mhurhangee/ep-ind-claims huggingface dataset:
A device including: a catheter shaft; a balloon in pressure communication with the catheter shaft; and a first overmold coupling the balloon to the catheter shaft, the first overmold extending from the balloon to a shut-off ridge. a catheter shaft; a balloon in pressure communication with the catheter shaft; and a first overmold coupling the balloon to the catheter shaft, the first overmold extending from the balloon to a shut-off ridge.
A two-component curing composition for an automotive material used in an automobile manufacturing line, wherein said two-component curing composition is composed of: a liquid A comprising a thermoplastic resin and a plasticizer, wherein the thermoplastic resin is selected from the group consisting of acrylic resins; MBS resins; polyvinyl chloride; vinyl chloride copolymers; ionomer resins; AAS resins; AES resins; AS resins; ABS resins; thermoplastic polyurethane resins, and polyester resins; and a liquid B comprising a gelling agent containing a dibasic acid ester, wherein the liquid A and the liquid B form a gel when they are mixed at room temperature and wherein the dibasic acid ester is a malonic acid diester, a succinic acid diester or a glutaric acid diester. a liquid A comprising a thermoplastic resin and a plasticizer, wherein the thermoplastic resin is selected from the group consisting of acrylic resins; MBS resins; polyvinyl chloride; vinyl chloride copolymers; ionomer resins; AAS resins; AES resins; AS resins; ABS resins; thermoplastic polyurethane resins, and polyester resins; and a liquid B comprising a gelling agent containing a dibasic acid ester, wherein the liquid A and the liquid B form a gel when they are mixed at room temperature and wherein the dibasic acid ester is a malonic acid diester, a succinic acid diester or a glutaric acid diester.
Preparation for use as a plant protection agent, which has at least one copper-containing component, at least one basic component and at least one wetting agent; characterised in that the wetting agent is selected from docusate sodium or a combination of docusate sodium and sodium dodecyl sulphate and that the basic component is potassium hydrogen carbonate and/or sodium hydrogen carbonate.
Apparatus for applying glue to workpieces or webs, which apparatus comprises a nozzle plate past which the workpiece or the web can be conducted in a transport direction (x) and which comprises at least one glue outlet opening, wherein at least one glue valve is arranged on or in the nozzle plate, with which glue valve a flow of glue between a glue reservoir and/or glue supply lines and the at least one glue outlet opening can be produced and can be interrupted such that the glue can be applied in a desired format to that surface of the workpiece or of the web which is to be glued, wherein the nozzle plate comprises a first surface which faces the workpiece or the web, and a second surface which is arranged at the rear end of the nozzle plate, as seen in the transport direction (x), wherein the first surface and the second surface take up an angle (α) which is less than 90 degrees with respect to each other, characterized in that further media outlet openings are arranged in the region of the rear end of the nozzle plate.
An energy storage module for a voltage supply device, especially in a motor vehicle, comprising a number of storage cells, especially prismatic ones, stacked in at least one row, disposed one behind the other and clamped between at least two end plates by at least one tie rod (20, 25), wherein at least one end plate has a layer structure in at least three layers (11, 12, 13), characterised in that all the layers (11, 12, 13) of the end plate and of the tie rod (20, 25) are made of a composite fibre material.
A method for determining an adjustment of a tilt angle (α1, α2) for a beam (142, 144) emitted from an antenna of a base station which is serving a vertically sectorized cell of a cellular radio telecommunication network, the method comprising configuring user equipments (162, 164) being located in the vertically sectorized cell with dedicated measurements, collecting the dedicated measurements for a specific time interval, obtaining a spatial user equipment distribution among a first sector of the cell and a second sector of the cell based on the collected dedicated measurements, ascertaining an optimized spatial overlap region between the first sector and the second sector based on the obtained spatial user equipment distribution, wherein the optimized spatial overlap region is a handover zone for the user equipments (162, 164) between the first sector and the second sector, and determining the adjustment of the tilt angle (al, α2) based on the ascertained optimized spatial overlap region, wherein the dedicated measurements of selected user equipments (162, 164) exclusively configured with the dedicated measurements are collected, which selected user equipments (162, 164) are located in a predefined spatial overlap region between the first sector and the second sector. configuring user equipments (162, 164) being located in the vertically sectorized cell with dedicated measurements, collecting the dedicated measurements for a specific time interval, obtaining a spatial user equipment distribution among a first sector of the cell and a second sector of the cell based on the collected dedicated measurements, ascertaining an optimized spatial overlap region between the first sector and the second sector based on the obtained spatial user equipment distribution, wherein the optimized spatial overlap region is a handover zone for the user equipments (162, 164) between the first sector and the second sector, and determining the adjustment of the tilt angle (al, α2) based on the ascertained optimized spatial overlap region, wherein the dedicated measurements of selected user equipments (162, 164) exclusively configured with the dedicated measurements are collected, which selected user equipments (162, 164) are located in a predefined spatial overlap region between the first sector and the second sector.
