mhurhangee/ep-ind-claims huggingface dataset:
Microscope system (200, 300) comprising a first detection unit or a plurality of detection units (10, 20) which include a first detection unit and at least one second detection unit, the first detection unit or at least one of the plurality of detection units (10, 20) comprising a colour beam splitter arrangement with three beam splitter prisms (11, 12, 13), characterised in - that each of the beam splitter prisms (11, 12, 13) comprises a first, a second and a third prism surface (F1, F2, F3), a dichroic layer (1, 2, 3) being provided on, or parallel to, each of the second prism surfaces of the beam splitter prisms (11, 12, 13), - that the first prism surfaces of the beam splitter prisms (11, 12, 13) face into the same direction and are aligned parallel to one another at a right angle to an optical axis through the first and second prism surfaces (F1, F2) of the beam splitter prisms (11, 12, 13), - that the first and second prism surfaces (F1, F2) of the beam splitter prisms (11, 12, 13) are each aligned at acute first angles to one another, the second and third prism surfaces (F2, F3) of the beam splitter prisms (11, 12, 13) are each aligned at right or obtuse second angles to one another, and the third and first prism splitter (F3, F1) of the beam splitter prisms (11, 12, 13) are each aligned at acute third angles to one another, and - that a prismatic compensating element (21, 22, 23) with a first and with a second prism surface (F1', F2') is associated with each of the beam splitter prisms (11, 12, 13), the second prism surface (F2') of each of the compensating elements (21, 22, 23) being arranged in a common plane with or parallel to the second prism surface of the respectively associated beam splitter prism (11, 12, 13). - that each of the beam splitter prisms (11, 12, 13) comprises a first, a second and a third prism surface (F1, F2, F3), a dichroic layer (1, 2, 3) being provided on, or parallel to, each of the second prism surfaces of the beam splitter prisms (11, 12, 13), - that the first prism surfaces of the beam splitter prisms (11, 12, 13) face into the same direction and are aligned parallel to one another at a right angle to an optical axis through the first and second prism surfaces (F1, F2) of the beam splitter prisms (11, 12, 13), - that the first and second prism surfaces (F1, F2) of the beam splitter prisms (11, 12, 13) are each aligned at acute first angles to one another, the second and third prism surfaces (F2, F3) of the beam splitter prisms (11, 12, 13) are each aligned at right or obtuse second angles to one another, and the third and first prism splitter (F3, F1) of the beam splitter prisms (11, 12, 13) are each aligned at acute third angles to one another, and - that a prismatic compensating element (21, 22, 23) with a first and with a second prism surface (F1', F2') is associated with each of the beam splitter prisms (11, 12, 13), the second prism surface (F2') of each of the compensating elements (21, 22, 23) being arranged in a common plane with or parallel to the second prism surface of the respectively associated beam splitter prism (11, 12, 13).
An arrangement for measuring the smoothness of grains, comprising: a channel for supplying grains, especially rice grains; an obstacle arranged at the channel to slow down grains falling on the obstacle, so that the flow of grains forms a heap on the obstacle; an image capturing device placed facing the obstacle; and a CPU; wherein the image capturing device is arranged to capture an image of the heap from a side direction such that the heap forms in the captured image a curve with its upper surface, and the CPU is configured to determine the area under the curve, thereby indicating the degree of smoothness of the grains. a channel for supplying grains, especially rice grains; an obstacle arranged at the channel to slow down grains falling on the obstacle, so that the flow of grains forms a heap on the obstacle; an image capturing device placed facing the obstacle; and a CPU; wherein the image capturing device is arranged to capture an image of the heap from a side direction such that the heap forms in the captured image a curve with its upper surface, and the CPU is configured to determine the area under the curve, thereby indicating the degree of smoothness of the grains.
A glenoid assembly, comprising, a base component having a humeral-facing side and a scapula-facing side, the base component defining a bearing surface defined on the humeral-facing side, a first peg extending from the scapula-facing side of the base component, and a second peg extending from the scapula-facing side of the base component, in which the first peg and the second peg are positioned in non-parallel orientation with respect to each other, in which the first peg defines a first shaft diameter equal to FD and a first shaft length equal to FL, in which the second peg defines a second shaft diameter equal to SD and a second shaft length equal to SL, in which the glenoid component further defines a first passageway in the first peg and a second passageway in the second peg, characterised in that the first passageway extends along the length of the first shaft of the first peg and through the base component to receive a first stiffening member which is inserted into the passageway from the humeral-facing side of the base component, and the second passageway extends along the length of the second shaft of the second peg and through the base component to receive a second stiffening member which is inserted into the passageway from the humeral-facing side of the base component.
