mhurhangee/ep-ind-claims huggingface dataset:
Method of manufacturing an aluminium alloy plate for vacuum chamber elements, the method comprising the steps of: (a) providing a rolling feedstock material of an Al-Mg-Si aluminium alloy having a composition comprising of, in wt.%, Mg 0.80% to 1.05%, Si 0.70% to 1.0%, Mn 0.70% to 0.90%, Fe up to 0.20%, Zn up to 0.08%, Cu up to 0.05%, Cr up to 0.03%, Ti up to 0.06%, unavoidable impurities each <0.03%, total <0.10%, balance aluminium; (b) homogenizing of the rolling feedstock at a temperature in a range of 550°C to 595°C; (c) hot-rolling of the homogenized rolling feedstock in one or more rolling steps to a hot-rolled plate having a thickness of at least 10 mm; (d) solution heat-treatment (SHT") of the hot rolled plate at a temperature in a range of 540°C to 590°C; (e) rapid cooling the SHT plate, preferably by one of spray quenching or immersion quenching in water or other quenching media; (f) stretching of the cooled SHT plate to obtain a permanent elongation from 1% to 5%; (g) artificial ageing of the stretched plate, preferably to a T6 condition. (a) providing a rolling feedstock material of an Al-Mg-Si aluminium alloy having a composition comprising of, in wt.%, Mg 0.80% to 1.05%, Si 0.70% to 1.0%, Mn 0.70% to 0.90%, Fe up to 0.20%, Zn up to 0.08%, Cu up to 0.05%, Cr up to 0.03%, Ti up to 0.06%, unavoidable impurities each <0.03%, total <0.10%, balance aluminium; (b) homogenizing of the rolling feedstock at a temperature in a range of 550°C to 595°C; (c) hot-rolling of the homogenized rolling feedstock in one or more rolling steps to a hot-rolled plate having a thickness of at least 10 mm; (d) solution heat-treatment (SHT") of the hot rolled plate at a temperature in a range of 540°C to 590°C; (e) rapid cooling the SHT plate, preferably by one of spray quenching or immersion quenching in water or other quenching media; (f) stretching of the cooled SHT plate to obtain a permanent elongation from 1% to 5%; (g) artificial ageing of the stretched plate, preferably to a T6 condition.
A powder of particles, said powder having a median circularity above 0.87 and at least 90 % by weight of particles larger than 100 μm, the powder and at least 80 % by weight of the particles having a chemical composition such that, in percentage by weight based on the oxides and for a total of 100%: - Cr 2 O 3 + Al 2 O 3 + ZrO 2 + MgO + Fe 2 O 3 + SiO 2 + TiO 2 ≥ 90%, and - Cr 2 O 3 + Al 2 O 3 + MgO ≥ 60%, and - Cr 2 O 3 ≥ 9%, and - 20% ≥ SiO 2 ≥ 0.5%, and - other oxides: ≤ 10%. - Cr 2 O 3 + Al 2 O 3 + ZrO 2 + MgO + Fe 2 O 3 + SiO 2 + TiO 2 ≥ 90%, and - Cr 2 O 3 + Al 2 O 3 + MgO ≥ 60%, and - Cr 2 O 3 ≥ 9%, and - 20% ≥ SiO 2 ≥ 0.5%, and - other oxides: ≤ 10%.
