mhurhangee/ep-ind-claims huggingface dataset:
An electrochemical process for preserving at least one perishable food, the process comprising: providing a closed container containing water moisture, the at least one perishable food, and at least one water electrolyzing device, wherein the at least one water electrolyzing device comprises an inert substrate and melanin, and wherein the container has a rigid shape or a free form shape selected from a plastic wrap and a plastic bag; providing a source of electromagnetic energy to the at least one water electrolyzing device in the container to initiate a reaction of water electrolysis by melanin of the water electrolyzing device to produce diatomic hydrogen, wherein the source of electromagnetic energy is selected from the group consisting of visible light energy and invisible light energy; and maintaining the at least one perishable food and the diatomic hydrogen produced from water electrolysis by the melanin of the water electrolyzing device within the container, such that the at least one perishable food is preserved. providing a closed container containing water moisture, the at least one perishable food, and at least one water electrolyzing device, wherein the at least one water electrolyzing device comprises an inert substrate and melanin, and wherein the container has a rigid shape or a free form shape selected from a plastic wrap and a plastic bag; providing a source of electromagnetic energy to the at least one water electrolyzing device in the container to initiate a reaction of water electrolysis by melanin of the water electrolyzing device to produce diatomic hydrogen, wherein the source of electromagnetic energy is selected from the group consisting of visible light energy and invisible light energy; and maintaining the at least one perishable food and the diatomic hydrogen produced from water electrolysis by the melanin of the water electrolyzing device within the container, such that the at least one perishable food is preserved.
Seed press wheel for sowing units for precision seeders, comprising a solid tyre in the shape of a disc that has a predetermined axis for mounting said tyre on a hub, said solid tyre comprising a first portion extending radially from said axis, and at least one second portion extending radially from said first portion, characterised in that said first portion is made of a first material having a first modulus of elasticity value, and said second portion is made of a second material having a second modulus of elasticity value, said first modulus of elasticity value being different from said second modulus of elasticity value.
A method of inspecting a substrate, characterized by comprising: generating, by a processor of a substrate inspection system, a 3D image of the substrate based on image data acquired from the substrate having an inspection object, the image data comprising a plurality of view data; displaying, by the processor, the 3D image of the substrate on a display part of the substrate inspection system; receiving, by a user input part of the substrate inspection system, input information for setting a 3D region of interest having a bottom and a height at a predetermined position of the 3D image from a user; displaying, by the processor, the 3D region of interest on the 3D image on the display part in accordance with the input information, and characterized by further comprising: inspecting, by the processor, the 3D region of interest in each of the plurality of view data, based on an inspection condition for determining whether the inspection object is good or not good in each of the plurality of view data; and determining, by the processor, whether the substrate is good or not good based on the determination of whether the inspection object is good or not good in each of the plurality of view data, wherein the plurality of view data are acquired from a plurality of imaging portions (2220-1 to 2220-5) installed at different positions, respectively. generating, by a processor of a substrate inspection system, a 3D image of the substrate based on image data acquired from the substrate having an inspection object, the image data comprising a plurality of view data; displaying, by the processor, the 3D image of the substrate on a display part of the substrate inspection system; receiving, by a user input part of the substrate inspection system, input information for setting a 3D region of interest having a bottom and a height at a predetermined position of the 3D image from a user; displaying, by the processor, the 3D region of interest on the 3D image on the display part in accordance with the input information, and characterized by further comprising: inspecting, by the processor, the 3D region of interest in each of the plurality of view data, based on an inspection condition for determining whether the inspection object is good or not good in each of the plurality of view data; and determining, by the processor, whether the substrate is good or not good based on the determination of whether the inspection object is good or not good in each of the plurality of view data, wherein the plurality of view data are acquired from a plurality of imaging portions (2220-1 to 2220-5) installed at different positions, respectively.
