mhurhangee/patent-ind-claim-en huggingface dataset:
The method for destructive distillation of polyethylene and polypropylene waste involving feeding polyethylene and polypropylene waste to the first destructive distillation reactor that is pre-cleaned by flotation from polyvinylchloride, polyethylene terephthalate, cellulose, organic compounds, rubber impurities; attaching and heating the furnace of the first destructive distillation reactor by a fuel burner; heating and maintaining the temperature in the hydrocarbon receiver with exhaust gases, while the temperature in the hydrocarbon receiver is controlled by feeding and cutting off exhaust gases to the re-boiler; controlling the outlet temperature of vapor-gas mixture of hydrocarbons from the dewaxing unit by supplying cooling water to the dewaxing unit's reflux column, collecting wax fractions; fractionating the remaining products of destructive distillation in the distillation column to obtain the vapor phase of the gasoline fraction and the liquid phase of the diesel fraction, controlling the outlet temperature of remaining vapor-gas mixture from the distillation column by supplying cooling water to the distillation column's reflux column; cooling the remaining vapor-gas mixture in the column of a constantly operating heat exchanger, separating it into gasoline and gas fractions; feeding feedstock into the other destructive distillation reactor; cutting off fuel to the burner of the first reactor; lowering and cooling the furnace of the first reactor, attaching the furnace of the other reactor and heating it with a burner; discharging carbon residue from cooled destructive distillation reactors, characterized by the fact that before feed, the bottom of each reactor is coated with a layer of non-stick lubricant; reactor furnaces are attached with air cushions, reactors are vacuum fed in several steps according to the following cycle: "reactor feed, evacuation of the loaded reactor volume, heating the reactor to 110-260°C to thin the feedstock" until the thinned feedstock reaches 0.7 of the height of the reactor's full capacity; once the loaded first reactor switches to destructive distillation operating mode, the other reactor is loaded in several stages according to the same cycle "reactor feed, evacuation of the loaded reactor volume, heating the reactor to 110-260°C to thin the feedstock" until the thinned feedstock reaches 0.7 of the height of the other reactor's full capacity; the cooling of the reactors is carried out by supplying carbon dioxide; reactor is cleaned in a cooled state with an industrial sandblaster or vacuum cleaner through the lower side hatch; the temperature of exhaust gases dumped in the air is reduced by running them through the boilers.
A device for cooking by heating comprising: a heating unit for heating food that is accommodated in a cooking cavity ; a setting unit configured to set a heating control content of the heating unit ; a display unit configured to display the heating control content set by the setting unit ; a display controller configured to control display on the display unit ; an image capturing unit configured to capture an image of the food; and a storage unit configured to store the image captured by the image capturing unit and the heating control content set by the setting unit as a correspondence table in association with each other, wherein the display controller controls display so as to display a plurality of the images stored in the storage unit in a list on the display unit , and the setting unit sets, based on selection of an image from the list, an associated heating control content in the correspondence table in the storage unit , characterized in that the storage unit only stores the image captured by the image capturing unit and the heating control content in the correspondence table in association with each other, in a case where heating has been completed according to the heating control content set by the setting unit . a heating unit for heating food that is accommodated in a cooking cavity ; a setting unit configured to set a heating control content of the heating unit ; a display unit configured to display the heating control content set by the setting unit ; a display controller configured to control display on the display unit ; an image capturing unit configured to capture an image of the food; and a storage unit configured to store the image captured by the image capturing unit and the heating control content set by the setting unit as a correspondence table in association with each other, wherein the display controller controls display so as to display a plurality of the images stored in the storage unit in a list on the display unit , and the setting unit sets, based on selection of an image from the list, an associated heating control content in the correspondence table in the storage unit , characterized in that the storage unit only stores the image captured by the image capturing unit and the heating control content in the correspondence table in association with each other, in a case where heating has been completed according to the heating control content set by the setting unit .
