mhurhangee/ep-ind-claims huggingface dataset:
A method of forming an article (110, 110') made of a metal matrix composite material having particles bonded to an anodizable matrix material, wherein optionally the particles comprise an anodizable material, comprising: anodizing the anodizable matrix material to form an anodic layer on the anodizable matrix material; machining at least a portion of the anodic layer; removing at least a portion of the anodic layer after machining by etching, abrasive blasting or chemical stripping to remove a predetermined material thickness to expose at least a portion of the particles that are intact and bonded to the anodizable matrix material; inspecting the article to determine whether the article is within a predetermined tolerance; and repeating at least the anodizing, machining, and inspecting steps until the article is within the predetermined tolerance. anodizing the anodizable matrix material to form an anodic layer on the anodizable matrix material; machining at least a portion of the anodic layer; removing at least a portion of the anodic layer after machining by etching, abrasive blasting or chemical stripping to remove a predetermined material thickness to expose at least a portion of the particles that are intact and bonded to the anodizable matrix material; inspecting the article to determine whether the article is within a predetermined tolerance; and repeating at least the anodizing, machining, and inspecting steps until the article is within the predetermined tolerance.
A device for installing asphalt on a road substrate, comprising: - a vehicle that is displaceable, on lateral running gears (6a, 6b), in a direction of travel on the road substrate; - a paving screed attached to the vehicle in a height-adjustable manner and aligned transversely to the direction of travel, which paving screed extends over a predetermined paving width, in order to smoothen asphalt poured onto the road substrate in front of the vehicle to form an asphalt surface, the paving screed being located between or in front of the lateral running gears (6a, 6b) in the direction of travel; wherein the vehicle is configured for rail-free operation, characterized in that the device is provided with actuating means (12, 12a, 12b) for continuously adjusting the height of the paving screed according to a predefined level course of the asphalt substrate, wherein the actuating means cooperate with a position determining device which comprises a vehicle-fixed component and a stationary component. - a vehicle that is displaceable, on lateral running gears (6a, 6b), in a direction of travel on the road substrate; - a paving screed attached to the vehicle in a height-adjustable manner and aligned transversely to the direction of travel, which paving screed extends over a predetermined paving width, in order to smoothen asphalt poured onto the road substrate in front of the vehicle to form an asphalt surface, the paving screed being located between or in front of the lateral running gears (6a, 6b) in the direction of travel;
A method for forming shaped label stacks with the help of a strip stack cross-cutter and of a die-cutting device, between which a conveying section is present, wherein a multitude of sheets cut into strip stacks is present and these strip stacks are cut into stack packets and led to the die-cutting device, whereupon here the stack packet are die-cut into shaped label stacks, characterised in that two or more stack packets are moved relative to one another such that several stack packets (6, 7) layered on one another are led to the die-cutting device, whereupon here the stack packets are die-cut into shaped label stacks.
A composite floor, comprising a coextrusion layer compression moulded by using a coextrusion process, the coextrusion layer comprising a first stone-plastic layer, a stone-plastic foaming layer, and a second stone-plastic layer sequentially arranged from top to bottom, wherein the first stone-plastic layer and the second stone-plastic layer are made from identical materials, characterized in that the first stone-plastic layer is mainly made from following raw materials of parts by weight: polyvinyl chloride 70-80 parts by weight, calcium carbonate 140-160 parts by weight, calcium-zinc stabilizer 6-8 parts by weight, chlorinated polyethylene 4-6 parts by weight, stearic acid 0.35-0.65 parts by weight, acrylic resin 1-2 parts by weight, polyethylene wax 0.6-0.8 parts by weight, and carbon black 0.25-0.35 parts by weight.
A thrust reverser door comprising: a backskin comprising an interior surface and an exterior loft surface; a cover plate comprising cover plate body, having a first side and a second side opposite the first side; and a grid structure mounted to the second side of the cover plate body and the interior surface of the backskin, the grid structure defined by a plurality of ribs; wherein the grid structure comprises a plurality of nodes formed at interfaces between intersecting ribs of the plurality of ribs, the plurality of nodes including a respective plurality of apertures for the passage of a plurality of fasteners therethrough for mounting the cover plate to the backskin, and wherein the grid structure is mounted to the interior surface of the backskin at the plurality of nodes. a backskin comprising an interior surface and an exterior loft surface; a cover plate comprising cover plate body, having a first side and a second side opposite the first side; and a grid structure mounted to the second side of the cover plate body and the interior surface of the backskin, the grid structure defined by a plurality of ribs; wherein the grid structure comprises a plurality of nodes formed at interfaces between intersecting ribs of the plurality of ribs, the plurality of nodes including a respective plurality of apertures for the passage of a plurality of fasteners therethrough for mounting the cover plate to the backskin, and wherein the grid structure is mounted to the interior surface of the backskin at the plurality of nodes.
