mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing an organic component, in which a stack of layers with an electrode, a counter-electrode as well as one or more organic layers is manufactured, and in which a functional layer with metal particle nanoclusters is formed in the stack of layers, wherein - a base layer comprised of an inorganic material is manufactured in the stack of layers on an underlying stack area that comprises at least one organic layer, wherein the base layer is formed with a surface that is non-wetting for a metal material, and - an arrangement of isolated metal particle nanoclusters is formed on the base layer by depositing the metal material on the base layer, and the deposited metal material forms isolated nanoclusters on the base layer in a self-organizing manner, wherein the base layer and the arrangement of isolated metal particle nanoclusters formed hereon is arranged outside of a stack area between the electrode and counter-electrode. - a base layer comprised of an inorganic material is manufactured in the stack of layers on an underlying stack area that comprises at least one organic layer, wherein the base layer is formed with a surface that is non-wetting for a metal material, and - an arrangement of isolated metal particle nanoclusters is formed on the base layer by depositing the metal material on the base layer, and the deposited metal material forms isolated nanoclusters on the base layer in a self-organizing manner,
A cold-rolled steel plate for hot-forming, having excellent corrosion-resistance and spot-weldability, comprising: C: 0.1 to 0.4%, Si: 0.5 to 2.0%, Mn: 0.01 to 4.0%, Al: 0.001 to 0.4%, P: 0.001 to 0.05%, S: 0.0001 to 0.02%, Cr: 0.5% or higher and less than 3.0%, N: 0.001 to 0.02%, and a balance of Fe and inevitable impurities by weight %, wherein the cold-rolled steel plate further optionally includes one or more elements selected from among a) to e) below by weight %: a) one or more elements selected from among Ti, Nb, Zr, and V, with a sum of 0.001 to 0.4% b) B: 0.0001 to 0.01% c) one or more elements selected from between Mo and W, with a sum of 0.001 to 1.0% d) a sum of contents of Cu and Ni: 0.005 to 2.0% e) one or more elements selected from between Sb and Sn, with a sum of 0.001 to 1.0%, wherein the cold-rolled steel plate satisfies equation below: 1.4 ≤ 0.4 * Cr + Si ≤ 3.2 where each element symbol is a value of a content of each element measured by weight %; and wherein a Si-based amorphous oxide layer having a thickness of 1nm to 100nm is continuously or discontinuously formed on a surface of the cold-rolled steel plate, wherein a Fe, Mn, and Cr oxide layer is formed to a thickness of 2.5 μm or less on the Si-based amorphous oxide layer. C: 0.1 to 0.4%, Si: 0.5 to 2.0%, Mn: 0.01 to 4.0%, Al: 0.001 to 0.4%, P: 0.001 to 0.05%, S: 0.0001 to 0.02%, Cr: 0.5% or higher and less than 3.0%, N: 0.001 to 0.02%, and a balance of Fe and inevitable impurities by weight %, wherein the cold-rolled steel plate further optionally includes one or more elements selected from among a) to e) below by weight %: a) one or more elements selected from among Ti, Nb, Zr, and V, with a sum of 0.001 to 0.4% b) B: 0.0001 to 0.01% c) one or more elements selected from between Mo and W, with a sum of 0.001 to 1.0% d) a sum of contents of Cu and Ni: 0.005 to 2.0% e) one or more elements selected from between Sb and Sn, with a sum of 0.001 to 1.0%, a) one or more elements selected from among Ti, Nb, Zr, and V, with a sum of 0.001 to 0.4% b) B: 0.0001 to 0.01% c) one or more elements selected from between Mo and W, with a sum of 0.001 to 1.0% d) a sum of contents of Cu and Ni: 0.005 to 2.0% e) one or more elements selected from between Sb and Sn, with a sum of 0.001 to 1.0%, wherein the cold-rolled steel plate satisfies equation below: 1.4 ≤ 0.4 * Cr + Si ≤ 3.2 where each element symbol is a value of a content of each element measured by weight %; and wherein a Si-based amorphous oxide layer having a thickness of 1nm to 100nm is continuously or discontinuously formed on a surface of the cold-rolled steel plate, wherein a Fe, Mn, and Cr oxide layer is formed to a thickness of 2.5 μm or less on the Si-based amorphous oxide layer.
