mhurhangee/ep-ind-claims huggingface dataset:
A control method of a cooking apparatus for fry-cooking without using oil comprising a cooking chamber, a microwave-heating unit to radiate microwaves to the cooking chamber, a convection-heating unit to supply hot air to the cooking chamber, and a grill-heating unit to supply radiant heat to the cooking chamber, the control method comprising: receiving a user non-oil fry-cooking command; performing a microwave-heating stage of activating at least one of the convection-heating unit and the grill-heating unit and activating the microwave-heating unit; and performing a slim fry stage of activating the grill-heating unit and the convection-heating unit without activating the microwave-heating unit, wherein the microwave-heating stage and the slim fry stage are performed in response to receiving the user non-oil fry-cooking command; and the microwave-heating stage and the slim fry stage are performed in the order of the microwave-heating stage and then the slim fry stage in response to receiving the user non-oil fry-cooking command. receiving a user non-oil fry-cooking command; performing a microwave-heating stage of activating at least one of the convection-heating unit and the grill-heating unit and activating the microwave-heating unit; and performing a slim fry stage of activating the grill-heating unit and the convection-heating unit without activating the microwave-heating unit, wherein the microwave-heating stage and the slim fry stage are performed in response to receiving the user non-oil fry-cooking command; and the microwave-heating stage and the slim fry stage are performed in the order of the microwave-heating stage and then the slim fry stage in response to receiving the user non-oil fry-cooking command.
A photochromic article comprising: a) a substrate; b) a thermoplastic photochromic coating composition solidified on at least one surface of the substrate, the photochromic coating composition comprising i) a thermoplastic acrylic polymer wherein the polymer or at least one segment of the polymer has a Tg below 55°C, wherein the acrylic polymer is an ABA triblock or an AB diblock copolymer and A is poly(methyl methacrylate-co-dialkylacrylamide) and B is poly(butyl acrylate); ii) a photochromic amount of one or more organic photochromic compounds; and iii) a non-reactive organic solvent; wherein the total amount of organic photochromic compound(s) is at least 40 parts by weight per 100 parts by weight of the total amount of thermoplastic acrylic polymer in the coating composition and wherein the photochromic coating composition comprises 5 to 65 weight percent of thermoplastic acrylic polymer and 5 to 90 weight percent of organic solvent; c) an optional first organic adhesion promoter layer interposed between the substrate and the photochromic coating; d) a protective polymeric hard coating superposed over the photochromic coating, wherein the protective polymeric hard coating is a thermally curable organosilane hard coating or a radiation curable hard coating; and e) an optional second organic adhesion promoter layer interposed between the photochromic coating and the protective hard coating. a) a substrate; b) a thermoplastic photochromic coating composition solidified on at least one surface of the substrate, the photochromic coating composition comprising i) a thermoplastic acrylic polymer wherein the polymer or at least one segment of the polymer has a Tg below 55°C, wherein the acrylic polymer is an ABA triblock or an AB diblock copolymer and A is poly(methyl methacrylate-co-dialkylacrylamide) and B is poly(butyl acrylate); ii) a photochromic amount of one or more organic photochromic compounds; and iii) a non-reactive organic solvent; wherein the total amount of organic photochromic compound(s) is at least 40 parts by weight per 100 parts by weight of the total amount of thermoplastic acrylic polymer in the coating composition and wherein the photochromic coating composition comprises 5 to 65 weight percent of thermoplastic acrylic polymer and 5 to 90 weight percent of organic solvent; i) a thermoplastic acrylic polymer wherein the polymer or at least one segment of the polymer has a Tg below 55°C, wherein the acrylic polymer is an ABA triblock or an AB diblock copolymer and A is poly(methyl methacrylate-co-dialkylacrylamide) and B is poly(butyl acrylate); ii) a photochromic amount of one or more organic photochromic compounds; and iii) a non-reactive organic solvent; c) an optional first organic adhesion promoter layer interposed between the substrate and the photochromic coating; d) a protective polymeric hard coating superposed over the photochromic coating, wherein the protective polymeric hard coating is a thermally curable organosilane hard coating or a radiation curable hard coating; and e) an optional second organic adhesion promoter layer interposed between the photochromic coating and the protective hard coating.
