mhurhangee/ep-ind-claims huggingface dataset:
A method for working airfoil clusters of a gas turbine engine, comprising: providing a first airfoil cluster having a first portion and a second portion, the first portion including a passage; providing a second airfoil cluster having a third portion and a fourth portion, the fourth portion including a passage; attaching a first register block to the first portion of the first airfoil cluster; attaching a second register block to the fourth portion of the second airfoil cluster; cutting off the second portion of the first airfoil cluster such that the passage of the first portion is preserved; cutting off the third portion of the second airfoil cluster such that the passage of the fourth portion is preserved; aligning the first portion with the fourth portion through surfaces of the first and second register blocks; joining the first and fourth portions (82,92) together to form a new airfoil cluster; and removing the first and second register blocks. providing a first airfoil cluster having a first portion and a second portion, the first portion including a passage; providing a second airfoil cluster having a third portion and a fourth portion, the fourth portion including a passage; attaching a first register block to the first portion of the first airfoil cluster; attaching a second register block to the fourth portion of the second airfoil cluster; cutting off the second portion of the first airfoil cluster such that the passage of the first portion is preserved; cutting off the third portion of the second airfoil cluster such that the passage of the fourth portion is preserved; aligning the first portion with the fourth portion through surfaces of the first and second register blocks; joining the first and fourth portions (82,92) together to form a new airfoil cluster; and removing the first and second register blocks.
A gateway apparatus that connects a multi-hop network of a tree structure formed of node apparatuses to another network, comprising: a grouping unit that groups, for each representative node apparatus having a direct link to the gateway apparatus in the tree structure, the nodes belonging to a subtree having a same representative node as a root, into a node group; an interference group specifying unit that specifies a node group in which packet communication in the node group is subjected to an interference of a degree exceeding a threshold as an interference group; and a slot allocation unit that allocates one time slot among a plurality of time slots included in a frame which is a packet transmission period of the node apparatus to one interference group among a plurality of interference groups as a packet transmission period, and allocates another time slot among the plurality of time slots to another interference group among the plurality of interference groups as a packet transmission period. a grouping unit that groups, for each representative node apparatus having a direct link to the gateway apparatus in the tree structure, the nodes belonging to a subtree having a same representative node as a root, into a node group; an interference group specifying unit that specifies a node group in which packet communication in the node group is subjected to an interference of a degree exceeding a threshold as an interference group; and a slot allocation unit that allocates one time slot among a plurality of time slots included in a frame which is a packet transmission period of the node apparatus to one interference group among a plurality of interference groups as a packet transmission period, and allocates another time slot among the plurality of time slots to another interference group among the plurality of interference groups as a packet transmission period.
A subsea rotating machine having a proximity sensing system (250, 252, 254, 260, 262, 264, 270) comprising: a rotating portion; a non-rotating pressure housing (210, 212) surrounding the rotating portion, wherein the non-rotating pressure housing (210, 212) comprises: an outer pump pressure casing; a conduit (310, 312) formed through the outer pump pressure casing of the non-rotating pressure housing (210, 212) having, an inner end opening near a target surface of the rotating portion and an outer end opening to an outer surface of the outer pump pressure casing of the non-rotating pressure housing (210, 212); a proximity sensor probe fixed within the conduit (310, 312) at its inner end, the proximity sensor probe having a sensor tip configured and positioned to sense distance between the sensor tip and the target surface; a high pressure penetrator configured to form a high-pressure seal with the non-rotating pressure housing (210, 212); and a cable running from the proximity sensor probe, through the conduit (310, 312) and the outer pump pressure casing to the high pressure penetrator, characterized by: the non-rotating pressure housing (210, 212) comprising an inner pump housing within the outer pump pressure casing; the conduit being formed through the inner pump housing of the non-rotating pressure housing (210, 212); and the proximity sensor probe being fixed within the conduit (310, 312) at its inner end within the inner pump housing. a rotating portion; a non-rotating pressure housing (210, 212) surrounding the rotating portion, wherein the non-rotating pressure housing (210, 212) comprises: an outer pump pressure casing; a conduit (310, 312) formed through the outer pump pressure casing of the non-rotating pressure housing (210, 212) having, an inner end opening near a target surface of the rotating portion and an outer end opening to an outer surface of the outer pump pressure casing of the non-rotating pressure housing (210, 212); a proximity sensor probe fixed within the conduit (310, 312) at its inner end, the proximity sensor probe having a sensor tip configured and positioned to sense distance between the sensor tip and the target surface; a high pressure penetrator configured to form a high-pressure seal with the non-rotating pressure housing (210, 212); and a cable running from the proximity sensor probe, through the conduit (310, 312) and the outer pump pressure casing to the high pressure penetrator, characterized by: the non-rotating pressure housing (210, 212) comprising an inner pump housing within the outer pump pressure casing; the conduit being formed through the inner pump housing of the non-rotating pressure housing (210, 212); and the proximity sensor probe being fixed within the conduit (310, 312) at its inner end within the inner pump housing.