A method of preparing a beverage with a beverage heating, mixing and drinking device, said device comprising:. a drinking container body, comprising a floor and a sidewall extending upwardly from the floor to form a space inside the sidewall and the floor wherein the beverage is mixed,. a mixing device positioned within the container body,. a motor cooperating with the mixing device through the floor of the container body,. a heating device configured for heating a liquid hold in the container body,. a temperature sensor configured for measuring the temperature of a liquid contained in the container body,. a control system operable to execute a beverage preparation process comprising control of the heating device and the mixing device, the control system comprising a communication interface to receive beverage preparation process information from a mobile device, said method comprising the steps of: a)- manually introducing a beverage ingredient and optionally a diluent in the container body, either simultaneously or subsequently, then b)- providing the control system with information related to at least the nature of the beverage ingredient manually introduced in the drinking container body in step a), by means of a mobile device, and c)- actuating the heating device and the mixing device either separately or simultaneously to prepare the beverage, the control system controlling the heating device and the mixing device based on at least information related to the nature of the beverage ingredient and received from the mobile device in step b).. a drinking container body, comprising a floor and a sidewall extending upwardly from the floor to form a space inside the sidewall and the floor wherein the beverage is mixed,. a mixing device positioned within the container body,. a motor cooperating with the mixing device through the floor of the container body,. a heating device configured for heating a liquid hold in the container body,. a temperature sensor configured for measuring the temperature of a liquid contained in the container body,. a control system operable to execute a beverage preparation process comprising control of the heating device and the mixing device, the control system comprising a communication interface to receive beverage preparation process information from a mobile device, a)- manually introducing a beverage ingredient and optionally a diluent in the container body, either simultaneously or subsequently, then b)- providing the control system with information related to at least the nature of the beverage ingredient manually introduced in the drinking container body in step a), by means of a mobile device, and c)- actuating the heating device and the mixing device either separately or simultaneously to prepare the beverage, the control system controlling the heating device and the mixing device based on at least information related to the nature of the beverage ingredient and received from the mobile device in step b).
A use of uncharged transition metal complexes of the general formula comprising at least one carbene ligand in organic light emitting diodes wherein the symbols have the following meanings: M 1 is a metal atom selected from the group consisting of Os, Rh, Ir, Ru, Pd, and Pt, in any oxidation state possible for the respective metal atom; carbene is a carbene ligand which may be uncharged or monoanionic and monodentate, bidentate or tridentate; with the carbene ligand also being able to be a biscarbene or triscarbene ligand; L is a monoanionic or dianionic ligand, which may be monodentate or bidentate; K is an uncharged monodentate or bidentate ligand selected from the group consisting of phosphines; phosphonates and derivatives thereof, arsenates and derivatives thereof; phosphites; CO; pyridines; nitriles and conjugated dienes which form a π-complex with M 1; n is the number of carbene ligands, wherein n is at least 1 and when n>1, the carbene ligands in the complex of the formula I can be identical or different; m is the number of ligands L, wherein m can be 0 or ≥1 and when m>1, the ligands L can be identical or different; o is the number of ligands K, wherein o can be 0 or ≥1 and when o>1 the ligands K can be identical or different; wherein the sum n+m+o is dependent on the oxidation state and coordination number of the metal atom and on the denticity of the ligands carbene, L and K and also on the charge of the ligands carbene and L, with the proviso that n is at least 1. M 1 is a metal atom selected from the group consisting of Os, Rh, Ir, Ru, Pd, and Pt, in any oxidation state possible for the respective metal atom; carbene is a carbene ligand which may be uncharged or monoanionic and monodentate, bidentate or tridentate; with the carbene ligand also being able to be a biscarbene or triscarbene ligand; L is a monoanionic or dianionic ligand, which may be monodentate or bidentate; K is an uncharged monodentate or bidentate ligand selected from the group consisting of phosphines; phosphonates and derivatives thereof, arsenates and derivatives thereof; phosphites; CO; pyridines; nitriles and conjugated dienes which form a π-complex with M 1; n is the number of carbene ligands, wherein n is at least 1 and when n>1, the carbene ligands in the complex of the formula I can be identical or different; m is the number of ligands L, wherein m can be 0 or ≥1 and when m>1, the ligands L can be identical or different; o is the number of ligands K, wherein o can be 0 or ≥1 and when o>1 the ligands K can be identical or different;
A process for preparing an N,N-dialkylethanolamine of the formula I having high color stability where R 1 and R 2 are each independently a C 1 - to C 8 -alkyl group, by reacting ethylene oxide with a corresponding dialkylamine (R 1 R 2 NH) in the presence of water, wherein the reaction is effected continuously in a reactor, the reaction temperature is in the range from 90 to 180°C and the residence time in the reactor is in the range from 1 to 7 min, the reactor output is treated thermally at a temperature in the range from 80 to 160°C over a period in the range from 20 to 1000 min, and then the N,N-dialkylethanolamine is removed by distillation.
