mhurhangee/ep-ind-claims huggingface dataset:
A method of handling a hash-tree based data signature, the method being performed in a first device (13, 13a) and comprising: - receiving, from a second device (12, 12a, 12b), a data signature generation request, the request comprising an indication on type of storage of a generated data signature, - generating, in response to the data signature generation request, a data signature B using a hash-tree based data signing method, and - providing, to the second device (12, 12a, 12b), based on the indication on type of storage, a reference C to the generated data signature B, wherein the generated data signature B is obtainable by means of the reference C. - receiving, from a second device (12, 12a, 12b), a data signature generation request, the request comprising an indication on type of storage of a generated data signature, - generating, in response to the data signature generation request, a data signature B using a hash-tree based data signing method, and - providing, to the second device (12, 12a, 12b), based on the indication on type of storage, a reference C to the generated data signature B, wherein the generated data signature B is obtainable by means of the reference C.
A mixer insert with a support rod element and at least one vortexing element and a rotary-drive connection structure, wherein the mixer insert, for insertion into a tubular passage element, and together therewith, is adapted to a device for mixing at least two fluid components, by means of which the rotary-drive connection structure can be placed in a drive connection with a driveshaft of the device, when the mixer insert is inserted into the passage element and the passage element is placed in fluid-tight connection with at least two component feed lines of the device, characterized in that the rotary-drive connection structure has a borehole with a borehole wall, which are adapted to a thread on the driveshaft, such that the borehole can be screwed onto the thread for producing the driving connection, wherein the borehole wall is shaped by the thread.
A method of video decoding by a decoding apparatus, the method comprising: obtaining, by the decoding apparatus, video information including offset information; generating, by the decoding apparatus, a reconstructed picture based on the video information; applying, by the decoding apparatus, an in-loop filter process to the reconstructed picture, wherein the step of applying the in-loop filter process includes applying a deblocking filtering process to the reconstructed picture; and applying a sample adaptive offset process based on the offset information after completing the deblocking filtering process, wherein the offset information includes offset type information for indicating offset type to be applied, wherein the offset information includes information on n offset values, characterized in that when the offset type information indicates that a band offset is applied, the offset information includes start band information explicitly indicating one of 32 bands as a starting band of n bands to determine a band group comprising the n bands among the 32 bands, the start band information being different from the offset type information, the band group is determined further based on end band information variably indicating an end band of the n bands, the band group is variably located in among the 32 bands based on the start band information, and an offset for a band among the n bands is applied to a sample, n is a positive integer, and the offset type information included in the offset information is obtained based on context-adaptive arithmetic coding. obtaining, by the decoding apparatus, video information including offset information; generating, by the decoding apparatus, a reconstructed picture based on the video information; applying, by the decoding apparatus, an in-loop filter process to the reconstructed picture, wherein the step of applying the in-loop filter process includes applying a deblocking filtering process to the reconstructed picture; and applying a sample adaptive offset process based on the offset information after completing the deblocking filtering process, wherein the offset information includes offset type information for indicating offset type to be applied, wherein the offset information includes information on n offset values, characterized in that when the offset type information indicates that a band offset is applied, the offset information includes start band information explicitly indicating one of 32 bands as a starting band of n bands to determine a band group comprising the n bands among the 32 bands, the start band information being different from the offset type information, the band group is determined further based on end band information variably indicating an end band of the n bands, the band group is variably located in among the 32 bands based on the start band information, and an offset for a band among the n bands is applied to a sample, n is a positive integer, and the offset type information included in the offset information is obtained based on context-adaptive arithmetic coding.
Door handle assembly for a motor-vehicle, wherein the door handle has a handle for grasping, wherein with the handle is coupled at least one mechanical coupling means which is designed for the production of a mechanical operational connection between handle and a door-side locking device, wherein the handle and the mechanical coupling means are coupled non-releasably with one another and are formed separately, such that the handle and the mechanical coupling means can be moved against one another according to an actuation movement at least such that force can be applied to a sensor, arranged between handle and coupling means, depending on the movement, wherein a resilient element is provided which is coupled with handle and coupling element such that handle and coupling element are forced into a rest position, characterised in that the sensor is a piezo-sensor which in the rest position abuts both on the handle and on the coupling means, wherein a detection device is provided on the door handle assembly which is coupled with the piezo-sensor and detects the signals of the piezo-sensor, wherein the detection device is configured both for the detection of signals which display a force release from the piezo-sensor and for the detection of signals which display a force increase on the sensor.
