mhurhangee/patent-ind-claim-en huggingface dataset:
A robot vacuum cleaner comprising: a main body configured to be driven on a surface, and having an intake configured to suck in debris from the surface; a shutter installed further from a center of the robot vacuum cleaner than the intake , and configured to move from a retracted position (CW) to an extended position (CCW), such that in the extended position (CCW), the shutter is configured to contact debris on the surface outside a reachable area of the intake ; and a shutter driver configured to move the shutter between the retracted position (CW) and the extended position (CCW). a main body configured to be driven on a surface, and having an intake configured to suck in debris from the surface; a shutter installed further from a center of the robot vacuum cleaner than the intake , and configured to move from a retracted position (CW) to an extended position (CCW), such that in the extended position (CCW), the shutter is configured to contact debris on the surface outside a reachable area of the intake ; and a shutter driver configured to move the shutter between the retracted position (CW) and the extended position (CCW).
A lubricant applicator comprising: a body comprising an inner surface defining a lumen , an outer surface, and a connector fluidly connected to the lumen ; wherein: the connector is configured to receive a lubricating fluid and convey the lubricating fluid to the lumen ; a plurality of openings connecting the lumen to the outer surface of the body; and the lubricant applicator is attached to a coater blade at a position such that the plurality of openings are configured to deliver the lubricant to an edge region of paper and a backing drum during coating of the paper. a body comprising an inner surface defining a lumen , an outer surface, and a connector fluidly connected to the lumen ; wherein: the connector is configured to receive a lubricating fluid and convey the lubricating fluid to the lumen ; a plurality of openings connecting the lumen to the outer surface of the body; and the lubricant applicator is attached to a coater blade at a position such that the plurality of openings are configured to deliver the lubricant to an edge region of paper and a backing drum during coating of the paper. the connector is configured to receive a lubricating fluid and convey the lubricating fluid to the lumen ; a plurality of openings connecting the lumen to the outer surface of the body; and the lubricant applicator is attached to a coater blade at a position such that the plurality of openings are configured to deliver the lubricant to an edge region of paper and a backing drum during coating of the paper.
Method for deconvolving image data (D(r)), wherein image data (O(r)) of an object are captured with a number n of confocal beam paths and a number n of detector elements; the image data (O(r)) are converted into resultant image data (D(r)) by means of a point spread function (EH(r)); and the resultant image data (D(r)) are deconvolved again in the frequency domain using a deconvolution function, wherein the deconvolution function necessitates the formation of at least a number n of sum terms and contains a Wiener parameter w as correction variable, and the deconvolution function has the form O ω = ∑ i n D i ω ⋅ EH i * ω w + ∑ i n EH i ω 2 where O(w) = an object spectrum, D(w) = an image spectrum, EH* (ω)= an optical transfer function (complex conjugate), EH i (ω)= an optical transfer function, n = a number of detector elements and i = a running index from 1 to n; characterized in that the results of the sum terms ( ∑ i n D i ω ⋅ EH i * ω ) and ( ∑ i n EH i ω 2 ) are stored in retrievable fashion; the Wiener parameter w is modified at least once proceeding from its original value and the deconvolution is carried out by means of the deconvolution function with the modified Wiener parameter w and the stored results of the sum terms, wherein the number n of confocal beam paths - n ≥ 2, is equal to the number n of detector elements, and the image data of each confocal beam path are captured individually by means of respectively one detector element. wherein image data (O(r)) of an object are captured with a number n of confocal beam paths and a number n of detector elements; the image data (O(r)) are converted into resultant image data (D(r)) by means of a point spread function (EH(r)); and the resultant image data (D(r)) are deconvolved again in the frequency domain using a deconvolution function, wherein the deconvolution function necessitates the formation of at least a number n of sum terms and contains a Wiener parameter w as correction variable, necessitates the formation of at least a number n of sum terms and contains a Wiener parameter w as correction variable, and the deconvolution function has the form O ω = ∑ i n D i ω ⋅ EH i * ω w + ∑ i n EH i ω 2 where O(w) = an object spectrum, D(w) = an image spectrum, EH* (ω)= an optical transfer function (complex conjugate), EH i (ω)= an optical transfer function, n = a number of detector elements and i = a running index from 1 to n; characterized in that the results of the sum terms ( ∑ i n D i ω ⋅ EH i * ω ) and ( ∑ i n EH i ω 2 ) are stored in retrievable fashion; the Wiener parameter w is modified at least once proceeding from its original value and the deconvolution is carried out by means of the deconvolution function with the modified Wiener parameter w and the stored results of the sum terms, wherein the number n of confocal beam paths - n ≥ 2, - n ≥ 2, is equal to the number n of detector elements, and the image data of each confocal beam path are captured individually by means of respectively one detector element.
