mhurhangee/ep-ind-claims huggingface dataset:
Kit-of-parts for producing an aqueous coating agent containing, in each case based on the total weight of the coating agent, a. 3 to 25 wt.% binder, b. 5 to 25 wt.% cross-linking polymer, c. 0.5 to 10 wt.% particles having an average particle size of 1 to 20 μm, d. 0.01 to 2 wt.% of an alkaline component, e. 0.5 to 5 wt.% hardener, f. 30 to 70 wt.% water, wherein the aqueous coating agent has a pH of 8 to 10.5, and wherein the kit-of-parts comprises: A) an aqueous composition containing, in each case based on the total weight of the composition, i. 3 to 25 wt.% binder, ii. 5 to 25 wt.% cross-linking polymer, iii. 0.5 to 10 wt.% particles having an average particle size of 1 to 20 μm, iv. 0.01 to 2 wt.% of an alkaline component, v. 30 to 70 wt.% water B) a hardener, characterized in that the hardener is a carbodiimide and in that the binder is a mixture of two aqueous binder dispersions each having a solids content of 25 to 60 wt.%, wherein the binder is in the form of an aqueous polyurethane dispersion and an aqueous anionic polyester polyurethane dispersion. a. 3 to 25 wt.% binder, b. 5 to 25 wt.% cross-linking polymer, c. 0.5 to 10 wt.% particles having an average particle size of 1 to 20 μm, d. 0.01 to 2 wt.% of an alkaline component, e. 0.5 to 5 wt.% hardener, f. 30 to 70 wt.% water, wherein the aqueous coating agent has a pH of 8 to 10.5, and wherein the kit-of-parts comprises: A) an aqueous composition containing, in each case based on the total weight of the composition, i. 3 to 25 wt.% binder, ii. 5 to 25 wt.% cross-linking polymer, iii. 0.5 to 10 wt.% particles having an average particle size of 1 to 20 μm, iv. 0.01 to 2 wt.% of an alkaline component, v. 30 to 70 wt.% water B) a hardener, characterized in that the hardener is a carbodiimide and in that the binder is a mixture of two aqueous binder dispersions each having a solids content of 25 to 60 wt.%, wherein the binder is in the form of an aqueous polyurethane dispersion and an aqueous anionic polyester polyurethane dispersion. A) an aqueous composition containing, in each case based on the total weight of the composition, i. 3 to 25 wt.% binder, ii. 5 to 25 wt.% cross-linking polymer, iii. 0.5 to 10 wt.% particles having an average particle size of 1 to 20 μm, iv. 0.01 to 2 wt.% of an alkaline component, v. 30 to 70 wt.% water i. 3 to 25 wt.% binder, ii. 5 to 25 wt.% cross-linking polymer, iii. 0.5 to 10 wt.% particles having an average particle size of 1 to 20 μm, iv. 0.01 to 2 wt.% of an alkaline component, v. 30 to 70 wt.% water B) a hardener, characterized in that the hardener is a carbodiimide and in that the binder is a mixture of two aqueous binder dispersions each having a solids content of 25 to 60 wt.%, wherein the binder is in the form of an aqueous polyurethane dispersion and an aqueous anionic polyester polyurethane dispersion.
A method comprising: receiving a plurality of carbonate samples from a wellbore formed; determining an oxygen isotope ratio and carbon isotope ratio present within each of the plurality of carbonate samples; determining a mineral composition of each of the plurality of carbonate samples; creating a plot showing the determined oxygen isotope ratios versus a depth from where within the wellbore each of the plurality of carbonate samples was obtained; identifying, based on the plot, one or more negative oxygen isotope shifts; determining natural carbonate cement levels within one or more of the plurality of carbonate samples that correspond to the one or more negative oxygen isotope shifts identified in the plot; determining one or more production sweet spots based on the identified negative oxygen isotope shifts and the determined natural carbonate cement levels; the method being characterised in that: the method is performed during drilling of the wellbore, and it further comprises: steering a drill bit used for drilling the wellbore towards one or more identified sweet spots. receiving a plurality of carbonate samples from a wellbore formed; determining an oxygen isotope ratio and carbon isotope ratio present within each of the plurality of carbonate samples; determining a mineral composition of each of the plurality of carbonate samples; creating a plot showing the determined oxygen isotope ratios versus a depth from where within the wellbore each of the plurality of carbonate samples was obtained; identifying, based on the plot, one or more negative oxygen isotope shifts; determining natural carbonate cement levels within one or more of the plurality of carbonate samples that correspond to the one or more negative oxygen isotope shifts identified in the plot; determining one or more production sweet spots based on the identified negative oxygen isotope shifts and the determined natural carbonate cement levels; the method being characterised in that: the method is performed during drilling of the wellbore, and it further comprises: steering a drill bit used for drilling the wellbore towards one or more identified sweet spots.
