mhurhangee/ep-ind-claims huggingface dataset:
A process for producing coarse count and tridimensional crimped multifilament BCF yarns, comprising the following steps: - arranging polyamide 6.6 as starting material (step 100); - drying said polyamide 6.6 with nitrogen (step 101); - extruding said polyamide 6.6, thus obtaining filaments (step 102); - immediately downstream the extrusion, cooling in water the filaments obtained in the previous step 102 at a predetermined temperature ranging between 17°C and 50°C and for a predetermined time ranging between 0.5 seconds and 0.8 seconds, thus obtaining coarse count multifilament BCF yarns (step 103); - subjecting to a non-mechanical treatment with a mixture of air and steam said coarse count multifilament BCF yarns obtained in the previous step 103, wherein the amounts of air and steam are in a predetermined ratio between them ranging between 30:70 by volume and 60:40 by volume, thus obtaining coarse count and tridimensional crimped multifilament BCF yarns (step 104). - arranging polyamide 6.6 as starting material (step 100); - drying said polyamide 6.6 with nitrogen (step 101); - extruding said polyamide 6.6, thus obtaining filaments (step 102); - immediately downstream the extrusion, cooling in water the filaments obtained in the previous step 102 at a predetermined temperature ranging between 17°C and 50°C and for a predetermined time ranging between 0.5 seconds and 0.8 seconds, thus obtaining coarse count multifilament BCF yarns (step 103); - subjecting to a non-mechanical treatment with a mixture of air and steam said coarse count multifilament BCF yarns obtained in the previous step 103, wherein the amounts of air and steam are in a predetermined ratio between them ranging between 30:70 by volume and 60:40 by volume, thus obtaining coarse count and tridimensional crimped multifilament BCF yarns (step 104).
Method of transferring a message, comprising routing information (202, 204) relating to an intended recipient of the message and content information, from a first node via a second node to a third node in a communications network, wherein a repository is associated with the second node, comprising the steps of: - receiving the message from the first node by the second node; - storing data representative of the content information in the repository associated with the second node; - replacing, by the second node, in the message, the content information by a token; - transmitting the message, comprising the routing information and the token, from the second node to the third node; - retrieving, by the third node, the content information from the second node; - replacing by the third node, in the message, the token by the content information and transferring the message comprising the content information to the recipient. - receiving the message from the first node by the second node; - storing data representative of the content information in the repository associated with the second node; - replacing, by the second node, in the message, the content information by a token; - transmitting the message, comprising the routing information and the token, from the second node to the third node; - retrieving, by the third node, the content information from the second node; - replacing by the third node, in the message, the token by the content information and transferring the message comprising the content information to the recipient.
An electrode assembly comprising: a. a first electrode comprising at least one first structure, the at least one first structure having a fiber shape and any one of positive and negative polarities; and b. a second electrode comprising at least one second structure, the at least one second structure having a fiber shape and a polarity different from the polarity of the first structure, and spirally surrounds the first structure, wherein a plurality of the electrode assemblies are provided as a plurality of segments having predetermined lengths in a battery case, wherein the plurality of the electrode assemblies comprise a separator that is disposed between the segments, wherein the segments are woven so that the segments reciprocate through the separator and cross each other as weft threads and warp threads. a. a first electrode comprising at least one first structure, the at least one first structure having a fiber shape and any one of positive and negative polarities; and b. a second electrode comprising at least one second structure, the at least one second structure having a fiber shape and a polarity different from the polarity of the first structure, and spirally surrounds the first structure, wherein a plurality of the electrode assemblies are provided as a plurality of segments having predetermined lengths in a battery case, wherein the plurality of the electrode assemblies comprise a separator that is disposed between the segments, wherein the segments are woven so that the segments reciprocate through the separator and cross each other as weft threads and warp threads.
A machine for packaging a plurality of containers into packages using flexible carrier stock, the machine comprising: a frame; a vertically adjustable mount plate positioned with respect to the frame; a reel stand positioned on the mount plate, the reel stand adapted to feed the flexible carrier stock; and a jaw drum positioned on the mount plate, the jaw drum adapted to draw the flexible carrier stock from the reel stand and apply the flexible carrier stock to the plurality of containers, wherein the mount plate, the reel stand and the jaw drum are simultaneously vertically adjustable with respect to the frame. a frame; a vertically adjustable mount plate positioned with respect to the frame; a reel stand positioned on the mount plate, the reel stand adapted to feed the flexible carrier stock; and a jaw drum positioned on the mount plate, the jaw drum adapted to draw the flexible carrier stock from the reel stand and apply the flexible carrier stock to the plurality of containers, wherein the mount plate, the reel stand and the jaw drum are simultaneously vertically adjustable with respect to the frame.