A lighting device suitable for promoting plant growth, said lighting device comprising:- (i) a first group of LEDs - referred to as "Group 1" hereafter-comprising a plurality of LEDs adapted to generate a first royal blue light emission spectrum having a peak between 450 - 460 nm; (ii) a second group of LEDs - referred to as "Group 2" hereafter-comprising a plurality of LEDS adapted to generate a second crimson light emission spectrum having a peak between 630 - 670 nm; (iii) a third group of LEDs - referred to as "Group 3" hereafter-comprising a plurality of LEDs adapted to generate a third cherry red light emission spectrum having a peak between 720 - 740 nm; (iv) a fourth group of LEDs - referred to as "Group 4" hereafter-comprising a plurality of LEDs adapted to generate white light; the intensity of the light output generated by each group of LEDs being adjustable independently of the other groups; characterized in that the lighting device further comprises an array of lenses, each lens comprising a light entering section in the form of a blind recess and a light emitting section, the outer surface of the light emitting section being substantially hemispherical and at least part of the internal, light receiving surface of the light entering section incorporating a high density of small convex facets, for example there are at least 50 small convex facets, and preferably greater than 100 small convex facets, on the internal hemispherical surface of each lens, even more preferably greater than 150 small convex facets. (i) a first group of LEDs - referred to as "Group 1" hereafter-comprising a plurality of LEDs adapted to generate a first royal blue light emission spectrum having a peak between 450 - 460 nm; (ii) a second group of LEDs - referred to as "Group 2" hereafter-comprising a plurality of LEDS adapted to generate a second crimson light emission spectrum having a peak between 630 - 670 nm; (iii) a third group of LEDs - referred to as "Group 3" hereafter-comprising a plurality of LEDs adapted to generate a third cherry red light emission spectrum having a peak between 720 - 740 nm; (iv) a fourth group of LEDs - referred to as "Group 4" hereafter-comprising a plurality of LEDs adapted to generate white light; the intensity of the light output generated by each group of LEDs being adjustable independently of the other groups; characterized in that the lighting device further comprises an array of lenses, each lens comprising a light entering section in the form of a blind recess and a light emitting section, the outer surface of the light emitting section being substantially hemispherical and at least part of the internal, light receiving surface of the light entering section incorporating a high density of small convex facets, for example there are at least 50 small convex facets, and preferably greater than 100 small convex facets, on the internal hemispherical surface of each lens, even more preferably greater than 150 small convex facets.
Container made of injection-molded plastic, consisting essentially of a container wall, which defines an interior of the container, with a first plastic component, from which a skeleton with a base surface and a plurality of struts and/or part surfaces molded thereon is formed, and with at least one second plastic component which completes the skeleton to form the container wall, characterized in that the skeleton consists of foamed plastic and the second plastic component consists of a non-foamed plastic, and in that the second plastic component is a transparent plastic.
A juicer comprising: a screw to be driven with rotation; an attachment (30, 40, 41, 42, 43, 44, 45), with the screw disposed therein, for crushing frozen food between an inner periphery surface of the attachment (30, 40, 41, 42, 43, 44, 45) and the screw; a case that has a first discharge port for discharging crushed and fluidized food; a lid that has an inlet and is attached to a top portion of the case; and a main body that has a case-mount section for mounting the case on an upper side and drives the screw with rotation, the juicer is characterized in that, the attachment (30, 40, 41, 42, 43, 44, 45) including: a drum section for crushing the frozen food between an inner periphery surface of the drum section and the screw; and a second discharge port that is connected to an inlet of the first discharge port of the case so as to lead the crushed and fluidized food to the first discharge port, wherein, the second discharge port has a discharge path in which a part at least between an inlet and an outlet has a cross-section area different from cross-section areas of other parts. a screw to be driven with rotation; an attachment (30, 40, 41, 42, 43, 44, 45), with the screw disposed therein, for crushing frozen food between an inner periphery surface of the attachment (30, 40, 41, 42, 43, 44, 45) and the screw; a case that has a first discharge port for discharging crushed and fluidized food; a lid that has an inlet and is attached to a top portion of the case; and a main body that has a case-mount section for mounting the case on an upper side and drives the screw with rotation, the juicer is characterized in that, the attachment (30, 40, 41, 42, 43, 44, 45) including: a drum section for crushing the frozen food between an inner periphery surface of the drum section and the screw; and a second discharge port that is connected to an inlet of the first discharge port of the case so as to lead the crushed and fluidized food to the first discharge port, wherein, the second discharge port has a discharge path in which a part at least between an inlet and an outlet has a cross-section area different from cross-section areas of other parts.
