mhurhangee/ep-ind-claims huggingface dataset:
A distribution point unit to exchange communication data between a service provider and subscribers, comprising: - a first port to couple the distribution point unit to an optical data network to exchange communication data between the distribution point unit and the service provider, - a second port to couple the distribution point unit to an electrical data network to exchange the communication data between the subscribers (2a,..., 2n) and the distribution point unit, - a third external port to couple the distribution point unit to an electrical device, the third external port being configured to provide control data to control the electrical device, - a media access controller being coupled to each of the first and second and third port (10, 20, 30), - wherein the media access controller is configured to generate the control data based on the communication data received at one of the first and second ports (10, 20) and to provide the communication data received from the electrical device at the third external port to one of the first and the second ports (10, 20) to transfer the communication data to one of the service provider and the subscribers (2a,..., 2n). - a first port to couple the distribution point unit to an optical data network to exchange communication data between the distribution point unit and the service provider, - a second port to couple the distribution point unit to an electrical data network to exchange the communication data between the subscribers (2a,..., 2n) and the distribution point unit, - a third external port to couple the distribution point unit to an electrical device, the third external port being configured to provide control data to control the electrical device, - a media access controller being coupled to each of the first and second and third port (10, 20, 30), - wherein the media access controller is configured to generate the control data based on the communication data received at one of the first and second ports (10, 20) and to provide the communication data received from the electrical device at the third external port to one of the first and the second ports (10, 20) to transfer the communication data to one of the service provider and the subscribers (2a,..., 2n).
An atomizer/liquid reservoir portion for an electronic vaping device (10; 110; 210; 310) comprising: a liquid reservoir storing a liquid in a free floating manner and an atomizer (28; 128; 228; 328) adapted to atomize the liquid stored in the liquid reservoir when operated by a power supply of the electronic vaping device (10; 110; 210; 310), characterized in that the atomizer (28; 128; 228; 328) includes a plurality of heating elements (36a, 36b, 36c, 36d, 36e; 136a 1, 136a 2, 136c 1, 136c 2, 136c 3, 136c 4) that are arranged inside the liquid reservoir at different levels (h a, h b, h c, h d, h e) with respect to a liquid level (h) of the liquid stored in the liquid reservoir, preferably according to an array having a plurality of rows, wherein a plurality of heating elements (136c 1, 136c 2, 136c 3, 136c 4) can be arranged in one row of the array.
A polymeric material comprising: a semi-crystalline polymer having an enthalpy of fusion of greater than 2 J/g, when measured from above a melting temperature to below a hot crystallization temperature of the polymer; and a secondary material or materials wherein when the secondary material or materials are combined with the semi-crystalline polymer to form a blend that increases an enthalpy of fusion to at least 5 J/g when cooled at a rate of 10°C/min as measured by differential scanning calorimetry when cooling from above the melting temperature to below the hot crystalline temperature; and wherein the polymeric material is a consumable feedstock material configured for use in an additive manufacturing system for printing three-dimensional parts (30,32) in a layer-by-layer manner; and wherein the secondary material comprises one or more amorphous polyetherketoneketones (PEKK) and the semi-crystalline polymer comprises one or more semi-crystalline polyetherketoneketones (PEKK). a semi-crystalline polymer having an enthalpy of fusion of greater than 2 J/g, when measured from above a melting temperature to below a hot crystallization temperature of the polymer; and a secondary material or materials wherein when the secondary material or materials are combined with the semi-crystalline polymer to form a blend that increases an enthalpy of fusion to at least 5 J/g when cooled at a rate of 10°C/min as measured by differential scanning calorimetry when cooling from above the melting temperature to below the hot crystalline temperature; and wherein the polymeric material is a consumable feedstock material configured for use in an additive manufacturing system for printing three-dimensional parts (30,32) in a layer-by-layer manner; and wherein the secondary material comprises one or more amorphous polyetherketoneketones (PEKK) and the semi-crystalline polymer comprises one or more semi-crystalline polyetherketoneketones (PEKK).