A sizing composition, comprising: from about 3 kg/ton to about 15 kg/ton of calcium propionate; an additive selected from the group consisting of starch, an optical brightener, a biocide, a defoamer, a surface size agent, a wet strength additive, and combinations thereof; and a balance of water; the sizing composition having a pH ranging from 7 to 8. from about 3 kg/ton to about 15 kg/ton of calcium propionate; an additive selected from the group consisting of starch, an optical brightener, a biocide, a defoamer, a surface size agent, a wet strength additive, and combinations thereof; and a balance of water;
A method for assaying a vitamin D moiety in a sample, which method comprises: a) contacting a sample containing or suspected of containing a vitamin D moiety with a buffer of acidic pH in the range from 2.5 to 6.9, and at least two antibodies that are separately conjugated to particles, wherein at least one of said antibodies or the first antibody has a specific binding affinity towards the vitamin D moiety, and at least another said antibody or the second antibody has a specific binding affinity towards the complex formed between the first antibody and the vitamin D moiety; and b) assessing binding between said antibodies and said vitamin D moiety to determine the presence, absence and/or amount of said vitamin D moiety in said sample, wherein said method is conducted as a homogeneous assay. a) contacting a sample containing or suspected of containing a vitamin D moiety with a buffer of acidic pH in the range from 2.5 to 6.9, and at least two antibodies that are separately conjugated to particles, wherein at least one of said antibodies or the first antibody has a specific binding affinity towards the vitamin D moiety, and at least another said antibody or the second antibody has a specific binding affinity towards the complex formed between the first antibody and the vitamin D moiety; and b) assessing binding between said antibodies and said vitamin D moiety to determine the presence, absence and/or amount of said vitamin D moiety in said sample,
A queue scheduling method, characterized in comprising: querying, by a routing device according to a network service, a preset correspondence table after receiving the network service sent by a user, and obtaining a storage queue corresponding to the network service, wherein the correspondence table comprises correspondence between the network service and the storage queue; storing data of the network service in the storage queue corresponding to the network service; and allocating a scheduler to the storage queue; after the storing data corresponding to the network service in the storage queue corresponding to the network service, the method further comprises: determining, by querying, whether there is data putting in the storage queue corresponding to the network service in a predetermined time range; and detaching the correspondence between the network service and the storage queue if there is no data putting in the storage queue corresponding to the network service in the predetermined time range, and releasing the storage queue corresponding to the network service and the scheduler allocated to the storage queue. querying, by a routing device according to a network service, a preset correspondence table after receiving the network service sent by a user, and obtaining a storage queue corresponding to the network service, wherein the correspondence table comprises correspondence between the network service and the storage queue; storing data of the network service in the storage queue corresponding to the network service; and allocating a scheduler to the storage queue; after the storing data corresponding to the network service in the storage queue corresponding to the network service, the method further comprises: determining, by querying, whether there is data putting in the storage queue corresponding to the network service in a predetermined time range; and detaching the correspondence between the network service and the storage queue if there is no data putting in the storage queue corresponding to the network service in the predetermined time range, and releasing the storage queue corresponding to the network service and the scheduler allocated to the storage queue. determining, by querying, whether there is data putting in the storage queue corresponding to the network service in a predetermined time range; and detaching the correspondence between the network service and the storage queue if there is no data putting in the storage queue corresponding to the network service in the predetermined time range, and releasing the storage queue corresponding to the network service and the scheduler allocated to the storage queue.