A method of operating a mobile terminal comprising a touch sensor, the method comprising: receiving a touch input on the touch sensor in a state in which the touch sensor is activated and a display is deactivated; determining whether the touch input is recognizable as at least one character; when the touch input is recognized as at least one character, selecting an application corresponding to the touch input from among a plurality of possible applications, the application being related to the recognized at least one character; and executing the selected application corresponding to the received touch input when the display is activated, wherein executing the selected application comprises processing information indicated by the recognized at least one character by using the selected application and displaying a result of the processing of the information on the display. receiving a touch input on the touch sensor in a state in which the touch sensor is activated and a display is deactivated; determining whether the touch input is recognizable as at least one character; when the touch input is recognized as at least one character, selecting an application corresponding to the touch input from among a plurality of possible applications, the application being related to the recognized at least one character; and executing the selected application corresponding to the received touch input when the display is activated, wherein executing the selected application comprises processing information indicated by the recognized at least one character by using the selected application and displaying a result of the processing of the information on the display.
A method of preparing a concentrated food additive consisting of: (a) treating vinegar with a basic neutralizing agent to partially neutralize the vinegar to a pH in the range of 4.0 to 5.5; and (b) evaporating water from and drying the product of step (a) to produce the concentrated food additive consisting of an acetate and an acid in the form of a powder. (a) treating vinegar with a basic neutralizing agent to partially neutralize the vinegar to a pH in the range of 4.0 to 5.5; and (b) evaporating water from and drying the product of step (a) to produce the concentrated food additive consisting of an acetate and an acid in the form of a powder.
A process for obtaining a rare earth phosphate based, non-reactive and non-wettable surface for molten metals for high temperature applications, comprising the steps of: i. adding rare earth phosphate nanorod powders in water and/or solvent to obtain a slurry having solid loading in the range of 1-75 wt%; ii. incorporating binders and plasticizers in to the slurry as obtained in step (i) to prepare a formulation; iii. spraying or dipping the formulation as obtained in step (ii) on a surface to obtain a rare earth phosphate based, non-reactive and non-wettable surface; wherein the binders are selected from the group consisting of polyvinyl alcohol, methyl cellulose, ethyl cellulose, and polyvinyl pyrrolidone, and wherein the plasticizers are selected from the group consisting of polyethylene glycol and dioctyle phthalate. i. adding rare earth phosphate nanorod powders in water and/or solvent to obtain a slurry having solid loading in the range of 1-75 wt%; ii. incorporating binders and plasticizers in to the slurry as obtained in step (i) to prepare a formulation; iii. spraying or dipping the formulation as obtained in step (ii) on a surface to obtain a rare earth phosphate based, non-reactive and non-wettable surface; wherein the binders are selected from the group consisting of polyvinyl alcohol, methyl cellulose, ethyl cellulose, and polyvinyl pyrrolidone, and wherein the plasticizers are selected from the group consisting of polyethylene glycol and dioctyle phthalate.
A computerized method characterized by the method comprising: performing by an automation device the steps of storing, in a parameter storage, application-related parameters, each parameter uniquely identifying a specific automation device application; storing, in an application repository, automation device applications as separate computer program entities; detecting, a pre-determined act performed by a user, the predetermined act comprising the user selecting via a user interface an application-related parameter among the application-related parameters stored in the parameter storage; based on the detecting, retrieving, from the application repository to an execution memory, the automation device application corresponding to the selected application-related parameter; wherein the retrieved automation device application is executable from the execution memory, in order to drive the automation device for an application-related purpose.
Process for increasing the β-glucosidase and/or de β-xylosidase rates of an enzymatic cocktail from a cellulolytic microorganism producing cellulases and/or hemi-cellulases, comprising: - a step for the production of enzymes with a medium being obtained containing enzymes and a microorganism must, said must is separated, or not separated, from the liquid containing said enzymes, - a step of cooling said must to a temperature comprised between 4 and 20°C, which is a temperature below the temperature of the enzyme production step, for a time comprised between 12 and 90 hours such that: - the beta-glucosidase or β-xylosidase concentration of the liquid originating from the cooling step is greater than that of the liquid originating from the enzyme production step, and/or - the solid volume/total volume ratio is less than said ratio for the enzyme production step, - and an enzymatic cocktail is obtained at the end of the cooling step. - a step for the production of enzymes with a medium being obtained containing enzymes and a microorganism must, said must is separated, or not separated, from the liquid containing said enzymes, - a step of cooling said must to a temperature comprised between 4 and 20°C, which is a temperature below the temperature of the enzyme production step, for a time comprised between 12 and 90 hours such that: - the beta-glucosidase or β-xylosidase concentration of the liquid originating from the cooling step is greater than that of the liquid originating from the enzyme production step, and/or - the solid volume/total volume ratio is less than said ratio for the enzyme production step, - the beta-glucosidase or β-xylosidase concentration of the liquid originating from the cooling step is greater than that of the liquid originating from the enzyme production step, and/or - the solid volume/total volume ratio is less than said ratio for the enzyme production step, - and an enzymatic cocktail is obtained at the end of the cooling step.
