mhurhangee/patent-ind-claim-en huggingface dataset:
A lighting and/or signaling device for a vehicle, in particular for the automotive sector, comprising: - a container body which delimits a containment seat closed by a lenticular body , - at least one luminous source arranged and supported inside said containment seat , configured to emit, when powered, a luminous beam comprising a plurality of luminous rays (R), - a light guide adapted to receive and transmit the luminous beam received by said luminous source , - the light guide comprises a main section , configured to emit a main light beam (P) of the luminous beam, by means of a main illuminating portion , and a secondary section , configured to emit a secondary light beam (S) of the luminous beam, by means of a secondary illuminating portion , wherein - a distribution element is interposed between the light guide and the luminous source , upstream of the light guide , configured to divide the luminous beam into said main luminous beam (P), inserted into the main section by means of a main interface , and into said secondary luminous beam (S), inserted into the secondary section by means of a secondary interface , - wherein, at said main interface , a main reflector is provided, which divides the main luminous beam (P) from the secondary luminous beam (S), and - wherein, at said secondary interface , a secondary reflector is provided, which deflects the secondary luminous beam (S) in the secondary section , characterized in that the light guide has an overall 'V' configuration, said main section and secondary section joining at a vertex of said 'V', wherein the distribution element extends between free ends of the main section and of the secondary section , opposite to the vertex. - a container body which delimits a containment seat closed by a lenticular body , - at least one luminous source arranged and supported inside said containment seat , configured to emit, when powered, a luminous beam comprising a plurality of luminous rays (R), - a light guide adapted to receive and transmit the luminous beam received by said luminous source , - the light guide comprises a main section , configured to emit a main light beam (P) of the luminous beam, by means of a main illuminating portion , and a secondary section , configured to emit a secondary light beam (S) of the luminous beam, by means of a secondary illuminating portion , wherein - a distribution element is interposed between the light guide and the luminous source , upstream of the light guide , configured to divide the luminous beam into said main luminous beam (P), inserted into the main section by means of a main interface , and into said secondary luminous beam (S), inserted into the secondary section by means of a secondary interface , - wherein, at said main interface , a main reflector is provided, which divides the main luminous beam (P) from the secondary luminous beam (S), and - wherein, at said secondary interface , a secondary reflector is provided, which deflects the secondary luminous beam (S) in the secondary section ,
A grease composition comprising a base oil (A), a urea-based thickener (B), a sarcosine derivative (C), and a fatty acid zinc salt (D), wherein particles containing the urea-based thickener (B) in the grease composition satisfies the following requirement (I): · Requirement (I): an arithmetic average particle diameter of the particles on an area basis as measured by the laser diffraction/scattering method is 2.0 μm or less, and the base oil (A) is a blended base oil containing a high viscosity hydrocarbon-based synthetic oil having a 40°C kinematic viscosity of 200 mm 2 /s to 600 mm 2 /s (A1), a low viscosity hydrocarbon-based synthetic oil having a 40°C kinematic viscosity of 5.0 to 110 mm 2 /s (A2), and an ultra-high viscosity hydrocarbon-based synthetic oil having a number average molecular weight (Mn) of 2,500 to 4,500 and a 40°C kinematic viscosity of 25,000 to 50,000 mm 2 /s (A3), a 40°C kinematic viscosity of the base oil (A) is 500 mm 2 /s to 1,500 mm 2 /s, a viscosity index of the base oil (A) is 140 or more, and a content of the fatty acid zinc salt (D) is 10 mass% to 20 mass% based on a total amount of the grease composition. particles containing the urea-based thickener (B) in the grease composition satisfies the following requirement (I): · Requirement (I): an arithmetic average particle diameter of the particles on an area basis as measured by the laser diffraction/scattering method is 2.0 μm or less, and · Requirement (I): an arithmetic average particle diameter of the particles on an area basis as measured by the laser diffraction/scattering method is 2.0 μm or less, and the base oil (A) is a blended base oil containing a high viscosity hydrocarbon-based synthetic oil having a 40°C kinematic viscosity of 200 mm 2 /s to 600 mm 2 /s (A1), a low viscosity hydrocarbon-based synthetic oil having a 40°C kinematic viscosity of 5.0 to 110 mm 2 /s (A2), and an ultra-high viscosity hydrocarbon-based synthetic oil having a number average molecular weight (Mn) of 2,500 to 4,500 and a 40°C kinematic viscosity of 25,000 to 50,000 mm 2 /s (A3), a 40°C kinematic viscosity of the base oil (A) is 500 mm 2 /s to 1,500 mm 2 /s, a viscosity index of the base oil (A) is 140 or more, and a content of the fatty acid zinc salt (D) is 10 mass% to 20 mass% based on a total amount of the grease composition.