A temperature-regulated connecting piece for transporting a viscous fluid with a fluid line and with an excess pressure release component, which separates the interior of the fluid line from a discharge line and is fixed with an outer edge to the discharge line, characterised in that the excess pressure release component is provided so as to free the discharge line in the presence of a preset excess pressure and wherein a mixing element is provided in the interior of the fluid line leading past, said mixing element thoroughly mixing a fluid flow in the region of the excess pressure release component.
A metal nanoparticle composition comprising: water; a water-soluble polymer having both carboxylic acid and sulfonic acid groups; and silver nanoparticles dispersed in the water, wherein the weight percentage of silver in the composition is greater than 10% and wherein the weight ratio of the water soluble polymer to silver is from 0.0005 to 0.11. water; a water-soluble polymer having both carboxylic acid and sulfonic acid groups; and silver nanoparticles dispersed in the water, wherein the weight percentage of silver in the composition is greater than 10% and wherein the weight ratio of the water soluble polymer to silver is from 0.0005 to 0.11.
A method for anti-corrosion pretreatment of a large number of metal components in series, which method comprises at least acid passivation based on an aqueous treatment solution containing dissolved phosphates and dip coating as wet-chemical treatment steps in each case, the treatment step of dip coating always following that of acid passivation in the process sequence for anti-corrosion pretreatment, in which each component in the series to be pretreated is received by a conveying frame, and then the transport pair consisting of the component and the conveying frame is guided through the wet-chemical treatment steps according to the process sequence and the transport pair is separated only after the last treatment step and a pretreated component is extracted, and then the conveying frame which is released in this way receives a next component in the series to be pretreated in order to repeat the process sequence for the purpose of anti-corrosion pretreatment of said component, the conveying frame going through the process sequence as often as is necessary to carry out anti-corrosion pretreatment of the large number of components, and at least part of each conveying frame being brought into contact both with the acid passivation and dip coating in the wet-chemical treatment steps, characterized in that, before receiving a next component to be pretreated, at least the part of each conveying frame which is released after the last treatment step is brought into contact, for conditioning, with an acidic aqueous agent containing water-soluble compounds of the elements iron, aluminum, calcium, magnesium, zinc, chromium, titanium and/or zirconium in a total amount of at least 0.1 g/kg, but less than 100 mg/kg of dissolved phosphates calculated as PO 4, in each case based on the agent, which part had previously been brought into contact with the aqueous treatment solution containing dissolved phosphates during the acid passivation.
