mhurhangee/ep-ind-claims huggingface dataset:
Process for the production of a demineralised whey powder, comprising the following steps: (a) separating raw milk into skimmed milk and cream; (b) microfiltrating or microdiafiltrating the skimmed milk, obtaining a whey protein-rich permeate P1 and a retentate R1 containing casein and Glycomacropeptide, wherein the microfiltration or the microdiafiltration is performed with a membrane having a pore size in the range from 0.1 to 1 μm; (c) separating the lactoferrin from the permeate P1 by means of column chromatography; (d) nanofiltrating the permeate P1 from which lactoferrin had been removed, obtaining a milk minerals-rich retentate R2 and a milk minerals-poor permeate P2, wherein the nanofiltration is performed with a membrane having a pore size in the range from 150 to about 1,000 nm; (e) dialysing the permeate P2 from which lactoferrin had been removed, wherein the permeate P2 is subjected to electrodialysis; (f) treating the diluate from step (e) with a cation exchanger; (g) drying the diluate, obtaining a product in powder form. (a) separating raw milk into skimmed milk and cream; (b) microfiltrating or microdiafiltrating the skimmed milk, obtaining a whey protein-rich permeate P1 and a retentate R1 containing casein and Glycomacropeptide, wherein the microfiltration or the microdiafiltration is performed with a membrane having a pore size in the range from 0.1 to 1 μm; (c) separating the lactoferrin from the permeate P1 by means of column chromatography; (d) nanofiltrating the permeate P1 from which lactoferrin had been removed, obtaining a milk minerals-rich retentate R2 and a milk minerals-poor permeate P2, wherein the nanofiltration is performed with a membrane having a pore size in the range from 150 to about 1,000 nm; (e) dialysing the permeate P2 from which lactoferrin had been removed, wherein the permeate P2 is subjected to electrodialysis; (f) treating the diluate from step (e) with a cation exchanger; (g) drying the diluate, obtaining a product in powder form.
A control system for a motor vehicle comprising: means for detecting a side-slope (Angle_SS) condition in which said vehicle is traversing a side-slope; means for detecting a trailing axle slip angle (Angle_TAS) exceeding a threshold value (Angle_TASt); and means for controlling an amount of torque applied to one or more wheels to induce a turning moment on said vehicle, the system being configured to, in response to detecting said side slope, proactively cause a first turning moment (MTVB) to be induced in a direction opposing side-slip of a trailing axle in a down-slope direction relative to a leading axle; and the system being configured to, in response to detecting said trailing axle slip angle exceeding said threshold value (Angle_TASt), cause a second turning moment to be induced in a direction to reduce the trailing axle slip angle. means for detecting a side-slope (Angle_SS) condition in which said vehicle is traversing a side-slope; means for detecting a trailing axle slip angle (Angle_TAS) exceeding a threshold value (Angle_TASt); and means for controlling an amount of torque applied to one or more wheels to induce a turning moment on said vehicle, the system being configured to, in response to detecting said side slope, proactively cause a first turning moment (MTVB) to be induced in a direction opposing side-slip of a trailing axle in a down-slope direction relative to a leading axle; and the system being configured to, in response to detecting said trailing axle slip angle exceeding said threshold value (Angle_TASt), cause a second turning moment to be induced in a direction to reduce the trailing axle slip angle.
An offshore foundation for a monopile of an offshore energy installation, in particular a wind or water power energy installation, to secure the monopile in and to the sea bed using rocks, characterized in that the offshore foundation is composed solely of loose, crushed stones heaped up on the sea bed, which stones are in the form of a widely graduated mixture in the range from 1 mm to 200 mm of rock size, and the stones collectively are arranged settled, heaped up in a cone shape, at least in the shape of a truncated cone, wherein the stones on the sea bed are applied selectively at the subsequent site of the monopile and are compacted, at least settled, solely through their own weight.
