mhurhangee/ep-ind-claims huggingface dataset:
A brazing or refilling method, comprising the following steps: - providing at least one part containing at least 90% by mass of a metal or metal alloy, for example stainless steel, the part having at least one face defining a plurality of interstices, the interstices comprising at least two opposite edges (67, 69) separated on the face by a maximum distance, characterised in that the maximum distance is less than or equal to 250 micrometers, preferably less than or equal to 150 micrometers, and the process further comprises the following steps: - obtaining a coating in contact with said face, the coating comprising at least a first layer located at least partially in the interstices, and a second layer adjacent to the first layer, the first layer comprising a first powder comprising at least 90% by mass of a metal or metal alloy and having a solidus temperature TSA, the second layer comprising a mixture of a second powder and a third powder, the second powder and the third powder being, respectively, different alloys suitable for brazing or refilling the part, one and/or the other of these alloys being for example a nickel alloy, the second powder having a solidus temperature TSB, and the third powder having a solidus temperature TSC strictly lower than the solidus temperature TSB, - heating the part and the coating at a heating temperature strictly lower than the solidus temperature TSA, on the one hand, and lower, preferably strictly lower, than the solidus temperature TSB, and strictly higher than the solidus temperature TSC, and at least partially melting the coating, and - cooling the part and the at least partially molten coating, and obtaining a solidified residue attached to the part. - providing at least one part containing at least 90% by mass of a metal or metal alloy, for example stainless steel, the part having at least one face defining a plurality of interstices, the interstices comprising at least two opposite edges (67, 69) separated on the face by a maximum distance, - obtaining a coating in contact with said face, the coating comprising at least a first layer located at least partially in the interstices, and a second layer adjacent to the first layer, the first layer comprising a first powder comprising at least 90% by mass of a metal or metal alloy and having a solidus temperature TSA, the second layer comprising a mixture of a second powder and a third powder, the second powder and the third powder being, respectively, different alloys suitable for brazing or refilling the part, one and/or the other of these alloys being for example a nickel alloy, the second powder having a solidus temperature TSB, and the third powder having a solidus temperature TSC strictly lower than the solidus temperature TSB, - heating the part and the coating at a heating temperature strictly lower than the solidus temperature TSA, on the one hand, and lower, preferably strictly lower, than the solidus temperature TSB, and strictly higher than the solidus temperature TSC, and at least partially melting the coating, and - cooling the part and the at least partially molten coating, and obtaining a solidified residue attached to the part.
A method of manufacturing a warp knit fabric of locknit pattern comprising mounting on a front warp of a tricot knitting machine having at least a front warp and a back warp, a polytrimethylene terephthalate yarn having a fineness in the range of 33.33 - 83.33 decitex; and mounting on said rear warp an elastic yarn having a fineness in the range of 22.22 - 77.77 decitex and an elongation at break greater than 100%; wherein the ratio of polytrimethylene terephthalate yarn to elastic yarn is in the range of 70:30 to 90:10 by weight; wherein said tricot knitting machine is set to provide a locknit pattern characterized by a course density of the warp unit fabric in the range of 18-30 courses/cm and a basis weight in the range of 180 g/m 2 or greater; wherein further the beam draft of the elastic yarn BD e is 1.7, the polytrimethylene terephthalate yarn run-in length RI ptt is in the range of 1400 to 2000 mm/rack, the run-in length of the elastic yarn RI e is in the range of 200 to 1000 mm/rack, the locknit pattern run-in ratio LK is 1.33, and the spool draft SD of the elastic yarn is 1.0; and wherein the elastic yarn has a total draft TD e ranging from 2.6 to 4.0 as calculated by equation: TD e = BD e × RI ptt / RI e / LK × SD and causing said tricot knitting machine to produce a fabric therewith.