A polarizing plate for use with a liquid crystal cell to form a liquid crystal display comprising: a polyvinyl alcohol polarizing film; a film that is provided on an upper surface of the polyvinyl alcohol polarizing film; a film that is provided on a lower surface of the polyvinyl alcohol polarizing film and has the vapor transmissivity of more than 200 g/m 2 Day; and a adhesive layer that is provided on the film having the vapor transmissivity of more than 200 g/m 2 Day, and wherein the film provided on an upper surface of the polyvinyl alcohol polarizing film contains a UV absorbing agent or a UV absorption layer, wherein the film that is provided on the upper surface of the polyvinyl alcohol polarizing film has the vapor transmissivity of 100 g/m 2 Day or less; for the UV absorption layer alternative, the UV absorption layer is provided on the upper or lower surface of the film provided on an upper surface of the polyvinyl alcohol polarizing film; the adhesive layer is pressure sensitive adhesive layer; wherein the upper surface of the polyvinyl alcohol polarizing film is that disposed in the direction to an outermost edge of the liquid crystal display; and the lower surface of the polyvinyl alcohol polarizing film is that abutting the liquid crystal cell. a polyvinyl alcohol polarizing film; a film that is provided on an upper surface of the polyvinyl alcohol polarizing film; a film that is provided on a lower surface of the polyvinyl alcohol polarizing film and has the vapor transmissivity of more than 200 g/m 2 Day; and a adhesive layer that is provided on the film having the vapor transmissivity of more than 200 g/m 2 Day, and
A composition for use in a method of managing glucose tolerance in an individual, wherein the composition comprises a pharmaceutically effective amount of dihydroberberine, wherein the pharmaceutically effective amount of dihydroberberine comprises 25 mg to 800 mg of dihydroberberine.
An ethylene-1-hexene copolymer having: a weight average molecular weight, measured with PS standard using a gel permeation chromatography-FTIR (GPC-FTIR), of 50,000 to 150,000, a molecular weight distribution (Mw/Mn), measured with PS standard using a gel permeation chromatography-FTIR (GPC-FTIR), of 2 to 5, a density, measured according to ASTM 1505, of 0.910 to 0.940 g/cm 3, MFRR(MI 10 /MI 2.16), measured at a temperature of 190°C according to ASTM 1238, of 10 to 20, and a C 1 value of 30,000 to 300,000 and a C 2 value of -0.30 to -0.60 when a graph of complex viscosity (η*[Pa.s]) at the frequency (ω[rad/s]) of 0.05 to 500 rad/s is fitted to the following Equation 1: y = c 1 x c 2 a plateau delta value in Van Gurp Palmen plot satisfies the following Equation 2: − 0.02 × Mw / 10 4 + 0.76 ≤ plateau delta ≤ − 0.02 × Mw / 10 4 + 1.36, wherein the complex viscosity at different frequencies is calculated with a dynamic frequency sweep at 190°C using advanced rheometric expansion system, wherein the dynamic frequency sweep is measured by using a 25 mm parallel plate in the form of a disc and power law fitting is carried out by using a TA orchestrator program. a weight average molecular weight, measured with PS standard using a gel permeation chromatography-FTIR (GPC-FTIR), of 50,000 to 150,000, a molecular weight distribution (Mw/Mn), measured with PS standard using a gel permeation chromatography-FTIR (GPC-FTIR), of 2 to 5, a density, measured according to ASTM 1505, of 0.910 to 0.940 g/cm 3, MFRR(MI 10 /MI 2.16), measured at a temperature of 190°C according to ASTM 1238, of 10 to 20, and a C 1 value of 30,000 to 300,000 and a C 2 value of -0.30 to -0.60 when a graph of complex viscosity (η*[Pa.s]) at the frequency (ω[rad/s]) of 0.05 to 500 rad/s is fitted to the following Equation 1: y = c 1 x c 2 a plateau delta value in Van Gurp Palmen plot satisfies the following Equation 2: − 0.02 × Mw / 10 4 + 0.76 ≤ plateau delta ≤ − 0.02 × Mw / 10 4 + 1.36, wherein the complex viscosity at different frequencies is calculated with a dynamic frequency sweep at 190°C using advanced rheometric expansion system, wherein the dynamic frequency sweep is measured by using a 25 mm parallel plate in the form of a disc and power law fitting is carried out by using a TA orchestrator program.