A gelatinous composition, comprising a biosurfactant, water and/or a polyol, an oily component, and an unsaturated 7-membered cyclic compound, wherein the unsaturated 7-membered cyclic compound is hinokitiol, wherein a content of the unsaturated 7-membered cyclic compound is 0.01 wt% or more and 3 wt% or less, and wherein the gelatinous composition is in a gelatinous condition.
A method for contour forming in a fiber-placement system, the method comprising: depositing a plurality of sliced layers on a stationary form to create a composite component, wherein the plurality of sliced layers includes a plurality of hoop tows, and one or more overlap splices are formed in each of the plurality of hoop tows; applying a layup heat to a plurality of target areas on the plurality of sliced layers during the depositing, wherein the plurality of target areas is spatially arranged to permit a slippage in the plurality of overlap splices when the composite component is draped on a curved tool; draping the composite component on the curved tool with the plurality of hoop tows oriented perpendicular to an axis of curvature of the curved tool; and applying a curing heat to the composite component after the composite component has been bent into a contoured shape by the curved tool, wherein the curing heat inhibits a further slippage in the plurality of overlap splices; wherein each of the plurality of overlap splices includes a non-heated area in which a first segment is overlaid with a second segment, and the non-heated area is outside of the plurality of target areas to permit the slippage. depositing a plurality of sliced layers on a stationary form to create a composite component, wherein the plurality of sliced layers includes a plurality of hoop tows, and one or more overlap splices are formed in each of the plurality of hoop tows; applying a layup heat to a plurality of target areas on the plurality of sliced layers during the depositing, wherein the plurality of target areas is spatially arranged to permit a slippage in the plurality of overlap splices when the composite component is draped on a curved tool; draping the composite component on the curved tool with the plurality of hoop tows oriented perpendicular to an axis of curvature of the curved tool; and applying a curing heat to the composite component after the composite component has been bent into a contoured shape by the curved tool, wherein the curing heat inhibits a further slippage in the plurality of overlap splices; wherein each of the plurality of overlap splices includes a non-heated area in which a first segment is overlaid with a second segment, and the non-heated area is outside of the plurality of target areas to permit the slippage.
Vehicle compartment comprising a support platform for receiving equipment of a rescue vehicle, said platform being pivotable around a vertical pivoting axis from a position inside an inner vehicle compartment outwards to the exterior space wherein said pivoting axis is arranged at one lateral edge of the platform, wherein the pivoting axis is slidably arranged to slide towards the exterior space and it is offset from an advancing corner of the platform in the backward direction, characterized in that said pivoting axis is mounted at a sliding carriage that is slidably mounted on at least one rail (34; 52,54) that is fixed inside the compartment.
An automatic focusing apparatus comprising: plural focus detection units that detect focus states in plural areas (301, 302, 303) independently from one another; a measuring unit that measures focus detection time of the detection by the focus detection units; a unit that sets a maximum focus detection time; a defocus calculation unit that calculates defocus amounts on the basis of outputs from the focus detection units; a focus drive unit that drives a focus lens on the basis of the defocus amounts; and an object position prediction unit that calculates an object predicted position based on the defocus amounts and the focus detection time, wherein when the focus detection time exceeds the maximum focus detection time, all detections of focus positions by the plural focus detection units are completed, wherein the defocus calculation unit calculates defocus amounts corresponding to the respective plural areas (301, 302, 303) on the basis of the focus states in the areas detected by the plural focus detection units, wherein a focus target position (P1, P2, P3) is calculated from each of the plural defocus amounts, and from the resulting plural focus target positions one focus target position is selected which is within an allowable range from the object predicted position, and wherein the focus lens is driven according to an output of the focus detection unit corresponding to the selected focus target position. plural focus detection units that detect focus states in plural areas (301, 302, 303) independently from one another; a measuring unit that measures focus detection time of the detection by the focus detection units; a unit that sets a maximum focus detection time; a defocus calculation unit that calculates defocus amounts on the basis of outputs from the focus detection units; a focus drive unit that drives a focus lens on the basis of the defocus amounts; and an object position prediction unit that calculates an object predicted position based on the defocus amounts and the focus detection time, wherein when the focus detection time exceeds the maximum focus detection time, all detections of focus positions by the plural focus detection units are completed, wherein the defocus calculation unit calculates defocus amounts corresponding to the respective plural areas (301, 302, 303) on the basis of the focus states in the areas detected by the plural focus detection units, wherein a focus target position (P1, P2, P3) is calculated from each of the plural defocus amounts, and from the resulting plural focus target positions one focus target position is selected which is within an allowable range from the object predicted position, and wherein the focus lens is driven according to an output of the focus detection unit corresponding to the selected focus target position.