A method of diagnosing or prognosing a metabolic disorder selected from one or more of abdominal obesity, high blood pressure (hypertension), high blood sugar (hyperglycaemia), high serum triglycerides (hypertriglyceridemia), and low high-density lipoprotein levels (HDL-cholesterol) in a subject, the method comprising the steps of: (a) determining the quantitative or qualitative level of the protein biomarkers in a biological sample from the subject; and (b) diagnosing or prognosing the metabolic disorder in the subject based on the quantitative or qualitative level of each protein biomarker in the biological sample; wherein the protein biomarkers comprise Complement C4-B; Heparin cofactor 2; Protein IGKV2D-28; Apolipoprotein C-I; Apolipoprotein C-III; Ig heavy chain V-III region 23; Apolipoprotein A-I; Apolipoprotein A-IV; Alpha-2-antiplasmin; and Gelsolin. (a) determining the quantitative or qualitative level of the protein biomarkers in a biological sample from the subject; and (b) diagnosing or prognosing the metabolic disorder in the subject based on the quantitative or qualitative level of each protein biomarker in the biological sample;
Apparatus for at least partially holding at least one electrical/electronic component in a housing internal area, in particular for commercial vehicles, having at least one housing component which at least partially forms the housing internal area, and having a cover which at least partially closes the housing internal area, wherein the cover is designed such that at least one electrically conductive connecting element for electrical coupling of the electrical/electronic component to at least one further electrical/electronic component which is provided outside the housing internal area is fixed by the cover, and wherein the electrical/electronic component is clamped in in order to be fixed between at least one edge section of the housing component and at least one edge section of the cover, characterized in that the at least one edge section of the cover, which edge section clamps in the electrical/electronic component, is in the form of a sprung arm, wherein a first section of the sprung arm is directly coupled to the at least one edge section of the housing component, while a neighbouring adjacent second section of the sprung arm forms a clamp together with the housing component.
An automatic machine for grinding the edges of the perimeter of rectangular or nonrectangular contoured glass sheets that are substantially planar and arranged vertically or slightly inclined with respect to the vertical, comprising a machine body and at least ons pair of working heads (500, 600), the machine body being provided with a pseudovertical resting and sliding surface, preceded by a corresponding upstream pseudovertical resting and sliding surface and followed by a corresponding downstream pseudovertical resting and sliding surface and with corresponding motorized support and conveyance rollers or belts (3a, 3b, 3c), arranged below respective pseudovertical resting and sliding surfaces and actuating a synchronous axis X0 for the conveyance of the lower portion of said glass sheet and of said at least one pair of working heads (500, 600), which can move with respect to said glass sheet along its perimeter with a synchronous feeding motion and provided with a synchronous rotary motion (θ5, θ6), each one of said pair of working heads (500, 600) being movable on corresponding vertical carriages (300, 400) provided with a synchronous vertical translational motion along the vertical axes (Y3, Y4) and comprising a fixed body (501, 601) and a rotating body (502, 602), each fixed and rotating body (501, 601, 502, 602) ending with a working head (508, 608) which comprises a tool (509, 609) of the type with a rigid grinding wheel which has a circular shape in rotation with a cutting motion in order to perform said grinding, adjustable with an adjustment motion along the axes (Z7, Z8), which are perpendicular to the plane of said glass sheet, characterized in that through said machine body and said motorized support and conveyance rollers or belts and said input conveyor and said motorized support and conveyance rollers or belts and said output conveyor and said motorized support and conveyance rollers or belts, or part thereof, at least two conveyance means for said glass sheets, a lower one and an upper one, which actuate respectively the synchronous motions about axes (X1, X2), engage and convey said glass sheets, said glass sheets being interfaced alternately, the odd sheets with said lower conveyance means and the even sheets with said upper conveyance means.
A pipe mixer for an aftertreatment system, the pipe mixer comprising: a hollow body having a first end and a second end, the body surrounding a mixing channel; an injector mount positioned at the first end of the body; perforations provided on the body for entry of exhaust flow into the mixing channel; characterized in that it further comprises directional elements positioned on the body for directing exhaust flow towards the injector mount, the directional elements being positioned between the first end and the perforations wherein each directional element comprises an inlet formed on the body for entry of exhaust flow and a guide provided on an internal surface of the body, the guide having an outlet for exit of exhaust flow. a hollow body having a first end and a second end, the body surrounding a mixing channel; an injector mount positioned at the first end of the body; perforations provided on the body for entry of exhaust flow into the mixing channel; characterized in that it further comprises directional elements positioned on the body for directing exhaust flow towards the injector mount, the directional elements being positioned between the first end and the perforations wherein each directional element comprises an inlet formed on the body for entry of exhaust flow and a guide provided on an internal surface of the body, the guide having an outlet for exit of exhaust flow.