A portable media device for providing media content to mobile devices outside of a home network, the portable media device, comprising: a processor in communication with a memory, the memory being configured to maintain media content, a transceiver, and a GPS module configured to form a geofence around a first location, the processor configured to: recognize the first location when the media device enters the geofence; recognize a home network provided at the first location, wherein the home network provides wireless capabilities to the first location; instruct the transceiver to transmit a media request to an in-home media recorder connected to the home network and at the first location, wherein the in-home media recorder is a hardware device configured to provide a connection; determine, in response to the media request, whether the in-home media recorder includes new media content not stored within the memory; receive the new media content from the media recorder in response to the media recorder including media content not stored within the memory; store the new media content in the memory; recognize a mobile device by receiving a content request for media content via a wireless network from the mobile device, the wireless network being distinct and separate from the home network and not available at the first location; determine whether the mobile device has permission to access media content stored in the memory; and transmit the media content in response to the mobile device having permission to access the media content. recognize the first location when the media device enters the geofence; recognize a home network provided at the first location, wherein the home network provides wireless capabilities to the first location; instruct the transceiver to transmit a media request to an in-home media recorder connected to the home network and at the first location, wherein the in-home media recorder is a hardware device configured to provide a connection; determine, in response to the media request, whether the in-home media recorder includes new media content not stored within the memory; receive the new media content from the media recorder in response to the media recorder including media content not stored within the memory; store the new media content in the memory; recognize a mobile device by receiving a content request for media content via a wireless network from the mobile device, the wireless network being distinct and separate from the home network and not available at the first location; determine whether the mobile device has permission to access media content stored in the memory; and transmit the media content in response to the mobile device having permission to access the media content.
Method of manufacturing an elongated curved article having a shaft and a functional head section, the method comprising the steps of: a) providing a dimensionally stable core mandrel, wherein the core mandrel substantially extends from a grip end of the shaft to an outer end of the functional head section; b) overlaying first reinforcing fibers onto the core mandrel to form one or more first wall parts (31, 32, 33a, 33b); c) providing at least one shaping element (2a, 2b, 4a, 4b) to the overlaid core mandrel; d) overlaying second reinforcing fibers onto the core mandrel and the at least one shaping element (2a, 2b, 4a, 4b) to form one or more second wall parts (41, 41-1); e) providing a matrix material and consolidating the matrix material; wherein the core mandrel is provided to form an elongated curved article having a well defined inner cavity, wherein the method further comprises f) removing the core mandrel or a part of the core mandrel after step e) to form the inner cavity, wherein the inner cavity substantially extends from a grip end of the shaft to an outer end of the functional head section, and g) providing the inner cavity with at least one weight distributing element of which a cross-sectional dimension is about equal to a cross-sectional dimension of the inner cavity, wherein the at least one weight distributing element has a relatively low stiffness to be able to accommodate a curvature in the elongated article, and wherein a dimension is considered about equal to another dimension when deviating less than 10 % from the other dimension. a) providing a dimensionally stable core mandrel, wherein the core mandrel substantially extends from a grip end of the shaft to an outer end of the functional head section; b) overlaying first reinforcing fibers onto the core mandrel to form one or more first wall parts (31, 32, 33a, 33b); c) providing at least one shaping element (2a, 2b, 4a, 4b) to the overlaid core mandrel; d) overlaying second reinforcing fibers onto the core mandrel and the at least one shaping element (2a, 2b, 4a, 4b) to form one or more second wall parts (41, 41-1); e) providing a matrix material and consolidating the matrix material;
A process for producing an extract from a Neobeguea spp. root tissue, the process for producing the extract involving at least one of the steps: (i) isolating a lipid soluble fraction, and (ii) isolating a high molecular weight fraction. (i) isolating a lipid soluble fraction, and (ii) isolating a high molecular weight fraction.