A method of transforming a binary software application comprising binary application code from an original form to a secured form, the method comprising: applying a plurality of transformations to original binary application code during a build phase to produce transformed binary application code, and packaging the transformed binary application code with a plurality of inverse transformation keys and a plurality of inverse transformations to generate a protected application, wherein each of the plurality of inverse transformation keys is configured to provide access to a corresponding inverse transformation in the plurality of inverse transformations during an execution phase. applying a plurality of transformations to original binary application code during a build phase to produce transformed binary application code, and packaging the transformed binary application code with a plurality of inverse transformation keys and a plurality of inverse transformations to generate a protected application, wherein each of the plurality of inverse transformation keys is configured to provide access to a corresponding inverse transformation in the plurality of inverse transformations during an execution phase.
Mineral foam obtained by hydration and hardening of a hydraulic composition comprising an oversulfated cement, the density of said mineral foam after complete hardening being less than 250 kg/m 3.
A glazing unit comprising a glazed element having an inner face, an outer face and an edge face situated between these two faces, and having at least two nonparallel edges (24, 26) and a corner situated between these two edges, at least a portion of profiled seal situated along said edges (24, 26) and around the corner, in contact with a part of said outer face, and at least one attached part such as a trim, situated along said edges (24, 26) and around the corner and farther out than said portion of profiled seal, the glazing unit has, in the region of said corner and under an inner face of the attached part, a hook having a stem extending inward and an arm extending from said stem either in a centripetal direction or in a centrifugal direction, said portion of profiled seal having an opening provided in the region of said corner for said arm to pass through, characterized in that said opening is a through-opening in a centripetal/centrifugal direction, perpendicular to the edge face of said glazed element, said opening preferably not being a through-opening in an outward/inward direction perpendicular to said centripetal/centrifugal direction.
A computing device (100, 300) comprising: a connector (104, 204) to establish a wired connection with an electronic device; a storage device storing a firmware, wherein the firmware is to: in response to detecting a recovery trigger to repair an operating system of the computing device (100, 300), identify an operating system of the electronic device; establish a communication channel between the computing device (100, 300) and the electronic device based on the operating system of the electronic device; map a virtual network interface of the computing device (100, 300) to a transceiver of the electronic device; and retrieve recovery data from a repository via the virtual network interface, wherein the recovery data is transported to the computing device (100, 300) via the communication channel. a connector (104, 204) to establish a wired connection with an electronic device; a storage device storing a firmware, wherein the firmware is to: in response to detecting a recovery trigger to repair an operating system of the computing device (100, 300), identify an operating system of the electronic device; establish a communication channel between the computing device (100, 300) and the electronic device based on the operating system of the electronic device; map a virtual network interface of the computing device (100, 300) to a transceiver of the electronic device; and retrieve recovery data from a repository via the virtual network interface, wherein the recovery data is transported to the computing device (100, 300) via the communication channel. in response to detecting a recovery trigger to repair an operating system of the computing device (100, 300), identify an operating system of the electronic device; establish a communication channel between the computing device (100, 300) and the electronic device based on the operating system of the electronic device; map a virtual network interface of the computing device (100, 300) to a transceiver of the electronic device; and retrieve recovery data from a repository via the virtual network interface, wherein the recovery data is transported to the computing device (100, 300) via the communication channel.