Method of providing a security document with a security feature, said security document comprising a document substrate, said document substrate being a paper substrate, said security document further comprising a security element embedded in said document substrate, said security element comprising an element substrate, said security element further comprising a material sensitive to laser light, characterized in that the method comprises the step of directing laser light onto the document substrate so as to alter said material, so as to provide said security element with a detectable marking.
A method of image processing comprising: receiving, by a processing device, an input image (I B) captured by a pixel array sensitive to infrared radiation, the pixel array having a plurality of pixel columns (C1, C2), each pixel column being associated with a corresponding reference pixel; determining, based on the input image and on a column component vector (V COL) representing column spread introduced by the reference pixels, a first scale factor (α) by estimating a level of said column spread present in the input image; generating column offset values (α.V COL (x)) based on the product of the first scale factor with the values of said vector; determining, based on the input image and on a 2D dispersion matrix (I DISP) representing 2D dispersion introduced by the pixel array, a second scale factor (β) by estimating a level of said 2D dispersion present in the input image; generating pixel offset values (β.I DISP (x,y)) based on the product of the second scale factor with the values of said matrix; and generating a corrected image (I C ') by applying said column and pixel offset values. receiving, by a processing device, an input image (I B) captured by a pixel array sensitive to infrared radiation, the pixel array having a plurality of pixel columns (C1, C2), each pixel column being associated with a corresponding reference pixel; determining, based on the input image and on a column component vector (V COL) representing column spread introduced by the reference pixels, a first scale factor (α) by estimating a level of said column spread present in the input image; generating column offset values (α.V COL (x)) based on the product of the first scale factor with the values of said vector; determining, based on the input image and on a 2D dispersion matrix (I DISP) representing 2D dispersion introduced by the pixel array, a second scale factor (β) by estimating a level of said 2D dispersion present in the input image; generating pixel offset values (β.I DISP (x,y)) based on the product of the second scale factor with the values of said matrix; and generating a corrected image (I C ') by applying said column and pixel offset values.
Electrochemical assembly module of an energy storage system, comprising an assembly of a plurality of elementary electrochemical cells with gas electrode, in particular with a double gas electrode, characterised in that it comprises: - a plurality of lugs associated respectively with the plurality of elementary electrochemical cells, the lugs being connected together by a connecting holder and receiving the terminals (B+, B-) of the elementary electrochemical cells so that said terminals (B+, B-) are all electrically connected together by the connecting holder, - a plurality of elements forming connecting clips (4, 4a, 4b) each receiving at least two terminals (B+, B-) of at least two elementary electrochemical cells so that said at least two terminals (B+, B-) are electrically connected to each other by the element forming a connecting clip that is associated therewith. - a plurality of lugs associated respectively with the plurality of elementary electrochemical cells, the lugs being connected together by a connecting holder and receiving the terminals (B+, B-) of the elementary electrochemical cells so that said terminals (B+, B-) are all electrically connected together by the connecting holder, - a plurality of elements forming connecting clips (4, 4a, 4b) each receiving at least two terminals (B+, B-) of at least two elementary electrochemical cells so that said at least two terminals (B+, B-) are electrically connected to each other by the element forming a connecting clip that is associated therewith.
A method for predicting the response of a patient diagnosed with non-small cell lung cancer, to a medicament, comprising the steps of: (a) measuring the kinase activity of a sample, obtained from the non-small cell lung tumor from said patient, by contacting said sample with at least one protein kinase substrate in the presence and in the absence of said medicament, thereby providing a phosphorylation profile of said sample in the presence of said medicament and a phosphorylation profile of said sample in the absence of said medicament, wherein said phosphorylation profiles comprise the phosphorylation levels of phosphorylation sites present in at least 10 peptide markers with any of SEQ ID NO 1 to 10; and, (b) determining from said phosphorylation profiles in the presence and in the absence of said medicament the differential phosphorylation level, said differential phosphorylation level predicting the response of said patient to said medicament. (a) measuring the kinase activity of a sample, obtained from the non-small cell lung tumor from said patient, by contacting said sample with at least one protein kinase substrate in the presence and in the absence of said medicament, thereby providing a phosphorylation profile of said sample in the presence of said medicament and a phosphorylation profile of said sample in the absence of said medicament, wherein said phosphorylation profiles comprise the phosphorylation levels of phosphorylation sites present in at least 10 peptide markers with any of SEQ ID NO 1 to 10; and, (b) determining from said phosphorylation profiles in the presence and in the absence of said medicament the differential phosphorylation level, said differential phosphorylation level predicting the response of said patient to said medicament.
