mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting credential information comprising: transmitting a particular message from a server to an instantiated instance (113,115) to activate the instantiated instance; at the server, receiving a request for the credential information from the instantiated instance, the request containing the particular message and an identifier of the instantiated instance; at the server, verifying the particular message and the identifier contained in the received request to determine whether the request is authentic, and if the request is determined to be authentic: invalidating the particular message; and transmitting the credential information from the server to the instantiated instance in a secure communication channel. transmitting a particular message from a server to an instantiated instance (113,115) to activate the instantiated instance; at the server, receiving a request for the credential information from the instantiated instance, the request containing the particular message and an identifier of the instantiated instance; at the server, verifying the particular message and the identifier contained in the received request to determine whether the request is authentic, and if the request is determined to be authentic: invalidating the particular message; and transmitting the credential information from the server to the instantiated instance in a secure communication channel. invalidating the particular message; and transmitting the credential information from the server to the instantiated instance in a secure communication channel.
A multiwall sheet, comprising: a sheet, comprising walls, wherein the walls comprise: a first wall; a second wall; an outermost rib extending between the first wall and the second wall, wherein the first wall extends longitudinally past the outermost rib to a first wall end and wherein the second wall extends longitudinally past the outermost rib to a second wall end; and an end cap comprising a top wall having a top wall end, a bottom wall having a bottom wall end, and a connecting wall disposed between the top wall end and the bottom wall end; the end cap being disposed over the first wall end and the second wall end, the top wall and the bottom wall extending longitudinally along the first wall and the second wall past the outermost rib, characterized in that the first wall end and the second wall end extend greater than or equal to 3 mm past the outermost rib. a sheet, comprising walls, wherein the walls comprise: a first wall; a second wall; an outermost rib extending between the first wall and the second wall, wherein the first wall extends longitudinally past the outermost rib to a first wall end and wherein the second wall extends longitudinally past the outermost rib to a second wall end; and a first wall; a second wall; an outermost rib extending between the first wall and the second wall, wherein the first wall extends longitudinally past the outermost rib to a first wall end and wherein the second wall extends longitudinally past the outermost rib to a second wall end; and an end cap comprising a top wall having a top wall end, a bottom wall having a bottom wall end, and a connecting wall disposed between the top wall end and the bottom wall end; the end cap being disposed over the first wall end and the second wall end, the top wall and the bottom wall extending longitudinally along the first wall and the second wall past the outermost rib,
A process for intaglio printing a feature or pattern comprising the steps of: i) inking one or more chablon cylinders with one or more inks, ii) transferring the one or more inks from the one or more chablon cylinders to a plate cylinder carrying one or more intaglio engraved plates (3a, 3b, 3c), iii) transferring one or more inks from the plate cylinder carrying one or more intaglio engraved plates (3a, 3b, 3c) to a substrate, and iv) hardening or curing the one or more inks, characterized in that the one or more inks have a viscosity falling within the range between 0.1 Pa·s and 10 Pa·s at 25°C and at a shear rate of 1000 s -1, preferably between 0.1 Pa·s and 5 Pa·s at 25°C and at a shear rate of 1000 s -1, and within the range between 0.1 Pa·s and 30 Pa·s at 25°C and at a shear rate of 100 s -1, preferably between 0.1 Pa·s and 20 Pa·s at 25°C and at a shear rate of 100 s -1, and comprising particles having a size up to 90 μm and in that the inking of the one or more chablon cylinders with the one or more inks is carried out with the use of one or more screen cylinders comprising urging means, the one or more screen cylinders being connected by means of a connecting duct to an intaglio ink reservoir. i) inking one or more chablon cylinders with one or more inks, ii) transferring the one or more inks from the one or more chablon cylinders to a plate cylinder carrying one or more intaglio engraved plates (3a, 3b, 3c), iii) transferring one or more inks from the plate cylinder carrying one or more intaglio engraved plates (3a, 3b, 3c) to a substrate, and iv) hardening or curing the one or more inks, the one or more inks have a viscosity falling within the range between 0.1 Pa·s and 10 Pa·s at 25°C and at a shear rate of 1000 s -1, preferably between 0.1 Pa·s and 5 Pa·s at 25°C and at a shear rate of 1000 s -1, and within the range between 0.1 Pa·s and 30 Pa·s at 25°C and at a shear rate of 100 s -1, preferably between 0.1 Pa·s and 20 Pa·s at 25°C and at a shear rate of 100 s -1, and comprising particles having a size up to 90 μm and in that the inking of the one or more chablon cylinders with the one or more inks is carried out with the use of one or more screen cylinders comprising urging means, the one or more screen cylinders being connected by means of a connecting duct to an intaglio ink reservoir.