An alloy composition comprising: 0.6% to 0.8% by weight carbon; 16% to 18% by weight chromium; 4.5% to 5.5% by weight nickel; 2.0% to 5.0% by weight manganese; 0.8% to 1.2% by weight tungsten; 0.8% to 1.2% by weight molybdenum; 0.65% to 0.85% by weight niobium; 0.3% to 1.0% by weight silicon; the composition further optionally comprising one or more trace elements, wherein the one or more trace elements comprise one or more of the following: up to 0.15% by weight nitrogen; up to 0.005% by weight boron; up to 0.03% by weight phosphorus; and up to 0.03% by weight sulfur; and balance iron and unavoidable impurities, wherein percentages are based on the overall weight of the composition. 0.6% to 0.8% by weight carbon; 16% to 18% by weight chromium; 4.5% to 5.5% by weight nickel; 2.0% to 5.0% by weight manganese; 0.8% to 1.2% by weight tungsten; 0.8% to 1.2% by weight molybdenum; 0.65% to 0.85% by weight niobium; 0.3% to 1.0% by weight silicon; up to 0.15% by weight nitrogen; up to 0.005% by weight boron; up to 0.03% by weight phosphorus; and up to 0.03% by weight sulfur; and
An array structure, comprising a first one time programming memory cell comprising: a first transistor having a gate terminal, a source terminal and a drain terminal, wherein the gate terminal of the first transistor is connected with a first word line, and the source terminal of the first transistor is connected with a first bit line; a first varactor (Va), wherein a first end of the first varactor (Va) is connected with the drain terminal of the first transistor, and a second end of the first varactor (Va) is connected with a first program line; and a second varactor (Va'), wherein a first end of the second varactor (Va') is connected with the drain terminal of the first transistor, and a second end of the second varactor (Va') is connected with a second program line, wherein the first varactor (Va) comprises: a second gate structure (121, 122) disposed on a surface of a P-type substrate, and connected with the first program line; a second N-type diffusion region located at a first side of the second gate structure (121, 122); and characterized in that the first varactor (Va) comprises a first N-type extension region and a second N-type extension region merged together to form a first N-type doped channel region under the second gate structure (121, 122); and that the second N-type diffusion region is formed by performing an ion implantation process, and that the first N-type doped channel region_is formed by performing a source/drain extension process. a first transistor having a gate terminal, a source terminal and a drain terminal, wherein the gate terminal of the first transistor is connected with a first word line, and the source terminal of the first transistor is connected with a first bit line; a first varactor (Va), wherein a first end of the first varactor (Va) is connected with the drain terminal of the first transistor, and a second end of the first varactor (Va) is connected with a first program line; and a second varactor (Va'), wherein a first end of the second varactor (Va') is connected with the drain terminal of the first transistor, and a second end of the second varactor (Va') is connected with a second program line, wherein the first varactor (Va) comprises: a second gate structure (121, 122) disposed on a surface of a P-type substrate, and connected with the first program line; a second N-type diffusion region located at a first side of the second gate structure (121, 122); and characterized in that the first varactor (Va) comprises a first N-type extension region and a second N-type extension region merged together to form a first N-type doped channel region under the second gate structure (121, 122); and that the second N-type diffusion region is formed by performing an ion implantation process, and that the first N-type doped channel region_is formed by performing a source/drain extension process.
A displaceable rotor-operated mulching machine comprising a frame, a tool-holder rotor received in the frame with its axis substantially parallel to a soil to be teated and perpendicular to the direction of movement of the mulching machine, an actuator, which is adapted to drive a shaft that is operably connected to the tool-holder rotor, on which a series of tools are placed, a cover (4, 4a, 4b) surrounding the tool-holder rotor at its top, sensors for detecting the position of a cover for a rotor, rotating in two directions, of a mulching machine and means for detecting the direction of rotation of said rotor, characterized in that the mulching machine comprises a control unit for only preventing the rotation of the rotor of said mulching machine when said cover (4, 4a, 4b) is in the open position and the rotor is driven to rotate upwards, i.e. opposite to the direction of movement of the mulching machine.
A process for preparing fluorescent nanoparticle composites characterized in that the process includes a step of: adding, under mechanical agitation, at least one oxidizing agent, at least one stabilizer agent and at least one monomer to an alcohol or polar solvent, wherein the at least one oxidizing agent is a salt whose cation is selected from a group comprising metals chosen from groups 1B to 8B of the periodic table, wherein the at least one oxidizing agent causes polymerization of the at least one monomer to form a polymer including polymeric chains, wherein the fluorescent nanoparticle composites comprise polymeric chains with metallic nanoparticles of 15 nm or less, alone or together with magnetic metals or oxide nanoparticles of 50 nm or less, wherein the at least one stabilizer agent stabilizes the formed metallic nanoparticles. adding, under mechanical agitation, at least one oxidizing agent, at least one stabilizer agent and at least one monomer to an alcohol or polar solvent, wherein the at least one oxidizing agent is a salt whose cation is selected from a group comprising metals chosen from groups 1B to 8B of the periodic table, wherein the at least one oxidizing agent causes polymerization of the at least one monomer to form a polymer including polymeric chains, wherein the fluorescent nanoparticle composites comprise polymeric chains with metallic nanoparticles of 15 nm or less, alone or together with magnetic metals or oxide nanoparticles of 50 nm or less, wherein the at least one stabilizer agent stabilizes the formed metallic nanoparticles.
