mhurhangee/ep-ind-claims huggingface dataset:
A support device configured for making a device for packaging a floral composition with a water reserve, comprising a structural support element, comprising a substantially circular base from the perimeter of which a plurality of elongated elements extend, said base and the elongated elements forming an injection-moulded integral plastic element, said elongated elements extending substantially upwards when the base rests on a horizontal surface and when no load is exerted on said elongated elements then in the rest position, said elongated elements being configured to be elastically deformed towards the central axis of the base, in the direction of the stems of the bouquet when making the floral composition, said support device comprising a watertight flexible means secured in a non-removable manner to said support element, extending between said elongated elements, over the entire periphery of said support element, from said base and over all or part of the height of said elongated elements, and configured so as to form with said support element a container with said water reserve, characterised in that the watertight flexible means is an element distinct from said support element, attached by welding or material meltdown to the elongated elements and to said base of said support element, the flexible means comprising a flexible film welded to said elongated elements and to said base and said support element being a moulded part, the flexible means attached to said elongated element being obtained by the in-mould labelling technique. said support device comprising a watertight flexible means secured in a non-removable manner to said support element, extending between said elongated elements, over the entire periphery of said support element, from said base and over all or part of the height of said elongated elements, and configured so as to form with said support element a container with said water reserve, characterised in that the watertight flexible means is an element distinct from said support element, attached by welding or material meltdown to the elongated elements and to said base of said support element, the flexible means comprising a flexible film welded to said elongated elements and to said base and said support element being a moulded part, the flexible means attached to said elongated element being obtained by the in-mould labelling technique.
A positive electrode active material for a secondary battery, comprising: a lithium composite transition metal oxide containing nickel, cobalt, and manganese and having a nickel content accounting for 60 mol% or more, based on the metals M contained in the lithium composite transition metal oxide, wherein M excludes lithium, wherein the lithium composite transition metal oxide is in the form of single particles having an average particle diameter D 50 of 1 to 10 μm, wherein a 100-nm region extending from the surface toward the center of a particle of the lithium composite transition metal oxide has crystal structures of a Fd3M space group and a Fm3m space group, wherein a phase ratio Fd3M/Fm3m, which is a ratio of the maximum straight length of portions occupied by the crystal structure of the Fd3M space group and the crystal structure of the Fm3m space group, is 0.2 to 0.7, as determined in a cross-sectional image of the particle surface part of the lithium composite transition metal oxide particle, which is obtained using transmission electron microscopy, and wherein the single particles are in the form of single particles formed of one primary particle or in the form of a secondary particle formed by agglomerating several primary particles. a lithium composite transition metal oxide containing nickel, cobalt, and manganese and having a nickel content accounting for 60 mol% or more, based on the metals M contained in the lithium composite transition metal oxide, wherein M excludes lithium, wherein the lithium composite transition metal oxide is in the form of single particles having an average particle diameter D 50 of 1 to 10 μm, wherein a 100-nm region extending from the surface toward the center of a particle of the lithium composite transition metal oxide has crystal structures of a Fd3M space group and a Fm3m space group, wherein a phase ratio Fd3M/Fm3m, which is a ratio of the maximum straight length of portions occupied by the crystal structure of the Fd3M space group and the crystal structure of the Fm3m space group, is 0.2 to 0.7, as determined in a cross-sectional image of the particle surface part of the lithium composite transition metal oxide particle, which is obtained using transmission electron microscopy, and wherein the single particles are in the form of single particles formed of one primary particle or in the form of a secondary particle formed by agglomerating several primary particles.