A tube body, wherein the tube body is constituted by a heat-resistant alloy consisting of: Cr: 15 mass% or more to 40 mass% or less, Ni: 18 mass% or more to 60 mass% or less, C: 0.40 mass% or more to 0.60 mass% or less, Si: more than 0 mass% to 1.0 mass% or less, Al: 2.0 mass% or more to 4.0 mass% or less, Ti: 0.05 mass% or more to 0.20 mass% or less, optionally Mn: more than 0 mass% to 1.0 mass% or less, optionally Nb: more than 0 mass% to 0.50 mass% or less, and inevitable impurities including Fe and P and S, and having on an inner surface a metal oxide layer that contains a metal oxide in an area percentage of more than 90%, and wherein an arithmetic average roughness (Sa) of three-dimensional surface roughness of the inner surface satisfies 1.5 ≤ Sa ≤ 5.0 and a skewness (Ssk) of a surface height distribution satisfies |Ssk| ≤ 0.30, as measured by a method using a one-shot 3D measuring microscope VR-3100 under conditions described in the description. Cr: 15 mass% or more to 40 mass% or less, Ni: 18 mass% or more to 60 mass% or less, C: 0.40 mass% or more to 0.60 mass% or less, Si: more than 0 mass% to 1.0 mass% or less, Al: 2.0 mass% or more to 4.0 mass% or less, Ti: 0.05 mass% or more to 0.20 mass% or less, optionally Mn: more than 0 mass% to 1.0 mass% or less, optionally Nb: more than 0 mass% to 0.50 mass% or less, and inevitable impurities including Fe and P and S, and having on an inner surface a metal oxide layer that contains a metal oxide in an area percentage of more than 90%, and wherein an arithmetic average roughness (Sa) of three-dimensional surface roughness of the inner surface satisfies 1.5 ≤ Sa ≤ 5.0 and a skewness (Ssk) of a surface height distribution satisfies |Ssk| ≤ 0.30, as measured by a method using a one-shot 3D measuring microscope VR-3100 under conditions described in the description.
A method for knitting a single-knit knitted fabric using at least two feeders including a first feeder and a second feeder, in a circular knitting machine including an apparatus for electrically controlling cylinder needles and sinkers, comprising: - at the first feeder, feeding a first yarn (11, 15) and selecting all cylinder needles for knitting, thereafter lowering all cylinder needles to a position immediately before a position where they perform knock-over; and - at the second feeder, feeding a second yarn (12, 16), the method being characterized by performing at the second feeder three steps (i) to (iii) below in the same course, (i) selecting a cylinder needle for knitting and selecting a corresponding sinker for piling, thereby forming a pile loop, (ii) selecting a cylinder needle for knitting and selecting a corresponding sinker for non-piling, thereby forming a knit loop, and (iii) selecting a cylinder needle for welting and selecting a corresponding sinker for non-piling, thereby forming a mesh-looking welt. - at the first feeder, feeding a first yarn (11, 15) and selecting all cylinder needles for knitting, thereafter lowering all cylinder needles to a position immediately before a position where they perform knock-over; and - at the second feeder, feeding a second yarn (12, 16), the method being characterized by performing at the second feeder three steps (i) to (iii) below in the same course, (i) selecting a cylinder needle for knitting and selecting a corresponding sinker for piling, thereby forming a pile loop, (ii) selecting a cylinder needle for knitting and selecting a corresponding sinker for non-piling, thereby forming a knit loop, and (iii) selecting a cylinder needle for welting and selecting a corresponding sinker for non-piling, thereby forming a mesh-looking welt. (i) selecting a cylinder needle for knitting and selecting a corresponding sinker for piling, thereby forming a pile loop, (ii) selecting a cylinder needle for knitting and selecting a corresponding sinker for non-piling, thereby forming a knit loop, and (iii) selecting a cylinder needle for welting and selecting a corresponding sinker for non-piling, thereby forming a mesh-looking welt.