Oven comprising: - a chamber (3, 4) - conveyor means with a width for guiding products from the inlet through this chamber (3, 4) to the outlet, whereas the conveyor means are at least partially arranged in a helical path, - temperature control means for controlling the temperature in the chamber using a fluid, which comprise a heater to heat the fluid and a duct to introduce the heated fluid into the chamber (3, 4), wherein it comprises means (19, 28, 31) to adjust the flow distribution over the width of the conveyor means depending on at least one process parameter and/or a recipe characterized in that the means comprises two plates (30, 31), each having a multitude of parallel, equidistant slots, wherein the slots in the first plate are larger than the slots in the second plate and the slots in the first plate are slightly tilted and wherein the plates extend over the entire width of the conveyor means and wherein first plate is shiftable relative to the second plate. - a chamber (3, 4) - conveyor means with a width for guiding products from the inlet through this chamber (3, 4) to the outlet, whereas the conveyor means are at least partially arranged in a helical path, - temperature control means for controlling the temperature in the chamber using a fluid, which comprise a heater to heat the fluid and a duct to introduce the heated fluid into the chamber (3, 4),
Hollow turbomachine turbine blade including a plurality of rising cavities (23, 25, 29, 31) communicating, on the one hand, with a squealer tip of the blade through a plurality of dust removal holes with a standard diameter (21A, 21B, 21C) intended to remove dust, and on the other hand, through a plurality of inclined cooling bores (20A, 20B, 20C, 20D) intended to cool a barrier of said squealer tip by leading to a pressure side face of the blade, at least one rising cavity of which a tip (22B, 24B) has no dust removal hole, comprises an inclined cooling bore formed in its lateral wall and intended to cool said squealer tip barrier and the diameter of which is enlarged to have a diameter at least equal to said standard diameter of a dust removal hole and thus also serve as a dust removal hole, so that the air flow extracted for cooling the blade is reduced, the blade being characterized in that said tip of said at least one rising cavity is inclined with an angle substantially identical to that of said inclined cooling bore and at least one of the cavities of the blade positioned facing said tip of said at least one rising cavity has a local increase of volume corresponding to at least a volume deducted from said tip of said at least one rising cavity.
A seal assembly sealing a higher pressure fluid cavity from a lower pressure fluid cavity, the cavities at least partially disposed between a rotatable shaft and a housing radially displaced from the rotatable shaft, the seal assembly further comprising: a runner mounting assembly carried by the shaft; a circumferential ceramic runner carried by the runner mounting assembly having a radially outward facing seal surface extending axially along the shaft; a carbon seal ring sealing engaged with the housing and having a radially inward facing seal surface that sealingly engages at least a portion of the radially outward facing seal surface of the runner to thereby form a boundary between the higher pressure fluid cavity and the lower pressure fluid cavity; and an annular seal member coupled to the housing axially displaced from the seal ring in the lower pressure fluid cavity, the seal member having a curvilinear face surface that engages the radially outward facing seal surface of the runner; the seal assembly characterized in that the runner and the seal ring are formed from materials having coefficients of thermal expansion that are matched to effect sealing engagement between the runner and the seal ring over a predetermined range of operating temperatures; wherein the higher pressure fluid cavity comprises at least in part a buffer air chamber, and wherein a plurality of apertures extending axially through the seal ring direct a flow of buffer air from the buffer air chamber toward the annular seal member. a runner mounting assembly carried by the shaft; a circumferential ceramic runner carried by the runner mounting assembly having a radially outward facing seal surface extending axially along the shaft; a carbon seal ring sealing engaged with the housing and having a radially inward facing seal surface that sealingly engages at least a portion of the radially outward facing seal surface of the runner to thereby form a boundary between the higher pressure fluid cavity and the lower pressure fluid cavity; and an annular seal member coupled to the housing axially displaced from the seal ring in the lower pressure fluid cavity, the seal member having a curvilinear face surface that engages the radially outward facing seal surface of the runner; the seal assembly characterized in that the runner and the seal ring are formed from materials having coefficients of thermal expansion that are matched to effect sealing engagement between the runner and the seal ring over a predetermined range of operating temperatures; wherein the higher pressure fluid cavity comprises at least in part a buffer air chamber, and wherein a plurality of apertures extending axially through the seal ring direct a flow of buffer air from the buffer air chamber toward the annular seal member.