A computer-implemented method, comprising: capturing, by a client device, a first image of a user, the first image including a reference token for a user-wearable item, the reference token being worn by the user in the first image and having a known three-dimensional model; automatically generating, by the client device, a three-dimensional model of a face of the user from the first image of the user, the three-dimensional model of the face of the user including dimensions based on the known-three-dimensional model of the reference token; displaying, by the client device, images of multiple user-wearable items for the user; receiving an input from the user, the input indicative of a selected user-wearable item from the user-wearable items on display, the selected user-wearable item having an associated three-dimensional model; segmenting, by the client device, the first image to separate the reference token from a background comprising a portion of a physiognomy of the user; replacing, by the client device, a segment for the reference token in the first image with an image for the selected user-wearable item in a second image of the user based on the three-dimensional model of the face of the user and the three-dimensional model of the selected user-wearable item; and displaying, by the client device, the second image of the user. capturing, by a client device, a first image of a user, the first image including a reference token for a user-wearable item, the reference token being worn by the user in the first image and having a known three-dimensional model; automatically generating, by the client device, a three-dimensional model of a face of the user from the first image of the user, the three-dimensional model of the face of the user including dimensions based on the known-three-dimensional model of the reference token; displaying, by the client device, images of multiple user-wearable items for the user; receiving an input from the user, the input indicative of a selected user-wearable item from the user-wearable items on display, the selected user-wearable item having an associated three-dimensional model; segmenting, by the client device, the first image to separate the reference token from a background comprising a portion of a physiognomy of the user; replacing, by the client device, a segment for the reference token in the first image with an image for the selected user-wearable item in a second image of the user based on the three-dimensional model of the face of the user and the three-dimensional model of the selected user-wearable item; and displaying, by the client device, the second image of the user.
A data-gated flip-flop comprising: an exclusive OR component including a first exclusive OR input, a second exclusive OR input, and a first exclusive OR output, the first exclusive OR input configured to receive a data input to the data-gated flip-flop; a first latch including a first latch output, a first latch data input and a first latch reset input, the first exclusive OR output being coupled to the first latch data input and the first latch reset input; a second latch having a data output, the data output coupled to the second exclusive OR input; and an AND gate including a first AND gate input, a second AND gate input, and an AND gate output, the first latch output being coupled to the first AND gate input, the second AND gate input being coupled to a clock signal, wherein the second latch further includes a second latch data input, and a second latch clock signal input, the second latch data input being coupled to the data input signal, the AND gate output being coupled to the second latch clock signal input, wherein the first latch is held reset when the second exclusive OR input is the same as the first exclusive OR input so that the clock signal is provided to the second latch when the second exclusive OR input and the first exclusive OR input are different. an exclusive OR component including a first exclusive OR input, a second exclusive OR input, and a first exclusive OR output, the first exclusive OR input configured to receive a data input to the data-gated flip-flop; a first latch including a first latch output, a first latch data input and a first latch reset input, the first exclusive OR output being coupled to the first latch data input and the first latch reset input; a second latch having a data output, the data output coupled to the second exclusive OR input; and an AND gate including a first AND gate input, a second AND gate input, and an AND gate output, the first latch output being coupled to the first AND gate input, the second AND gate input being coupled to a clock signal, wherein the second latch further includes a second latch data input, and a second latch clock signal input, the second latch data input being coupled to the data input signal, the AND gate output being coupled to the second latch clock signal input, wherein the first latch is held reset when the second exclusive OR input is the same as the first exclusive OR input so that the clock signal is provided to the second latch when the second exclusive OR input and the first exclusive OR input are different.