A method in a distributed and nonhierarchical node for synchronizing a set of data items between said node and one or more distributed and nonhierarchical nodes communicatively coupled to form a cluster, wherein the set of data items are locally replicated at each node, the method comprising: determining that the set of data items in said node is not synchronized with the set of data items in the other nodes in the cluster; exchanging information in the form of metadata regarding missing or changed data items with all other nodes in the cluster; generating a data items send list for one or more nodes in the cluster; and synchronizing the set of data items in said node with the set of data items in the other nodes in the cluster by sending the data items on the data items send list to the one or more nodes in the cluster that are comprised in the data items send list, thereby distributing the actual missing or changed data items between the nodes, wherein the information regarding missing or changed data items that has been received in the form of metadata from the other nodes in the cluster is used to, for a limited period of time during the distribution of the actual missing or changed data items between the nodes, operate said node as if it has already been synchronized, for determinations of whether said node is synchronized with the other nodes in the cluster. determining that the set of data items in said node is not synchronized with the set of data items in the other nodes in the cluster; exchanging information in the form of metadata regarding missing or changed data items with all other nodes in the cluster; generating a data items send list for one or more nodes in the cluster; and synchronizing the set of data items in said node with the set of data items in the other nodes in the cluster by sending the data items on the data items send list to the one or more nodes in the cluster that are comprised in the data items send list, thereby distributing the actual missing or changed data items between the nodes,
An absorbent article comprising: a liquid permeable nonwoven topsheet comprising: natural fibers, a first side, a second side, and a semi-hydrophilic wax composition having a water Contact Angle of between about 35° and about 100° according to the Contact Angle Test disclosed herein disposed on at least portions of the natural fibers, wherein the nonwoven topsheet has a Fluid Strike-Through time of between about 0.5 second to about 18 seconds, preferably between about 0.5 seconds and about 12 seconds, and more preferably between about 1 second and about 5 seconds, according to the Fluid Strike-Through Test, and wherein the nonwoven topsheet has a wicking height of between about 0 mm and about 10 mm, preferably between about 0 mm and about 7 mm, and more preferably between about 0 mm and about 5 mm, according to the Topsheet Wicking Test; a liquid impermeable backsheet; and an absorbent core disposed at least partially between the nonwoven topsheet and the backsheet; wherein the semi-hydrophilic wax comprises a wax ester and a polyglyceryl emulsifier, and wherein a weight ratio of the wax ester to the polyglyceryl emulsifier is between about 1.5:1 and about 0.5:1, and preferably between about 1.25:1 and about 0.75:1. a liquid permeable nonwoven topsheet comprising: natural fibers, a first side, a second side, and a semi-hydrophilic wax composition having a water Contact Angle of between about 35° and about 100° according to the Contact Angle Test disclosed herein disposed on at least portions of the natural fibers, wherein the nonwoven topsheet has a Fluid Strike-Through time of between about 0.5 second to about 18 seconds, preferably between about 0.5 seconds and about 12 seconds, and more preferably between about 1 second and about 5 seconds, according to the Fluid Strike-Through Test, and wherein the nonwoven topsheet has a wicking height of between about 0 mm and about 10 mm, preferably between about 0 mm and about 7 mm, and more preferably between about 0 mm and about 5 mm, according to the Topsheet Wicking Test; a liquid impermeable backsheet; and an absorbent core disposed at least partially between the nonwoven topsheet and the backsheet; wherein the semi-hydrophilic wax comprises a wax ester and a polyglyceryl emulsifier, and wherein a weight ratio of the wax ester to the polyglyceryl emulsifier is between about 1.5:1 and about 0.5:1, and preferably between about 1.25:1 and about 0.75:1. wherein the semi-hydrophilic wax comprises a wax ester and a polyglyceryl emulsifier, and wherein a weight ratio of the wax ester to the polyglyceryl emulsifier is between about 1.5:1 and about 0.5:1, and preferably between about 1.25:1 and about 0.75:1.
A method of configuring, in a network node of a wireless communication network, a reference signal resource used to perform channel-state information, CSI, measurements with one or more wireless devices in the wireless communication network, the method comprising: aggregating a reference signal resource in one or more of a frequency and a time domain; and adjusting a density characteristic of the aggregated reference signal resource that is to be transmitted to the one or more wireless devices; characterized in that the density characteristic includes a number of ports in a radio access node from which the aggregated reference signal resource is to be transmitted, and the adjustment of the density characteristic is based at least partially on a beam management control parameter. aggregating a reference signal resource in one or more of a frequency and a time domain; and adjusting a density characteristic of the aggregated reference signal resource that is to be transmitted to the one or more wireless devices; characterized in that the density characteristic includes a number of ports in a radio access node from which the aggregated reference signal resource is to be transmitted, and the adjustment of the density characteristic is based at least partially on a beam management control parameter.
Hemostasis instrument (1, 1', 1") for actively stopping bleeding, in particular after an open, laparoscopic or endoscopic operation on a patient, comprising a plurality of hemostasis components, wherein at least the following hemostasis components are provided: a. a thermal hemostasis apparatus for tissue coagulation by generating a temperature above the coagulation temperature of biological tissue by means of a coagulation electrode; b. a biochemical hemostasis apparatus for generating a dielectric barrier discharge by means of at least one discharge electrode (19, 27) and an insulation apparatus (21, 21'), wherein the insulation apparatus is arranged between the discharge electrode and the tissue to be treated; c. an integrated supply and metering system for fibrinogen or a fibrinogen preparation, and d. a supply apparatus for supplying noble gas to the tissue to be treated. a. a thermal hemostasis apparatus for tissue coagulation by generating a temperature above the coagulation temperature of biological tissue by means of a coagulation electrode; b. a biochemical hemostasis apparatus for generating a dielectric barrier discharge by means of at least one discharge electrode (19, 27) and an insulation apparatus (21, 21'), wherein the insulation apparatus is arranged between the discharge electrode and the tissue to be treated; c. an integrated supply and metering system for fibrinogen or a fibrinogen preparation, and d. a supply apparatus for supplying noble gas to the tissue to be treated.