A security document, comprising: at least a first layer, a second layer and a third layer attached to each other, at least one of said layers comprising a hole through it, and an electronic module arranged in said hole, characterized in that a first separation layer slightly bigger than the hole is arranged between two of said layers (10, 11, 14) at the location of said hole with the electronic module to prevent attachment of said two layers at least above or below the electronic module. at least a first layer, a second layer and a third layer attached to each other, at least one of said layers comprising a hole through it, and an electronic module arranged in said hole, characterized in that a first separation layer slightly bigger than the hole is arranged between two of said layers (10, 11, 14) at the location of said hole with the electronic module to prevent attachment of said two layers at least above or below the electronic module.
Composition for use in the treatment and/or prevention of a mitochondrial dysfunction-related disease, wherein the mitochondrial dysfunction-related disease is obesity, the composition comprising an active agent, said active agent containing the amino acids leucine, isoleucine, valine, threonine, lysine and citric acid, succinic acid, malic acid.
Production method for profiled hose nipples, characterized in that the method comprises the following operative steps: - providing a preliminary tool having a forming die, a compression sleeve and a tube holder; - placing a tubular portion into the tube holder; - introducing the forming die into the interior of the tubular portion; - pushing the compression sleeve onto the tubular portion having the inserted forming die, wherein the compression sleeve has a predetermined smaller internal diameter than the tubular portion, wherein - when pushing on the compression sleeve - the tubular portion is axially compressed, on the one hand, and in terms of the diameter is radially reduced to a predetermined dimension, on the other hand, while forming an enclosure collar on the tubular portion; - retracting the forming die through that part of the tubular portion that is located in the compression sleeve, while enlarging the internal diameter of the tubular portion by a predetermined dimension which is defined by a preselected ratio of original internal diameter of the tubular portion and external diameter of the forming die, as a result of which the wall thickness of the tubular portion in the region of the compression sleeve is reduced; - retrieving the tubular portion from the compression sleeve; - pushing the tubular portion onto a supporting mandrel having a predetermined diameter; - providing a hammering tool and hammering the tubular portion while forming a predetermined external contour of the tubular portion; and - retrieving the finished part from the tool. - providing a preliminary tool having a forming die, a compression sleeve and a tube holder; - placing a tubular portion into the tube holder; - introducing the forming die into the interior of the tubular portion; - pushing the compression sleeve onto the tubular portion having the inserted forming die, wherein the compression sleeve has a predetermined smaller internal diameter than the tubular portion, wherein - when pushing on the compression sleeve - the tubular portion is axially compressed, on the one hand, and in terms of the diameter is radially reduced to a predetermined dimension, on the other hand, while forming an enclosure collar on the tubular portion; - retracting the forming die through that part of the tubular portion that is located in the compression sleeve, while enlarging the internal diameter of the tubular portion by a predetermined dimension which is defined by a preselected ratio of original internal diameter of the tubular portion and external diameter of the forming die, as a result of which the wall thickness of the tubular portion in the region of the compression sleeve is reduced; - retrieving the tubular portion from the compression sleeve; - pushing the tubular portion onto a supporting mandrel having a predetermined diameter; - providing a hammering tool and hammering the tubular portion while forming a predetermined external contour of the tubular portion; and - retrieving the finished part from the tool.
A method for determining a capacitance of an external capacitor with an integrated circuit device, said method comprising the steps of: charging from a voltage reference (Vref) an internal capacitor in an integrated circuit device to the reference voltage, wherein the internal capacitor has a known capacitance and is a sampling capacitor of an analog-to-digital converter (218; 318) in the integrated circuit device (200; 300) having one terminal permanently connected with ground; optionally measuring the reference voltage with the analog-to-digital converter; discharging an external capacitor with a first switch in the integrated circuit device thereby removing any charge on the external capacitor; therafter coupling the charged internal capacitor in parallel to the discharged external capacitor with a second switch in the integrated circuit device so that some of the charge on the internal capacitor is transferred to the external capacitor; thereafter decoupling the internal capacitor from the external capacitor and measuring a voltage on the internal capacitor with the ADC in the integrated circuit device; and calculating a capacitance of the external capacitor from the reference voltage, the measured voltage on the internal capacitor, and the known capacitance of the internal capacitor with a digital processor in the integrated circuit device. charging from a voltage reference (Vref) an internal capacitor in an integrated circuit device to the reference voltage, wherein the internal capacitor has a known capacitance and is a sampling capacitor of an analog-to-digital converter (218; 318) in the integrated circuit device (200; 300) having one terminal permanently connected with ground; optionally measuring the reference voltage with the analog-to-digital converter; discharging an external capacitor with a first switch in the integrated circuit device thereby removing any charge on the external capacitor; therafter coupling the charged internal capacitor in parallel to the discharged external capacitor with a second switch in the integrated circuit device so that some of the charge on the internal capacitor is transferred to the external capacitor; thereafter decoupling the internal capacitor from the external capacitor and measuring a voltage on the internal capacitor with the ADC in the integrated circuit device; and calculating a capacitance of the external capacitor from the reference voltage, the measured voltage on the internal capacitor, and the known capacitance of the internal capacitor with a digital processor in the integrated circuit device.