A process for manufacturing a silver ion coated object having improved antimicrobial properties, comprising: an irradiating process for irradiating microwaves to a target object immersed into a silver ion solution or to a target object in a sprayed state with a silver ion solution sprayed onto it, such that the silver ion solution is spread out onto the whole surface of the target object, characterized in that the object stays immersed in or soaked with the silver ion solution during the microwave irradiation, and the object is dried after the microwave irradiation. an irradiating process for irradiating microwaves to a target object immersed into a silver ion solution or to a target object in a sprayed state with a silver ion solution sprayed onto it, such that the silver ion solution is spread out onto the whole surface of the target object, characterized in that the object stays immersed in or soaked with the silver ion solution during the microwave irradiation, and the object is dried after the microwave irradiation.
A aircraft component, wherein the component is a molded or extruded interior aircraft component comprising a polycarbonate composition comprising: a first polycarbonate selected from a polycarbonate homopolymer, a poly(aliphatic ester-carbonate), or a combination comprising at least one of the foregoing; a second polymer different from the first polycarbonate, the second polymer comprising a poly(carbonate-siloxane) copolymer, a polydialkylsiloxane, a silicone graft copolymer, or a combination comprising at least one of the foregoing, wherein siloxane units in the second polymer are present in the polycarbonate composition in an amount of 0.3 to 3 wt.%, based on the total weight of the polycarbonate composition, optionally the second polymer being present in an amount effective to provide 0.3 wt.% to 3.0 wt.% siloxane based on the total weight of the polycarbonate composition; and 10 to 50 wt.% of glass fiber, based on the total weight of the polycarbonate composition; wherein a sample of the polycarbonate composition has: an ASTM E662 smoke test Ds-1.5 value of less than 100 and DS-4 value of less than 200 when measured at a thickness of 3 mm, a flame time of less than 15 seconds, a burn length of less than 152 mm, and a drip extinguishing time of less than 5 seconds, each measured using the method of FAR F25.5, in accordance with FAR 25.853(a) at a thickness of 3 mm. a first polycarbonate selected from a polycarbonate homopolymer, a poly(aliphatic ester-carbonate), or a combination comprising at least one of the foregoing; a second polymer different from the first polycarbonate, the second polymer comprising a poly(carbonate-siloxane) copolymer, a polydialkylsiloxane, a silicone graft copolymer, or a combination comprising at least one of the foregoing, wherein siloxane units in the second polymer are present in the polycarbonate composition in an amount of 0.3 to 3 wt.%, based on the total weight of the polycarbonate composition, optionally the second polymer being present in an amount effective to provide 0.3 wt.% to 3.0 wt.% siloxane based on the total weight of the polycarbonate composition; and 10 to 50 wt.% of glass fiber, based on the total weight of the polycarbonate composition; wherein a sample of the polycarbonate composition has: an ASTM E662 smoke test Ds-1.5 value of less than 100 and DS-4 value of less than 200 when measured at a thickness of 3 mm, a flame time of less than 15 seconds, a burn length of less than 152 mm, and a drip extinguishing time of less than 5 seconds, each measured using the method of FAR F25.5, in accordance with FAR 25.853(a) at a thickness of 3 mm. an ASTM E662 smoke test Ds-1.5 value of less than 100 and DS-4 value of less than 200 when measured at a thickness of 3 mm, a flame time of less than 15 seconds, a burn length of less than 152 mm, and a drip extinguishing time of less than 5 seconds, each measured using the method of FAR F25.5, in accordance with FAR 25.853(a) at a thickness of 3 mm.