A pontoon bridge, comprising several pontoons for supporting a bridge support as well as a stabilizing construction having two suspension strands, the anchoring points of which are each anchored at opposite banks of a water body and which are arranged underneath a water surface, wherein at least one suspension strand, in ground view, has an approximately parabolic course in relation to the bridge support and the suspension strands are connected to one another by way of connecting strands (7, 70), characterized in that at least one suspension strand is connected to a floating body by at least one support element and the floating body is arranged at least in part above the water surface such that the at least one suspension strand is pulled upwards against the force of gravity.
An isolated nucleic acid comprising: a. a promoter; b. a nucleotide sequence of SEQ ID NO. 1 encoding a modified calcium binding motif or variants thereof that retain biological activity, wherein the modified calcium binding motif comprises at least one amino acid substitution selected from E31D, F92W, E104D, D133E, or any combination thereof, and encoding a first detectable marker in the form of a green fluorescent protein; and c. a nucleotide sequence encoding a second detectable marker distinguishable from the first detectable marker; wherein the nucleic acid does not encode an endoplasmic reticulum localization sequence, mitochondrial localization sequence, nuclear localization sequence or combination thereof. a. a promoter; b. a nucleotide sequence of SEQ ID NO. 1 encoding a modified calcium binding motif or variants thereof that retain biological activity, wherein the modified calcium binding motif comprises at least one amino acid substitution selected from E31D, F92W, E104D, D133E, or any combination thereof, and encoding a first detectable marker in the form of a green fluorescent protein; and c. a nucleotide sequence encoding a second detectable marker distinguishable from the first detectable marker; wherein the nucleic acid does not encode an endoplasmic reticulum localization sequence, mitochondrial localization sequence, nuclear localization sequence or combination thereof.
Thermoforming apparatus comprising at least one rotatable table with at least one baffle and at least one seal device, said seal device comprising: - actuator means having at least one movable element; - at least one flexible element having a first end, a second end and an intermediate portion arranged between said first end and said second end, said second end being movable with respect to said first end, said second end being connected to said movable element, said intermediate portion being curved in such a manner as to form a loop whereby a movement of said movable element causes sliding of said loop; characterized by said thermoforming apparatus comprising three or more seal devices the flexible elements of which are arranged in a closed polygon shape and each flexible element is in contact with the two adjacent flexible elements at vertices of said polygon. - actuator means having at least one movable element; - at least one flexible element having a first end, a second end and an intermediate portion arranged between said first end and said second end, said second end being movable with respect to said first end, said second end being connected to said movable element, said intermediate portion being curved in such a manner as to form a loop whereby a movement of said movable element causes sliding of said loop;
A FET type biosensor comprising a semiconductor element comprising an organic film, a first electrode, a second electrode, and a semiconductor layer, in which the first electrode, the second electrode and the semiconductor layer are formed on the organic film, and the semiconductor layer is arranged between the first electrode and the second electrode, wherein the semiconductor layer comprises at least one kind selected from organic semiconductors, carbon nanotubes and graphenes, and the organic film has a water contact angle of 15° or more and 50° or less, characterized in that the organic film comprises a compound having a nonionic functional group or a zwitterionic functional group and wherein the nonionic functional group or the zwitterionic functional group is at least one structure selected from a polyethylene glycol chain, a phosphorylcholine group, a 1,2-dihydroxyethyl group, a 1,2-dihydroxyethylene group, and a hydroxyethyloxy group. wherein the semiconductor layer comprises at least one kind selected from organic semiconductors, carbon nanotubes and graphenes, and the organic film has a water contact angle of 15° or more and 50° or less, characterized in that the organic film comprises a compound having a nonionic functional group or a zwitterionic functional group and wherein the nonionic functional group or the zwitterionic functional group is at least one structure selected from a polyethylene glycol chain, a phosphorylcholine group, a 1,2-dihydroxyethyl group, a 1,2-dihydroxyethylene group, and a hydroxyethyloxy group.
