mhurhangee/ep-ind-claims huggingface dataset:
A woven geosynthetic fabric comprising: a first weft yarn and a second weft yarn woven in the weft direction of the fabric, and a warp yarn interweaving the first and second weft yarns; the first weft yarn and the second weft yarn having different cross-sectional shapes; at least a portion of the fabric having a plyrality of weft yarn sets, each weft yarn set having two first weft yarns and two second weft yarns, one of the two first weft yarns being adjacent one of the two second weft yarns stand stacked on the other second weft yearn, the adjacent second weft yarn being stacked on the other first weft yarn, characterized by a stuffer pick woven in the weft direction of the fabric, said warp yarn also interweaving said stuffer pick, in that said weft yarn sets have stuffer picks respectively disposed and woven between the weft yarn sets, and in that the fabric has a water flow through rate of at least 30 gallons/square foot/min. (1221.29 l/m 2 /min) and an apparent opening size -AOS-of at least 35. a first weft yarn and a second weft yarn woven in the weft direction of the fabric, and a warp yarn interweaving the first and second weft yarns; the first weft yarn and the second weft yarn having different cross-sectional shapes; at least a portion of the fabric having a plyrality of weft yarn sets, each weft yarn set having two first weft yarns and two second weft yarns, one of the two first weft yarns being adjacent one of the two second weft yarns stand stacked on the other second weft yearn, the adjacent second weft yarn being stacked on the other first weft yarn, characterized by a stuffer pick woven in the weft direction of the fabric, said warp yarn also interweaving said stuffer pick, in that said weft yarn sets have stuffer picks respectively disposed and woven between the weft yarn sets, and in that the fabric has a water flow through rate of at least 30 gallons/square foot/min. (1221.29 l/m 2 /min) and an apparent opening size -AOS-of at least 35.
A resistive memory comprising resistive elements (R i,j) arranged in rows an in columns, the columns being distributed in groups of columns, the resistance of each resistive element being capable of alternating between a high value in a first range of values and a low value in a second range of values smaller than the high value, characterized in that the memory further comprises a device (14; 90) for switching, for each group, the resistance of at least one resistive element selected from among the resistive elements of said group between the high and low values, the device comprising a first circuit connected to all columns, capable of supplying a first increasing voltage ramp (Vramp), which is a function linearly increasing along time, and capable of applying the first increasing voltage ramp across each selected resistive element while the selected resistive element is at the high value or at the low value, the device comprising, for each group, a second circuit capable of detecting the switching of the resistance of the selected resistive element of said group, the device further comprising, for each group, a third circuit capable of interrupting the current flowing through the selected resistive element of said group on detection of the switching, and the device (14; 90) comprising a fourth circuit capable of receiving the first increasing voltage ramp (VRamp) and of supplying a second increasing voltage ramp (Vref) inferior to the first increasing voltage ramp (VRamp), which is a function linearly increasing along time, the second circuit being capable of comparing the second increasing voltage ramp with a voltage (Vrm; Vrm') which varies according to the resistance of the selected resistive element.
A computer-implemented method for analysing a functional magnetic resonance imaging (fMRI) scan representing a time-sequence, comprising t time points, of images comprising v voxels, where each scan can be represented by a data matrix X ∈ R t × v, the method comprising: modelling the data matrix X as the convolution of a neural activation time course N e R + t × v and a haemodynamic filter Ψ, and performing an inverse operation to estimate N from X and Ψ; and decomposing the neural activation time course N into multiple brain network components by representing N as the product of a first matrix H defining, for each component, a spatial map of the voxels belonging to that component, and a second matrix W defining, for each component, the time sequence of activation of that component during the scan. modelling the data matrix X as the convolution of a neural activation time course N e R + t × v and a haemodynamic filter Ψ, and performing an inverse operation to estimate N from X and Ψ; and decomposing the neural activation time course N into multiple brain network components by representing N as the product of a first matrix H defining, for each component, a spatial map of the voxels belonging to that component, and a second matrix W defining, for each component, the time sequence of activation of that component during the scan.
A pet groomer for use in conjunction with the suction hose of a vacuum cleaner, comprising: a main body (11, 101, 201, 301) which has a suction channel (43, 248, 349) connectable with a suction hose of a vacuum cleaner and has at least one air intake to transmit air to said suction channel; a combing assembly (12, 102, 202, 302) for combing pet hair; and a driving assembly (13, 103, 203, 303) which drives said combing assembly so as to make comb teeth (111, 235, 315) in said combing assembly move to rotate between a comb position and said air intake; characterized in that said main body has an upper covering unit and a lower covering unit, said combing assembly has a rotating body, which is mounted between said upper covering unit and said lower covering unit, in such a way that there is no gap between said rotating body, said upper covering unit and said lower covering unit. a main body (11, 101, 201, 301) which has a suction channel (43, 248, 349) connectable with a suction hose of a vacuum cleaner and has at least one air intake to transmit air to said suction channel; a combing assembly (12, 102, 202, 302) for combing pet hair; and a driving assembly (13, 103, 203, 303) which drives said combing assembly so as to make comb teeth (111, 235, 315) in said combing assembly move to rotate between a comb position and said air intake; characterized in that said main body has an upper covering unit and a lower covering unit, said combing assembly has a rotating body, which is mounted between said upper covering unit and said lower covering unit, in such a way that there is no gap between said rotating body, said upper covering unit and said lower covering unit.