Polyethylene composition comprising from 45 to 55 wt% of an ethylene polymer having a density of at least 968 kg/m 3, and from 55 to 45 wt% of an ethylene polymer having a density of 920 to 955 kg/m 3, wherein the composition has a density of 952 to 961 kg/m 3, a high load melt index HLMI of 18-28 g/10min, a ratio of HLMI / MI 2 of 80-150, and a melt elastic modulus G'(G"=3000) of 1200 - 1600 Pa, where HLMI and MI 2 are measured according to ISO1133 at a temperature of 190°C under loads of 21.6kg and 2.16kg respectively.
A method for recycling cigarette butts, each cigarette butt comprising at least tobacco, paper and a filter, said filter comprising cellulose acetate and paper, the method comprising the following steps: a) separating the filters into a first fraction F1 and the tobacco and paper from a mixture comprising tobacco, paper, and filters separated from each other into a second fraction F2, then recovering the first fraction F1, b) drying and depolluting said fraction F1 containing the filters by heating to a temperature of between 80 and 100°C, c) grinding the fraction F1 containing the dried and depolluted filters from step b) d) simultaneously mixing and depolluting the ground filters obtained in step c) with at least one thermoplastic polymer by heating in an extruder to obtain a composite material. a) separating the filters into a first fraction F1 and the tobacco and paper from a mixture comprising tobacco, paper, and filters separated from each other into a second fraction F2, then recovering the first fraction F1, b) drying and depolluting said fraction F1 containing the filters by heating to a temperature of between 80 and 100°C, c) grinding the fraction F1 containing the dried and depolluted filters from step b) d) simultaneously mixing and depolluting the ground filters obtained in step c) with at least one thermoplastic polymer by heating in an extruder to obtain a composite material.
An ear protector that comprises: - a hollow body that defines a cavity suitable for receiving an ear, - a first fastening means, and - a second fastening means, wherein the hollow body is provided with an orifice that has an open configuration in which an ear can pass through the orifice and a reduced size configuration in which said ear cannot pass through the orifice, wherein the hollow body has a stretched configuration in which an ear can be freely moved with respect to the cavity and an engaging configuration in which at least a portion of the hollow body has a reduced size as compared to the stretched configuration and in which said ear cannot be freely moved with respect to the cavity, wherein the first fastening means substantially encircles the orifice and is elastic in nature, wherein the elastic nature of the first fastening means serves to bias the orifice into the reduced size configuration and wherein the first fastening means can be stretched to place the orifice into the open configuration, and wherein the second fastening means substantially encircles the first fastening means and is elastic in nature, wherein the elastic nature of the second fastening means serves to bias the hollow body into the engaging configuration and wherein the second fastening means can be stretched to place the hollow body into the stretched configuration; characterised in that the second fastening means is formed from the same material as the hollow body and wherein the second fastening means is thicker than the hollow body. - a hollow body that defines a cavity suitable for receiving an ear, - a first fastening means, and - a second fastening means,
An anchoring assembly for an elongate medical device, the assembly comprising: a plate member generally defining a plane and including a slot that extends generally along the plane, the slot including a first side, a second side, opposite the first side, and an opening located at a perimeter of the plate member, from which the first and second sides extend; a securing element attached to the plate member and overlaying a surface of the plate, the surface being substantially parallel to the defined plane of the plate member, the securing element including an engagement surface and a spring member, the spring member including a first portion fixed to the plate member, and a second, moveable portion coupled to the engagement surface to move the engagement surface, relative to the plate member, between an open position and a closed position, the engagement surface being spaced apart from the first side of the slot by a first distance in the open position, and being spaced apart from the first side of the slot by a second distance in the closed position, the first distance allowing insertion of the elongate medical device through the slot opening and between the engagement surface and the first side of the slot, and the second distance being less than the first distance at which the engagement surface anchors the inserted device; and a retaining member configured to engage and disengage with the securing element; characterised in that the retaining member, when engaged, holds the moveable portion of the spring member against a bias of the spring member, to keep the engagement surface of the securing element in the open position; and when the retaining member is disengaged, the moveable portion of the spring member is released to move the engagement surface to the closed position. a plate member generally defining a plane and including a slot that extends generally along the plane, the slot including a first side, a second side, opposite the first side, and an opening located at a perimeter of the plate member, from which the first and second sides extend; a securing element attached to the plate member and overlaying a surface of the plate, the surface being substantially parallel to the defined plane of the plate member, the securing element