Crosslinkable rubber mixture comprising: a) a diene rubber having an average molar mass Mn of more than 150 000 g/mol, b) a filler, c) a polymer or oligomer having an average molar mass Mn of less than 150 000 g/mol, which has a filler-interactive functional group and a glass transition temperature T g < -15°C, d) a polymer or oligomer having an average molar mass Mn of less than 150 000 g/mol, which has a filler-interactive functional group and a glass transition temperature Tg > -15°C, wherein the temperature differential ΔT g ascertained between the glass transition temperature T g of the polymer or oligomer of feature c) and the glass transition temperature T g of the polymer or oligomer of feature d) is at least 5°C, wherein the filler-interactive functional groups bring about an interaction of the polymer or oligomer with the filler surface via van der Waals, dipole-dipole or electrostatic interactions or via covalent or non-covalent bonds, for example hydrogen bonds. a) a diene rubber having an average molar mass Mn of more than 150 000 g/mol, b) a filler, c) a polymer or oligomer having an average molar mass Mn of less than 150 000 g/mol, which has a filler-interactive functional group and a glass transition temperature T g < -15°C, d) a polymer or oligomer having an average molar mass Mn of less than 150 000 g/mol, which has a filler-interactive functional group and a glass transition temperature Tg > -15°C, wherein the temperature differential ΔT g ascertained between the glass transition temperature T g of the polymer or oligomer of feature c) and the glass transition temperature T g of the polymer or oligomer of feature d) is at least 5°C, wherein the filler-interactive functional groups bring about an interaction of the polymer or oligomer with the filler surface via van der Waals, dipole-dipole or electrostatic interactions or via covalent or non-covalent bonds, for example hydrogen bonds.
A method for obtaining a product chemistry from a solid product and a fluid, comprising; providing a solid product; introducing the fluid through a plurality of ports in a manifold diffuse member positioned adjacent the solid product; and adjusting characteristics of the flow of the fluid through the ports in the manifold diffuse to obtain and maintain a concentration and/or amount of the product chemistry; wherein the amount of liquid allowed through the ports modifies the turbulence of the liquid, which modifies the erosion rate of the solid product; providing a cover comprising a plurality of ports therethrough adjacent the manifold diffuse member ; rotating the cover to adjust the alignment of the cover ports and the manifold diffuse member ports to adjust characteristics of the flow of the fluid; characterised in that the step of rotating the cover comprises extending or retracting a temperature dependent device operatively connected to one or more ramps of the cover to adjust the alignment of the manifold diffuse member ports and the cover ports . providing a solid product; introducing the fluid through a plurality of ports in a manifold diffuse member positioned adjacent the solid product; and adjusting characteristics of the flow of the fluid through the ports in the manifold diffuse to obtain and maintain a concentration and/or amount of the product chemistry; wherein the amount of liquid allowed through the ports modifies the turbulence of the liquid, which modifies the erosion rate of the solid product; providing a cover comprising a plurality of ports therethrough adjacent the manifold diffuse member ; rotating the cover to adjust the alignment of the cover ports and the manifold diffuse member ports to adjust characteristics of the flow of the fluid; characterised in that the step of rotating the cover comprises extending or retracting a temperature dependent device operatively connected to one or more ramps of the cover to adjust the alignment of the manifold diffuse member ports and the cover ports .
Computer-implemented method for determining a patient movement during a medical imaging measurement with an imaging apparatus, in particular a magnetic resonance apparatus , wherein the method comprises: - acquiring reference image data of a body region of a patient , - producing a three-dimensional reference model of the body region of the patient on the basis of the reference image data, - acquiring patient image data of a part of the body region of the patient during the medical imaging measurement, - producing adjustment data from the patient image data, - determining the patient movement with the aid of the reference image data by adjusting the adjustment data to the three-dimensional reference model. - acquiring reference image data of a body region of a patient , - producing a three-dimensional reference model of the body region of the patient on the basis of the reference image data, - acquiring patient image data of a part of the body region of the patient during the medical imaging measurement, - producing adjustment data from the patient image data, - determining the patient movement with the aid of the reference image data by adjusting the adjustment data to the three-dimensional reference model.
A leaf blower , comprising: a main body defining an airflow path therethrough, the main body extending between and defining an inlet end and an outlet end ; a fan assembly disposed within the main body ; a handle connected to and extended from the main body and a trigger included in the handle ; and an inlet muffler provided at the inlet end , characterised in that the fan assembly includes an axial fan , and in that the inlet muffler comprises a plurality of inlet ports , each of the plurality of inlet ports comprising a peripheral surface defining a port aperture therethrough, at least one of the plurality of inlet ports further comprising a damper material provided on the peripheral surface of the at least one inlet port and further defining the port aperture therethrough. a main body defining an airflow path therethrough, the main body extending between and defining an inlet end and an outlet end ; a fan assembly disposed within the main body ; a handle connected to and extended from the main body and a trigger included in the handle ; and an inlet muffler provided at the inlet end , characterised in that the fan assembly includes an axial fan , and in that the inlet muffler comprises a plurality of inlet ports , each of the plurality of inlet ports comprising a peripheral surface defining a port aperture therethrough, at least one of the plurality of inlet ports further comprising a damper material provided on the peripheral surface of the at least one inlet port and further defining the port aperture therethrough.