Method for determining the grain size of a fertiliser, in particular of a urea fertiliser, having the steps of: a) measuring a sample volume of the fertiliser; b) filling the sample volume into a measuring pan having a border which delimits a measurement area, and distributing the sample volume on the measurement area to form a single-layer grain layer; c) imaging the border and the measurement area with the single-layer grain layer in at least one digital camera image; d) calculating an area covered by at least one fertiliser grain, in particular the area covered by the single-layer grain layer, in the camera image; and e) calculating the grain size, in particular an average grain size and/or a grain size distribution of the fertiliser, from the measured sample volume by comparing the sizes of the covered area and the measurement area. a) measuring a sample volume of the fertiliser; b) filling the sample volume into a measuring pan having a border which delimits a measurement area, and distributing the sample volume on the measurement area to form a single-layer grain layer; c) imaging the border and the measurement area with the single-layer grain layer in at least one digital camera image; d) calculating an area covered by at least one fertiliser grain, in particular the area covered by the single-layer grain layer, in the camera image; and e) calculating the grain size, in particular an average grain size and/or a grain size distribution of the fertiliser, from the measured sample volume by comparing the sizes of the covered area and the measurement area.
Artificial grass tufted from slit film or monofilaments prepared with a polyethylene prepared with a bistetrahydroindenyl or bisindenyl metallocene catalyst complex having (a) a density in the range of 0.910 to 0.937 g/cm 3 as determined by ISO 1183 at a temperature of 23 °C and (b) a melt index MI2 in the range of 0.5 to 5 g/10 min as determined by ISO 1133/D at a temperature of 190° C and at a load of 2.16 kg, wherein said polyethylene has a g rheo of less than 0.9 or an LCBI of greater than 0.08, and wherein the polyethylene has a Vicat Softening Temperature T v, measured according to ISO 306 conditions A120, according to the following equation: T v > − 41234 d 2 + 77500 d − 36295 wherein T v is the Vicat Softening Temperature in °C and d is the density of the polyethylene in g/cm 3.
A defibrated material manufacturing device configured to defibrate a feedstock of clumps of shreds containing fiber into defibrated material, comprising: a removal device configured to remove at least a part of foreign matter contained in the feedstock; a metering device configured to measure the weight of the feedstock that has passed the removal device; and a storage device configured to store the feedstock measured by the metering device; and a defibrator configured to defibrate a measured amount of feedstock supplied from the storage device into the defibrated material. a removal device configured to remove at least a part of foreign matter contained in the feedstock; a metering device configured to measure the weight of the feedstock that has passed the removal device; and a storage device configured to store the feedstock measured by the metering device; and a defibrator configured to defibrate a measured amount of feedstock supplied from the storage device into the defibrated material.
An apparatus for transmitting information bit sequences from a Base Station BS transmitter to a plurality of users, the apparatus comprising: a first set of Serial/Parallel, S/P, (202, 212, 222) converters for dividing each of the information bits received in sub-channel units into a plurality of information bit sequences in response to the respective users; and a plurality of channelizers (203, 213, 223) for spreading the divided information bit sequences using different orthogonal codes, combining the spread information bit sequences into a single sequence associated with the individual users, and outputting the single sequence; characterized in that the apparatus further comprises: a second set of S/P (204, 214, 224) converters for dividing the single sequence, distributing the spread information bit sequences over a plurality of bandwidths capable of mapping-processing the spread information bit sequences with sub-carrier frequencies; a frequency hopper for frequency hopping the sub-carrier frequencies, for preventing each of the bandwidths from overlapping with time-frequency cells assigned to different users in a given time interval; and an Inverse Fourier Transform, IFT, unit for IFT-processing the spread information bit sequences outputting from the frequency hopper, and generating the IFT-processed result. a first set of Serial/Parallel, S/P, (202, 212, 222) converters for dividing each of the information bits received in sub-channel units into a plurality of information bit sequences in response to the respective users; and a plurality of channelizers (203, 213, 223) for spreading the divided information bit sequences using different orthogonal codes, combining the spread information bit sequences into a single sequence associated with the individual users, and outputting the single sequence; characterized in that the apparatus further comprises: a second set of S/P (204, 214, 224) converters for dividing the single sequence, distributing the spread information bit sequences over a plurality of bandwidths capable of mapping-processing the spread information bit sequences with sub-carrier frequencies; a frequency hopper for frequency hopping the sub-carrier frequencies, for preventing each of the bandwidths from overlapping with time-frequency cells assigned to different users in a given time interval; and an Inverse Fourier Transform, IFT, unit for IFT-processing the spread information bit sequences outputting from the frequency hopper, and generating the IFT-processed result. a second set of S/P (204, 214, 224) converters for dividing the single sequence, distributing the spread information bit sequences over a plurality of bandwidths capable of mapping-processing the spread information bit sequences with sub-carrier frequencies; a frequency hopper for frequency hopping the sub-carrier frequencies, for preventing each of the bandwidths from overlapping with time-frequency cells assigned to different users in a given time interval; and an Inverse Fourier Transform, IFT, unit for IFT-processing the spread information bit sequences outputting from the frequency hopper, and generating the IFT-processed result.