A process for producing a polyethercarbonate polyol comprising: copolymerizing a starter molecule with carbon dioxide, at a pressure ranging from 0.69 bar (10 psia) to 137.90 bar (2,000 psia), and an alkylene oxide, at a temperature ranging from 50°C to 190°C and in the presence of from 0.001 wt.% to 0.2 wt.% of a non-crystalline double metal cyanide catalyst, wherein the process comprises an amount of a continuously added Starter (S c), and an initially charged starter (S i); wherein the S c comprises at least 2 eq.% of the total starter used; and wherein the alkylene oxide and S c are continuously added to the reaction during copolymerization, and wherein the polyol has an incorporated carbon dioxide content of from 1 wt.% to 40 wt.%, wherein the ratio of cyclic carbonate by-product to total carbonate is less than 0.3 and wherein the weight percentages are based on the weight of the polyol. copolymerizing a starter molecule with carbon dioxide, at a pressure ranging from 0.69 bar (10 psia) to 137.90 bar (2,000 psia), and an alkylene oxide, at a temperature ranging from 50°C to 190°C and in the presence of from 0.001 wt.% to 0.2 wt.% of a non-crystalline double metal cyanide catalyst, wherein the process comprises an amount of a continuously added Starter (S c), and an initially charged starter (S i); wherein the S c comprises at least 2 eq.% of the total starter used; and wherein the alkylene oxide and S c are continuously added to the reaction during copolymerization, and wherein the polyol has an incorporated carbon dioxide content of from 1 wt.% to 40 wt.%, wherein the ratio of cyclic carbonate by-product to total carbonate is less than 0.3 and wherein the weight percentages are based on the weight of the polyol.
A process for producing urea, said process comprising the steps of: - Optionally purification of a hydrocarbon feed gas removing sulphur and/or chloride components if present, - reforming the hydrocarbon feed gas in a reforming step in an autothermal reformer where the steam/carbon ratio is between 0.1 and 2.6 thereby obtaining a synthesis gas comprising CH 4, CO, CO 2, H 2 and H 2 O, - adding H 2 O to the synthesis gas from the reforming step maintaining an overall steam/carbon ratio of less than 2.6, - shifting the synthesis gas in a shift section comprising one or more shift steps preferably in series, - optionally washing the synthesis gas leaving the shift section with water, - removing CO 2 from the synthesis gas from the shift section in a CO 2 removal step to obtain a synthesis gas with less than 500 vppm CO 2, - removing residual H 2 O and/or CO 2 from the synthesis gas preferably in an absorbent step, - removing CH 4, CO, Ar and/or He in a nitrogen wash unit and adding stoichiometric nitrogen to the synthesis gas to produce NH 3, - synthesizing NH 3 to obtain a NH 3 product, - adding at least part of the product CO 2 and at least part of the NH 3 product to a urea synthesis step to make a urea product, wherein the amount of excess CO 2 and/or NH 3 is controlled by adjusting the steam/carbon ratio to between 0.1 and 2.6 in the reforming step and by H 2 O addition upstream and/or in between the shift steps and by adjusting the inlet temperature to at least one of the one or more shift steps. - Optionally purification of a hydrocarbon feed gas removing sulphur and/or chloride components if present, - reforming the hydrocarbon feed gas in a reforming step in an autothermal reformer where the steam/carbon ratio is between 0.1 and 2.6 thereby obtaining a synthesis gas comprising CH 4, CO, CO 2, H 2 and H 2 O, - adding H 2 O to the synthesis gas from the reforming step maintaining an overall steam/carbon ratio of less than 2.6, - shifting the synthesis gas in a shift section comprising one or more shift steps preferably in series, - optionally washing the synthesis gas leaving the shift section with water, - removing CO 2 from the synthesis gas from the shift section in a CO 2 removal step to obtain a synthesis gas with less than 500 vppm CO 2, - removing residual H 2 O and/or CO 2 from the synthesis gas preferably in an absorbent step, - removing CH 4, CO, Ar and/or He in a nitrogen wash unit and adding stoichiometric nitrogen to the synthesis gas to produce NH 3, - synthesizing NH 3 to obtain a NH 3 product, - adding at least part of the product CO 2 and at least part of the NH 3 product to a urea synthesis step to make a urea product,