A sample analyzer comprising: a first container set section (60, 660) in which a first reagent container (200, 300) containing a first reagent to be used in sample analysis is set, wherein the first container set section includes a first cover (63, 663) which is operated by a user when setting the first reagent container in the first container set section (60, 660); a first sensor configured to detect an operation of the first cover (63, 663) by the user; a second container set section (60, 660) in which a second reagent container (200, 300) containing a second reagent to be used in sample analysis is set, wherein the second container set section includes a second cover (63, 663) which is operated by the user when setting the second reagent container in the second container set section; a second sensor configured to detect an operation of the second cover (63, 663) by the user; an output section; characterized by further comprising a controller configured to control the output section to output a predetermined notification, if the second sensor detects the operation of the second cover (63, 663) by the user when it is required to set the first reagent container in the first container set section (60, 660). a first container set section (60, 660) in which a first reagent container (200, 300) containing a first reagent to be used in sample analysis is set, wherein the first container set section includes a first cover (63, 663) which is operated by a user when setting the first reagent container in the first container set section (60, 660); a first sensor configured to detect an operation of the first cover (63, 663) by the user; a second container set section (60, 660) in which a second reagent container (200, 300) containing a second reagent to be used in sample analysis is set, wherein the second container set section includes a second cover (63, 663) which is operated by the user when setting the second reagent container in the second container set section; a second sensor configured to detect an operation of the second cover (63, 663) by the user; an output section; characterized by further comprising a controller configured to control the output section to output a predetermined notification, if the second sensor detects the operation of the second cover (63, 663) by the user when it is required to set the first reagent container in the first container set section (60, 660).
A method of measuring a fluid leakage flow at a rotary seal of a gas turbine engine, comprising: providing a first fluid flow flowing through the rotary seal; intermittently applying a probe flow of a second fluid to an intra-seal cavity; controlling the probe flow at the intra-seal cavity; measuring a pressure of the first fluid flow at a location during applying the probe flow; measuring a pressure of the first fluid flow at the location after applying the probe flow; determining a pressure change based on the measured pressures of the first fluid flow at the location caused by applying the probe flow of the second fluid; and determining information relating to the first fluid leakage flow from the pressure change in the first fluid flow. providing a first fluid flow flowing through the rotary seal; intermittently applying a probe flow of a second fluid to an intra-seal cavity; controlling the probe flow at the intra-seal cavity; measuring a pressure of the first fluid flow at a location during applying the probe flow; measuring a pressure of the first fluid flow at the location after applying the probe flow; determining a pressure change based on the measured pressures of the first fluid flow at the location caused by applying the probe flow of the second fluid; and determining information relating to the first fluid leakage flow from the pressure change in the first fluid flow.
A method for manufacturing a lithography mold for nanoimprinting, comprising successively: - a deposition of a layer comprising a polymerisable liquid material on a shaping surface located on one face of a master mold, the deposition comprising a spreading of the material by spin coating so as to reach a state of coverage of the layer over the entire shaping surface; - a polymerisation of the material of the layer while continuing the centrifugation; - a placement of a polymer film on the layer. - a deposition of a layer comprising a polymerisable liquid material on a shaping surface located on one face of a master mold, the deposition comprising a spreading of the material by spin coating so as to reach a state of coverage of the layer over the entire shaping surface; - a polymerisation of the material of the layer while continuing the centrifugation; - a placement of a polymer film on the layer.
A furnace, comprising at least one burner (4a, 4b) for the combustion of solid materials, especially pellets, at least one primary air feed and at least one secondary air feed (7a, 7b; 8), wherein the furnace is formed with at least two separate combustion zones (11, 12), namely at least one first combustion zone for the solid fuel and at least one second combustion zone for the gasified solid fuel, wherein the first combustion zone is arranged in a substantially tubular gasifier part, which comprises at least one primary air feed in a third close to the ground, and the second combustion zone is arranged in a burner part having at least one burner (4a, 4b), wherein the second combustion zone is arranged at a higher altitude than the first combustion zone, wherein the burner part is arranged at a higher altitude than the gasifier part, and wherein a feed device for heating material opens into a feed section of the gasifier part, wherein a feed device, which conveys solid fuel into the gasifier part, opens via a feed opening into the upper region of the gasifier part in the feed section, and wherein the feed section is arranged in an upper third of the gasifier part and the solid fuel can be introduced according to the reverse-current principle, characterised in that the feed opening of the feed device is arranged in the jacket region of the gasifier part in the region of a maximum filling height (h) of the heating material.