A method for preparing an sequencing library, preferably a deep-sequencing library, wherein the method comprises the steps of: - step a) providing a sample containing RNA; - step b) fragmenting the RNA; - step c) end-repair to add an OH group at the 3' end of the fragmented RNA followed by polyadenylating the fragmented RNA; - step d) hybridizing a poly-T primer to the polyadenylated RNA and performing reverse transcription of the hybridized RNA thereby obtaining cDNA; - step e) performing a second strand synthesis; - step f) in vitro transcription of the cDNA obtained in step d) thereby obtaining amplified RNA (aRNA); - step g) ribosomal-RNA (rRNA) depletion; and - step h) ligating an oligonucleotide adapter to the aRNA obtained in step f), - step i) performing reverse transcription of the aRNA to obtain cDNA; - step j) degrading the remaining aRNA; wherein the poly-T primer comprises at least one of an identifier sequence (barcode) and a unique molecular identifier. - step a) providing a sample containing RNA; - step b) fragmenting the RNA; - step c) end-repair to add an OH group at the 3' end of the fragmented RNA followed by polyadenylating the fragmented RNA; - step d) hybridizing a poly-T primer to the polyadenylated RNA and performing reverse transcription of the hybridized RNA thereby obtaining cDNA; - step e) performing a second strand synthesis; - step f) in vitro transcription of the cDNA obtained in step d) thereby obtaining amplified RNA (aRNA); - step g) ribosomal-RNA (rRNA) depletion; and - step h) ligating an oligonucleotide adapter to the aRNA obtained in step f), - step i) performing reverse transcription of the aRNA to obtain cDNA; - step j) degrading the remaining aRNA;
An apparatus for applying a sealant to an inner side of a tire to prepare a safety tire, characterized in that it comprises: a feeding conveyor feeding a tire to the apparatus; a primary centering unit for primarily centering the tire fed by the feeding conveyor; a secondary centering unit for setting ain accurate horizontal position of the tire having passed through the primary centering unit; a turning unit for receiving the centered horizontal tire from the secondary centering unit and rotating the tire by 90 degrees; a sealant application robot provided with a sealant application nozzle entering the tire rotated by 90 degrees in the turning unit; a rotating unit for rotating the tire with the sealant application nozzle placed inside the tire; a forward/rearward drive unit for moving the tire toward the secondary centering unit after a sealant discharged through the sealant application nozzle of the sealant application robot is completely applied to an inner side of the tire rotated by the rotating unit; and a discharge conveyor for discharging the tire to which the sealant has been completely applied. a feeding conveyor feeding a tire to the apparatus; a primary centering unit for primarily centering the tire fed by the feeding conveyor; a secondary centering unit for setting ain accurate horizontal position of the tire having passed through the primary centering unit; a turning unit for receiving the centered horizontal tire from the secondary centering unit and rotating the tire by 90 degrees; a sealant application robot provided with a sealant application nozzle entering the tire rotated by 90 degrees in the turning unit; a rotating unit for rotating the tire with the sealant application nozzle placed inside the tire; a forward/rearward drive unit for moving the tire toward the secondary centering unit after a sealant discharged through the sealant application nozzle of the sealant application robot is completely applied to an inner side of the tire rotated by the rotating unit; and a discharge conveyor for discharging the tire to which the sealant has been completely applied.