A sample analyzer comprising: a measuring part for preparing a measurement sample from a blood sample or a body fluid sample that differs from the blood sample, measuring the prepared measurement sample, and obtaining characteristic information representing characteristics of components within the measurement sample; a mode setting means for setting either a blood measurement mode for measuring the blood sample, or a body fluid measurement mode for measuring the body fluid sample as an operating mode; a first analyzing means for executing a first analysis process based on the characteristic information obtained by measuring the measurement sample prepared by the measuring part from the blood sample when the blood measurement mode has been set by the mode setting means; and a second analyzing means for executing a second analysis process which differs from the first analysis process based on the characteristic information obtained by measuring the measurement sample prepared by the measuring part from the body fluid sample when the body fluid measurement mode has been set by the mode setting means; wherein the first analysis process includes a process of classifying white blood cells into at least four types; and the second analysis process includes a process of classifying white blood cells into fewer types than the first analysis process. a measuring part for preparing a measurement sample from a blood sample or a body fluid sample that differs from the blood sample, measuring the prepared measurement sample, and obtaining characteristic information representing characteristics of components within the measurement sample; a mode setting means for setting either a blood measurement mode for measuring the blood sample, or a body fluid measurement mode for measuring the body fluid sample as an operating mode; a first analyzing means for executing a first analysis process based on the characteristic information obtained by measuring the measurement sample prepared by the measuring part from the blood sample when the blood measurement mode has been set by the mode setting means; and a second analyzing means for executing a second analysis process which differs from the first analysis process based on the characteristic information obtained by measuring the measurement sample prepared by the measuring part from the body fluid sample when the body fluid measurement mode has been set by the mode setting means; wherein the first analysis process includes a process of classifying white blood cells into at least four types; and the second analysis process includes a process of classifying white blood cells into fewer types than the first analysis process.
A voice call control method, applied to a terminal, and comprising: measuring, by the terminal, a target cell to which a handover is to be made during a voice call; reporting, by the terminal, a measurement result when the measurement result satisfies one of measurement report optimization conditions, wherein the measurement report optimization conditions is obtained by optimizing a measurement report condition for the terminal to make a handover to an anchor cell with a currently used network type, that is, the target cell; and receiving, by the terminal, a report response of the measurement result and making a handover to the target cell to perform a voice call based on the report response of the measurement result, characterized in that the measurement report optimization conditions include: a priority at which the terminal reports a measurement result of an anchor cell with a non-currently used network type; wherein the priority at which the terminal reports the measurement result of an anchor cell with a non-currently used network type is lower than a priority at which the terminal reports the measurement result of an anchor cell with the currently used network type. measuring, by the terminal, a target cell to which a handover is to be made during a voice call; reporting, by the terminal, a measurement result when the measurement result satisfies one of measurement report optimization conditions, wherein the measurement report optimization conditions is obtained by optimizing a measurement report condition for the terminal to make a handover to an anchor cell with a currently used network type, that is, the target cell; and receiving, by the terminal, a report response of the measurement result and making a handover to the target cell to perform a voice call based on the report response of the measurement result, characterized in that the measurement report optimization conditions include: a priority at which the terminal reports a measurement result of an anchor cell with a non-currently used network type; wherein the priority at which the terminal reports the measurement result of an anchor cell with a non-currently used network type is lower than a priority at which the terminal reports the measurement result of an anchor cell with the currently used network type. a priority at which the terminal reports a measurement result of an anchor cell with a non-currently used network type; wherein the priority at which the terminal reports the measurement result of an anchor cell with a non-currently used network type is lower than a priority at which the terminal reports the measurement result of an anchor cell with the currently used network type.