Spindle nut unit for driving a high-lift system of an aircraft, in particular an aeroplane, wherein the spindle nut unit comprises a spindle nut and a spindle as well as two cardanic suspensions (1, 2), wherein the spindle nut unit can be coupled to connections of the aircraft via the two cardanic suspensions (1, 2), characterised in that the two cardanic suspensions (1, 2) have a common midpoint and in that the first cardanic suspension is designed for torque transmission to the spindle nut or the spindle and the second cardanic suspension is designed for force transmission to the spindle nut.
A method, comprising: disposing a plurality of solid features on a first surface, the first surface having a first roll off angle; communicating an impregnating liquid into the interstitial regions between the plurality of solid features, the impregnating liquid and the plurality of solid features at least partially forming a second surfacehaving a second roll off angle less than the first roll off angle; and reapplying the impregnating liquid via a liquid delivery mechanism to maintain the second roll off angle of the second surface less than the first roll off angle, the liquid delivery mechanism including a reservoir configured to contain a supply of impregnating liquid and a pumping mechanism configured to transfer impregnating liquid from the reservoir to the interstitial regions. disposing a plurality of solid features on a first surface, the first surface having a first roll off angle; communicating an impregnating liquid into the interstitial regions between the plurality of solid features, the impregnating liquid and the plurality of solid features at least partially forming a second surfacehaving a second roll off angle less than the first roll off angle; and reapplying the impregnating liquid via a liquid delivery mechanism to maintain the second roll off angle of the second surface less than the first roll off angle, the liquid delivery mechanism including a reservoir configured to contain a supply of impregnating liquid and a pumping mechanism configured to transfer impregnating liquid from the reservoir to the interstitial regions.
Use of a sheet, the sheet being a layered structure obtained by layering a resin layer including at least a foamed resin layer on a fibrous base material, for covering the wall of an earthquake-resistant structure, which is to be pasted to a backing board for interior finishing of an earthquake-resistant structure, and wherein the displacement from the first maximum point of the tensile strength in the width direction of the sheet, said width direction being the direction perpendicular to the fiber arrangement direction of the fibrous base material, measured at a tensile speed of 3 mm/minute and at a distance between grippers of 800 mm in the testing method for tear strength of sheeting defined in JIS K7128-3 to the second maximum point thereof being 1 to 5 mm.
A liquid ejection apparatus comprising: a liquid ejection head having a nozzle with an inner diameter of 15 μ m or less to eject droplets of charged solution onto a substrate; an ejection voltage supply to apply an ejection voltage to a solution inside the nozzle; a convex meniscus generator to form a state in which the solution inside the nozzle rises from the nozzle in a convex shape; and an operation controller to control application of a drive voltage to drive the convex meniscus generator and application of an ejection voltage by the ejection voltage supply so that the drive voltage to the convex meniscus generator is applied in timing overlapped with the application of a pulse voltage as the ejection voltage by the ejection voltage supply, characterized in that the operation controller is capable to apply a voltage with reversed polarity to the ejection voltage just before or just after the ejection voltage is applied to the solution inside the nozzle. a liquid ejection head having a nozzle with an inner diameter of 15 μ m or less to eject droplets of charged solution onto a substrate; an ejection voltage supply to apply an ejection voltage to a solution inside the nozzle; a convex meniscus generator to form a state in which the solution inside the nozzle rises from the nozzle in a convex shape; and an operation controller to control application of a drive voltage to drive the convex meniscus generator and application of an ejection voltage by the ejection voltage supply so that the drive voltage to the convex meniscus generator is applied in timing overlapped with the application of a pulse voltage as the ejection voltage by the ejection voltage supply, characterized in that the operation controller is capable to apply a voltage with reversed polarity to the ejection voltage just before or just after the ejection voltage is applied to the solution inside the nozzle.
A wing for a commercial vehicle, with a rear limb to which a splash guard is fastened, the lower edge of which is spaced apart from the lower edge of the limb, wherein the distance between the lower edge of the splash guard and the lower edge of the limb is variable and the splash guard is displaceable on the limb in a manner guided on rails, characterized in that the splash guard is fastened to the wing in a vertically displaceable manner and markings corresponding to permitted wheel diameters are arranged on the rails.