A computer-implemented method for improving traffic flow performance in a virtual network environment, the method comprising: measuring a first set of performance metrics for a first traffic flow directed over a production service chain, SC, wherein the production SC comprises one or more devices; cloning the production SC to produce a first cloned SC, wherein the first cloned SC comprises one or more devices corresponding to the production SC with a configuration change applied; measuring a second set of performance metrics for a second traffic flow directed over the cloned SC, wherein measuring the second set of performance metrics further comprises duplicating the first traffic flow to produce a second traffic flow and directing the second traffic flow over the first cloned SC; based on the first set of performance metrics and the second set of performance metrics, identifying that the configuration change is likely to improve flow performance for the first traffic flow directed over the production SC; and implementing the configuration change on the production SC. measuring a first set of performance metrics for a first traffic flow directed over a production service chain, SC, wherein the production SC comprises one or more devices; cloning the production SC to produce a first cloned SC, wherein the first cloned SC comprises one or more devices corresponding to the production SC with a configuration change applied; measuring a second set of performance metrics for a second traffic flow directed over the cloned SC, wherein measuring the second set of performance metrics further comprises duplicating the first traffic flow to produce a second traffic flow and directing the second traffic flow over the first cloned SC; based on the first set of performance metrics and the second set of performance metrics, identifying that the configuration change is likely to improve flow performance for the first traffic flow directed over the production SC; and implementing the configuration change on the production SC.
A vehicle door for a motor vehicle, having an external handle unit which includes a support part and a handle, wherein the support part is fixable to the shell door from the inside, and the shell door has an opening for the handle, wherein compensating elements are provided between the support part and the shell door to ensure tolerance compensation in three axes (X-Y-Z), wherein a plurality of compensating elements are arranged on the circumference of the support part, a fixing plate is additionally attached to the interior side of the shell door, wherein the fixing plate has an opening for the handle and a plurality of fixing points provided with internal threads which are aligned with the compensating elements, wherein the compensating elements are embodied to permit, by means of a fixing screw that is to be screwed in, both a compensating movement in the Y direction, and, due to a floating mounting, a compensation in the X and Z directions, characterized in that 3 or 4 alignment projections designed to abut a door cladding panel are arranged at intervals around the circumference of the support part on the side of the handle, and that each compensating element has a hollow cylindrical base element which is connected to the support part and a fixing sleeve which is in threaded engagement therewith, and which is in frictional engagement with the fixing screw via a spring element, so that a rotation of the fixing screw causes a movement of the fixing sleeve towards the fixing plate, and a further rotation of the fixing screw presses a screw head against the back of the support part for fixing thereof.
A method for controlling an air conditioner, the method comprising: determining whether a current power rate is greater than a preset reference power rate; determining a temperature distribution within a space to be cooled or heated by the air conditioner if the current power rate is greater than the preset reference power rate; and independently controlling a plurality of indoor units (140a,140b,140c,140d) provided in the space based on the determined temperature distribution, wherein independently controlling a plurality of indoor units (140a, 140b, 140c, 140d) provided in the space based on the determined temperature distribution comprises: partitioning the space into a plurality of regions corresponding to the plurality of indoor units; identifying a region of the plurality of regions requiring intensive cooling or heating based on the determined temperature distribution; and rotating a plurality of vanes respectively provided in a plurality of outlets respectively provided in the remaining indoor units (140a, 140b, 140c, 140d) so as to direct air discharged therefrom toward the identified region. determining whether a current power rate is greater than a preset reference power rate; determining a temperature distribution within a space to be cooled or heated by the air conditioner if the current power rate is greater than the preset reference power rate; and independently controlling a plurality of indoor units (140a,140b,140c,140d) provided in the space based on the determined temperature distribution, wherein independently controlling a plurality of indoor units (140a, 140b, 140c, 140d) provided in the space based on the determined temperature distribution comprises: partitioning the space into a plurality of regions corresponding to the plurality of indoor units; identifying a region of the plurality of regions requiring intensive cooling or heating based on the determined temperature distribution; and rotating a plurality of vanes respectively provided in a plurality of outlets respectively provided in the remaining indoor units (140a, 140b, 140c, 140d) so as to direct air discharged therefrom toward the identified region. partitioning the space into a plurality of regions corresponding to the plurality of indoor units; identifying a region of the plurality of regions requiring intensive cooling or heating based on the determined temperature distribution; and rotating a plurality of vanes respectively provided in a plurality of outlets respectively provided in the remaining indoor units (140a, 140b, 140c, 140d) so as to direct air discharged therefrom toward the identified region.