A film capacitor comprising a film that comprises a blend of polypropylene and cyclo-olefin copolymer, wherein the blend comprises an amount of at least two thirds by weight of polypropylene, and wherein the cyclo-olefin copolymer comprises ethylene in the range of 23 weight% to 27 weight% and norbornene in the range of 73 weight% to 77 weight%, wherein the film capacitor comprises a metallization which forms electrodes of the film capacitor and the electrodes comprise any alloy of aluminium, zinc or magnesium.
Dishwasher, in particular a domestic dishwasher, comprising a housing , a washing container , which is received by the housing and provides a washing chamber and is intended to receive washware to be cleaned, a collection pot , into which the washing container fluidically opens, a circulating pump designed as an axial pump which is fluidically connected to the collection pot by means of a suction line , characterised in that the housing terminates at the bottom with a base trough , the circulating pump being supported by the base trough and having an axial impeller arranged on a motor-driven shaft which is oriented in parallel or substantially in parallel with the base trough , and the shaft being arranged at a distance (A) of 10 mm to 50 mm from the base trough , at least in the region of the axial impeller , and/or the suction depth (A A ), which results from the distance between the base of the washing container and the axis of rotation of the axial impeller , of the circulating pump being 80% to 90% of the distance (A B ) between the base of the washing container and the base trough . the housing terminates at the bottom with a base trough , the circulating pump being supported by the base trough and having an axial impeller arranged on a motor-driven shaft which is oriented in parallel or substantially in parallel with the base trough , and the shaft being arranged at a distance (A) of 10 mm to 50 mm from the base trough , at least in the region of the axial impeller , and/or the suction depth (A A ), which results from the distance between the base of the washing container and the axis of rotation of the axial impeller , of the circulating pump being 80% to 90% of the distance (A B ) between the base of the washing container and the base trough .
A white organic light emitting device comprising: a first emission part between a first electrode and a second electrode , comprising a first hole transport layer and a first electron transport layer ; and a second emission part on the first emission part , comprising a second hole transport layer and a second electron transport layer , wherein at least one among the first emission part and the second emission part comprises at least two stacked emission layers and an emission area control layer (EACL) , wherein the at least two stacked emission layers comprise a red emission layer and a yellow-green emission layer, the EACL providing separation for emission areas of the at least two stacked emission layers and including a second host different from a first host included in the yellow-green emission layer, wherein a dopant of the EACL is the same as a dopant of the yellow-green emission layer of the at least two stacked emission layers , wherein the emission areas of the at least two stacked emission layers are separated based on a difference between a hole mobility of a host of the EACL and a hole mobility of the host of the yellow-green emission layer, and wherein the hole mobility of the host of the EACL is faster than the hole mobility of the host of the yellow-green emission layer. a first emission part between a first electrode and a second electrode , comprising a first hole transport layer and a first electron transport layer ; and a second emission part on the first emission part , comprising a second hole transport layer and a second electron transport layer , wherein at least one among the first emission part and the second emission part comprises at least two stacked emission layers and an emission area control layer (EACL) , wherein the at least two stacked emission layers comprise a red emission layer and a yellow-green emission layer, the EACL providing separation for emission areas of the at least two stacked emission layers and including a second host different from a first host included in the yellow-green emission layer, wherein a dopant of the EACL is the same as a dopant of the yellow-green emission layer of the at least two stacked emission layers , wherein the emission areas of the at least two stacked emission layers are separated based on a difference between a hole mobility of a host of the EACL and a hole mobility of the host of the yellow-green emission layer, and wherein the hole mobility of the host of the EACL is faster than the hole mobility of the host of the yellow-green emission layer.