Method for use in dynamometer testing of a at least one vehicle powertrain component (101, 102, 103, 104) by measuring on a first output shaft (105, 106), said first output shaft (105, 106) being connected to a rotor of a dynamometer power source of a dynamometer test unit (110, 111) of a dynamometer system, said dynamometer system being arranged to measure a reaction load, the rotor being mounted for rotation in a stator, the dynamometer test unit comprising a stator holder supporting the stator and carrying the torque applied to the dynamometer test unit by the driven vehicle shaft, and a device for sensing the reaction torque loading on the stator holder, characterized in, when testing said at least one vehicle powertrain component: - measuring a first value of a first reaction torque loading (T meas) of said first dynamometer power source using the device for sensing the reaction torque loading, - determining an influence of moment of inertia on said first value of said first reaction torque loading, said influence of moment of inertia on said first value of said first reaction torque loading being an influence of moment of inertia of said first dynamometer unit, and - compensating said first value of said first reaction torque loading (T meas) by said determined influence of moment of inertia. - measuring a first value of a first reaction torque loading (T meas) of said first dynamometer power source using the device for sensing the reaction torque loading, - determining an influence of moment of inertia on said first value of said first reaction torque loading, said influence of moment of inertia on said first value of said first reaction torque loading being an influence of moment of inertia of said first dynamometer unit, and - compensating said first value of said first reaction torque loading (T meas) by said determined influence of moment of inertia.
A slide rail assembly, comprising: a first rail; a second rail slidably connected to the first rail; and a third rail connected to the first rail and having a support portion; a support member movably connected to the third rail and having a stop portion and a resilient member for generating an elastic force in response to a relative movement between the support member and the third rail, characterized in that a chassis is located on the support portion, and the stop portion of the support member is located corresponding to the chassis and contacts against the chassis by the elastic force generated by the resilient member, and wherein the first rail has a first hook portion, the third rail has a window, the support member has a second hook portion extending through the window and located corresponding to the first hook portion, and the resilient member is connected between the first and second hook portions (30, 52). a first rail; a second rail slidably connected to the first rail; and a third rail connected to the first rail and having a support portion; a support member movably connected to the third rail and having a stop portion and a resilient member for generating an elastic force in response to a relative movement between the support member and the third rail, characterized in that a chassis is located on the support portion, and the stop portion of the support member is located corresponding to the chassis and contacts against the chassis by the elastic force generated by the resilient member, and wherein the first rail has a first hook portion, the third rail has a window, the support member has a second hook portion extending through the window and located corresponding to the first hook portion, and the resilient member is connected between the first and second hook portions (30, 52).
Rollo assembly, comprising a winding shaft defining an axis of rotation and a flexible rollo screen of which a first end is attached to the winding shaft, such that the rollo screen by an appropriate rotation of the winding shaft around its axis of rotation may be wound on or off the winding shaft and wherein the part of the rollo screen wound off from the winding shaft extends along a certain path, characterized in that the winding shaft is movable in a direction perpendicularly to its axis of rotation in such a manner that the part of the rollo screen wound off from the winding shaft always extends substantially along the same path independently from the amount of rollo screen wound off from the winding shaft.
Method of manufacturing a device comprising a metal plate and an element for supporting the metal plate, wherein the metal plate is coated with a sol-gel coating, wherein the thickness of the coating is in a range of 25 to 60 micrometers, wherein a portion of the metal plate is wrapped around the supporting element and in that the metal plate is manufactured of stainless steel, wherein the metal plate and the element for supporting the metal plate are provided, wherein the metal plate is attached to the supporting element by subjecting at least a portion of the metal plate to a process of mechanical deformation, and characterized in that, prior to attaching the metal plate to the supporting element, said sol-gel coating is applied to the metal plate in a thickness which is in said range of 25 to 60 micrometers, wherein the metal plate is provided in the form of a stainless steel plate, wherein the metal plate is provided with a bent edge, and wherein the bent edge is wrapped around the supporting element.