A ligand compound represented by the following Chemical Formula 1: in the Chemical Formula 1, at least one of R 1 to R 6 is a substituent represented by the following Chemical Formula 2, the other R 1 to R 6, which are not represented by the following Chemical Formula 2, are independently hydrogen, a C1-20 alkyl group which may or may not contain at least one heteroatom, a C3-20 cycloalkyl group, a C6-20 aryl group, a C7-20 arylalkyl group, a C7-20 alkylaryl group, or a C3-30 heteroaryl group, provided that at least one of those R 1 to R 6, that are not represented by the following Chemical Formula 2, is other than hydrogen, R 7 to R 10 are independently hydrogen, a C1-20 alkyl group which may or may not contain at least one heteroatom, a C3-20 cycloalkyl group, a C6-20 aryl group, a C7-20 arylalkyl group, a C7-20 alkylaryl group, or a C3-30 heteroaryl group, and two different neighboring groups of the R 7 to R 10 may be connected to each other to form a C6-20 aromatic ring, in the Chemical Formula 2, R 11 to R 14 are independently a C1-20 alkyl group, a C2-20 alkenyl group, a C6-20 aryl group, a C7-20 arylalkyl group, a C7-20 alkylaryl group, or a C7-20 alkoxyaryl group.
A method of forming a fluid-filled chamber for an article of footwear, the method comprising: positioning a first sheet of material in a pressure chamber; pressurizing the pressure chamber to a fluid pressure equal to a first value; forming a fluid-filled chamber from the first sheet of material, the fluid-filled chamber having a fluid pressure equal to the first value, wherein the fluid-filled chamber is defined by coupling a first portion of the first sheet of material to a second portion of the first sheet of material; and depressurizing the pressure chamber to reduce the fluid pressure within the pressure chamber to a second value by applying a vacuum to the pressure chamber. positioning a first sheet of material in a pressure chamber; pressurizing the pressure chamber to a fluid pressure equal to a first value; forming a fluid-filled chamber from the first sheet of material, the fluid-filled chamber having a fluid pressure equal to the first value, wherein the fluid-filled chamber is defined by coupling a first portion of the first sheet of material to a second portion of the first sheet of material; and depressurizing the pressure chamber to reduce the fluid pressure within the pressure chamber to a second value by applying a vacuum to the pressure chamber.
A liner for protective headgear adapted to be interposed between the interior surface thereof and a wearer's head received therein, the liner comprising: a plurality of fluid cells formed from a flexible, fluid-impermeable material, each fluid cell adapted to receive and store fluid therein, the plurality of fluid cells comprising a group of networked fluid cells (30, 302) which each communicate with at least one other via a fluid passageway (22, 222, 224, 226, 228) extending therebetween, and a group of discrete, non-networked fluid cells interspersed among the networked fluid cells (30, 302); wherein, when the fluid pressure in the fluid cells is at least at a predetermined minimum value, at least some of the discrete fluid cells are configured to position the headgear on a wearer's head and to maintain an initial spaced relationship between the user's head and the interior surface of the headgear in a neutral resting state, and the networked fluid cells of the liner are configured to distribute and thereby dissipate impact forces by transferring fluid from the compressed networked cells (30, 302) to others in the group via the fluid passageways (22, 222, 224, 226, 228). a plurality of fluid cells formed from a flexible, fluid-impermeable material, each fluid cell adapted to receive and store fluid therein, the plurality of fluid cells comprising a group of networked fluid cells (30, 302) which each communicate with at least one other via a fluid passageway (22, 222, 224, 226, 228) extending therebetween, and a group of discrete, non-networked fluid cells interspersed among the networked fluid cells (30, 302); wherein, when the fluid pressure in the fluid cells is at least at a predetermined minimum value, at least some of the discrete fluid cells are configured to position the headgear on a wearer's head and to maintain an initial spaced relationship between the user's head and the interior surface of the headgear in a neutral resting state, and the networked fluid cells of the liner are configured to distribute and thereby dissipate impact forces by transferring fluid from the compressed networked cells (30, 302) to others in the group via the fluid passageways (22, 222, 224, 226, 228).