A system for consistently emitting a volatile material, the system including: a volatile material dispenser having a diffusion element (286, 288); and a refill adapted for disposal within the volatile material dispenser and including a container having a volatile material disposed therein and a wick having a first end disposed in contact with the volatile material in the container and a second end extending out of the container; characterized in that a time constant (Parameter 1) for the system is less than or equal to about 1.0 hour when estimated using the equation: 1.0 hour when estimated using the equation: Predicted mass change = Parameter 4 + Parameter 3 * T + Parameter 2 * exp − T / Parameter 1; wherein Parameter 1 is a time constant which describes how quickly the weight loss will turn into a steady state weight loss; Parameter 2 is a parameter satisfying the equation: Parameter2 = Parameter1* (the initial slope of the weight loss line + Parameter 3); Parameter 3 is the steady state evaporation rate which is the slope of a steady state line; Parameter 4 is the point on a weight change versus time graph where the steady state line intersects the weight change axis; and T is the elapsed time for a particular data point. a volatile material dispenser having a diffusion element (286, 288); and a refill adapted for disposal within the volatile material dispenser and including a container having a volatile material disposed therein and a wick having a first end disposed in contact with the volatile material in the container and a second end extending out of the container;
A ready to drink beverage product comprising: a milk component comprising casein and whey proteins wherein ratio between casein and whey protein ranges from 75:25 to 60:40; a flavor component selected from the group consisting of a cocoa component, a fruit flavor component, and a combination thereof; a sugar an acidifier a stabilizing system comprising a co-processed microcrystalline cellulose, carboxymethyl cellulose in the range of 0.05 - 0.18 w/w%, and carrageenan in the range 0.01 - 0.10 w/w%; wherein the beverage comprises casein-whey protein aggregates having a volume based mean diameter value D(4,3) of at least 3μm as measured by laser diffraction. a milk component comprising casein and whey proteins wherein ratio between casein and whey protein ranges from 75:25 to 60:40; a flavor component selected from the group consisting of a cocoa component, a fruit flavor component, and a combination thereof; a sugar an acidifier a stabilizing system comprising a co-processed microcrystalline cellulose, carboxymethyl cellulose in the range of 0.05 - 0.18 w/w%, and carrageenan in the range 0.01 - 0.10 w/w%; wherein the beverage comprises casein-whey protein aggregates having a volume based mean diameter value D(4,3) of at least 3μm as measured by laser diffraction.
A method for preparing a lubricity coating on a plastic substrate, wherein the substrate which is coated is at least a part of the interior surface of a syringe comprising a barrel having an inner surface, a piston or plunger having an outer surface engaging the inner surface of the barrel, wherein at least one of said inner surface and outer surface is coated, the method comprising the steps (a) providing a gas comprising an organosilicon precursor and O 2, and optionally a noble gas, in the vicinity of the substrate surface, wherein O 2 is present in a volume-volume ratio to the organosilicon precursor of from 0.01:1 to 5:1; and (b) generating a plasma in the gas with an electric power of from 0.1 to 25 W for a deposition time from 1 to 30 sec, thus forming a lubricity coating on the substrate surface by plasma enhanced chemical vapor deposition (PECVD). (a) providing a gas comprising an organosilicon precursor and O 2, and optionally a noble gas, in the vicinity of the substrate surface, wherein O 2 is present in a volume-volume ratio to the organosilicon precursor of from 0.01:1 to 5:1; and (b) generating a plasma in the gas with an electric power of from 0.1 to 25 W for a deposition time from 1 to 30 sec, thus forming a lubricity coating on the substrate surface by plasma enhanced chemical vapor deposition (PECVD).
A capsule for an electronic vapour inhaler, the capsule comprising: a shell containing a flavour-release medium; and an induction heatable element contained within the shell and arranged to heat the flavour-release medium; wherein the shell includes a base region and a sidewall region, and wherein the base region is formed of an air permeable material, wherein the flavour-release medium is tobacco or tobacco material. a shell containing a flavour-release medium; and an induction heatable element contained within the shell and arranged to heat the flavour-release medium; wherein the shell includes a base region and a sidewall region, and wherein the base region is formed of an air permeable material, wherein the flavour-release medium is tobacco or tobacco material.