A telecommunications cable comprising: at least one member for carrying a telecommunications signal; a strength layer for providing tensile reinforcement to the telecommunications cable; and a layer surrounding the member and the strength layer, the layer including a thermoplastic base material and a liquid crystal polymer embedded within the base material for resisting shrinkage of the base material, the liquid crystal polymer constituting less than 2% of the layer by weight. at least one member for carrying a telecommunications signal; a strength layer for providing tensile reinforcement to the telecommunications cable; and a layer surrounding the member and the strength layer, the layer including a thermoplastic base material and a liquid crystal polymer embedded within the base material for resisting shrinkage of the base material, the liquid crystal polymer constituting less than 2% of the layer by weight.
A concentrator-integrated screw press (S, S1, S2) comprising: a continuous concentrator (2, 5, 81, 82, 107, 117, 128, 145) configured to continuously concentrate sludge and discharge the sludge as concentrated sludge, and including a discharge amount equalization unit (36, 37, 37', 82, 95) configured to equalize an amount of concentrated sludge to be discharged per unit time; a positive displacement pump (4, 41) installed consecutively to the concentrator (2, 5, 81, 82, 107, 117, 128, 145), and configured to continuously transport the concentrated sludge discharged from the concentrator (2, 5, 81, 82, 107, 117, 128, 145); and a screw press installed consecutively to a discharge side of the positive displacement pump (4, 41), and configured to compress and dewater the concentrated sludge. a continuous concentrator (2, 5, 81, 82, 107, 117, 128, 145) configured to continuously concentrate sludge and discharge the sludge as concentrated sludge, and including a discharge amount equalization unit (36, 37, 37', 82, 95) configured to equalize an amount of concentrated sludge to be discharged per unit time; a positive displacement pump (4, 41) installed consecutively to the concentrator (2, 5, 81, 82, 107, 117, 128, 145), and configured to continuously transport the concentrated sludge discharged from the concentrator (2, 5, 81, 82, 107, 117, 128, 145); and a screw press installed consecutively to a discharge side of the positive displacement pump (4, 41), and configured to compress and dewater the concentrated sludge.
Spraying process for coating a substrate with a substance atomised in a stream of gas, wherein a spray head is used to generate a stream of gas that acts upon the substrate, and wherein the substance is present in a syringe-like application container equipped with an application tip (14; 14a; 14b) and, without contact with the spray head, is introduced from the application container into the stream of gas and thereby atomised, characterised in that the application tip (14; 14a; 14b) of the application container containing the substance is introduced into the stream of gas outside the spray head at a distance (d s) therefrom and transversely with respect to the main direction of flow of the stream of gas, and the substance is introduced into the stream of gas at that location.