A process for the production of a polyazole with an inherent viscosity of more than 2.9 dL/g, wherein the inherent viscosity is measured in at least 96 % sulphuric acid at 25 °C and at a concentration of 100 mg of polymer dried for 2h at 160 °C in 100 ml of at least 96 % sulphuric acid, wherein the process comprises the steps of i) mixing one or more aromatic tetraamino compounds with one or more aromatic carboxylic acids or esters thereof which contain at least two acid groups per carboxylic acid monomer, or mixing one or more aromatic and/or heteroaromatic diaminocarboxylic acids, in polyphosphoric acid in order to form a solution and/or dispersion ii) heating the mixture from step i) under inert gas to temperatures up to 350 °C in order to form the polyazole, characterized in that ▪ in step ii), a mixture is heated which has a concentration of polyphosphoric acid, calculated as P 2 O 5 (by acidimetric means), with respect to the total quantity of H 3 PO 4, polyphosphoric acid and water in the mixture, or more than 81.85 %, ▪ the quantities of the components in step i) are selected in a manner such that the proportion by weight of the tetraamino compounds and of the aromatic carboxylic acids or esters thereof which comprise at least two acid groups per carboxylic acid monomer, or of the diaminocarboxylic acids of the mixture in step ii), with respect to the total weight of the mixture, is less than 11.0 % by weight, ▪ the reaction mixture in step ii) is heated to more than 220 °C. i) mixing one or more aromatic tetraamino compounds with one or more aromatic carboxylic acids or esters thereof which contain at least two acid groups per carboxylic acid monomer, or mixing one or more aromatic and/or heteroaromatic diaminocarboxylic acids, in polyphosphoric acid in order to form a solution and/or dispersion ii) heating the mixture from step i) under inert gas to temperatures up to 350 °C in order to form the polyazole, ▪ in step ii), a mixture is heated which has a concentration of polyphosphoric acid, calculated as P 2 O 5 (by acidimetric means), with respect to the total quantity of H 3 PO 4, polyphosphoric acid and water in the mixture, or more than 81.85 %, ▪ the quantities of the components in step i) are selected in a manner such that the proportion by weight of the tetraamino compounds and of the aromatic carboxylic acids or esters thereof which comprise at least two acid groups per carboxylic acid monomer, or of the diaminocarboxylic acids of the mixture in step ii), with respect to the total weight of the mixture, is less than 11.0 % by weight, ▪ the reaction mixture in step ii) is heated to more than 220 °C.
Method for checking the weighing accuracy of a scale, which is arranged within a conveyor track, during ongoing operation, wherein the scale determines a weight during a continuous material flow during ongoing operation, the scale preferably being a belt scale or a weighfeeder, wherein - a stable mode of operation is identified by means of an evaluation unit, - a material weight is determined by the evaluation unit when a stable mode of operation is achieved, - wherein subsequently a known test weight is placed onto the scale, - the evaluation unit determines a total weight, made up of the test weight and the material weight, - wherein the evaluation unit determines from the total weight and the material weight whether the weighing accuracy of the scale is in a permissible range, characterized in that the stable mode of operation is determined by a processability index, wherein the processability index is determined using the following formula: c p = USL − LSL / 6 ∗ σ where USL represents an upper specification limit, LSL represents a lower specification limit and σ is a standard deviation, the stable manner of operation being present at a processability index c p ≥ 1.33. - a stable mode of operation is identified by means of an evaluation unit, - a material weight is determined by the evaluation unit when a stable mode of operation is achieved, - wherein subsequently a known test weight is placed onto the scale, - the evaluation unit determines a total weight, made up of the test weight and the material weight, - wherein the evaluation unit determines from the total weight and the material weight whether the weighing accuracy of the scale is in a permissible range, characterized in that the stable mode of operation is determined by a processability index, wherein the processability index is determined using the following formula: c p = USL − LSL / 6 ∗ σ where USL represents an upper specification limit, LSL represents a lower specification limit and σ is a standard deviation, the stable manner of operation being present at a processability index c p ≥ 1.33.
A method for displaying information on at least two touch screens (110, 120), the method comprising: sensing a first touch-drag on a first touch screen; sensing a second touch-drag on a second touch screen; and displaying information corresponding to the first touch-drag on the first touch screen and information corresponding to the second touch-drag on the second touch screen, if the first touch-drag on the first touch screen and the second touch-drag on the second touch screen are simultaneously sensed; wherein the information displayed on the first touch screen corresponds to an application included in a first group of applications, and the information displayed on the second touch screen corresponds to an application included in a second group of applications different to the first group of applications. sensing a first touch-drag on a first touch screen; sensing a second touch-drag on a second touch screen; and displaying information corresponding to the first touch-drag on the first touch screen and information corresponding to the second touch-drag on the second touch screen, if the first touch-drag on the first touch screen and the second touch-drag on the second touch screen are simultaneously sensed; wherein the information displayed on the first touch screen corresponds to an application included in a first group of applications, and the information displayed on the second touch screen corresponds to an application included in a second group of applications different to the first group of applications.