A preparation comprising: A) thermoplastic polyurethane produced at least from the following starting materials: (a) isocyanate, (b) a substance which is reactive toward isocyanate and which preferably has a number-average molar mass of from 500 g/mol to 100 × 10 3 g/mol, and which is preferably a polyol, and also preferably (c) chain extender and/or (d) catalyst, B) as other starting materials (e) additional and/or auxiliary substances, which are either added to the thermoplastic polyurethane during the production process and thus are comprised in the thermoplastic polyurethane and/or are comprised in the preparation in addition to the thermoplastic polyurethane, where at least one of the starting materials comprises a phenoxy group or a derivative of the phenoxy group, preferably a phenoxy group, wherein the phenol content of the preparation or the sum of the phenol contents of the thermoplastic polyurethane comprised in the preparation and of all of the other starting materials is less than 100 ppm by weight, preferably less than 50 ppm by weight, more preferably less than 20 ppm by weight, and particularly preferably less than 10 ppm by weight, where the base number of the preparation or the base number of the mixture of the thermoplastic polyurethane comprised in the preparation and of all of the starting materials present is smaller than 2. A) thermoplastic polyurethane produced at least from the following starting materials: (a) isocyanate, (b) a substance which is reactive toward isocyanate and which preferably has a number-average molar mass of from 500 g/mol to 100 × 10 3 g/mol, and which is preferably a polyol, and also preferably (c) chain extender and/or (d) catalyst, B) as other starting materials (e) additional and/or auxiliary substances, which are either added to the thermoplastic polyurethane during the production process and thus are comprised in the thermoplastic polyurethane and/or are comprised in the preparation in addition to the thermoplastic polyurethane, where at least one of the starting materials comprises a phenoxy group or a derivative of the phenoxy group, preferably a phenoxy group, wherein the phenol content of the preparation or the sum of the phenol contents of the thermoplastic polyurethane comprised in the preparation and of all of the other starting materials is less than 100 ppm by weight, preferably less than 50 ppm by weight, more preferably less than 20 ppm by weight, and particularly preferably less than 10 ppm by weight, where the base number of the preparation or the base number of the mixture of the thermoplastic polyurethane comprised in the preparation and of all of the starting materials present is smaller than 2.
A gas-solution equilibrium device for use in a liquid sample gas analyzer comprising: a heating mechanism; a coil of gas-permeable tubing having an inlet and an outlet; and a housing having an internal space containing the coil of gas-permeable tubing and a volume of gas, wherein the coil of gas-permeable tubing has a predefined linear length and the gas-permeable tubing has a predefined wall thickness, characterized in that the gas-solution equilibrium device further comprises a temperature-controlled, thermally-conductive mandrel; wherein the heating mechanism is arranged for heating the mandrel; the coil of gas-permeable tubing is wrapped around the mandrel; the internal space of the housing also contains the temperature-controlled, thermally-conductive mandrel, and the combination of the temperature-controlled, thermally-conductive mandrel, the coil of gas-permeable tubing and the volume of gas together is capable of equilibrating a liquid passing through the coil at a predefined flow rate with the gas within the internal space to provide a gas calibration solution in real time at the outlet of the tubing for the liquid gas analyzer. a heating mechanism; a coil of gas-permeable tubing having an inlet and an outlet; and a housing having an internal space containing the coil of gas-permeable tubing and a volume of gas, wherein the coil of gas-permeable tubing has a predefined linear length and the gas-permeable tubing has a predefined wall thickness, characterized in that the gas-solution equilibrium device further comprises a temperature-controlled, thermally-conductive mandrel; wherein the heating mechanism is arranged for heating the mandrel; the coil of gas-permeable tubing is wrapped around the mandrel; the internal space of the housing also contains the temperature-controlled, thermally-conductive mandrel, and the combination of the temperature-controlled, thermally-conductive mandrel, the coil of gas-permeable tubing and the volume of gas together is capable of equilibrating a liquid passing through the coil at a predefined flow rate with the gas within the internal space to provide a gas calibration solution in real time at the outlet of the tubing for the liquid gas analyzer. a temperature-controlled, thermally-conductive mandrel; wherein the heating mechanism is arranged for heating the mandrel; the coil of gas-permeable tubing is wrapped around the mandrel; the internal space of the housing also contains the temperature-controlled, thermally-conductive mandrel, and the combination of the temperature-controlled, thermally-conductive mandrel, the coil of gas-permeable tubing and the volume of gas together is capable of equilibrating a liquid passing through the coil at a predefined flow rate with the gas within the internal space to provide a gas calibration solution in real time at the outlet of the tubing for the liquid gas analyzer.
An external defibrillator including patient electrodes for obtaining the patient's electrocardiogram and for applying a shock to a patient, circuit means (12, 14) for analysing the patient's ECG using a diagnostic algorithm to detect if the patient's heart is in a shockable rhythm, and shock delivery circuitry which is enabled when a shockable rhythm is detected by the diagnostic algorithm, wherein the patient electrodes also allow obtaining a signal which is a measure of the patient's transthoracic impedance and the circuit means (12, 14) is configured to be responsive to Z to detect interference conditions likely to cause the diagnostic algorithm to generate a false detection of a shockable rhythm and, if such detection is made, to prevent detection of a shockable rhythm by the diagnostic algorithm, at least for a period of time, wherein the circuit means (12, 14) is configured to detect said interference conditions by using a microprocessor of the circuit means for analog to digital converting of the signal Z, and in respect of successive digital values of Z, forming the first derivative (dZ/dt) of Z, deriving a quantity related to the energy of dZ/dt, determining if said energy-related quantity exceeds a certain threshold level, if said energy-related quantity exceeds the certain threshold level setting a value of a flag to 1, otherwise setting a value of the flag to 0, and in a moving time window averaging values of the flag over the time window and if an average of the flag values is greater than a further threshold level detecting interference conditions.