A vehicle with a cooling device, the cooling device comprising a first heat exchanger and a second heat exchanger, the first heat exchanger and the second heat exchanger being arranged in series on a cooling water circuit such that cooling water flowing out of the first heat exchanger flows into the second heat exchanger, and the second heat exchanger being arranged in a position relatively lower than a height position of the first heat exchanger when the cooling device has been installed in a vehicle, characterized in that the first heat exchanger is a water-cooled intercooler that cools supercharged intake air, and the second heat exchanger is a water-cooled EGR gas cooler that cools EGR gas. the first heat exchanger and the second heat exchanger being arranged in series on a cooling water circuit such that cooling water flowing out of the first heat exchanger flows into the second heat exchanger, and the second heat exchanger being arranged in a position relatively lower than a height position of the first heat exchanger when the cooling device has been installed in a vehicle, characterized in that the first heat exchanger is a water-cooled intercooler that cools supercharged intake air, and the second heat exchanger is a water-cooled EGR gas cooler that cools EGR gas.
A diffractive optical element configured to shape light from a light source, wherein the diffractive optical element is provided with a diffractive layer having a periodic structure comprising low refractive index portions and high refractive index portions, and the high refractive index portions of the periodic structure include one having an aspect ratio of 2 or more, wherein the high refractive index portions comprise a cured product of an ionizing radiation curable resin composition, wherein, for a sectional shape of the diffractive layer, the convexities forming the high refractive index portions are in a stepped shape having two or more flat portions, wherein an aspect ratio defined by the height H of the convexities divided by the minimum fabrication width W of the convexities of the stepped shape is 3.5 or more, wherein a storage modulus (E') at 25°C of the cured product of the ionizing radiation curable resin composition is 1×10 8 Pa or more and 5×10 9 Pa or less, and a ratio (tan δ (= E"/E')) of a loss modulus (E") at 25°C of the cured product of the ionizing radiation curable resin composition with respect to the storage modulus (E') is 0.3 or less. wherein the diffractive optical element is provided with a diffractive layer having a periodic structure comprising low refractive index portions and high refractive index portions, and the high refractive index portions of the periodic structure include one having an aspect ratio of 2 or more, wherein the high refractive index portions comprise a cured product of an ionizing radiation curable resin composition, wherein, for a sectional shape of the diffractive layer, the convexities forming the high refractive index portions are in a stepped shape having two or more flat portions, wherein an aspect ratio defined by the height H of the convexities divided by the minimum fabrication width W of the convexities of the stepped shape is 3.5 or more, wherein a storage modulus (E') at 25°C of the cured product of the ionizing radiation curable resin composition is 1×10 8 Pa or more and 5×10 9 Pa or less, and a ratio (tan δ (= E"/E')) of a loss modulus (E") at 25°C of the cured product of the ionizing radiation curable resin composition with respect to the storage modulus (E') is 0.3 or less.
Imaging system comprising a first magnetic resonance device, a second magnetic resonance device and a gradient system comprising a first gradient coil unit, a second gradient coil unit and a flexible gradient amplifier unit to be used according to requirements, wherein the flexible gradient amplifier unit is embodied to actuate the first gradient coil unit and the second gradient coil unit, wherein the first magnetic resonance device is assigned to the first gradient coil unit and the second magnetic resonance device is assigned to the second gradient coil unit.