Electrical heating device for mobile applications, comprising: a substrate and a heating conductor layer formed on the substrate , wherein the heating conductor layer comprises at least one heating conductor track that extends in a main plane on the substrate , wherein the heating conductor track is structured such that a multiplicity of track sections , running next to one another and separated from one another by insulating gaps , are formed, wherein the heating conductor track comprises at least one curve section at which the heating conductor track is deflected in the main plane, characterized in that the heating conductor track is formed in the curve section in such a way that it has a smaller thickness in the direction perpendicular to the main plane in the region of the inner curve than in the region of the outer curve , the heating conductor layer is a layer that is deposited areally on the substrate and subsequently structured by material removal and the smaller thickness in the region of the inner curve is formed by increased material removal compared to the region of the outer curve . a substrate and a heating conductor layer formed on the substrate , wherein the heating conductor layer comprises at least one heating conductor track that extends in a main plane on the substrate , wherein the heating conductor track is structured such that a multiplicity of track sections , running next to one another and separated from one another by insulating gaps , are formed, wherein the heating conductor track comprises at least one curve section at which the heating conductor track is deflected in the main plane, characterized in that the heating conductor track is formed in the curve section in such a way that it has a smaller thickness in the direction perpendicular to the main plane in the region of the inner curve than in the region of the outer curve , the heating conductor layer is a layer that is deposited areally on the substrate and subsequently structured by material removal and the smaller thickness in the region of the inner curve is formed by increased material removal compared to the region of the outer curve .
A toy construction set comprising a number of toy building blocks each having an upper surface provided with one or more coupling knobs arranged equidistantly in a uniform, preferably square, pattern, and a lower surface provided with one or more coupling sockets adapted for releasable frictional engagement with the couplings knobs on another building block in the toy construction set, characterized in, that the toy construction set further comprises a building element comprising a bistable band , and where the band has a first stable shape where it is curved about a first curvature axis extending parallel with the longitudinal direction of the band and at a distance from a first side of the band, and a second stable shape where it is curved about a second curvature axis extending substantially perpendicular with the first curvature axis, and where the bistable band on the first side of the bistable band comprises multiple coupling knobs arranged in a uniform, preferably square pattern, and where each coupling knob is adapted for frictional engagement with a coupling socket of building block in the toy construction set.
A method for providing a diagnosis of acute kidney injury (AKI) in a subject displaying symptoms of AKI, the method comprising: passing a vesicle containing biological sample obtained from said subject through a vesicle-capture material, thereby generating a vesicle sample; performing a nucleic acid-based detection assay to detect mRNA expression level of at least two genes in said vesicle sample, wherein each of said at least two genes is selected from the group consisting of CALB1, CALM1, CFLAR, EGF, GSTA1, HIF1A, IL18, PKM, PPIA, RIPK1, and SLC12A1; comparing said mRNA expression level of said at least two genes of the subject to that of a pre-determined standard to determine a level of over-expression or under-expression of said at least two genes in said subject relative to the standard; and determining the AKI severity in the subject, wherein the level of over-expression or under-expression of said at least two genes indicates the AKI severity in the subject, wherein said determining further involves generating a gene classifier expressed as a summation of the expression levels of said at least two genes; and determining that said subject has said AKI due to a summation of said expression levels of said at least two genes contained in the gene classifier being significantly different from a summation of said expression levels of corresponding genes in a vesicle sample obtained from a healthy human control subject not suffering from said AKI. passing a vesicle containing biological sample obtained from said subject through a vesicle-capture material, thereby generating a vesicle sample; performing a nucleic acid-based detection assay to detect mRNA expression level of at least two genes in said vesicle sample, wherein each of said at least two genes is selected from the group consisting of CALB1, CALM1, CFLAR, EGF, GSTA1, HIF1A, IL18, PKM, PPIA, RIPK1, and SLC12A1; comparing said mRNA expression level of said at least two genes of the subject to that of a pre-determined standard to determine a level of over-expression or under-expression of said at least two genes in said subject relative to the standard; and determining the AKI severity in the subject, wherein the level of over-expression or under-expression of said at least two genes indicates the AKI severity in the subject, wherein said determining further involves generating a gene classifier expressed as a summation of the expression levels of said at least two genes; and determining that said subject has said AKI due to a summation of said expression levels of said at least two genes contained in the gene classifier being significantly different from a summation of said expression levels of corresponding genes in a vesicle sample obtained from a healthy human control subject not suffering from said AKI.