Method for joining a first blank and a second blank, at least one of the first and second blanks comprising at least a layer of aluminium or of an aluminum alloy, the method comprising - selecting a first portion of the first blank to be joined to the second blank, and selecting a second portion of the second blank to be joined to the first portion, - welding the first portion to the second portion, while supplying a metal powder to a weld zone, wherein the first portion and the second portion of the blanks (A, B) and the metal powder in the weld zone are melted during welding and the metal powder is mixed with the melted first and second portions, and wherein the metal powder is an iron based powder comprising gammagenic elements, and characterised in that the welding the first portion to the second portion is done by laser twin spot welding. - selecting a first portion of the first blank to be joined to the second blank, and selecting a second portion of the second blank to be joined to the first portion, - welding the first portion to the second portion, while supplying a metal powder to a weld zone, wherein
A luminometer for detecting chemo-luminescent light generated by the reaction of a light-generating reagent and an assay reaction mixture for use with a reaction vessel having an open top end and a bottom end, the luminometer comprising: a first portion having a first cavity with a first cavity opening sized to mate with the open end of the reaction vessel; a second portion, hingeably coupled to the first portion, and having a second cavity with a second cavity opening sized to enclose the bottom end of the reaction vessel; and a plurality of fiber optic bundles, each having a first end, a second end, and a running length therebetween, the first ends of each of the fiber optic bundles optically coupled to the second cavity and disposed around a perimeter and a bottom of the second cavity for collecting light generated by the reaction from about an entire perimeter and the bottom of the reaction vessel, wherein the fiber optic bundles disposed around the perimeter and bottom of the second cavity form two or more groups, each group coupled to a respective photomultiplier tube, each photomultiplier tube including an optical filter passing collected light at a different predetermined wavelength or range of wavelengths, wherein each of the first and second portions are configured to block ambient light from the first and second cavities, respectively, when the luminometer is in a closed configuration, and a light-generating reagent conduit integrated into the first portion for dispensing a desired volume of light-generating reagent into a reaction cuvette once the luminometer is in the closed position. a first portion having a first cavity with a first cavity opening sized to mate with the open end of the reaction vessel; a second portion, hingeably coupled to the first portion, and having a second cavity with a second cavity opening sized to enclose the bottom end of the reaction vessel; and a plurality of fiber optic bundles, each having a first end, a second end, and a running length therebetween, the first ends of each of the fiber optic bundles optically coupled to the second cavity and disposed around a perimeter and a bottom of the second cavity for collecting light generated by the reaction from about an entire perimeter and the bottom of the reaction vessel, wherein the fiber optic bundles disposed around the perimeter and bottom of the second cavity form two or more groups, each group coupled to a respective photomultiplier tube, each photomultiplier tube including an optical filter passing collected light at a different predetermined wavelength or range of wavelengths, wherein each of the first and second portions are configured to block ambient light from the first and second cavities, respectively, when the luminometer is in a closed configuration, and a light-generating reagent conduit integrated into the first portion for dispensing a desired volume of light-generating reagent into a reaction cuvette once the luminometer is in the closed position.
Heat exchanger for heat transmission between a heat transfer medium and a surrounding fluid, - having a first main line which has a main flow cross-section, - having a second main line, and - having a heat exchanger section, through which the heat transfer medium can flow, and which has an enlarged heat exchanger flow cross-section compared to the main flow cross-section, wherein the heat exchanger section has a hollow cylindrical geometry, characterised in that, the heat exchanger section is connected at a first end to the first main line and at a second end to the second main line in such a way that the heat transfer medium is hydraulically symmetrically distributed between the first main line and the heat exchanger section or between the second main line and the heat exchanger section, such that the heat transfer medium flows constantly in each partial cross-section of the heat exchanger flow cross-section, apart from edge effects, with approximately equal flow velocity, wherein the heat exchanger section on the first and on the second end (6, 8) is connected centrally to the first main line or to the second main line. - having a first main line which has a main flow cross-section, - having a second main line, and - having a heat exchanger section, through which the heat transfer medium can flow, and which has an enlarged heat exchanger flow cross-section compared to the main flow cross-section, wherein the heat exchanger section has a hollow cylindrical geometry,
A prosthesis delivery system for delivering a collapsible prosthesis, the prosthesis delivery system comprising: a sheath defining an axial direction; at least one tether movable axially relative to the sheath; and a holder configured to constrain radially the at least one tether; wherein the at least one tether is movable axially within the holder; characterised in that the holder is movable axially within the sheath. a sheath defining an axial direction; at least one tether movable axially relative to the sheath; and a holder configured to constrain radially the at least one tether; wherein the at least one tether is movable axially within the holder; characterised in that the holder is movable axially within the sheath.