Stop for a tool for cutting a sheet made of a reconstituted material, the tool comprising: • a support, • a blade mounted with the ability to pivot on the support by a pivot, between an open position for receiving, between the support and the blade, the sheet that is to be cut, and a closed position at the end of a cut, • a slot intended to receive at least part of the blade during the cut, the slot being borne by a portion of the support and comprising a proximal end close to the pivot and a distal end distant from the pivot, comprising a shoulder; the stop also comprising a contact face for contact with the sheet that is to be cut; characterized in that the stop comprises, with respect to the position of use, • a central claw intended to be forcibly inserted under the shoulder of the slot. • a support, • a blade mounted with the ability to pivot on the support by a pivot, between an open position for receiving, between the support and the blade, the sheet that is to be cut, and a closed position at the end of a cut, • a slot intended to receive at least part of the blade during the cut, the slot being borne by a portion of the support and comprising a proximal end close to the pivot and a distal end distant from the pivot, comprising a shoulder; • a central claw intended to be forcibly inserted under the shoulder of the slot.
An anti-reflective film comprising a hard coating layer; and a low refractive index layer containing a fluorine-containing compound, wherein a content of fluorine atoms existing on the surface of the low refractive index layer is more than 8.0 atomic%, and wherein a surface area difference percentage (SADP) of one surface of the low refractive index layer is 20% or less, wherein the surface area difference percentage is defined by the following Equation 1, Surface area difference percentage % = three-dimensional area − two-dimensional area / two-dimensional area × 100, wherein the three-dimensional area is measured using atomic force microscopy with a scan size in x- and y-direction of 1 μm, respectively, wherein a centerline average roughness (Ra) of the anti-reflective film is 0.6 to 4 nm. wherein a content of fluorine atoms existing on the surface of the low refractive index layer is more than 8.0 atomic%, and wherein a surface area difference percentage (SADP) of one surface of the low refractive index layer is 20% or less, wherein the surface area difference percentage is defined by the following Equation 1, Surface area difference percentage % = three-dimensional area − two-dimensional area / two-dimensional area × 100, wherein the three-dimensional area is measured using atomic force microscopy with a scan size in x- and y-direction of 1 μm, respectively, wherein a centerline average roughness (Ra) of the anti-reflective film is 0.6 to 4 nm.
A unitary storage layer for an absorbent article, wherein sub-layers of the unitary storage layer are intermixed at a boundary region, said storage layer having a first body facing surface and a second surface opposite to said first surface, and being formed by at least two sub-layers wherein: a) a first outermost sub-layer forming said first surface and comprising cellulose pulp fibers, and cross linked cellulose fibers and comprising less than 5% of SAP by weight of the sub-layer, and b) a second sub-layer comprises cellulose pulp fibers and is immediately adjacent to said first sub-layer, characterised in that the first sub-layer further comprises multicomponent binder fibers in an amount up to 50% by weight of the sub-layer, and the second sub-layer comprises SAP. a) a first outermost sub-layer forming said first surface and comprising cellulose pulp fibers, and cross linked cellulose fibers and comprising less than 5% of SAP by weight of the sub-layer, and b) a second sub-layer comprises cellulose pulp fibers and is immediately adjacent to said first sub-layer,
A drive unit of a motor vehicle, which drive unit has an internal combustion engine, has a charge-air supply arrangement having a low-pressure compressor, a high-pressure compressor and a charge-air cooling unit (13, 14), and has an exhaust-gas discharge arrangement by means of which exhaust gas that is formed in the internal combustion engine is discharged, and which drive unit has a cooling system with at least one cooling circuit, wherein at least one first cooling circuit and at least one second cooling circuit, in which at least one exhaust-gas cooler, integrated into the exhaust-gas discharge arrangement, and the charge-air cooling unit (13, 14) are arranged, wherein the charge-air cooling unit has a charge-air intercooler and a charge-air main cooler which are thermally coupled to the at least one second cooling circuit such that, in a flow direction of the charge air, the charge-air intercooler is arranged between the low-pressure and the high-pressure compressor and the charge-air main cooler is connected downstream of the high-pressure compressor, are provided, which are hydraulically decoupled by means of at least one heat exchanger via which the first and the second cooling circuit are in thermal contact, and wherein, in a working medium contained in the second cooling circuit, an at least partial phase transition can be effected during an operating phase of the cooling system, characterized in that, in the second cooling circuit, at least one high-temperature circuit is provided which can be operated at a higher temperature level than at least one low-temperature circuit of the second cooling circuit, and in that, in the high-temperature circuit, a high-temperature heat exchanger is provided which can be flowed through by the working medium and which can be cooled by ambient air, and, in the low-temperature circuit, a low-temperature heat exchanger is provided which can be flowed through by the working medium and which can be cooled by ambient air.