including an engagement surface and a spring member, the spring member including a first portion fixed to the plate member, and a second, moveable portion coupled to the engagement surface to move the engagement surface, relative to the plate member, between an open position and a closed position, the engagement surface being spaced apart from the first side of the slot by a first distance in the open position, and being spaced apart from the first side of the slot by a second distance in the closed position, the first distance allowing insertion of the elongate medical device through the slot opening and between the engagement surface and the first side of the slot, and the second distance being less than the first distance at which the engagement surface anchors the inserted device; and a retaining member configured to engage and disengage with the securing element; characterised in that
A basket for a telecommunications tray, the basket comprising: a) a bottom wall; b) a sidewall extending from the bottom wall, the sidewall and bottom wall defining an interior volume, the sidewall including a first opening for allowing optical fibers to enter the interior volume and a second opening for allowing optical fibers to exit the interior volume; c) a first cable retention structure proximate the first opening, the first cable retention structure being for retaining a plurality of optical fiber cables having a first nominal diameter; d) a second cable retention structure for retaining the plurality of optical fiber cables housed in overtubing, the overtubing having a second nominal diameter larger than the first nominal diameter; and e) a first cable storage area located proximate the second opening; f) wherein the second cable retention structure is located between the first cable retention structure and the first cable storage area. a) a bottom wall; b) a sidewall extending from the bottom wall, the sidewall and bottom wall defining an interior volume, the sidewall including a first opening for allowing optical fibers to enter the interior volume and a second opening for allowing optical fibers to exit the interior volume; c) a first cable retention structure proximate the first opening, the first cable retention structure being for retaining a plurality of optical fiber cables having a first nominal diameter; d) a second cable retention structure for retaining the plurality of optical fiber cables housed in overtubing, the overtubing having a second nominal diameter larger than the first nominal diameter; and e) a first cable storage area located proximate the second opening; f) wherein the second cable retention structure is located between the first cable retention structure and the first cable storage area.
A material to be painted comprising: a base material; and an ink receiving layer comprising a resin serving as a matrix disposed on a surface of the base material, which layer being paintable by: applying an actinic radiation-curable ink by inkjet printing; and irradiating the actinic radiation curable ink with an actinic radiation, wherein the surface of the ink receiving layer has an arithmetic average roughness Ra1 of 400 to 3,000 nm as measured in accordance with JIS B 0601, the surface of the ink receiving layer has an arithmetic average roughness Ra2 of 70 to 500 nm as measured using a tapping mode atomic force microscope with a measurement range of 30 μm×30 μm and pixel data of 512×512, the ink receiving layer contains 50 to 75wt% of pigment, and, the pigment includes 10 to 30wt% of pigment whose particle size is 4 μm or larger. a base material; and an ink receiving layer comprising a resin serving as a matrix disposed on a surface of the base material, which layer being paintable by: applying an actinic radiation-curable ink by inkjet printing; and irradiating the actinic radiation curable ink with an actinic radiation, wherein the surface of the ink receiving layer has an arithmetic average roughness Ra1 of 400 to 3,000 nm as measured in accordance with JIS B 0601, the surface of the ink receiving layer has an arithmetic average roughness Ra2 of 70 to 500 nm as measured using a tapping mode atomic force microscope with a measurement range of 30 μm×30 μm and pixel data of 512×512, the ink receiving layer contains 50 to 75wt% of pigment, and, the pigment includes 10 to 30wt% of pigment whose particle size is 4 μm or larger.
A method for identifying a critical link in a path between a source node and a destination node in a wireless mesh network, wherein said method comprises the steps of: - receiving, by an intermediate node in said wireless mesh network, a forwarding path request, PREQ, message relating to a discovery of a path between said source node and said destination node, - determining, by said intermediate node, that further PREQ message relating to the discovery of said path are not received during a predetermined duration, and, triggered by said determination, setting a first critical flag in a discovery table entry associated with said path between said source node and said destination node, and - forwarding, by said intermediate node, said received PREQ message to one or more other nodes in said wireless mesh network. - receiving, by an intermediate node in said wireless mesh network, a forwarding path request, PREQ, message relating to a discovery of a path between said source node and said destination node, - determining, by said intermediate node, that further PREQ message relating to the discovery of said path are not received during a predetermined duration, and, triggered by said determination, setting a first critical flag in a discovery table entry associated with said path between said source node and said destination node, and - forwarding, by said intermediate node, said received PREQ message to one or more other nodes in said wireless mesh network.
