mhurhangee/ep-ind-claims huggingface dataset:
Sprayable sun protection composition comprising, in a physiologically acceptable medium, at least one UV filter and at least one emollient, wherein it further comprises an emulsion stabilizing and viscosity controlling agent, alpha-cyclodextrin (CavamaxTM W6 Food), a surfactant and in that it does not contain xanthan gum.
A laminate comprising at least one first layer of at least one first metal and at least one further layer of a polymer composition, wherein the polymer composition comprises the following components: at least one polyamide, at least one first copolymer obtainable by polymerizing at least the following components: at least one first C 2 -C 20 -alkene and at least one second C 2 -C 20 -alkene, where components and are different than one another, at least one second copolymer obtainable by polymerizing at least the following components: at least one third C 2 -C 20 -alkene and at least one acrylic acid derivative. at least one polyamide, at least one first copolymer obtainable by polymerizing at least the following components: at least one first C 2 -C 20 -alkene and at least one second C 2 -C 20 -alkene, where components and are different than one another, at least one first C 2 -C 20 -alkene and at least one second C 2 -C 20 -alkene, where components and are different than one another, at least one second copolymer obtainable by polymerizing at least the following components: at least one third C 2 -C 20 -alkene and at least one acrylic acid derivative. at least one third C 2 -C 20 -alkene and at least one acrylic acid derivative.
Liquid or gel-like gas generator fuel, consisting of - a monergolic fuel based on ammonium dinitramide; - at least one solvent, wherein at least one solvent is formed by ammonia (NH 3), wherein the gas generator fuel contains at least 65% by mass of ADN and not more than 5% by mass of water, in each case based on the mixture of ADN and solvent; and - optionally at least one gelling agent in a content of up to 10% by mass based on the total mixture; and - optionally at least one additive for improving the low temperature properties of said fuel. - a monergolic fuel based on ammonium dinitramide; - at least one solvent, wherein at least one solvent is formed by ammonia (NH 3), - optionally at least one gelling agent in a content of up to 10% by mass based on the total mixture; and - optionally at least one additive for improving the low temperature properties of said fuel.
A method of fabricating a magnetoresistive bit (120, 120') from a magnetoresistive stack including (i) a first magnetic region (30, 70), (ii) an intermediate region (40, 60) disposed over the first magnetic region (30, 70), and (iii) a second magnetic region disposed over the intermediate region, the method comprising: (a) etching through a first portion of the magnetoresistive stack using a first etch process to form one or more sidewalls, wherein at least a portion of the sidewalls includes redeposited material after the etching; (b) modifying at least a portion of the redeposited material on the sidewalls, wherein the modifying step includes rendering at least a portion of the redeposited material on the sidewalls electrically-nonconductive; and (c) etching through a second portion of the magnetoresistive stack after the modifying step (b); characterized in that the first etch process includes using an ion beam for etching, wherein, in the first etch process, the ion beam is inclined at an angle (θ) between 0° and less than 30° with respect to an axis normal to a surface of the magnetoresistive stack. (a) etching through a first portion of the magnetoresistive stack using a first etch process to form one or more sidewalls, wherein at least a portion of the sidewalls includes redeposited material after the etching; (b) modifying at least a portion of the redeposited material on the sidewalls, wherein the modifying step includes rendering at least a portion of the redeposited material on the sidewalls electrically-nonconductive; and (c) etching through a second portion of the magnetoresistive stack after the modifying step (b);
A production method for producing gold nano-rods by reducing gold ions in an aqueous solution containing a surfactant, wherein the aspect ratio of the gold nano-rods is controlled by performing the reduction reaction while adjusting the solution temperature, the surfactant is hexadecyltrimethylammonium bromide, and the aspect ratio of the gold nano-rods is controlled by adjusting the temperature of the aqueous solution in a range having an upper limit of 40 °C to 60 °C, and a lower limit of 26 °C to 30 °C.