A method for preparing a co-crystal of at least two compounds bound through hydrogen bonds, ionic bonds, bonds of the stacking type (π- π stacking) or Van der Waals bonds, comprising the successive steps: ▪ preparation of at least two solutions, each comprising at least one solvent and at least one organic, mineral or organometal compound, these compounds may be bound through hydrogen bonds, ionic bonds, bonds of the stacking type (π- π stacking) or through Van der Waals bonds; ▪ heating the solutions, under a pressure ranging from 3 to 300 bars, at a temperature above the boiling point of the solvent or at a temperature above the boiling point of the mixture of solvents; ▪ atomization in a same atomization chamber of each solution by means of at least one dispersion device and under an angle ranging from 30 to 150° at a pressure ranging from 0.0001 to 2 bars, the dispersion devices being two hollow cone nozzles installed side by side in the atomization chamber, each equipped with an electric heating system and oriented relatively to each other so that their jets interpenetrate each other; ▪ separation of the solvents in a gaseous form. ▪ preparation of at least two solutions, each comprising at least one solvent and at least one organic, mineral or organometal compound, these compounds may be bound through hydrogen bonds, ionic bonds, bonds of the stacking type (π- π stacking) or through Van der Waals bonds; ▪ heating the solutions, under a pressure ranging from 3 to 300 bars, at a temperature above the boiling point of the solvent or at a temperature above the boiling point of the mixture of solvents; ▪ atomization in a same atomization chamber of each solution by means of at least one dispersion device and under an angle ranging from 30 to 150° at a pressure ranging from 0.0001 to 2 bars, the dispersion devices being two hollow cone nozzles installed side by side in the atomization chamber, each equipped with an electric heating system and oriented relatively to each other so that their jets interpenetrate each other; ▪ separation of the solvents in a gaseous form.
A swellable pre-treatment coating for a print medium, comprising: an evaporable solvent; a matrix, including: from 10 wt% to 20 wt% of a fixer, from 25 wt% to 35 wt% of aluminum chlorohydrate, from 0.5 wt% to 10 wt% of a first binder, from 20 wt% to 30 wt% of a second cross-linkable binder, and from 1 wt% to 5 wt% of a cross-linker; and a wax present at from 10 wt% to 20 wt%, wherein weight percentages of the matrix and the wax are based on a total amount present in the swellable pre-treatment coating after removal of the evaporable solvent. an evaporable solvent; a matrix, including: from 10 wt% to 20 wt% of a fixer, from 25 wt% to 35 wt% of aluminum chlorohydrate, from 0.5 wt% to 10 wt% of a first binder, from 20 wt% to 30 wt% of a second cross-linkable binder, and from 1 wt% to 5 wt% of a cross-linker; and from 10 wt% to 20 wt% of a fixer, from 25 wt% to 35 wt% of aluminum chlorohydrate, from 0.5 wt% to 10 wt% of a first binder, from 20 wt% to 30 wt% of a second cross-linkable binder, and from 1 wt% to 5 wt% of a cross-linker; and a wax present at from 10 wt% to 20 wt%, wherein weight percentages of the matrix and the wax are based on a total amount present in the swellable pre-treatment coating after removal of the evaporable solvent.