A spark plug comprising: a tubular insulator having an axial hole extending in a direction of an axis thereof, the tubular insulator having an outer periphery with a tapered outer face where an outer diameter thereof decreases from a rear end to a front end thereof; a tubular metal shell having a through-hole extending in the axial direction through which the insulator is inserted, the tubular metal shell having a thread portion including an installation thread ridge on an outer periphery of the thread portion and a tapered inner face where an inner diameter thereof decreases from the rear end to the front end on an inner periphery of the thread portion; and a circular packing which is sandwiched between the tapered outer face of the insulator and the tapered inner face of the metal shell to seal a gap therebetween, characterized in that the thread portion has a nominal diameter of not more than 10 mm; and on at least one cross section including the axis the expressions of: (A/B) ≥ 3.1, B ≥ 0.25, and (A + B) ≤ 2.0 are satisfied, where A represents a length (mm) of (a difference between an effective diameter (R1) of the thread portion and an inner diameter (R2) at a rear end (P1) of the tapered inner face )/2, and B represents a length (mm) of (a difference between the inner diameter (R2) at the rear end (P1) of the tapered inner face and an inner diameter (R3) at a front end (P2) of the tapered inner face )/2. a tubular insulator having an axial hole extending in a direction of an axis thereof, the tubular insulator having an outer periphery with a tapered outer face where an outer diameter thereof decreases from a rear end to a front end thereof; a tubular metal shell having a through-hole extending in the axial direction through which the insulator is inserted, the tubular metal shell having a thread portion including an installation thread ridge on an outer periphery of the thread portion and a tapered inner face where an inner diameter thereof decreases from the rear end to the front end on an inner periphery of the thread portion; and a circular packing which is sandwiched between the tapered outer face of the insulator and the tapered inner face of the metal shell to seal a gap therebetween, characterized in that the thread portion has a nominal diameter of not more than 10 mm; and on at least one cross section including the axis the expressions of: (A/B) ≥ 3.1, B ≥ 0.25, and (A + B) ≤ 2.0 are satisfied, where A represents a length (mm) of (a difference between an effective diameter (R1) of the thread portion and an inner diameter (R2) at a rear end (P1) of the tapered inner face )/2, and B represents a length (mm) of (a difference between the inner diameter (R2) at the rear end (P1) of the tapered inner face and an inner diameter (R3) at a front end (P2) of the tapered inner face )/2.
Method of controlling a cycle for writing at least one data item to at least one memory cell of the electrically erasable and programmable read-only memory type disposed in an electronic circuit supplied by a supply voltage (Vdd), comprising a controlled increase in the duration of the write cycle in the presence of a drop in the said supply voltage, the method being characterized in that the write cycle comprises a generation of at least one erasure or programming pulse by one or more charge pump stages associated with a charge pump regulator, each pulse comprising a voltage ramp (RMP1) followed by a plateau (PLT1), the regulation permitting to control the output voltage of the charge pump, the regulation level being the voltage level of the plateau, the duration of the said at least one pulse being controlled by a chronometer, and the controlled increase in the duration of the write cycle comprises an increase in the duration of the said at least one pulse, the increase in the duration of the said at least one pulse comprising an increase in the duration of the plateau (PLT1) and a decrease in the value (Vpp) of the plateau (PLT1) .
An air particulate detection system comprising: an aspiration particulate detection system ; one or more pipe runs fluidly connected to the aspiration detection system, wherein each of the one or more pipe runs includes one or more sampling points configured to allow an air particulate entry into at least one of the one or more pipe runs , and wherein the aspiration particulate detection system comprises a blower to transport the air particulate from each of the one or more sampling points through the one or more pipe runs to the aspiration particulate detection system ; and a secondary particulate detector fluidly connected to the aspiration particulate detection system through the one or more pipe runs , wherein the secondary particulate detector is in communication with the aspiration particulate detection system , wherein the secondary particulate detector is located proximate to at least one of the one or more sampling points , and wherein the air particulate is transported through the secondary particulate detector by the blower , characterized in that: the secondary particulate detector further comprises: a laser source configured to generate a laser having a plurality of wavelengths; and a sensor configured to detect at least one of an amount of laser scatter and laser fluorescence in response to interaction of the laser and air particulates; and an infrared light source configured to generate an infrared light ; and a sensor configured to detect an infrared signature of an air particulate in response to interaction of the infrared light and the air particulate. an aspiration particulate detection system ; one or more pipe runs fluidly connected to the aspiration detection system, wherein each of the one or more pipe runs includes one or more sampling points configured to allow an air particulate entry into at least one of the one or more pipe runs , and wherein the