A vacuum wall crawler having at least one vacuum track unit comprising: - a track frame; - two pulleys (140, 141) provided in opposite ends of the track frame, and defining a wheelbase therebetween; - an endless track arranged to circulate on the two pulleys (140, 141), and comprising a flexible band, said flexible band comprising a plurality of apertures, and having a thickness; - a vacuum distribution box provided in said track frame wherein the vacuum distribution box is in communication with a portion of the apertures to distribute a vacuum to the portion of apertures as the endless track circulates, characterized in that, the thickness of the flexible band is 5-20% of the wheel base. - a track frame; - two pulleys (140, 141) provided in opposite ends of the track frame, and defining a wheelbase therebetween; - an endless track arranged to circulate on the two pulleys (140, 141), and comprising a flexible band, said flexible band comprising a plurality of apertures, and having a thickness; - a vacuum distribution box provided in said track frame
An atomizer, comprising a module for e-liquid injection and vapor circulation; the module comprising a first silicone fixing part, a first glass tube, a second glass tube disposed in the first glass tube, a sealing gasket having a central hole, and a ceramic core; wherein: a top end of the first glass tube and a top end of the second glass tube are fixed on the first silicone fixing part; and the first silicone fixing part comprises a side wall comprising a groove; and a space is disposed between the first glass tube and the second glass tube; characterized in that: the sealing gasket is disposed within a bottom end of the ceramic core; a bottom end of the second glass tube is disposed within the ceramic core, and the bottom end of the second glass tube is supported on the sealing gasket or extends through the central hole of the sealing gasket; a top opening of the second glass tube is adapted for injection of the e-liquid; the ceramic core is adapted to receive the e-liquid from the second glass tube and atomize the e-liquid to produce vapor; the space is adapted for conveying an air-vapor flow to be inhaled by a user; and the space is devoid of the e-liquid in the second glass tube or in the ceramic core. a top end of the first glass tube and a top end of the second glass tube are fixed on the first silicone fixing part; and the first silicone fixing part comprises a side wall comprising a groove; and a space is disposed between the first glass tube and the second glass tube; the sealing gasket is disposed within a bottom end of the ceramic core; a bottom end of the second glass tube is disposed within the ceramic core, and the bottom end of the second glass tube is supported on the sealing gasket or extends through the central hole of the sealing gasket; a top opening of the second glass tube is adapted for injection of the e-liquid; the ceramic core is adapted to receive the e-liquid from the second glass tube and atomize the e-liquid to produce vapor; the space is adapted for conveying an air-vapor flow to be inhaled by a user; and the space is devoid of the e-liquid in the second glass tube or in the ceramic core.
Sealing device in the form of a bellows shaped from a cylindrical membrane pleated with hollows between two pleats, which external and internal hollows contain reinforcers which form a reinforcement, which reinforcers (3, 4) are made up of rings which comprise a bead-shaped part (5, 8) housed in each of the hollows of the said membrane, between two pleats, and a part that projects with respect to the said membrane, acting as a heel (6, 9), characterized in that the heel (6, 9) has a width the dimension of which is chosen in order to maintain between the external adjacent reinforcers and the internal adjacent reinforcers, a space which acts as a housing for the said membrane, the width (e) of this space, at any point on the said housing being greater than the thickness (m) of the said membrane when the bellows is fully compressed.
A method for forming laminated floor covering product comprising: heating a base layer sheet comprising a plastic material to a first temperature; receiving the heated base layer sheet onto a surface of a rotating process drum; applying a patterned film to the base layer sheet by laminating at a circumferential location on the process drum located before a first laminating station; preheating a wear layer film separate from the process drum to a second temperature; and laminating the wear layer film onto the patterned film at the first laminating station thereby forming a flooring laminate. heating a base layer sheet comprising a plastic material to a first temperature; receiving the heated base layer sheet onto a surface of a rotating process drum; applying a patterned film to the base layer sheet by laminating at a circumferential location on the process drum located before a first laminating station; preheating a wear layer film separate from the process drum to a second temperature; and laminating the wear layer film onto the patterned film at the first laminating station thereby forming a flooring laminate.