An injector for a gas turbine engine, comprising: a feed arm including a primary and a secondary fluid passage ; an inlet assembly fixed at an upstream end of the feed arm having at least one inlet in fluid communication with the primary and secondary fluid passages ; and a tip assembly fixed at a downstream end of the feed arm having a fluid outlet in fluid communication with the primary and secondary fluid passages for issuing a spray of fluid, wherein the primary and secondary fluid passages are monolithically formed within the feed arm , wherein the secondary fluid passage includes a nonlinear section configured to provide extended residence time for cooling fluid in the secondary fluid passage ; wherein optionally the primary fluid passage includes a nonlinear section configured to provide extended residence time for cooling fluid in the primary fluid passage ; characterized in that the nonlinear section of the secondary fluid passage is serpentine in shape. a feed arm including a primary and a secondary fluid passage ; an inlet assembly fixed at an upstream end of the feed arm having at least one inlet in fluid communication with the primary and secondary fluid passages ; and a tip assembly fixed at a downstream end of the feed arm having a fluid outlet in fluid communication with the primary and secondary fluid passages for issuing a spray of fluid, wherein the primary and secondary fluid passages are monolithically formed within the feed arm , wherein the secondary fluid passage includes a nonlinear section configured to provide extended residence time for cooling fluid in the secondary fluid passage ; wherein optionally the primary fluid passage includes a nonlinear section configured to provide extended residence time for cooling fluid in the primary fluid passage ; characterized in that the nonlinear section of the secondary fluid passage is serpentine in shape.
A method for classifying an object occurring in a sequence of images, comprising: identifying and tracking the object through the sequence of images; generating , from the tracking of the object through the sequence of images, a set of temporally distributed image crops including the object; feeding the set of image crops to an artificial neural network trained for classifying an object; determining , by the artificial neural network, a classification vector for each image crop; determining a quality measure, Qi, of each classification vector, wherein the quality measure, Qi, is determined using the formula: Q i = α ⋅ R I i + β ⋅ 1 H X ^ I i in which α and β are scalars, R(I i ) is the resolution of the object's i: th image crop I i , and H ( X̂ ( I i )) is a Shannon entropy of the classification vector for the object's i: th image crop I i ; weighting the classification vector for each image crop by its quality measure; and determining an object class for the object by combining the weighted output from the artificial neural network for the set of images, wherein the object class is an object class for which the artificial neural network is trained. identifying and tracking the object through the sequence of images; generating , from the tracking of the object through the sequence of images, a set of temporally distributed image crops including the object; feeding the set of image crops to an artificial neural network trained for classifying an object; determining , by the artificial neural network, a classification vector for each image crop; determining a quality measure, Qi, of each classification vector, wherein the quality measure, Qi, is determined using the formula: Q i = α ⋅ R I i + β ⋅ 1 H X ^ I i in which α and β are scalars, R(I i ) is the resolution of the object's i: th image crop I i , and H ( X̂ ( I i )) is a Shannon entropy of the classification vector for the object's i: th image crop I i ; weighting the classification vector for each image crop by its quality measure; and determining an object class for the object by combining the weighted output from the artificial neural network for the set of images, wherein the object class is an object class for which the artificial neural network is trained.
An information processing device comprising a processor that functions as: a receiving section which receives, from a first user terminal, a display request of an electronic document including a plurality of items on which a display restriction is imposed; an approval section which receives approval of the display request that is received by the receiving section; a setting section which sets a restriction removal condition when the approval section receives the approval of the display request; a determination section which determines whether or not data input by a user via a removal operation window on the first user terminal satisfies the restriction removal condition set by the setting section when a predetermined input operation of specifying the electronic document is performed to the first user terminal; and a restriction removal section which removes the display restriction imposed on an item when the determination section determines that the restriction removal condition is satisfied; wherein the display request being accompanied by an intended use of the electronic document, the intended use indicating a purpose of use, the setting section sets the restriction removal condition that is determined in advance in association with the intended use accompanying the display request, and the restriction removal section removes the display restriction imposed on an item that is determined in advance in association with the intended use among the plurality of items. a receiving section which receives, from a first user terminal, a display request of an electronic document including a plurality of items on which a display restriction is imposed; an approval section which receives approval of the display request that is received by the receiving section; a setting section which sets a restriction removal condition when the approval section receives the approval of the display request; a determination section which determines whether or not data input by a user via a removal operation window on the first user terminal satisfies the restriction removal condition set by the setting section when a predetermined input operation of specifying the electronic document is performed to the first user terminal; and a restriction removal section which removes the display restriction imposed on an item when the determination section determines that the restriction removal condition is satisfied; wherein the display request being accompanied by an intended use of the electronic document, the intended use indicating a purpose of use, the setting section sets the restriction removal condition that is determined in advance in association with the intended use accompanying the display request, and the restriction removal section removes the display restriction imposed on an item that is determined in advance in association with the intended use among the plurality of items.