aspiration particulate detection system comprises a blower to transport the air particulate from each of the one or more sampling points through the one or more pipe runs to the aspiration particulate detection system ; and a secondary particulate detector fluidly connected to the aspiration particulate detection system through the one or more pipe runs , wherein the secondary particulate detector is in communication with the aspiration particulate detection system , wherein the secondary particulate detector is located proximate to at least one of the one or more sampling points , and wherein the air particulate is transported through the secondary particulate detector by the blower , a laser source configured to generate a laser having a plurality of wavelengths; and a sensor configured to detect at least one of an amount of laser scatter and laser fluorescence in response to interaction of the laser and air particulates; and
Method for detecting colour degradation on a document of value , namely a banknote, on the basis of an image which is detected by the document of value and has a multiplicity of pixels to each of which at least one intensity value (P i ) is assigned, the following steps being carried out for each pixel of a selection of pixels of the image : a) determining an intensity value (P i , m) from intensity values (P 0 - P 8 ) which are assigned to the pixel and pixels in the vicinity of the pixel, b) calculating a contrast value (c) on the basis of intensity values (P 0 - P 8 ) which are assigned to the pixel and pixels in the vicinity of the pixel, and c) classification of the respective pixel with regard to a colour degradation of the value document as a function of the respectively determined intensity value (Pi, m) and calculated contrast value (c), wherein the determined intensity value (Pi) corresponds to the highest intensity value (max{P i }) from the intensity values (P 0 - P 8 ) which are assigned to the pixel and pixels in the environment of the pixel. a) determining an intensity value (P i , m) from intensity values (P 0 - P 8 ) which are assigned to the pixel and pixels in the vicinity of the pixel, b) calculating a contrast value (c) on the basis of intensity values (P 0 - P 8 ) which are assigned to the pixel and pixels in the vicinity of the pixel, and c) classification of the respective pixel with regard to a colour degradation of the value document as a function of the respectively determined intensity value (Pi, m) and calculated contrast value (c), wherein the determined intensity value (Pi) corresponds to the highest intensity value (max{P i }) from the intensity values (P 0 - P 8 ) which are assigned to the pixel and pixels in the environment of the pixel.
A method of milling a window in the casing of an oil or gas well, the method comprising: (a) running a first milling tool into the well to a milling site, the first milling tool including a facility to grip the casing ; and (b) gripping the casing with the milling tool gripping facility , milling away a portion of the material of the casing at the milling site and then using a second milling tool, milling away further material from the casing at the milling site until a window of a required dimension has been milled through the casing ; the method being characterized in that step (a) comprises running the first milling tool into the well using wireline ; and further comprises: (c) withdrawing the first milling tool ; and (d) running the second milling tool into the well to the milling site, using coiled tubing. (a) running a first milling tool into the well to a milling site, the first milling tool including a facility to grip the casing ; and (b) gripping the casing with the milling tool gripping facility , milling away a portion of the material of the casing at the milling site and then using a second milling tool, milling away further material from the casing at the milling site until a window of a required dimension has been milled through the casing ; the method being characterized in that step (a) comprises running the first milling tool into the well using wireline ; and further comprises: (c) withdrawing the first milling tool ; and (d) running the second milling tool into the well to the milling site, using coiled tubing. (c) withdrawing the first milling tool ; and (d) running the second milling tool into the well to the milling site, using coiled tubing.
An aqueous composition comprising (a) a soluble human β-galactoside-α-2,6-sialyltransferase I comprising the amino acid motif from position 90 to position 108 in SEQ ID NO:1; (b) cytidine-5'-monophospho-N-acetylneuraminic acid, or a functional equivalent thereof; (c) a glycosylated target molecule selected from a glycoprotein and a glycolipid, the target molecule comprising one or more antenna(e), at least one antenna having as a terminal structure a β-D-galactosyl-1,4-N-acetyl-β-D-glucosamine moiety with a hydroxyl group at the C6 position in the galactosyl residue; (d) an aqueous solution permitting glycosyltransferase enzymatic activity; wherein the aqueous composition further comprises an enzyme capable of hydrolyzing the phosphoester bond in 5'-cytidine-monophosphate under conditions permitting glycosyltransferase enzymatic activity. (a) a soluble human β-galactoside-α-2,6-sialyltransferase I comprising the amino acid motif from position 90 to position 108 in SEQ ID NO:1; (b) cytidine-5'-monophospho-N-acetylneuraminic acid, or a functional equivalent thereof; (c) a glycosylated target molecule selected from a glycoprotein and a glycolipid, the target molecule comprising one or more antenna(e), at least one antenna having as a terminal structure a β-D-galactosyl-1,4-N-acetyl-β-D-glucosamine moiety with a hydroxyl group at the C6 position in the galactosyl residue; (d) an aqueous solution permitting glycosyltransferase enzymatic activity;