A pneumatic tire, comprising: a bead core; a bead filler disposed on an outer side in a radial direction of the bead core; a carcass layer wrapping the bead core and the bead filler and being wound and turned back; a sidewall rubber constituting a sidewall portion; a rim cushion rubber constituting a rim fitting surface of a bead portion; a run-flat reinforcing layer disposed on an inner side in a width direction of the carcass layer; and a second filler disposed between a turned back portion of the carcass layer and the rim cushion rubber; a point P on a tire outer circumferential surface being defined, the point P being located at a position corresponding to 150% of a rim flange height from a measurement point of a rim diameter of a specified rim, on which the pneumatic tire is mountable, a perpendicular line L being defined, the perpendicular line L being drawn from the point P to a tire inner circumferential surface and being perpendicular to the tire inner cirumferential surface, and a rubber gauge G1 of the run-flat reinforcing layer on the perpendicular line L, and a rubber gauge G2 of a region from the turned back portion the turned back portion of the carcass layer to a tire outer surface having a relationship 0 < G1/G2 ≤ 0.65, wherein the rubber gauge G2 of the region on the perpendicular line L has a relationship 0.95 ≤ G2/Gr ≤ 1.15 with respect to a maximum rubber gauge Gr of the run-flat reinforcing layer. a point P on a tire outer circumferential surface being defined, the point P being located at a position corresponding to 150% of a rim flange height from a measurement point of a rim diameter of a specified rim, on which the pneumatic tire is mountable, a perpendicular line L being defined, the perpendicular line L being drawn from the point P to a tire inner circumferential surface and being perpendicular to the tire inner cirumferential surface, and a rubber gauge G1 of the run-flat reinforcing layer on the perpendicular line L, and a rubber gauge G2 of a region from the turned back portion the turned back portion of the carcass layer to a tire outer surface having a relationship 0 < G1/G2 ≤ 0.65, wherein the rubber gauge G2 of the region on the perpendicular line L has a relationship 0.95 ≤ G2/Gr ≤ 1.15 with respect to a maximum rubber gauge Gr of the run-flat reinforcing layer.
A computer-implemented method of evaluating a subject's risk of developing type 2 diabetes, comprising: calculating a short term diabetes risk factor (SDRF) score of a subject using a defined mathematical model of risk of developing type 2 diabetes, wherein the defined mathematical model includes a concentration measurement of a defined high density lipoprotein particle (HDL-P) subpopulation, a concentration measurement of at least one inflammatory marker and a concentration measurement of at least one interaction parameter as components of the model which are mathematically combined with respective defined coefficients to generate the calculated SDRF score, wherein the SDRF score is calculated using the following equation: SDRF score = − A HDL-P MED − B GlycA + C GlycA × HDL-P MED, wherein A, B and C are defined beta coefficients from a logistic regression model for short term conversion to diabetes as the defined mathematical model of risk of developing type 2 diabetes, and wherein GlycA is the inflammatory marker, HDL-P MED is a medium size HDL-P subpopulation, and the interaction parameter is GlycA multiplied by the concentration of HDL-P MED, and wherein the subject is at risk of converting to type 2 diabetes mellitus within 5 years when the SDRF score is at a third tertile value or greater value of a population norm.
Actuating mechanism for locking and unlocking snap-in connections in telescopic vacuum cleaner suction tubes, having an inner tube which has a plurality of snap-in depressions and having an outer tube which surrounds the inner tube, having a base plate which has at least one snap-in recess, having at least one snap-in element which is held movably over the snap-in recess of the base plate, and having a clamping element, wherein the clamping element is held parallel displaceably relative to the base plate so that the clamping element can be moved from a locking position into at least one unlocking position, wherein the clamping element in the locking position moves the snap-in element at least partially through the snap-in recess of the base plate in the direction of the inner tube, so that the snap-in element engages with at least one of the snap-in depressions of the inner tube, and wherein the clamping element in the unlocking position releases movement of the snap-in element away from the inner tube so that displacement of the inner tube relative to the outer tube is released by the at least one snap-in element, wherein the snap-in element is held by a spring element arranged on the base plate, wherein, in the unlocking position of the clamping element, the snap-in element is moved so far away from the inner tube by the spring element by spring force that the snap-in element does not engage with the snap-in depressions of the inner tube, characterized in that the snap-in element is a roller rotatably mounted on the spring element.
Heat exchange element, comprising a thermally conductive pipe for the flow of a heat exchange fluid therethrough and at least one thermally conductive plate element, which is designed essentially planar on both sides and parallel on both sides, for the absorption of ambient heat and thermal transfer of the ambient heat to the pipe or/and absorption of heating heat from the pipe and release of the heating heat to the environment, wherein the pipe is arranged on at least one plate element or between at least two plate elements of a plate element arrangement, and a contact means is provided for thermal contacting, wherein the contact means comprises a connecting means, wherein the plate element is adapted in the region of a plate element contact surface for thermally conductive contacting with a pipe contact surface to the pipe contact surface by means of a fit, having a material thickness d reduced relative to the plate thickness D of the plate element, in order to enlarge the contact surfaces (3, 5), and the connecting means is a welded joint, characterized in that the plate element has a plate thickness D of 0.5 to 10 mm, the fit in the edge region or in the entire cross-section is circular-segment-shaped, having a depth of 0.3 to 1.5 mm or 2 to 12% of the outer diameter of the pipe.