An electrode assembly, comprising: a first electrode; an adhesive layer disposed on the first electrode and including a host layer comprising a host and a guest layer (201, 202) comprising a guest; a separator disposed on the adhesive layer; and a second electrode disposed on the separator, wherein the host layer and the guest layer are separate layers, which are disposed to be in direct contact with each other, wherein the host and the guest are materials bound to each other by molecular recognition or self-assembly, thereby forming a complex, wherein the host is a supramolecule selected from the group consisting of cyclodextrin, calixarene, pillararene, cucurbituril, porphyrin, metallacrown, crown ether, zeolite, cyclotriveratrylene, cryptophane, carcerand, and foldamer, and wherein the guest is one or more selected from the group consisting of ferrocene, cadmium, lead, a lanthanide element, an actinide element, tetraphenylethene, p-xylenediammonium, Fe, Mg, Mn, N,N-bis(salicylaldehyde)ethylenediamine, and rotaxane, and wherein the electrode assembly further comprises an adhesive layer including a host layer comprising a host and a guest layer comprising a guest between the separator and the second electrode. a first electrode; an adhesive layer disposed on the first electrode and including a host layer comprising a host and a guest layer (201, 202) comprising a guest; a separator disposed on the adhesive layer; and a second electrode disposed on the separator, wherein the host layer and the guest layer are separate layers, which are disposed to be in direct contact with each other, wherein the host and the guest are materials bound to each other by molecular recognition or self-assembly, thereby forming a complex, wherein the host is a supramolecule selected from the group consisting of cyclodextrin, calixarene, pillararene, cucurbituril, porphyrin, metallacrown, crown ether, zeolite, cyclotriveratrylene, cryptophane, carcerand, and foldamer, and wherein the guest is one or more selected from the group consisting of ferrocene, cadmium, lead, a lanthanide element, an actinide element, tetraphenylethene, p-xylenediammonium, Fe, Mg, Mn, N,N-bis(salicylaldehyde)ethylenediamine, and rotaxane, and wherein the electrode assembly further comprises an adhesive layer including a host layer comprising a host and a guest layer comprising a guest between the separator and the second electrode.
A bio-gasoline composition comprising oxygen-carbon-containing compounds and hydrocarbon compounds, and having a total oxygen content of less than 15 weight percent, and comprising phenolic compounds in an amount of at least 5 percent by weight, wherein said bio-gasoline composition is obtained from a process comprising: (a) converting biomass in a conversion reactor containing a catalyst to thereby produce a conversion reactor effluent comprising vapor conversion products; (b) condensing at least a portion of said vapor conversion products to thereby provide a bio-oil having a total oxygen content of less than 15 weight percent; and (c) separating said bio-oil by distillation into at least a bio-gasoline fraction and a heavy fraction, wherein at least 75 weight percent of said bio-gasoline fraction has a boiling point less than 205°C, and wherein at least 75 weight percent of said heavy fraction has a boiling point greater than 205°C. (a) converting biomass in a conversion reactor containing a catalyst to thereby produce a conversion reactor effluent comprising vapor conversion products; (b) condensing at least a portion of said vapor conversion products to thereby provide a bio-oil having a total oxygen content of less than 15 weight percent; and (c) separating said bio-oil by distillation into at least a bio-gasoline fraction and a heavy fraction, wherein at least 75 weight percent of said bio-gasoline fraction has a boiling point less than 205°C, and wherein at least 75 weight percent of said heavy fraction has a boiling point greater than 205°C.
Heavy-duty scaffold tower having four scaffold upright bundles which are each arranged in a corner region of the heavy-duty scaffold tower and are each interlinked in the circumferential direction of the scaffold tower via first horizontal ledgers and vertical diagonals, each scaffold upright bundle comprising the following: - four scaffold post units arranged in each of its corner regions, which are arranged in each case running parallel to the vertical axis of the scaffold tower and which each comprise a plurality of interlocked scaffold posts with scaffold rosettes; - a plurality of spacer plates, each of which is arranged between the scaffold post units and by means of which the scaffold post units are kept at a distance from one another relative to one another, the spacer plates each being provided at the edges with indentations, and each scaffold post unit engaging in a respective one of the indentations of each spacer plate; - a plurality of second horizontal ledgers which are arranged spaced apart from one another in the axial direction, the second horizontal ledgers each being arranged on the longitudinal axis L and running in the direction of the longitudinal axis L of one of the first horizontal ledgers and each engaging in a scaffolding rosette of two scaffold post units arranged diametrically opposite one another with respect to the longitudinal central axis of the multi-part scaffold upright bundle in order to connect them to one another in a detachable and distance-invariant manner, and the second horizontal ledgers being arranged at least partially crosswise relative to one another in the direction of the vertical axis. - four scaffold post units arranged in each of its corner regions, which are arranged in each case running parallel to the vertical axis of the scaffold tower and which each comprise a plurality of interlocked scaffold posts with scaffold rosettes; - a plurality of spacer plates, each of which is arranged between the scaffold post units and by means of which the scaffold post units are kept at a distance from one another relative to one another, the spacer plates each being provided at the edges with indentations, and each scaffold post unit engaging in a respective one of the indentations of each spacer plate; - a plurality of second horizontal ledgers which are arranged spaced apart from one another in the axial direction, the second horizontal ledgers each being arranged on the longitudinal axis L and running in the direction of the longitudinal axis L of one of the first horizontal ledgers and each engaging in a scaffolding rosette of two scaffold post units arranged diametrically opposite one another with respect to the longitudinal central axis of the multi-part scaffold upright bundle in order to connect them to one another in a detachable and distance-invariant manner, and the second horizontal ledgers being arranged at least partially crosswise relative to one another in the direction of the vertical axis.