A control device for a vehicle, said vehicle including a wheel (81, 82, 83, 84) including at least a driving wheel (83, 84), an output shaft coupled to said driving wheel (83, 84), a power generation device (P/G) including an internal combustion engine, a first rotating electric machine and a second rotating electric machine driven by electric power supplied from a power storage device via a power line for generating driving power to rotate said output shaft, a transmission device (T/M) including a planetary gear mechanism provided between said internal combustion engine, said first rotating electric machine and said output shaft, and a transmission provided between said second rotating electric machine and said output shaft, and an open/close device for opening and closing a conduction path between said power storage device and said power line, said control device characterized by comprising: a stop unit stopping an operation of said power generation device (P/G) when said transmission device (T/M) is in error, a determination unit determining whether rotation of said wheel ((81, 82, 83, 84) has stopped or not after the operation of said power generation device (P/G) is stopped, and a control unit maintaining said open/close device at a closed state until said determination unit determines that rotation of said wheel (81, 82, 83, 84) has stopped, after operation of said power generation device (P/G) is stopped, and switching said open/close device to an open state when said determination unit determines that rotation of said wheel (81, 82, 83, 84) has stopped. a stop unit stopping an operation of said power generation device (P/G) when said transmission device (T/M) is in error, a determination unit determining whether rotation of said wheel ((81, 82, 83, 84) has stopped or not after the operation of said power generation device (P/G) is stopped, and a control unit maintaining said open/close device at a closed state until said determination unit determines that rotation of said wheel (81, 82, 83, 84) has stopped, after operation of said power generation device (P/G) is stopped, and switching said open/close device to an open state when said determination unit determines that rotation of said wheel (81, 82, 83, 84) has stopped.
An ultra-wide band tracking tag, comprising: a processor; a transceiver communicatively coupled with the processor; a movement sensor communicatively coupled with the processor; and a memory communicatively coupled with the processor, the memory storing machine-readable instructions that, when executed by the processor, control the tracking tag to: determine, using the movement sensor, movement of the tracking tag, periodically transmit, from the transceiver at a ping rate, pings detectable by an object tracking system, each of the pings including a movement value indicative of an activity and/or acceleration based on the determined movement, receive, from the object tracking system, an optimal ping rate determined by the object tracking system- based on the movement value transmitted by the tracking tag, a bandwidth of the object tracking system, and one or more additional movement values transmitted to the object tracking system by corresponding one or more additional tracking tags, and set the ping rate equal to the optimal ping rate. a processor; a transceiver communicatively coupled with the processor; a movement sensor communicatively coupled with the processor; and a memory communicatively coupled with the processor, the memory storing machine-readable instructions that, when executed by the processor, control the tracking tag to: determine, using the movement sensor, movement of the tracking tag, periodically transmit, from the transceiver at a ping rate, pings detectable by an object tracking system, each of the pings including a movement value indicative of an activity and/or acceleration based on the determined movement, receive, from the object tracking system, an optimal ping rate determined by the object tracking system- based on the movement value transmitted by the tracking tag, a bandwidth of the object tracking system, and one or more additional movement values transmitted to the object tracking system by corresponding one or more additional tracking tags, and set the ping rate equal to the optimal ping rate. determine, using the movement sensor, movement of the tracking tag, periodically transmit, from the transceiver at a ping rate, pings detectable by an object tracking system, each of the pings including a movement value indicative of an activity and/or acceleration based on the determined movement, receive, from the object tracking system, an optimal ping rate determined by the object tracking system- based on the movement value transmitted by the tracking tag, a bandwidth of the object tracking system, and one or more additional movement values transmitted to the object tracking system by corresponding one or more additional tracking tags, and set the ping rate equal to the optimal ping rate.