A dual active bridge DC-DC converter, comprising a circuit arrangement having two bridge circuits (3, 2, 4) with active semiconductor switches and a transformer being arranged between the bridge circuits (3, 2, 4), for operation in the soft-switching range, characterized in that the transformer is provided with a step switch via which the transformation ratio is switchable, wherein the transformation ratio is adjustable by the step switch in such a manner that the DC-DC converter can also be operated in the soft-switching operating range in case of major differences between input and output voltage without making changes to the input or output voltages.
A head assembly for a pulverized coal nozzle, the head assembly having a lower casing having an inlet port characterized by: a removable cover adapted to attach to the lower casing creating an internal cavity and an outlet port; the internal cavity being a curved tubular conduit fluidically coupling the inlet port to the outlet port generally having a radius of curvature R; a wear-resistant removable casing liner disposed within the internal cavity having at least one curved vane [151, 153] having a curved surface with a lengthwise radius of curvature r 1L, r 2L moving from a leading edge near the inlet port to a trailing edge near the outlet port, and a sideways radius of curvature r 1S, r 2S for directing the stream of air and pulverized coal particles from the inlet port toward the outlet port and away from any surfaces around the internal cavity. a removable cover adapted to attach to the lower casing creating an internal cavity and an outlet port; the internal cavity being a curved tubular conduit fluidically coupling the inlet port to the outlet port generally having a radius of curvature R; a wear-resistant removable casing liner disposed within the internal cavity having at least one curved vane [151, 153] having a curved surface with a lengthwise radius of curvature r 1L, r 2L moving from a leading edge near the inlet port to a trailing edge near the outlet port, and a sideways radius of curvature r 1S, r 2S for directing the stream of air and pulverized coal particles from the inlet port toward the outlet port and away from any surfaces around the internal cavity.
A legrest assembly adapted for use with a passenger seat, comprising: a pair of spaced parallel support members adapted to deploy forward from a front of a passenger seat; a legrest pivotally supported on ends of the pair of spaced parallel support members, the legrest configured to pivot from near vertical when stowed to near horizontal when deployed; a brake mechanism for stopping forward deployment of the legrest; and an actuator arranged to drive forward deployment of the legrest; characterized in that: the pair of spaced parallel support members comprise cylindrical tubes arranged to slide along linear-motion bearings; and in that the brake mechanism includes a hook carrying a stopper that works as a brake on the cylindrical tube to hold the tube in place at a desired extension position. a pair of spaced parallel support members adapted to deploy forward from a front of a passenger seat; a legrest pivotally supported on ends of the pair of spaced parallel support members, the legrest configured to pivot from near vertical when stowed to near horizontal when deployed; a brake mechanism for stopping forward deployment of the legrest; and an actuator arranged to drive forward deployment of the legrest; the pair of spaced parallel support members comprise cylindrical tubes arranged to slide along linear-motion bearings; and in that the brake mechanism includes a hook carrying a stopper that works as a brake on the cylindrical tube to hold the tube in place at a desired extension position.
An ethylene/1-butene copolymer having weight average molecular weight(g/mol), as measured as disclosed in the specification, of 10,000 to 400,000, molecular weight distribution (Mw/Mn, PDI), as measured as disclosed in the specification, of 18 to 28, environmental stress crack resistance (ESCR) of 400 hours to 20,000 hours, as measured by full notch creep test (FNCT) according to ISO 16770 at 4.0 MPa and 80°C density (g/cm 3), as measured according to ASTM 1505, of 0.930 to 0.950, MFR 5 (g/10 min, measured at 190°C by ASTM 1238) of 0.1 to 5, and melt flow rate ratio (MFR 21.6 /MFR 5, measured at 190°C by ASTM 1238) of 10 to 200. weight average molecular weight(g/mol), as measured as disclosed in the specification, of 10,000 to 400,000, molecular weight distribution (Mw/Mn, PDI), as measured as disclosed in the specification, of 18 to 28, environmental stress crack resistance (ESCR) of 400 hours to 20,000 hours, as measured by full notch creep test (FNCT) according to ISO 16770 at 4.0 MPa and 80°C density (g/cm 3), as measured according to ASTM 1505, of 0.930 to 0.950, MFR 5 (g/10 min, measured at 190°C by ASTM 1238) of 0.1 to 5, and melt flow rate ratio (MFR 21.6 /MFR 5, measured at 190°C by ASTM 1238) of 10 to 200.