A method for reinforcing a civil engineering structure, the method comprising: - coating a surface of the structure with a first layer of resin in a fluid state, having a particle size referred to as the first particle size, - with the resin still in the fluid state, applying a layer of dry fabric with an areal weight greater than or equal to 600 g/m 2, referred to as a high grammage fabric, to the coated surface, while applying to the fabric sufficient pressure to impregnate it with resin, - coating the fabric with a second layer of resin, referred to as sealed resin, in the fluid state and having a particle size referred to as the second particle size, less than or equal to the first particle size. - coating a surface of the structure with a first layer of resin in a fluid state, having a particle size referred to as the first particle size, - with the resin still in the fluid state, applying a layer of dry fabric with an areal weight greater than or equal to 600 g/m 2, referred to as a high grammage fabric, to the coated surface, while applying to the fabric sufficient pressure to impregnate it with resin, - coating the fabric with a second layer of resin, referred to as sealed resin, in the fluid state and having a particle size referred to as the second particle size, less than or equal to the first particle size.
A submersible device arranged to deploy autonomous underwater vehicles (AUVs), the submersible device comprising: two or more platforms arranged in a stack, wherein each platform is configured to carry two or more of the AUVs (1a-c); a deployment port from which the AUVs are deployed; and a transfer mechanism comprising a transfer device arranged to unload the AUVs from the platforms, and an actuator arranged to move the transfer device between the platforms and the deployment port in order to transfer the AUVs from the platforms to the deployment port during deployment of the AUVs. two or more platforms arranged in a stack, wherein each platform is configured to carry two or more of the AUVs (1a-c); a deployment port from which the AUVs are deployed; and a transfer mechanism comprising a transfer device arranged to unload the AUVs from the platforms, and an actuator arranged to move the transfer device between the platforms and the deployment port in order to transfer the AUVs from the platforms to the deployment port during deployment of the AUVs.
A method of recovering lactide comprising throwing a polylactic acid and a depolymerization catalyst into an extruder having a discharge port, melt-kneading the polylactic acid and the depolymerization catalyst together in said extruder, feeding said melt-kneaded product thereof from said discharge port of said extruder into a vent chamber maintained under a reduced pressure, depolymerizing the polylactic acid in said vent chamber, gasifying the formed lactide therein, and recovering the gasified lactide from said vent chamber; wherein: the temperature in said extruder is so set that the temperature of a melt of the polylactic acid is not higher than 270°C at the discharge port of said extruder; and the interior of said vent chamber is so set that the pressure is not higher than 8 kPaA and the temperature is 250 to 330°C.
Fastening element comprising a screw element, wherein the screw element extends along a longitudinal direction, wherein the screw element has a threaded section, a head and a groove, wherein the groove extends in particular along the longitudinal direction, wherein the groove has an end section close to the head and a distal end section, wherein the end section close to the head is arranged closer to the head in the longitudinal direction than the threaded section, wherein the groove extends at least partially through the threaded section, wherein the screw element has a strength class of greater than or equal to 10.9, wherein the groove has a rounded bottom and/or rounded side sections in a sectional plane whose normal is parallel to the longitudinal direction, wherein a ratio of the radius of curvature of the bottom and/or side section of the groove to the diameter of the threaded portion is in a range from 0.1 to 0.5, preferably in a range from 0.2 to 0.3, characterized in that the groove is embossed and/or rolled. wherein the screw element extends along a longitudinal direction, wherein the screw element has a threaded section, a head and a groove, wherein the groove extends in particular along the longitudinal direction, wherein the groove has an end section close to the head and a distal end section, wherein the end section close to the head is arranged closer to the head in the longitudinal direction than the threaded section, wherein the groove extends at least partially through the threaded section, wherein the screw element has a strength class of greater than or equal to 10.9, wherein the groove has a rounded bottom and/or rounded side sections in a sectional plane whose normal is parallel to the longitudinal direction, wherein a ratio of the radius of curvature of the bottom and/or side section of the groove to the diameter of the threaded portion is in a range from 0.1 to 0.5, preferably in a range from 0.2 to 0.3, characterized in that the groove is embossed and/or rolled.