An isolated and purified lactic acid bacteria, which is Lactobacillus paracasei PS23, which has been deposited with Deutsche Sammlung von Mikroorganismen und Zellkulturen under Budapest Treaty and was given the accession number DSMZ 32322.
A hydraulic installation, comprising: - a hydraulic circuit comprising: a spiral casing which defines an annular passage including a plurality of wicket gates distributed there along; - a runner chamber in fluid communication with said spiral casing and located downstream of said wicket gates; - a runner rotatable in said runner chamber; - a draft tube arranged below said runner; - a source of pressurised air in fluid communication with said draft tube; the hydraulic installation comprising a first connecting element fluidly connected to said hydraulic circuit and having an end discharging in atmosphere or, in alternative to said first connecting element, a second connecting element fluidly connected to said hydraulic circuit and having an end discharging in said draft tube, wherein said second connecting element comprises a pump characterised in that the hydraulic installation further comprises one or more pressure sensors arranged within said spiral case. - a hydraulic circuit comprising: a spiral casing which defines an annular passage including a plurality of wicket gates distributed there along; - a runner chamber in fluid communication with said spiral casing and located downstream of said wicket gates; - a runner rotatable in said runner chamber; - a draft tube arranged below said runner; - a source of pressurised air in fluid communication with said draft tube;
An atomic layer deposition process to deposit a silicon-containing compound selected from silicon nitride, silicon oxynitride, silicon carboxynitride and carbon doped silicon oxide, on a semi-conductor substrate comprising: a. contacting a nitrogen-containing source or an oxygen-containing source with a heated substrate under remote plasma conditions at 200 to 400°C to sorb at least a portion of the nitrogen-containing or oxygen-containing source on the heated substrate, b. purging away any unsorbed nitrogen-containing or oxygen-containing source, c. contacting the heated substrate with a silicon-containing source having one or more Si-H 3 fragments selected from the group consisting of di-iso-propylaminosilane(DIPAS), di-tert-butylaminosilane (DTBAS), di-sec-butylaminosilane, di-tert-pentylamino silane and mixtures thereof, to react with the sorbed nitrogen-containing or oxygen-containing source, and d. purging away the unreacted silicon-containing source. a. contacting a nitrogen-containing source or an oxygen-containing source with a heated substrate under remote plasma conditions at 200 to 400°C to sorb at least a portion of the nitrogen-containing or oxygen-containing source on the heated substrate, b. purging away any unsorbed nitrogen-containing or oxygen-containing source, c. contacting the heated substrate with a silicon-containing source having one or more Si-H 3 fragments selected from the group consisting of di-iso-propylaminosilane(DIPAS), di-tert-butylaminosilane (DTBAS), di-sec-butylaminosilane, di-tert-pentylamino silane and mixtures thereof, to react with the sorbed nitrogen-containing or oxygen-containing source, and d. purging away the unreacted silicon-containing source.
A semiconductor structure, comprising: a nucleation layer; a compositionally graded layer on the nucleation layer; a layer of a nitride semiconductor material including a plurality of relaxed nitride interlayers spaced apart within the layer of nitride semiconductor material, wherein the relaxed nitride interlayers comprise aluminum and gallium and are conductively doped with an n-type dopant, wherein the nitride interlayers comprise a Group III-nitride having a composition including Al x Ga 1-x N where 0.1≤x≤0.9, and wherein the layer of nitride semiconductor material including the plurality of nitride interlayers has a total thickness of at least 2.0 μm; and wherein the layer of nitride semiconductor material is on the compositionally graded layer. a nucleation layer; a compositionally graded layer on the nucleation layer; a layer of a nitride semiconductor material including a plurality of relaxed nitride interlayers spaced apart within the layer of nitride semiconductor material, wherein the relaxed nitride interlayers comprise aluminum and gallium and are conductively doped with an n-type dopant, wherein the nitride interlayers comprise a Group III-nitride having a composition including Al x Ga 1-x N where 0.1≤x≤0.9, and wherein the layer of nitride semiconductor material including the plurality of nitride interlayers has a total thickness of at least 2.0 μm; and wherein the layer of nitride semiconductor material is on the compositionally graded layer.