Product surface , comprising a first optoelectronically readable code formed by an arrangement of planar cells of a first cell type and planar cells of a second cell type, - wherein the cells are an integral constituent part of the product surface , - wherein the cells of each cell type respectively have a surface profile , - wherein the surface profile of at least one cell type comprises at least one elevation and/or depression relative to the product surface , and wherein the surface profile of the first cell type is formed relative to the surface profile of the second cell type in such a way that the reflection properties of the surface profile of the first cell type differ from the reflection properties of the surface profile of the second cell type, characterized in that - the product surface comprises a second code embodied in such a way, - cell types A, which comprise the first cell type of the first code and the second cell type of the second code , have the same surface profile and - cell types B, which comprise the second cell type of the first code and the first cell type of the second code , have the same surface profile , - both codes are quick response (QR) codes with the same coding and error tolerance, - the two codes are arranged adjacently on the product surface and - the first code and the second code each have a specific arrangement of cells of the first cell type and of cells of the second cell type, wherein the specific arrangement comprises a square of cells of the first cell type, bordered by cells of the second cell type, which in turn are bordered by cells of the first cell type. - wherein the cells are an integral constituent part of the product surface , - wherein the cells of each cell type respectively have a surface profile , - wherein the surface profile of at least one cell type comprises at least one elevation and/or depression relative to the product surface , and wherein the surface profile of the first cell type is formed relative to the surface profile of the second cell type in such a way that the reflection properties of the surface profile of the first cell type differ from the reflection properties of the surface profile of the second cell type, characterized in that - the product surface comprises a second code embodied in such a way, - cell types A, which comprise the first cell type of the first code and the second cell type of the second code , have the same surface profile and - cell types B, which comprise the second cell type of the first code and the first cell type of the second code , have the same surface profile , - both codes are quick response (QR) codes with the same coding and error tolerance, - the two codes are arranged adjacently on the product surface and - the first code and the second code each have a specific arrangement of cells of the first cell type and of cells of the second cell type, wherein the specific arrangement comprises a square of cells of the first cell type, bordered by cells of the second cell type, which in turn are bordered by cells of the first cell type.
A retainer assembly for use in a wheel assembly, the retainer assembly comprising: a retainer main body having a first mounting flange , a second mounting flange , a body portion , a first rib and a second rib , the body portion extending from the first mounting flange to the second mounting flange, the first rib extending from the second mounting flange towards the first mounting flange, the second rib extending from the second mounting flange towards the first mounting flange, the first rib and the second rib extending orthogonal to the body portion; characterised by comprising: a retainer sleeve having a flat plate extending from a first axial end to a second axial end , the retainer sleeve having a first slot extending from the first axial end towards the second axial end and a second slot extending from the first axial end towards the second axial end, a portion of the first rib disposed in the first slot, and a portion of the second rib disposed in the second slot.
A high-silicon steel sheet having a chemical composition containing, by mass%, C: 0.02% or less, P: 0.02% or less, Si: 4.5% or more and 7.0% or less, Mn: 0.01% or more and 1.0% or less, Al: 1.0% or less, O: 0.01% or less, N: 0.01% or less, and S: 0.010% or less, and the balance being Fe and inevitable impurities, a grain-boundary oxygen concentration, which is an oxygen concentration with respect to chemical elements segregated at grain boundaries, of 30 at% or less, determined by using an Auger electron spectrometer, and a microstructure in which a degree of integration P of a -plane of α-Fe on the surface of the steel sheet is 15% or more, where, a degree of integration P(hkl) of each crystal plane is defined by the equation below on the basis of integrated intensities of various peaks obtained by using an X-ray diffraction method: P 211 = p 211 / S × 100 % , where S = p 110 / 100 + p 200 / 14.93 + p 211 / 25.88 + p 310 / 7.68 + p 222 / 1.59 + p 321 / 6.27 + p 411 / 1.55 , and where p(hkl): integrated intensity of a peak of X-ray diffraction of an {hkl}-plane.