A heating element with temperature control, comprising: a heating body, the heating body has a first surface and an opposite second surface; a heating wire is arranged on the first surface and a temperature controlling wire is arranged on the second surface; a heating pin, one end thereof is coupled with one end of the heating wire; a temperature controlling pin, one end thereof is coupled with the temperature controlling wire; a common pin, one end thereof is coupled with an opposite end of the heating wire and an opposite end of the temperature controlling wire, characterized in that the heating wire and the temperature controlling wire are mirror-symmetrically set.
A method of controlling an ophthalmic device (10-1; 10-2) having a first retinal image acquisition module operable to image an imaging region of a retina and an illumination module (2-1; 2-2) operable to concurrently illuminate an illumination region of the retina, the imaging region and the illumination region having a predetermined positional relationship to one another, the method comprising: controlling the first retinal image acquisition module to acquire a reference retinal image by imaging a reference imaging area of the retina; designating a target in the reference retinal image; controlling the first retinal image acquisition module to acquire a current retinal image of an initial imaging region within the reference imaging area; controlling the first retinal image acquisition module to move its imaging region of the retina from the initial imaging region to a destination imaging region using the target and at least a portion of the reference retinal image, and to acquire a retinal image of the destination imaging region; controlling (S50; S50') the illumination module (2-1; 2-2) to illuminate the illumination region of the retina while the imaging region of the first retinal image acquisition module is the destination imaging region; controlling (S60; S60') the first retinal image acquisition module to acquire one or more retinal images while the illumination module (2-1; 2-2) is illuminating the illumination region of the retina; and comparing a marker retinal image based on the one or more retinal images with a comparison image based on at least a portion of the reference retinal image to determine a marker that is indicative of the position of the marker retinal image within the comparison image. controlling the first retinal image acquisition module to acquire a reference retinal image by imaging a reference imaging area of the retina; designating a target in the reference retinal image; controlling the first retinal image acquisition module to acquire a current retinal image of an initial imaging region within the reference imaging area; controlling the first retinal image acquisition module to move its imaging region of the retina from the initial imaging region to a destination imaging region using the target and at least a portion of the reference retinal image, and to acquire a retinal image of the destination imaging region; controlling (S50; S50') the illumination module (2-1; 2-2) to illuminate the illumination region of the retina while the imaging region of the first retinal image acquisition module is the destination imaging region; controlling (S60; S60') the first retinal image acquisition module to acquire one or more retinal images while the illumination module (2-1; 2-2) is illuminating the illumination region of the retina; and comparing a marker retinal image based on the one or more retinal images with a comparison image based on at least a portion of the reference retinal image to determine a marker that is indicative of the position of the marker retinal image within the comparison image.
A temporary diameter reduction constraint arrangement for a stent graft in combination with a stent graft, the stent graft having a proximal end and a distal end and comprising a biocompatible graft material tube and a plurality of longitudinally spaced apart self-expanding stents (30, 40, 50, 60, 70, 80, 90) fastened thereto, including at least an end stent (30, 90) and a plurality of intermediate stents (40, 50, 60, 70, 80), the constraint arrangement comprising: an elongate receiver extending longitudinally within the graft material tube; a first wire extending longitudinally along the graft material tube in a first serpentine pattern; and a second wire extending longitudinally along the graft material tube in a second serpentine pattern, wherein at least one of the first and second wires repeatedly loops over the receiver, within the graft material, along a longitudinal length of the stent graft, thereby securing the stent graft to the receiver. an elongate receiver extending longitudinally within the graft material tube; a first wire extending longitudinally along the graft material tube in a first serpentine pattern; and a second wire extending longitudinally along the graft material tube in a second serpentine pattern, wherein at least one of the first and second wires repeatedly loops over the receiver, within the graft material, along a longitudinal length of the stent graft, thereby securing the stent graft to the receiver.
Latching device for an engine hood of a motor vehicle, the latching device comprising a locking mechanism having a catch and a pawl for ratcheting the catch in a main ratchet position, the latching device further comprising a catch hook which can limit an opening movement of a latch holder after the locking mechanism is opened at a securing position between a provided closed position and a provided open position, characterized in that the catch hook has a load-dependent barrier and the latching device is designed such that a movement of the latch holder in the direction of the barrier is limited at the provided closed position by the barrier depending on the load such that the latch holder only descends beyond the provided closed position in the event of overloading.