrate and an electron-conductive material, wherein the electron-conductive material contains voids to enable penetration of the current collector by the electrolyte; and - a cathode comprising a current collector and cathode material supported on the current collector, the current collector comprising a fabric substrate and an electron-conductive material, wherein the electron-conductive material contains voids to enable penetration of the current collector by the electrolyte; wherein the fabric substrates of the anode and cathode are non-conductive in the absence of the electron-conductive material.
A microstructured film comprising a polymerized microstructured surface wherein the microstructures comprise the reaction product of a polymerizable resin composition wherein The polymerizable resin composition comprising i) 1 % to 20% by weight of one or more (meth)acrylate monomers represented by the formula UVA - L v - A wherein, UVA is a substituted or unsubstituted core structure selected from the group consisting of or L v is a linking group, covalently bonding UVA to A, and A is a (meth)acrylate group; and ii) a non-halogenated (meth)acrylate monomer or oligomer having a refractive index of at least 1.585 and wherein the film is a brightness enhancing film comprising a preformed polymeric film base layer and an optical layer wherein the optical layer comprises a linear array of regular right prisms. i) 1 % to 20% by weight of one or more (meth)acrylate monomers represented by the formula UVA - L v - A wherein, UVA is a substituted or unsubstituted core structure selected from the group consisting of or L v is a linking group, covalently bonding UVA to A, and A is a (meth)acrylate group; and L v is a linking group, covalently bonding UVA to A, and A is a (meth)acrylate group; and ii) a non-halogenated (meth)acrylate monomer or oligomer having a refractive index of at least 1.585 and wherein the film is a brightness enhancing film comprising a preformed polymeric film base layer and an optical layer wherein the optical layer comprises a linear array of regular right prisms.
A thermoacoustic apparatus, the apparatus comprising: an electromagnetic signal device (712, 812, 912, 1012, 2012, 3012); and a sound wave generator (714, 814, 914, 1014, 2014, 3014) which comprises of a carbon nanotube structure which comprises at least one carbon nanotube film, the at least one carbon nanotube film comprising a plurality of carbon nanotubes, the electromagnetic signal device (712, 812, 912, 1012, 2012, 3012) is spaced apart from the sound wave generator (714,814,914,1014,2014,3014) by an air medium, the electromagnetic signal device (712, 812, 912, 1012, 2012, 3012) transmits an electromagnetic signal (720, 820, 920, 1020, 2020, 3020) to irradiate the carbon nanotube structure, the carbon nanotube structure converts the electromagnetic signal into heat and the heat transfers to the medium causing a thermoacoustic effect; characterized in that the apparatus further comprises a modulating device (718, 818, 918, 1018) disposed between the electromagnetic signal device (712, 812, 912, 1012, 2012, 3012) and the sound wave generator (714, 814, 914, 1014, 2014, 3014) to modulate intensity, frequency or both intensity and frequency of the electromagnetic signal (720, 820, 920, 1020, 2020, 3020). an electromagnetic signal device (712, 812, 912, 1012, 2012, 3012); and a sound wave generator (714, 814, 914, 1014, 2014, 3014) which comprises of a carbon nanotube structure which comprises at least one carbon nanotube film, the at least one carbon nanotube film comprising a plurality of carbon nanotubes, the electromagnetic signal device (712, 812, 912, 1012, 2012, 3012) is spaced apart from the sound wave generator (714,814,914,1014,2014,3014) by an air medium, the electromagnetic signal device (712, 812, 912, 1012, 2012, 3012) transmits an electromagnetic signal (720, 820, 920, 1020, 2020, 3020) to irradiate the carbon nanotube structure, the carbon nanotube structure converts the electromagnetic signal into heat and the heat transfers to the medium causing a thermoacoustic effect; characterized in that the apparatus further comprises a modulating device (718, 818, 918, 1018) disposed between the electromagnetic signal device (712, 812, 912, 1012, 2012, 3012) and the sound wave generator (714, 814, 914, 1014, 2014, 3014) to modulate intensity, frequency or both intensity and frequency of the electromagnetic signal (720, 820, 920, 1020, 2020, 3020).