A transmission apparatus that uses a first mode for allocating transmission data to a contiguous frequency band and a second mode for dividing the transmission data into a plurality of clusters and allocating the plurality of clusters to non-contiguous frequency bands, the apparatus comprising: a control section configured to control a transmission power of the transmission data in accordance with the first mode or the second mode; and a transmission section configured to transmit the transmission data at the transmission power, wherein in the first mode, the control section is configured to set the transmission power based on a transmission power control method set for the contiguous frequency band and, in the second mode, the control section is configured to set a bandwidth of a first frequency band, which is derived from a lowest frequency in a cluster allocated to a lowest frequency band among the plurality of clusters and a highest frequency in a cluster allocated to a highest frequency band among the plurality of clusters, as a bandwidth of the contiguous frequency band in the first mode, and to calculate a first power based on the set bandwidth of the contiguous frequency band and the transmission power control method, and the control section is configured to calculate the transmission power, using the first power and a ratio between the bandwidth of the first frequency band and a bandwidth of a second frequency band that includes the non-contiguous frequency bands to which the plurality of clusters are allocated. a control section configured to control a transmission power of the transmission data in accordance with the first mode or the second mode; and a transmission section configured to transmit the transmission data at the transmission power, wherein
A wearable gait detection device which is configured to detect a gait in a state where a wearer is wearing a pair of left and right shoes (2A, 2B), comprising: a load measurement part which is mounted on an inner bottom part of each of the shoes and which is configured to measure a load of a sole of the wearer's feet; a foot movement detection part which is installed at a predetermined position of each of the shoes (2A, 2B) and which is configured to detect acceleration and/or angular velocity during movement of the feet; a centroid position calculation part which is configured to calculate a centroid position of each of the feet based on changes in each load measured by the load measurement part; a movement locus calculation part which is configured to calculate a movement locus of each of the feet based on each acceleration and/or each angular velocity detected by the foot movement detection part; a manifestation recognition part which is configured to recognize manifestation of a functional disorder in the brain according to a specificity of centroid fluctuation of each of the feet which is calculated based on the calculated centroid position and movement locus of each of the feet; and a sensory output part which is configured to feed back a sensation to the wearer based on a recognition result of the manifestation recognition part. a load measurement part which is mounted on an inner bottom part of each of the shoes and which is configured to measure a load of a sole of the wearer's feet; a foot movement detection part which is installed at a predetermined position of each of the shoes (2A, 2B) and which is configured to detect acceleration and/or angular velocity during movement of the feet; a centroid position calculation part which is configured to calculate a centroid position of each of the feet based on changes in each load measured by the load measurement part; a movement locus calculation part which is configured to calculate a movement locus of each of the feet based on each acceleration and/or each angular velocity detected by the foot movement detection part; a manifestation recognition part which is configured to recognize manifestation of a functional disorder in the brain according to a specificity of centroid fluctuation of each of the feet which is calculated based on the calculated centroid position and movement locus of each of the feet; and a sensory output part which is configured to feed back a sensation to the wearer based on a recognition result of the manifestation recognition part.
A write-once disc for use with a recording and/or reproducing apparatus, comprising: a plurality of temporary disc management areas in which updated temporary disc definition information is recorded; and at least one access information area comprising space for a plurality of recording blocks in which access information is recorded, the access information comprising location information on the temporary disc management areas, wherein, when newly updated temporary disc definition information is recorded in one of the plurality of temporary disc management areas based on a predetermined order of use, access information for the one temporary disc management area is recorded in one of the plurality of recording blocks, wherein a final temporary disc management area in which finally updated temporary disc definition information is recorded among the plurality of temporary disc management areas is determined by the recording and/or reproducing apparatus on the basis of a number of recording blocks in which the access information has been recorded among the plurality of recording blocks in the space of the access information area. a plurality of temporary disc management areas in which updated temporary disc definition information is recorded; and at least one access information area comprising space for a plurality of recording blocks in which access information is recorded, the access information comprising location information on the temporary disc management areas, wherein, when newly updated temporary disc definition information is recorded in one of the plurality of temporary disc management areas based on a predetermined order of use, access information for the one temporary disc management area is recorded in one of the plurality of recording blocks, wherein, when newly updated temporary disc definition information is recorded in one of the plurality of temporary disc management areas based on a predetermined order of use, access information for the one temporary disc management area is recorded in one of the plurality of recording blocks, wherein a final temporary disc management area in which finally updated temporary disc definition information is recorded among the plurality of temporary disc management areas is determined by the recording and/or reproducing apparatus on the basis of a number of recording blocks in which the access information has been recorded among the plurality of recording blocks in the space of the access information area.
A rechargeable metal-air battery comprising: a) a negative electrode capable of taking and releasing active metal ions; b) a porous positive electrode using oxygen as an electroactive material; c) an electrolyte configured to conduct ions between the negative and positive electrodes and comprising one or more phases, wherein at least one phase comprises a liquid and at least partially fills the pores of the positive electrode, wherein the liquid is a polar, aprotic solvent and comprises an oxygen evolving catalyst soluble in the liquid that partially fills the positive electrode, wherein the oxygen evolving catalyst is configured to evolve oxygen gas by oxidizing during the charge of the battery a metal oxide discharge product formed in the positive electrode during the discharge of the battery, characterized in that the oxygen evolving catalyst comprises a halide, and in that the oxygen evolving catalyst has a solubility in the liquid greater than or equal to 0.05 M. a) a negative electrode capable of taking and releasing active metal ions; b) a porous positive electrode using oxygen as an electroactive material; c) an electrolyte configured to conduct ions between the negative and positive electrodes and comprising one or more phases,