A biaxially oriented, single-layer or multi-layer porous film, comprising at least one porous layer, and this layer contains at least one propylene polymer, wherein the propylene polymer is a propylene homopolymer and/or a propylene block copolymer, and wherein (i) the porosity of the porous film is 30% to 80%, and (ii) the permeability of the porous film is ≤800 s (Gurley value), and (iii) the porous film has an E modulus of ≥300 N/mm 2 in the longitudinal direction, and (iv) an E modulus of ≥300 N/mm 2 in the transverse direction, and (v) a density of at least 0.35 g/cm 3 and (vi) a static puncture resistance of at least 0.3 N/μm and (vii) a thickness of 10 to 150 μm (each measured as described in the description), and wherein the film is extruded by a method comprising the measures: (i) extrusion of a of a porous, single-layer or multi-layer polypropylene film, in which propylene polymer and β-nucleating agent are melted in an extruder and extruded through a flat-sheet die onto a draw-off roller, (ii) then the extruded melt film is cooled and solidified, forming β-crystallites, (iii) this film is then drawn in the longitudinal direction and next in the transverse direction, and (iv) a thermal treatment (thermosetting) is carried out, in which the product of the temperature in centigrade (T F) during the thermosetting, and the duration of the thermosetting in seconds (t F) amounts to at least 3000°Cs, preferably ≥3500°Cs (T F x t F ≥3000°Cs), wherein the maximum temperature during thermosetting (T F) is ≤160°C, and thermal treatment (thermosetting) of the film covers a period of time of ≥25 s and a temperature in the range of 100°C to 160°C. (i) the porosity of the porous film is 30% to 80%, and (ii) the permeability of the porous film is ≤800 s (Gurley value), and (iii) the porous film has an E modulus of ≥300 N/mm 2 in the longitudinal direction, and (iv) an E modulus of ≥300 N/mm 2 in the transverse direction, and (v) a density of at least 0.35 g/cm 3 and (vi) a static puncture resistance of at least 0.3 N/μm and (vii) a thickness of 10 to 150 μm (each measured as described in the description), and (i) extrusion of a of a porous, single-layer or multi-layer polypropylene film, in which propylene polymer and β-nucleating agent are melted in an extruder and extruded through a flat-sheet die onto a draw-off roller, (ii) then the extruded melt film is cooled and solidified, forming β-crystallites, (iii) this film is then drawn in the longitudinal direction and next in the transverse direction, and (iv) a thermal treatment (thermosetting) is carried out, in which the product of the temperature in centigrade (T F) during the thermosetting, and the duration of the thermosetting in seconds (t F) amounts to at least 3000°Cs, preferably ≥3500°Cs (T F x t F ≥3000°Cs), wherein the maximum temperature during thermosetting (T F) is ≤160°C, and thermal treatment (thermosetting) of the film covers a period of time of ≥25 s and a temperature in the range of 100°C to 160°C.
A vapor compression system comprising a compressor, the compressor comprising: an inlet and an outlet; and an electric motor having: a stator; and a rotor; a plurality of bearings supporting the rotor; a fluid flowpath to the plurality of bearings; a T-fitting placed with its head along the fluid flow path and the leg of the T-fitting extending upward to form a degas tank; and a liquid sensor mounted to a side of the degas tank, the liquid sensor comprising an operative end formed of a prism, wherein: the liquid sensor is oriented horizontally and spaced locally above the fluid flowpath. an inlet and an outlet; and an electric motor having: a stator; and a rotor; a stator; and a rotor; a plurality of bearings supporting the rotor; a fluid flowpath to the plurality of bearings; a T-fitting placed with its head along the fluid flow path and the leg of the T-fitting extending upward to form a degas tank; and a liquid sensor mounted to a side of the degas tank, the liquid sensor comprising an operative end formed of a prism, wherein: the liquid sensor is oriented horizontally and spaced locally above the fluid flowpath.
A device for collecting slaughter animal blood, comprising: - one or more plates, the one or more plates having an inlet and an outlet; - one or more containers positioned at the outlet of the one or more plates, wherein blood flowing off the plates is collected; - optionally, a fluidic system for recirculating said blood from at least one of said containers to the inlet of said one or more plates; and - optionally, one or more overflow tanks for collecting excess blood from said one or more containers; wherein the one or more plates have a textured surface; wherein the one or more plates are tilted plates, forming a tilted surface having a slope between 0.0% and 20%, preferably between 1.0 and 10%, and more preferably about 2.0%; and wherein the device further comprises a slaughter animal suspension unit for transporting slaughter animals in a direction of transport wherein the direction of slope of said surface is parallel to the direction of transport of the slaughter animals (410, 411, 412, 413, 414, 415) along the slaughter animal suspension unit, or in which the direction of slope of said tilted surface is perpendicular to the direction of transport of the slaughter animals (410, 411, 412, 413, 414, 415) along the slaughter animal suspension unit, or in which the direction of slope of said tilted surface is at an oblique angle to the direction of transport of the slaughter animals (410, 411, 412, 413, 414, 415) along the slaughter animal suspension unit. - one or more plates, the one or more plates having an inlet and an outlet; - one or more containers positioned at the outlet of the one or more plates, wherein blood flowing off the plates is collected; - optionally, a fluidic system for recirculating said blood from at least one of said containers to the inlet of said one or more plates; and - optionally, one or more overflow tanks for collecting excess blood from said one or more containers;
A valve assembly, designed for application in an air-cooled piston compressor and comprising a housing with at least one inlet valve (10, 10') which is arranged therein and with at least one outlet valve (12, 12') which is arranged therein, said assembly being designed for being cooled by way of an airflow which flows around the housing, wherein the housing comprises at least one first outer peripheral region and a second outer periphery region which with regard to their geometry and/or structure are designed differently in a manner such that the housing at least in the first outer peripheral region permits a better heat transfer onto the peripherally flowing airflow than in the second outer peripheral region, characterised in that the at least one inlet valve and the at least one outlet valve are arranged concentrically to one another in a manner such that the at least one inlet valve is arranged in the centre and the at least one outlet valve is arranged in a peripheral region which surrounds the at least one inlet valve, wherein several outlet valves or outlet openings are arranged distributed over the periphery of the inlet valve in a surrounding manner, or vice versa the at least one outlet valve is arranged in the centre and several inlet valves are arranged in a surrounding peripheral region.