An azeotrope-like composition comprising (a) 1,2-trans-dichloroethylene, (b) 1,1,1,3,3-pentafluorobutane, and (c) 1,1,2,2-tetrafluoroethyl-2,2,2-trifluoroethyl ether.
A foundation pile end piece, comprising: a) a ring-shape connection housing, wherein a proximal end of the ring-shape connection housing is configured to secure to a bottom end of an open-ended tube foundation pile; and characterised by b) a moveable tip, wherein a distal end of said ring-shape connection housing is configured to fixedly hold said moveable tip, wherein said moveable tip is disposed to oscillate transversely with respect to a central axis of said ring-shape connection housing, wherein said moveable tip is configured to displace soil from the bottom end of said open-ended tube foundation pile according to actuation of said oscillation, and wherein said moveable tip comprises an array of said moveable tips arranged around said ring-shape connection housing forming a closed circular moveable tip array at said open-ended tube foundation pile bottom end. a) a ring-shape connection housing, wherein a proximal end of the ring-shape connection housing is configured to secure to a bottom end of an open-ended tube foundation pile; and characterised by b) a moveable tip, wherein a distal end of said ring-shape connection housing is configured to fixedly hold said moveable tip, wherein said moveable tip is disposed to oscillate transversely with respect to a central axis of said ring-shape connection housing, wherein said moveable tip is configured to displace soil from the bottom end of said open-ended tube foundation pile according to actuation of said oscillation, and wherein said moveable tip comprises an array of said moveable tips arranged around said ring-shape connection housing forming a closed circular moveable tip array at said open-ended tube foundation pile bottom end.
Liquid oral pharmaceutical formulations comprising micellar nanoaggregates of dimensions ranging from 50 to 200 nm of tetraiodothyronine in a solvent consisting of polyethylene glycols in percentages by weight ranging from 50 to 100% of the solvent, and glycerol, water, ethanol or mixtures thereof in percentages by weight ranging from 0 to 60% of the solvent.
A method of producing a canola protein isolate having a canola protein content of at least 90 wt% (N x 6.25) d.b., which comprises: (a) extracting canola seed meal with an aqueous solution of a calcium salt at a temperature of at least 5°C to cause solubilization of canola protein from the meal and to form an aqueous canola protein solution having a protein content of 5 to 40 g/L and a pH of 5 to 6.8, (b) separating the aqueous protein solution from the oil seed meal, (c) diluting the aqueous protein solution with 0.5 to 10 volumes of water having a temperature of 2° to 90°C, (d) acidifying the resulting diluted canola protein solution to a pH of 2.5 to 4 to produce an acidified clear protein solution, (e) increasing the concentration of the acidified clear protein solution to 50 to 250 g/L while maintaining the ionic strength substantially constant by using a selective membrane technique to provide a concentrated protein solution, (f) optionally diafiltering the concentrated protein solution, (g) optionally drying the concentrated solution to provide a canola protein isolate having a protein content of at least 90 wt% (N x 6.25) d.b.. (a) extracting canola seed meal with an aqueous solution of a calcium salt at a temperature of at least 5°C to cause solubilization of canola protein from the meal and to form an aqueous canola protein solution having a protein content of 5 to 40 g/L and a pH of 5 to 6.8, (b) separating the aqueous protein solution from the oil seed meal, (c) diluting the aqueous protein solution with 0.5 to 10 volumes of water having a temperature of 2° to 90°C, (d) acidifying the resulting diluted canola protein solution to a pH of 2.5 to 4 to produce an acidified clear protein solution, (e) increasing the concentration of the acidified clear protein solution to 50 to 250 g/L while maintaining the ionic strength substantially constant by using a selective membrane technique to provide a concentrated protein solution, (f) optionally diafiltering the concentrated protein solution, (g) optionally drying the concentrated solution to provide a canola protein isolate having a protein content of at least 90 wt% (N x 6.25) d.b..