A hemostatic article comprising a porous carrier and either an adsorbent or an inorganic material composition, wherein the article further comprises one or more hemostatic agents, one or more therapeutic agents or a combination thereof; characterised in that the porous carrier is a woven or non-woven fibrous article that is made from aramid fibers.
A conductive transfer ( 103, 104, 201, 1001, 1804, 1805, 1806, 1807, 1901, 2001) for application to a surface, comprising: a first non-conductive ink layer ( 202, 1002, 1902, 2002) and a second non-conductive ink layer ( 203, 1003, 1903, 2003); a heating element ( 204, 1004, 1904, 2004) positioned between said first non-conductive ink layer and said second non-conductive ink layer; and an adhesive layer ( 207, 1007, 1907, 2007) for adhering said conductive transfer to a surface; wherein said heating element comprises an electrically conductive ink having a positive temperature coefficient such that said electrically conductive ink exhibits an increase in resistance in response to an increase in temperature; and characterised in that, said conductive transfer further comprises: a barrier layer ( 2009, 2010) positioned to provide a barrier between said heating element and said adhesive layer. a first non-conductive ink layer ( 202, 1002, 1902, 2002) and a second non-conductive ink layer ( 203, 1003, 1903, 2003); a heating element ( 204, 1004, 1904, 2004) positioned between said first non-conductive ink layer and said second non-conductive ink layer; and an adhesive layer ( 207, 1007, 1907, 2007) for adhering said conductive transfer to a surface; wherein said heating element comprises an electrically conductive ink having a positive temperature coefficient such that said electrically conductive ink exhibits an increase in resistance in response to an increase in temperature; and characterised in that, said conductive transfer further comprises: a barrier layer ( 2009, 2010) positioned to provide a barrier between said heating element and said adhesive layer.
A steel for pressure vessels comprising, by wt%: carbon: 0.06 to 0.25%, silicon (Si): 0.05 to 0.50%, manganese (Mn): 1.0 to 2.0%, aluminum (Al): 0.005 to 0.40%, phosphorus: 0.010% or less, sulfur: 0.0015% or less, niobium (Nb): 0.001 to 0.03%, vanadium: 0.001 to 0.03%, titanium (Ti): 0.001 to 0.03%, chromium (Cr): 0.01 to 0.20%, molybdenum (Mo): 0.05 to 0.15%, copper (Cu): 0.01 to 0.50%, nickel (Ni): 0.05 to 0.50%, calcium (Ca): 0.0005 to 0.0040%, oxygen: 0.0010% or less, and the balance of iron (Fe) and inevitable impurities, wherein the steel material optionally further comprises N: 20 to 60 ppm by weight, wherein a microstructure comprises 30% or less of pearlite and 70% or more of ferrite by area fraction, and a Ca-Al-O complex inclusion is included to satisfy Relational Expression 1 below, S 1 / S 2 ≤ 0.1 where S1 is a total area of Ca-Al-O complex inclusions having a size of 6 μm or more, measured by a circle equivalent diameter of inclusions containing both Ca and Al simultaneously using a compositional analysis by EDS, and S2 is a total area of all Ca-Al-O complex inclusions. carbon: 0.06 to 0.25%, silicon (Si): 0.05 to 0.50%, manganese (Mn): 1.0 to 2.0%, aluminum (Al): 0.005 to 0.40%, phosphorus: 0.010% or less, sulfur: 0.0015% or less, niobium (Nb): 0.001 to 0.03%, vanadium: 0.001 to 0.03%, titanium (Ti): 0.001 to 0.03%, chromium (Cr): 0.01 to 0.20%, molybdenum (Mo): 0.05 to 0.15%, copper (Cu): 0.01 to 0.50%, nickel (Ni): 0.05 to 0.50%, calcium (Ca): 0.0005 to 0.0040%, oxygen: 0.0010% or less, and the balance of iron (Fe) and inevitable impurities, wherein the steel material optionally further comprises N: 20 to 60 ppm by weight, wherein a microstructure comprises 30% or less of pearlite and 70% or more of ferrite by area fraction, and a Ca-Al-O complex inclusion is included to satisfy Relational Expression 1 below, S 1 / S 2 ≤ 0.1 where S1 is a total area of Ca-Al-O complex inclusions having a size of 6 μm or more, measured by a circle equivalent diameter of inclusions containing both Ca and Al simultaneously using a compositional analysis by EDS, and S2 is a total area of all Ca-Al-O complex inclusions.