A method of producing a crosslinked macromolecular matrix comprising: dissolving hyaluronic acid and a collagen in an aqueous solution to form an aqueous pre-reaction solution, wherein the aqueous pre-reaction solution further comprises a salt or has a pH less than 4; and modifying the aqueous pre-reaction solution to form a crosslinking reaction mixture comprising: the hyaluronic acid; the collagen; a water-soluble carbodiimide; N-hydroxysuccinimide or N-hydroxysulfosuccinimide; and when present, the salt; and allowing the crosslinking reaction mixture to react so as to crosslink the hyaluronic acid with the collagen and form a crosslinked macromolecular matrix; wherein the crosslinking reaction mixture has a higher pH than the aqueous pre-reaction solution. dissolving hyaluronic acid and a collagen in an aqueous solution to form an aqueous pre-reaction solution, wherein the aqueous pre-reaction solution further comprises a salt or has a pH less than 4; and modifying the aqueous pre-reaction solution to form a crosslinking reaction mixture comprising: the hyaluronic acid; the collagen; a water-soluble carbodiimide; N-hydroxysuccinimide or N-hydroxysulfosuccinimide; and when present, the salt; and the hyaluronic acid; the collagen; a water-soluble carbodiimide; N-hydroxysuccinimide or N-hydroxysulfosuccinimide; and when present, the salt; and allowing the crosslinking reaction mixture to react so as to crosslink the hyaluronic acid with the collagen and form a crosslinked macromolecular matrix; wherein the crosslinking reaction mixture has a higher pH than the aqueous pre-reaction solution.
A method performed by an apparatus comprising: transmitting a first signal to a first device for indicating a first resource in a control region of a carrier bandwidth, wherein the first resource is used by the first device for transmitting first control information, and the first control information comprises first non-orthogonal layer information; receiving the first control information from the first resource; receiving first data in a data region of the carrier bandwidth, wherein the data region comprises multiple non-orthogonal layers; decoding the first control information; and decoding the first data based on the first control information; wherein the first resource and the data region are on different non-orthogonal layers. transmitting a first signal to a first device for indicating a first resource in a control region of a carrier bandwidth, wherein the first resource is used by the first device for transmitting first control information, and the first control information comprises first non-orthogonal layer information; receiving the first control information from the first resource; receiving first data in a data region of the carrier bandwidth, wherein the data region comprises multiple non-orthogonal layers; decoding the first control information; and decoding the first data based on the first control information; wherein the first resource and the data region are on different non-orthogonal layers.
A method of calculating a fuel pump life expectancy in a gas turbine engine, the method comprising: tracking a fuel pump speed of the gas turbine engine; and calculating a fuel pump life expectancy value based on the fuel pump speed; characterised by: tracking a position value of at least one fuel actuated actuator in the gas turbine engine; and calculating a fuel pump life expectancy value based on the fuel pump speed and the position value of the at least one fuel actuated actuator. tracking a fuel pump speed of the gas turbine engine; and calculating a fuel pump life expectancy value based on the fuel pump speed; characterised by: tracking a position value of at least one fuel actuated actuator in the gas turbine engine; and calculating a fuel pump life expectancy value based on the fuel pump speed and the position value of the at least one fuel actuated actuator. tracking a position value of at least one fuel actuated actuator in the gas turbine engine; and calculating a fuel pump life expectancy value based on the fuel pump speed and the position value of the at least one fuel actuated actuator.
A tractor comprising: a pivoting engine compartment hood which includes an aperture, and an air intake arrangement for the tractor engine hood, the air intake arrangement comprising an air intake member with an air intake opening through which air is drawn into the engine, the intake member having an upper surface portion forming a closed wall for air guidance, characterised in that the intake member upper surface portion is arranged to project through the aperture formed in the upper surface of the hood with the hood in its closed position so that the upper surface portion of the intake member forms a continuation of the upper surface of the hood. a pivoting engine compartment hood which includes an aperture, and an air intake arrangement for the tractor engine hood, the air intake arrangement comprising an air intake member with an air intake opening through which air is drawn into the engine, the intake member having an upper surface portion forming a closed wall for air guidance, characterised in that the intake member upper surface portion is arranged to project through the aperture formed in the upper surface of the hood with the hood in its closed position so that the upper surface portion of the intake member forms a continuation of the upper surface of the hood.