A method for sorting a type of tissue cell, comprising introducing an miRNA responsive mRNA into a cell population in a form of an RNA molecule, the miRNA-responsive mRNA comprising: (i) a nucleic acid sequence specifically recognized by miRNA specifically expressed in the type of tissue cell to be sorted; and (ii) a nucleic acid sequence corresponding to a coding region of a first marker gene; wherein: (a) the type of tissue cell to be sorted is an insulin producing cell, a hepatocyte or an endothelial cell; (b) when the type of tissue cell to be sorted is an insulin-producing cell, the miRNA specifically expressed in the cell is miR-375; (c) when the type of tissue cell to be sorted is a hepatocyte, the miRNA specifically expressed in the cell is miR-122-5P; and (d) when the type of tissue cell to be sorted is an endothelial cell, the miRNA specifically expressed in the cell is miR-126-3P or miR-126-5P; and wherein a cell having a low level of translation of the first marker gene is sorted as the cell of interest. (i) a nucleic acid sequence specifically recognized by miRNA specifically expressed in the type of tissue cell to be sorted; and (ii) a nucleic acid sequence corresponding to a coding region of a first marker gene; (a) the type of tissue cell to be sorted is an insulin producing cell, a hepatocyte or an endothelial cell; (b) when the type of tissue cell to be sorted is an insulin-producing cell, the miRNA specifically expressed in the cell is miR-375; (c) when the type of tissue cell to be sorted is a hepatocyte, the miRNA specifically expressed in the cell is miR-122-5P; and (d) when the type of tissue cell to be sorted is an endothelial cell, the miRNA specifically expressed in the cell is miR-126-3P or miR-126-5P;
A method for processing raw liquid manure, characterized by the following steps: i) provision of raw liquid manure; ii) treatment of the raw liquid manure in a first treatment stage with formation of a first solid phase and a first treated liquid phase; wherein the treatment of the raw liquid manure in the first treatment stage in step ii) is carried out by a first centrifuge. iii) precondition of the first treated liquid phase; wherein said preconditioning is performed by adding a flocculant and by shifting the pH, wherein said shifting of the pH into the acidic range is performed to a pH value of ≤ 5.8 and iv) treatment of the first treated and preconditioned liquid phase in a second treatment stage with formation of a second solid phase and a second, further treated liquid phase or clarified phase, wherein after clarification of the first clarified and preconditioned liquid phase in the second treatment stage, according to step iv), the second, further clarified liquid phase is adjusted to a pH value of ≥ 6.5 wherein the treatment of the first treated liquid phase in the second treatment stage is effected by a second centrifuge as solid bowl scroll centrifuge. i) provision of raw liquid manure; ii) treatment of the raw liquid manure in a first treatment stage with formation of a first solid phase and a first treated liquid phase; wherein the treatment of the raw liquid manure in the first treatment stage in step ii) is carried out by a first centrifuge. iii) precondition of the first treated liquid phase; wherein said preconditioning is performed by adding a flocculant and by shifting the pH, wherein said shifting of the pH into the acidic range is performed to a pH value of ≤ 5.8 and iv) treatment of the first treated and preconditioned liquid phase in a second treatment stage with formation of a second solid phase and a second, further treated liquid phase or clarified phase, wherein after clarification of the first clarified and preconditioned liquid phase in the second treatment stage, according to step iv), the second, further clarified liquid phase is adjusted to a pH value of ≥ 6.5
A broom with a tilting head for cleaning a surface, comprising a handle, a cleaning head mounted at the lower end of the handle via an articulation, said articulation being configured to allow the head to tilt around a tilting axis between a transverse working position, in which the head is able to be pressed against a surface to be cleaned, and an axial folded position, in which at least part of the head is placed upright against the handle, wherein the cleaning head has an unbalancing means configured to return the head toward its folded position when the handle is held substantially vertically away from the surface to be cleaned, and characterized in that the articulation comprises two perpendicular rotation axes and, the first rotation axis being collinear to the largest extension direction of the head while the second rotation axis defines the tilting axis, and in that the head is equipped with a maintaining member configured to cooperate automatically with the handle of the broom when the head is brought into its folded position so as to maintain said folded position against the action of gravity, including when the handle is inclined, the cooperation between the maintaining member and the handle being activated automatically once the folded position is reached to block the cleaning head in its folded position.