Ethylene/butadiene copolymer comprising, statistically distributed, ethylene units and butadiene units, the molar fraction of ethylene units in said copolymer being greater than or equal to 50%, relative to the total number of moles of ethylene and butadiene units, characterized in that the molar concentration of each of the units is constant all along the chain of the copolymer.
A catheter apparatus, comprising: a catheter shaft defining a first lumen and a second lumen; a proximal port in fluid communication with the first lumen, the proximal port having associated therewith a resilient valve member operable to seal around an elongate device extended through the proximal port; a sensor operable to measure fluid pressure in the first lumen; a distal port in fluid communication with the first lumen, the distal port positionable within a vascular vessel of a patient and arranged to receive blood under pressure when positioned in the vascular vessel; an inflatable balloon mounted on the catheter shaft, the inflatable balloon having an inner void in fluid communication with the second lumen; and a proximal inflation port in fluid communication with the second lumen. a catheter shaft defining a first lumen and a second lumen; a proximal port in fluid communication with the first lumen, the proximal port having associated therewith a resilient valve member operable to seal around an elongate device extended through the proximal port; a sensor operable to measure fluid pressure in the first lumen; a distal port in fluid communication with the first lumen, the distal port positionable within a vascular vessel of a patient and arranged to receive blood under pressure when positioned in the vascular vessel; an inflatable balloon mounted on the catheter shaft, the inflatable balloon having an inner void in fluid communication with the second lumen; and a proximal inflation port in fluid communication with the second lumen.
Agrobacterium bacterium comprising plasmids of to shown below: a plasmid comprising the following components: (i) the virB gene, the virC gene, the virD1 gene, the virD2 gene, the virD3 gene, the virG gene and the virJ gene of pTiBo542, and (ii) an origin of replication; a disarmed Ti plasmid or a disarmed Ri plasmid of Agrobacterium bacterium; and a plasmid having a T-DNA region consisting of a desired DNA; wherein each of the plasmids of to has a replication mechanism that enables a mutual coexistence with each other. a plasmid comprising the following components: (i) the virB gene, the virC gene, the virD1 gene, the virD2 gene, the virD3 gene, the virG gene and the virJ gene of pTiBo542, and (ii) an origin of replication; (i) the virB gene, the virC gene, the virD1 gene, the virD2 gene, the virD3 gene, the virG gene and the virJ gene of pTiBo542, and (ii) an origin of replication; a disarmed Ti plasmid or a disarmed Ri plasmid of Agrobacterium bacterium; and a plasmid having a T-DNA region consisting of a desired DNA;
A turbine rotor (6; 30; 50; 70) of a turbine that makes a working fluid flowing into in a radial direction through an inlet (13; 34; 75) flow out in an axial direction through an outlet (11; 35; 76), the turbine rotor (6; 30; 50; 70) comprising: a hub that is rotatable about an axis of rotation; and a plurality of turbine blades (21; 32; 51; 71) that are arranged on a peripheral surface of the hub, and receive and direct the inflowing working fluid from the inlet (13; 34; 75) toward the outlet (11; 35; 76), wherein the turbine blades (21; 32; 51; 71) each are connected to the hub at a bottom side, or hub side, and have a free end on a tip side, or shroud side, a line extending from the inlet (13; 34; 75) to the outlet (11; 35; 76) along a shroud-side edge of each turbine blade (21; 32; 51; 71) is a shroud line (L2; L3), and the shroud line (L2; L3) includes a first shroud line (La) that makes a small change from the inlet (13; 34; 75) toward the outlet (11; 35; 76) in a blade angle with respect to the axis of rotation, a second shroud line (Lb) that extends from the outlet side of the first shroud line (La) and makes a greater change than that of the first shroud line (La), and a third shroud line (Lc) that extends from the outlet side of the second shroud line (Lb) to the outlet (11; 35; 76) and makes a smaller change than that of the second shroud line (Lb), wherein a blade angle of the first shroud line (La) decreases from the inlet (13; 34; 75), a blade angle of the second shroud line (Lb) increases from the inlet side to the outlet side, and a blade angle of the third shroud line (Lc) decreases toward the outlet (11; 35; 76). a hub that is rotatable about an axis of rotation; and a plurality of turbine blades (21; 32; 51; 71) that are arranged on a peripheral surface of the hub, and receive and direct the inflowing working fluid from the inlet (13; 34; 75) toward the outlet (11; 35; 76), wherein the turbine blades (21; 32; 51; 71) each are connected to the hub at a bottom side, or hub side, and have a free end on a tip side, or shroud side, a line extending from the inlet (13; 34; 75) to the outlet (11; 35; 76) along a shroud-side edge of each turbine blade (21; 32; 51; 71) is a shroud line (L2; L3), and the shroud line (L2; L3) includes a first shroud line (La) that makes a small change from the inlet (13; 34; 75) toward the outlet (11; 35; 76) in a blade angle with respect to the axis of rotation, a second shroud line (Lb) that extends from the outlet side of the first shroud line (La) and makes a greater change than that of the first shroud line (La), and a third shroud line (Lc) that extends from the outlet side of the second shroud line (Lb) to the outlet (11; 35; 76) and makes a smaller change than that of the second shroud line (Lb), wherein a blade angle of the first shroud line (La) decreases from the inlet (13; 34; 75), a blade angle of the second shroud line (Lb) increases from the inlet side to the outlet side, and a blade angle of the third shroud line (Lc) decreases toward the outlet (11; 35; 76).
Mixing device for use in the catalytic removal of nitrogen oxides from an exhaust gas flow, a) wherein, in the mixing device, a gaseous or liquid reaction medium is homogeneously distributed in the exhaust gas flow so that the exhaust gas flow can then be fed to a reactor for the catalytic removal of nitrogen oxides in accordance with an SCR process, b) wherein deflection points each having a flow separation edge are provided inside the mixing device, the exhaust gas flow being deflected at least twice at said deflection points, in each case by 180°, c) wherein the mixing device is divided in its total cross-section into three sub-channels (13, 14, 15), which are connected to each other by means of the deflection points in such a way that they form a mixing path, characterised in that the three sub-channels (13, 14, 15) are delimited by eccentrically arranged partition plates (18, 19), in that the mixing device in its total cross-section corresponds to a circle of radius R, and in that the partition plates (18, 19) each form a circular arc profile in order to delimit the sub-channels (13, 14, 15), wherein a radius of curvature r of the circular arc profile corresponds to the radius R of the total cross-section. a) wherein, in the mixing device, a gaseous or liquid reaction medium is homogeneously distributed in the exhaust gas flow so that the exhaust gas flow can then be fed to a reactor for the catalytic removal of nitrogen oxides in accordance with an SCR process, b) wherein deflection points each having a flow separation edge are provided inside the mixing device, the exhaust gas flow being deflected at least twice at said deflection points, in each case by 180°, c) wherein the mixing device is divided in its total cross-section into three sub-channels (13, 14, 15), which are connected to each other by means of the deflection points in such a way that they form a mixing path,
Pulling tool for pulling a rotor blade or for simultaneously pulling several rotor blades off a rotor of a turbo-machine, with a drive device which drives a pulling element axially in the pulling direction when the at least one rotor blade is pulled off the rotor, and with a supporting contour via which the pulling tool rests axially on the rotor when the at least one rotor blade is pulled off, wherein the drive device has a slide which carries the pulling element and can be adjusted by means of a drive axially along a console having the supporting contour, characterised in that at least one pulling element for pulling a blade from the end face of the blade foot is formed complementary to a pulling contour formed on the axial end face of the foot of the rotor blade, and that the console has a carrier having the supporting contour and formed as a ring or ring segment which is arranged coaxially to the rotor when the at least one rotor blade is pulled off, and the carrier carries several slides and/or several drives.