A ceramic matrix composite article comprising: a melt infiltration ceramic matrix composite substrate comprising a ceramic fiber reinforcement material in a ceramic matrix material having a first free silicon proportion, which is the amount of free silicon by volume relative to the substrate as a whole; and a melt infiltration ceramic matrix composite outer layer comprising a ceramic fiber reinforcement material in a ceramic matrix material having a second free silicon proportion disposed on an outer surface of at least a portion of said substrate, or a polymer impregnation and pyrolysis ceramic matrix composite outer layer comprising a ceramic fiber reinforcement material in a ceramic matrix material having a second free silicon proportion disposed on an outer surface of at least a portion of said substrate, wherein the second free silicon proportion is the amount of free silicon by volume relative to the outer layer as a whole; and wherein said substrate comprises between 5 percent and 30 percent free silicon by volume and has no porosity, and said outer layer comprises less than 5 percent free silicon by volume and has a porosity between 5 percent to 30 percent. a melt infiltration ceramic matrix composite substrate comprising a ceramic fiber reinforcement material in a ceramic matrix material having a first free silicon proportion, which is the amount of free silicon by volume relative to the substrate as a whole; and a melt infiltration ceramic matrix composite outer layer comprising a ceramic fiber reinforcement material in a ceramic matrix material having a second free silicon proportion disposed on an outer surface of at least a portion of said substrate, or a polymer impregnation and pyrolysis ceramic matrix composite outer layer comprising a ceramic fiber reinforcement material in a ceramic matrix material having a second free silicon proportion disposed on an outer surface of at least a portion of said substrate, wherein the second free silicon proportion is the amount of free silicon by volume relative to the outer layer as a whole; and wherein said substrate comprises between 5 percent and 30 percent free silicon by volume and has no porosity, and said outer layer comprises less than 5 percent free silicon by volume and has a porosity between 5 percent to 30 percent.
Propylene homopolymer comprising at least two propylene homopolymer fractions of different melt flow index, wherein the ratio of the melt flow index of the fraction with the highest melt flow index and the melt flow index of the fraction with the lowest melt flow index is in the range from 3 to 400, said propylene homopolymer being characterized by - a melt flow index in the range from 3.0 to 8.0 dg/min, - a xylene solubles content in the range from 1.5 wt% to 3.5 wt%, - a tacticity in the range from 97.0 % to 99.0 % of mmmm pentads (determined on the insoluble heptane fraction of the xylene insolubles fraction), and - a recovery compliance in the range from 4.0 • 10 -4 Pa -1 to 5.5 • 10 -4 Pa -1, with melt flow index determined according to ISO 1133, condition L, at 230°C and 2.16 kg.. - a melt flow index in the range from 3.0 to 8.0 dg/min, - a xylene solubles content in the range from 1.5 wt% to 3.5 wt%, - a tacticity in the range from 97.0 % to 99.0 % of mmmm pentads (determined on the insoluble heptane fraction of the xylene insolubles fraction), and - a recovery compliance in the range from 4.0 • 10 -4 Pa -1 to 5.5 • 10 -4 Pa -1, with melt flow index determined according to ISO 1133, condition L, at 230°C and 2.16 kg..
A flat structure built up from at least two covering layers (3, 4) and a core arranged between them as a lightweight sandwich construction, consisting of the core formed from an expandable thermoplastic material, preferably polypropylene, polystyrene or polyethylene and the covering layer (3, 4) formed of a thermoplastic material and arranged adjacent to the core, characterised in that, the core is formed during the manufacturing process using a negative pressure device between the two adjacent covering layers (3, 4) by means of negative pressure acting on the core, and that the negative pressure influences the hardening and distribution of the partial volumes forming the core in such a way that the hardened flat structure has areas with different hardness or strength properties.
Method for controlling a driveline of a vehicle, wherein the driveline at least comprises a transmission and a clutch, wherein the clutch is adapted to be provided between the transmission and a propulsion unit of the driveline, wherein the method comprises the steps of; - predicting an imminent drive route, characterised in that, the method further comprises the steps of; - identifying if the imminent drive route comprises any clutch severity classification, and if the imminent drive route comprises a clutch severity classification; - estimating an expected clutch temperature (Tic) dependent on at least the clutch severity classification and one vehicle parameter (Vp), wherein, the clutch severity classification is at least dependent on an inclination of the imminent drive route, and if the expected clutch temperature (Tic) is above a clutch temperature threshold value (Tt); - controlling the driveline in a critical heat mode, wherein in the critical heat mode the transmission is controlled such that a clutch temperature increase is lower in comparison to a normal driveline control mode. - predicting an imminent drive route, - identifying if the imminent drive route comprises any clutch severity classification, and if the imminent drive route comprises a clutch severity classification; - estimating an expected clutch temperature (Tic) dependent on at least the clutch severity classification and one vehicle parameter (Vp), - controlling the driveline in a critical heat mode, wherein in the critical heat mode the transmission is controlled such that a clutch temperature increase is lower in comparison to a normal driveline control mode.