An X-ray system for scanning moving cargo with a speed in the range of 20 km/h to 150 km/h, the system comprising: an X-ray source configured for generating a cone-beam of X-rays to irradiate the moving cargo, wherein the moving cargo travels along a linear trajectory perpendicular to the plane of the cone-beam of X-rays and wherein the X-ray source is a dual energy source configured to generate a high energy beam and a low energy beam of X-rays; at least one two-dimensional detector array to receive the cone-beam of X-rays transmitted through the moving cargo, wherein said X-ray source and said at least one detector array are placed on opposite sides of the moving cargo; a sensor configured to measure a speed of the moving cargo; and a control system arranged to receive data indicative of said speed from the sensor, pulse the X-ray source and alternate between the high energy X-ray beam and the low energy X-ray beam on each subsequent pulse, and modulate a pulse rate of the cone-beam of X-rays such that the distance travelled by the moving cargo between each X-ray pulse is substantially equal to half the width of the detector array and wherein data from half the detector array from a given pulse is used to form a materials separation image together with data from the other half of the detector array from a subsequent pulse. an X-ray source configured for generating a cone-beam of X-rays to irradiate the moving cargo, wherein the moving cargo travels along a linear trajectory perpendicular to the plane of the cone-beam of X-rays and wherein the X-ray source is a dual energy source configured to generate a high energy beam and a low energy beam of X-rays; at least one two-dimensional detector array to receive the cone-beam of X-rays transmitted through the moving cargo, wherein said X-ray source and said at least one detector array are placed on opposite sides of the moving cargo; a sensor configured to measure a speed of the moving cargo; and a control system arranged to receive data indicative of said speed from the sensor, pulse the X-ray source and alternate between the high energy X-ray beam and the low energy X-ray beam on each subsequent pulse, and modulate a pulse rate of the cone-beam of X-rays such that the distance travelled by the moving cargo between each X-ray pulse is substantially equal to half the width of the detector array and wherein data from half the detector array from a given pulse is used to form a materials separation image together with data from the other half of the detector array from a subsequent pulse. receive data indicative of said speed from the sensor, pulse the X-ray source and alternate between the high energy X-ray beam and the low energy X-ray beam on each subsequent pulse, and modulate a pulse rate of the cone-beam of X-rays such that the distance travelled by the moving cargo between each X-ray pulse is substantially equal to half the width of the detector array and wherein data from half the detector array from a given pulse is used to form a materials separation image together with data from the other half of the detector array from a subsequent pulse.
An ultrasonic device, the device comprising: at least one flexible ultrasonic transducer; a clamp configured to mount the at least one transducer to a test object; an urging mechanism coupled to the at least one flexible transducer via a coupling, the urging mechanism being configured to urge the at least one transducer towards and/or onto the test object, in use; and a device body, wherein the at least one flexible transducer and the urging mechanism are housed in or mounted on the device body. at least one flexible ultrasonic transducer; a clamp configured to mount the at least one transducer to a test object; an urging mechanism coupled to the at least one flexible transducer via a coupling, the urging mechanism being configured to urge the at least one transducer towards and/or onto the test object, in use; and a device body, wherein the at least one flexible transducer and the urging mechanism are housed in or mounted on the device body.