A film comprising at least one moisture barrier layer comprising a polymer blend comprising (a) high density polyethylene in an amount from 69% to 90% by weight of the blend, wherein the high density polyethylene has a melt index of at least 1.0 g/10 min and a density greater than 0.958 g/cc; (b) hydrocarbon resin in an amount from 5% to 30% by weight of the blend; and (c) nucleating agent in an amount from 0.01% to 1% by weight of the blend; and at least one additional layer comprising an ionomer, a high density polyethylene, a polyethylene terephthalate, a copolymer of ethylene and an ester, or a styrene butadiene copolymer; wherein the film is a non-oriented film and has a normalized moisture vapor transmission rate of no greater than 118 g-micron/m 2 /day (0.30 g-mil/100in 2 /day) as measured at 37.8°C (100 °F) and 90% external relative humidity.
A mechanical device for transmitting a rotational movement about a so-called main axis of rotation from a first segment to a second segment of a robot, said device comprising: - a first assembly (102;400), provided to be attached to said first segment, - a second assembly (104;500), provided to be attached to said second segment, - a drive means (108;404) between said assemblies (102;400,104;500); wherein, on the side of one of said assemblies (104;500), said drive means (108;404) is connected to said assembly (104;500) by a connecting interface (110;506), elastically rotatable about a so-called secondary axis of rotation (112;505), fixed with respect to said assembly (104;500), allowing rotation of said drive means (108;404) with respect to said assembly (104;500), characterized in that the device comprises, on the side of the same assembly (102;400,104;500), two connecting interfaces (110;506), cooperating with the same return mechanism (114,200) elastically opposing the rotation of each connecting interface (110;506). - a first assembly (102;400), provided to be attached to said first segment, - a second assembly (104;500), provided to be attached to said second segment, - a drive means (108;404) between said assemblies (102;400,104;500);
An electrode for a secondary battery, comprising: a collector; and an active material layer formed on the collector, wherein the active material layer includes an active material and carbon nanotubes, and at least a part of a surface of the carbon nanotube is coated with a material including an element with a lower electronegativity than that of carbon, characterized in that the content of the carbon nanotube in the active material layer is 0.1 mass% or more and 15 mass% or lower, the average length of the carbon nanotubes is 3 μm or more and 50 μm or less, wherein the average length of the carbon nanotubes is determined as the average values of the lengths of 30 or more carbon nanotubes, respectively, by taking the electron micrograph of the each carbon nanotube, and the coating ratio of the surface of the carbon nanotube with the material including an element with a lower electronegativity than that of carbon is 40% or more and 70% or lower, wherein the coverage rate of the carbon nanotube is determined: acquiring a cross-section EDS mapping image using an energy dispersion type X ray analysis device, identifying an element deposited at the carbon nanotube, and calculating, in the cross-section EDS mapping image, a coverage rate by: (total of the deposition distances of element(s))/(entire circumferential length of carbon nanotube) ∗ 100. a collector; and an active material layer formed on the collector, wherein the active material layer includes an active material and carbon nanotubes, and at least a part of a surface of the carbon nanotube is coated with a material including an element with a lower electronegativity than that of carbon, characterized in that the content of the carbon nanotube in the active material layer is 0.1 mass% or more and 15 mass% or lower, the average length of the carbon nanotubes is 3 μm or more and 50 μm or less, wherein the average length of the carbon nanotubes is determined as the average values of the lengths of 30 or more carbon nanotubes, respectively, by taking the electron micrograph of the each carbon nanotube, and the coating ratio of the surface of the carbon nanotube with the material including an element with a lower electronegativity than that of carbon is 40% or more and 70% or lower, wherein the coverage rate of the carbon nanotube is determined: acquiring a cross-section EDS mapping image using an energy dispersion type X ray analysis device, identifying an element deposited at the carbon nanotube, and calculating, in the cross-section EDS mapping image, a coverage rate by: (total of the deposition distances of element(s))/(entire circumferential length of carbon nanotube) ∗ 100. acquiring a cross-section EDS mapping image using an energy dispersion type X ray analysis device, identifying an element deposited at the carbon nanotube, and calculating, in the cross-section EDS mapping image, a coverage rate by: (total of the deposition distances of element(s))/(entire circumferential length of carbon nanotube) ∗ 100.