A method executed by a node (14, 16, 24, 26, 28) in or coupled to a radio access network (10, 20) for determining a location of a mobile radio (12, 22), comprising: - determining cell location information for plural cells in a set of cells associated with the mobile radio (12, 22), and - using the cell location information to determine a location of the mobile radio (12, 22), characterised in that the cell location information for each cell includes cell boundary positions defined by a lowest horizontal coordinate, a highest horizontal coordinate, a lowest vertical coordinate and a highest vertical coordinate of the cell boundary, and in that the method further comprises the steps of: - comparing the horizontal coordinates of the cell boundary positions; - selecting one or more of the horizontal coordinates; - comparing the vertical coordinates of the cell boundary positions; - selecting one or more of the vertical coordinates; and - using the selected horizontal and vertical coordinates to define the mobile radio location. - determining cell location information for plural cells in a set of cells associated with the mobile radio (12, 22), and - using the cell location information to determine a location of the mobile radio (12, 22), - comparing the horizontal coordinates of the cell boundary positions; - selecting one or more of the horizontal coordinates; - comparing the vertical coordinates of the cell boundary positions; - selecting one or more of the vertical coordinates; and - using the selected horizontal and vertical coordinates to define the mobile radio location.
A method of transmitting an omnidirectional video comprising: acquiring an image for the omnidirectional video; projecting the image for the omnidirectional video onto a sphere; packing, in a 2D frame, the projected image; encoding the packed image; encapsulating the encoded image and metadata about the omnidirectional video into a media file; and transmitting the media file, wherein the metadata includes position information representing the spherical coordinates of a center of a region of the projected image onto the sphere, type information representing a type of the region, first range information representing a horizontal range of the region, second range information representing a vertical range of the region, and rotation information representing a rotation of the center of the region, wherein when the region is represented based on four great circles, the type information has a first value, and when the region is represented based on two great circles and two small circles, the type information has a second value, a great circle is an intersection of the sphere and a plane that passes through a center of the sphere, a small circle is an intersection of the sphere and a plane that does not pass through the center of the sphere, wherein the metadata further includes interpolate information representing whether or not to use linearly interpolated values as the spherical coordinate values of a region between the region represented by a current sample and the region represented by a previous sample, wherein the current sample and the previous sample are time continuous samples. acquiring an image for the omnidirectional video; projecting the image for the omnidirectional video onto a sphere; packing, in a 2D frame, the projected image; encoding the packed image; encapsulating the encoded image and metadata about the omnidirectional video into a media file; and transmitting the media file, wherein the metadata includes position information representing the spherical coordinates of a center of a region of the projected image onto the sphere, type information representing a type of the region, first range information representing a horizontal range of the region, second range information representing a vertical range of the region, and rotation information representing a rotation of the center of the region, wherein when the region is represented based on four great circles, the type information has a first value, and when the region is represented based on two great circles and two small circles, the type information has a second value, a great circle is an intersection of the sphere and a plane that passes through a center of the sphere, a small circle is an intersection of the sphere and a plane that does not pass through the center of the sphere, wherein the metadata further includes interpolate information representing whether or not to use linearly interpolated values as the spherical coordinate values of a region between the region represented by a current sample and the region represented by a previous sample, wherein the current sample and the previous sample are time continuous samples.
Fuel tank, more particularly for satellites, for receiving fuels with a liquid phase, wherein for determining the quantity of fuel in the interior of the fuel tank by way of radiometric means the fuel tank is surrounded by detectors and a gamma radiation emitter is arranged in the centre of the fuel tank, characterised in that the fuel tank is wound with more than one scintillating glass fibre in cylindrically symmetrical sections and in that photo-sensors are assigned to the glass fibres.
A container comprising a base and a continuous side wall extending substantially perpendicular to the base with a peripheral flange formed along the upper, in use, edge of the continuous side wall, wherein the base and the continuous side wall consist essentially of polyethylene terephthalate wherein a layer of adhesive is located on an upper, in use, surface of the peripheral flange and said layer of adhesive does not extend onto the vertical, in use, surfaces of the continuous side wall and does not extend onto the base wherein the container further comprises a lidding film which may be sealed to the peripheral flange to create a sealed space between the base, continuous side wall and lidding film; and wherein the lidding film is a multi-layer film comprising a seal layer and the seal layer comprises polypropylene and/or PE.