An organic electronic material comprising a charge transport polymer or oligomer, wherein the charge transport polymer or oligomer has at least a structural unit (AA) containing an aromatic amine structure substituted with a fluorine atom, represented by the following formula or wherein in the formula and each Ar independently represents an aromatic hydrocarbon group, and at least one Ar is an aromatic hydrocarbon group substituted with one or more fluorine atoms, each Ar may be independently substituted with a substituent other than a fluorine atom, and the symbol "*" denotes a bonding site to another structure; wherein the charge transport polymer may contain a structural unit (AB) containing an aromatic amine structure represented by the above formulas or as defined above wherein the structure is not substituted with a fluorine atom, and wherein the charge transport polymer or oligomer is a branched polymer or oligomer. wherein in the formula and each Ar independently represents an aromatic hydrocarbon group, and at least one Ar is an aromatic hydrocarbon group substituted with one or more fluorine atoms, each Ar may be independently substituted with a substituent other than a fluorine atom, and the symbol "*" denotes a bonding site to another structure; wherein the charge transport polymer may contain a structural unit (AB) containing an aromatic amine structure represented by the above formulas or as defined above wherein the structure is not substituted with a fluorine atom, and wherein the charge transport polymer or oligomer is a branched polymer or oligomer.
Apparatus for detecting at least one physical quantity of a ferromagnetic product, comprising an iron core (2, 2', 2", 2′′′) having an annular shape open at a respective discontinuity or air gap, a detection zone (3, 3', 3", 3′′′) being defined by the aforementioned air gap, and at least one electrical winding comprising at least one turn, preferably a plurality of turns wound around at least a portion of said core (2, 2', 2", 2′′′), configured to generate in said core (2, 2', 2", 2"') a magnetic field (M) and, through said air gap, a magnetic flux passing through said detection zone (3, 3', 3", 3"'), when said electrical winding is electrically powered, said magnetic field being perturbed (M') by the presence of a portion of a said ferromagnetic product stationary or moving in said detection zone (3, 3', 3", 3′′′), a processing unit configured to detect a variation of at least one electrical quantity (V in , V out ) relative to said electrical winding and to correlate said variation to said physical quantity relative to said portion of said product stationary or moving in said detection zone (3, 3', 3", 3"'), characterized in that said processing unit is configured to determine the mass of said portion of said product stationary or moving in said detection zone (3, 3', 3", 3"') and, on the basis of said determined mass, calculating at least one transverse dimension of said portion of product , in particular a nominal diameter of said portion of said product , corresponding to the diameter of a portion of the same extension of a reference or nominal product, having a uniform circular cross-section, a smooth surface, and a mass equal to said determined mass.
- A multi-stage compressor unit comprising at least a first compressor element and a second compressor element and at least a first motor and a second motor for driving, each separately, another one of said first compressor element and second compressor element through a separate first gear-transmission and second gear-transmission , each of said first gear- transmission and second gear-transmission comprising a driving gear connected to a respective motor of said first motor or second motor , and a driven gear being connected to a shaft of a rotor of one of said first compressor element or second compressor element , wherein the ratio between the number of teeth of the driving gear and the number of teeth of the driven gear of either one of said first gear-transmission and second gear-transmission is situated between two and six.
Device for generating ion beams with defined ion beam profiles comprising: at least one ion source with a plasma vessel and with an ion optics , the ion optics comprising at least two extraction gratings , electrically separated from one another, for generating an ion beam, the device having a grating control for moving the at least two extraction gratings , so that the positions of the extraction gratings can be changed relative to one another and the ion beam profile can thereby be changed, characterized in that each extraction grid has in each case a plurality of sub-grids and the grid control is designed in such a way that it can also move the sub-grids of the at least two extraction grids , so that the positions of the sub-grids relative to one another can be changed and the ion beam profile can also thereby be changed. at least one ion source with a plasma vessel and with an ion optics , the ion optics comprising at least two extraction gratings , electrically separated from one another, for generating an ion beam, the device having a grating control for moving the at least two extraction gratings , so that the positions of the extraction gratings can be changed relative to one another and the ion beam profile can thereby be changed, characterized in that each extraction grid has in each case a plurality of sub-grids and the grid control is designed in such a way that it can also move the sub-grids of the at least two extraction grids , so that the positions of the sub-grids relative to one another can be changed and the ion beam profile can also thereby be changed.