An electrode for use in electrochemical impedance spectroscopy, which electrode comprises: (a) a substrate having a planar surface; and (b) probe molecules attached to polymers disposed on said planar surface; wherein said probe molecules are capable of binding selectively to insulin; and wherein said electrode is made according to a method comprising: (i) attaching photopolymerisable betaine monomers to the planar surface of the substrate, thereby obtaining a modified surface having a layer of photopolymerisable betaine monomers disposed thereon; then (ii) contacting said modified surface with further photopolymerisable betaine monomers, and optionally crosslinking monomers, and photochemically polymerising the monomers, thereby generating an electrode comprising said polymers disposed on said planar surface; wherein attachment of the layer of photopolymerisable betaine monomers in step (i) is substantially complete before the modified surface is contacted with further photopolymerisable betaine monomers, and optionally crosslinking monomers, and the photochemical polymerisation is carried out, in step (ii). (i) attaching photopolymerisable betaine monomers to the planar surface of the substrate, thereby obtaining a modified surface having a layer of photopolymerisable betaine monomers disposed thereon; then (ii) contacting said modified surface with further photopolymerisable betaine monomers, and optionally crosslinking monomers, and photochemically polymerising the monomers, thereby generating an electrode comprising said polymers disposed on said planar surface;
A liquid pharmaceutical composition for oral administration in the form of suspension which comprises: a) Ibuprofen in an amount comprised between 2% w/v and 10% w/v; b) phenylephrine or a pharmaceutically acceptable salt thereof, in an amount comprised between 0.005% w/v and 2% w/v, expressed as equivalent amount of phenylephrine hydrochloride; c) hypromellose, in an amount comprised between 0.1% w/v and 5% w/v; d) xanthan gum, in an amount comprised between 0.05% w/v and 4% w/v; e) liquid maltitol; f) glycerine; and g) water. a) Ibuprofen in an amount comprised between 2% w/v and 10% w/v; b) phenylephrine or a pharmaceutically acceptable salt thereof, in an amount comprised between 0.005% w/v and 2% w/v, expressed as equivalent amount of phenylephrine hydrochloride; c) hypromellose, in an amount comprised between 0.1% w/v and 5% w/v; d) xanthan gum, in an amount comprised between 0.05% w/v and 4% w/v; e) liquid maltitol; f) glycerine; and g) water.
Method for operating a wind power installation having a rotor and having a generator driven via the rotor for generating an electrical power, having the steps of: - determining an environmental variable relevant to the wind power installation and comprising at least an air density relevant to the wind power installation, - determining a rotational speed of the rotor, - specifying an electrical power to be output by the generator, - adjusting the wind power installation for generating the power to be output according to operational management which indicates a relationship between the rotational speed of the rotor and the electrical power to be output, wherein - the operational management is adapted on the basis of the air density relevant to the wind power installation, characterized in that - (I) an adapted rotational speed of the rotor of the wind power installation for generating an electrical power to be output is specified using the adapted operational management and therefore using the air density relevant to the wind power installation, wherein, for generating an optimized electrical power to be output, the adapted rotational speed is an increased rotational speed for a reduced air density, wherein additionally - (II) a sound emission of the wind power installation is determined for the adapted rotational speed of the rotor using the air density relevant to the wind power installation, and - the adapted rotational speed is corrected on the basis of the determined sound emission using the air density relevant to the wind power installation. - determining an environmental variable relevant to the wind power installation and comprising at least an air density relevant to the wind power installation, - determining a rotational speed of the rotor, - specifying an electrical power to be output by the generator, - adjusting the wind power installation for generating the power to be output according to operational management which indicates a relationship between the rotational speed of the rotor and the electrical power to be output, wherein - the operational management is adapted on the basis of the air density relevant to the wind power installation, characterized in that - (I) an adapted rotational speed of the rotor of the wind power installation for generating an electrical power to be output is specified using the adapted operational management and therefore using the air density relevant to the wind power installation, wherein, for generating an optimized electrical power to be output, the adapted rotational speed is an increased rotational speed for a reduced air density, wherein additionally - (II) a sound emission of the wind power installation is determined for the adapted rotational speed of the rotor using the air density relevant to the wind power installation, and - the adapted rotational speed is corrected on the basis of the determined sound emission using the air density relevant to the wind power installation.