A prosthetic valve device for implantation into a body lumen comprising: a frame comprising a tubular body; and a valve component disposed within and anchored to the tubular body of the frame, the valve component comprising: an annular sleeve having an annular inner wall that forms a fluid passageway along an axis from an inlet edge to an outlet edge, the annular sleeve folded over at the inlet edge to form an annular cuff that is concentric to and surrounds the annular inner wall and extends from the inlet edge toward the outlet edge; and an annular belt positioned between the annular inner wall and the annular cuff and having a bottom edge adjacent to a bight portion of the annular sleeve that forms the inlet edge; wherein the annular inner wall is free of anchoring penetrations from the inlet edge to commissures at the outlet edge, the commissures forming a plurality of collapsible leaflets for opening and sealing the fluid passageway, each of the commissures anchored to the tubular body of the frame; and wherein each of the commissures is formed by a cinched portion of the annular inner wall that is located between opposing legs (117A-B) of a commissure strip. a frame comprising a tubular body; and a valve component disposed within and anchored to the tubular body of the frame, the valve component comprising: an annular sleeve having an annular inner wall that forms a fluid passageway along an axis from an inlet edge to an outlet edge, the annular sleeve folded over at the inlet edge to form an annular cuff that is concentric to and surrounds the annular inner wall and extends from the inlet edge toward the outlet edge; and an annular belt positioned between the annular inner wall and the annular cuff and having a bottom edge adjacent to a bight portion of the annular sleeve that forms the inlet edge; an annular sleeve having an annular inner wall that forms a fluid passageway along an axis from an inlet edge to an outlet edge, the annular sleeve folded over at the inlet edge to form an annular cuff that is concentric to and surrounds the annular inner wall and extends from the inlet edge toward the outlet edge; and an annular belt positioned between the annular inner wall and the annular cuff and having a bottom edge adjacent to a bight portion of the annular sleeve that forms the inlet edge; wherein the annular inner wall is free of anchoring penetrations from the inlet edge to commissures at the outlet edge, the commissures forming a plurality of collapsible leaflets for opening and sealing the fluid passageway, each of the commissures anchored to the tubular body of the frame; and wherein each of the commissures is formed by a cinched portion of the annular inner wall that is located between opposing legs (117A-B) of a commissure strip.
A method of determining at least one cardiovascular quantity of a mammal, comprising a vessel, the method comprising: determining at least one impedance parameter over at least one set of electrodes (12,13) using electrical oscillating signals containing a multitude of frequencies in a range from 100 Hz to 10 MHz or higher, wherein the set of electrodes are within a selected distance to a measuring site of the vessel; estimating or determining a mean diameter of the vessel at a measuring site based on said at least one impedance parameter determined over said at least one set of electrodes (12,13); determining a distension of the vessel at the measuring site based on said at least one impedance parameter determined over said at least one set of electrodes (12,13); determining a pulse wave velocity and/or another elasticity related quantity of the vessel at the measuring site based on said at least one impedance parameter determined over said at least one set of electrodes (12,13); and calculating the at least one cardiovascular quantity from the determined mean diameter, elasticity related quantity, and distension of the vessel at the measuring site.