A system for backing up and restoring information, comprising: at least one computer system including information to be backed up and restored; a plurality of storage devices (4a-4n) operable to receive at least part of the information to be backed up, store the received information, and back up the information; and a controller including a scheduling system operable to allow a user to input into a job queue a master job indicating one or more portions of the information of the at least one computer system to be backed up or restored; a job engine operable to periodically scans the job queue for jobs to be run; and a job control system operable to split the master job into a plurality of smaller jobs in response to a determination that the master job is ready to run by creating a plurality of parallel streams, the job control system being operable to input the plurality of smaller jobs into the job queue, the plurality of parallel streams split among at least two of the plurality of storage devices based on the availability of the plurality of storage devices (4a-4n); wherein the job engine is further operable to scan the job queue for the smaller jobs and determine if a storage device is available when one of the plurality of smaller jobs is detected; and wherein the job control system is operable to start one of the plurality of smaller jobs for each storage device (4a-4n) that is available. at least one computer system including information to be backed up and restored; a plurality of storage devices (4a-4n) operable to receive at least part of the information to be backed up, store the received information, and back up the information; and a controller including a scheduling system operable to allow a user to input into a job queue a master job indicating one or more portions of the information of the at least one computer system to be backed up or restored; a job engine operable to periodically scans the job queue for jobs to be run; and a job control system operable to split the master job into a plurality of smaller jobs in response to a determination that the master job is ready to run by creating a plurality of parallel streams, the job control system being operable to input the plurality of smaller jobs into the job queue, the plurality of parallel streams split among at least two of the plurality of storage devices based on the availability of the plurality of storage devices (4a-4n); wherein the job engine is further operable to scan the job queue for the smaller jobs and determine if a storage device is available when one of the plurality of smaller jobs is detected; and wherein the job control system is operable to start one of the plurality of smaller jobs for each storage device (4a-4n) that is available.
A metal containing complex coacervate core micelle comprising 80 to 99 wt.-% of a negatively charged chelating agent, 0.2 to 10 wt.-% of a low molecular weight natural food-grade polymeric cation, 0.5 to 10 wt.-% of a metal cation, and water, wherein wt.-% means dry weight percent based on the total weight of the complex coacervate core micelle, and wherein the average particle size as measured by dynamic light scattering is between 10 and 150 nm, and wherein the metal is iron in the form Fe 2+. 80 to 99 wt.-% of a negatively charged chelating agent, 0.2 to 10 wt.-% of a low molecular weight natural food-grade polymeric cation, 0.5 to 10 wt.-% of a metal cation, and water, wherein wt.-% means dry weight percent based on the total weight of the complex coacervate core micelle, and wherein the average particle size as measured by dynamic light scattering is between 10 and 150 nm, and wherein the metal is iron in the form Fe 2+.
Brake disk having a main metallic body made of steel or grey iron, having at least one region with formed friction surfaces and at least one region with a formed contact surface for securing of the brake disk, wherein a diffusion layer formed from iron, aluminium and silicon is present within the main metallic body at least in the region of the friction surfaces, which diffusion layer has a layer thickness of 0.1 mm to 0.6 mm and is formed collectively with the steel or grey iron of the main metallic body via diffusion processes.
Evaporator device (20, 120) for water (36, 136) having the following features: - a water tank (24, 124) having an encircling outer wall (26, 126) and an encircling inner wall (31, 131), - a heating device (38, 138) is provided on the outer wall (26, 126), - the inner wall (31, 131) extends within the outer wall (26, 126) and with a clearance relative thereto, - a water zone (32, 132) is formed between the outer wall (26, 126) and the inner wall (31, 131), - a steam outlet (21, 121) which emerges upwards from the water zone (32, 132), characterized in that within the inner wall (31, 131) a pump (41, 141) is arranged, in order to pump water from a water reservoir into the water zone (32, 132). - a water tank (24, 124) having an encircling outer wall (26, 126) and an encircling inner wall (31, 131), - a heating device (38, 138) is provided on the outer wall (26, 126), - the inner wall (31, 131) extends within the outer wall (26, 126) and with a clearance relative thereto, - a water zone (32, 132) is formed between the outer wall (26, 126) and the inner wall (31, 131), - a steam outlet (21, 121) which emerges upwards from the water zone (32, 132), characterized in that within the inner wall (31, 131) a pump (41, 141) is arranged, in order to pump water from a water reservoir into the water zone (32, 132).
A method of communication at an access terminal, comprising: communicating with a first access point; receiving a set of identifiers associated with the first access point; selecting an identifier of the set of identifiers associated with the first access point based on a node type associated with the first access point; and transmitting the selected identifier to a second access point when establishing communication with the second access point; wherein the first access point is a source access point, the second access point is a target access point and the node type relates to one or more of transmit power, coverage area or relay capabilities of the first access point. communicating with a first access point; receiving a set of identifiers associated with the first access point; selecting an identifier of the set of identifiers associated with the first access point based on a node type associated with the first access point; and transmitting the selected identifier to a second access point when establishing communication with the second access point; wherein the first access point is a source access point, the second access point is a target access point and the node type relates to one or more of transmit power, coverage area or relay capabilities of the first access point.