mhurhangee/ep-ind-claims huggingface dataset:
A method of extracting a starch product from a starch source comprising the steps of: (a) steeping said starch source in a steeping liquid, (b) after step (a), producing from the starch source an intermediate product slurry comprising starch and gluten, and then (c) extracting said starch product from the intermediate product slurry, said steeping liquid comprising a first aqueous anolyte product having a pH in the range of from 4.5 to 7.5 and a positive oxidation-reduction potential of at least + 650mV, said steeping liquid further comprising non-electrochemically activated water, and said aqueous anolyte product being present in said steeping liquid in an amount in the range of from 1% to 50% by volume, wherein: step (c) comprises at least partially separating said starch and said gluten to produce a starch product slurry comprising said starch product; and said method further comprises the step of adding a second aqueous anolyte product having a pH of at least 6.0 and a positive oxidation-reduction potential of at least + 900mV to said intermediate product slurry, or to said starch product slurry, or to both of said intermediate product slurry and said starch product slurry, in a manner effective to cause said second aqueous anolyte product having a pH of at least 6.0 and a positive oxidation-reduction potential of at least + 900mV to be present in said starch product slurry at a final concentration in the range of from 1% to 35% by volume. (a) steeping said starch source in a steeping liquid, (b) after step (a), producing from the starch source an intermediate product slurry comprising starch and gluten, and then (c) extracting said starch product from the intermediate product slurry, step (c) comprises at least partially separating said starch and said gluten to produce a starch product slurry comprising said starch product; and said method further comprises the step of adding a second aqueous anolyte product having a pH of at least 6.0 and a positive oxidation-reduction potential of at least + 900mV to said intermediate product slurry, or to said starch product slurry, or to both of said intermediate product slurry and said starch product slurry, in a manner effective to cause said second aqueous anolyte product having a pH of at least 6.0 and a positive oxidation-reduction potential of at least + 900mV to be present in said starch product slurry at a final concentration in the range of from 1% to 35% by volume.
A propeller which includes a hub and a set of blades, characterized by the fact that: - said hub has a thickness substantially equal to that of the blades; - each blade is connected to the hub through an intermediate plate which includes a first edge for connecting to the hub and second edge for connecting to the associated blade, this second edge having a longitudinal extent close to or equal to that of the base of the blade; - each of the plates forming with one of the two large faces (22, 23) of the hub, a so-called "front face", a same first angle V comprised between 60 and 120°, on the one hand and, with each blade, a same second angle W comprised between 60 and 120°, on the other hand. - said hub has a thickness substantially equal to that of the blades; - each blade is connected to the hub through an intermediate plate which includes a first edge for connecting to the hub and second edge for connecting to the associated blade, this second edge having a longitudinal extent close to or equal to that of the base of the blade; - each of the plates forming with one of the two large faces (22, 23) of the hub, a so-called "front face", a same first angle V comprised between 60 and 120°, on the one hand and, with each blade, a same second angle W comprised between 60 and 120°, on the other hand.
A setting system for setting an optically relevant component of a vehicle headlight, comprising: - a supporting frame structure including a first and a second bearing point (LP1, LP2), which form a first axis (z); - a pivot frame arranged at least partially within the supporting frame structure; and - a first adjustment device, the pivot frame being configured to receive the optically relevant component and being pivotable, and in particular rotatable, about the first axis (z), preferably about a vertical axis, by means of the first adjustment device, and the first adjustment device comprising an electric motor-operated actuator that engages on the first bearing point so as to rotate the pivot frame about the first axis (z), characterized in that the first adjustment device furthermore comprises a manually operable setting means that engages the electric motor-operated actuator so as to rotate the electric motor-operated actuator about the first axis (z). - a supporting frame structure including a first and a second bearing point (LP1, LP2), which form a first axis (z); - a pivot frame arranged at least partially within the supporting frame structure; and - a first adjustment device,
An auxiliary monitor comprising: a mount including a first rail (1 10a) and a second rail each extending along a first axis and parallel to each other; one or more coupling elements coupled to the mount and configured to be coupled to a backplane surface of a laptop computer; and a display portion including: a first communications interface configured to be communicatively coupled to a first communications interface of the laptop computer; a display screen configured to display output information; and at least one hinge configured to be slidably coupled to the first rail and the second rail, the display portion being configured to move along the first axis via the at least one hinge to a parallel configuration in which the display screen is configured to be parallel to the laptop computer, the display portion being further configured to rotate 180 degrees about the at least one hinge from the parallel configuration to a tabletized configuration in which the display screen is configured to be antiparallel to the primary display screen of the laptop computer, and is configured to be disposed in a space between the first rail and the second rail. a mount including a first rail (1 10a) and a second rail each extending along a first axis and parallel to each other; one or more coupling elements coupled to the mount and configured to be coupled to a backplane surface of a laptop computer; and a display portion including: a first communications interface configured to be communicatively coupled to a first communications interface of the laptop computer; a display screen configured to display output information; and at least one hinge configured to be slidably coupled to the first rail and the second rail, the display portion being configured to move along the first axis via the at least one hinge to a parallel configuration in which the display screen is configured to be parallel to the laptop computer, the display portion being further configured to rotate 180 degrees about the at least one hinge from the parallel configuration to a tabletized configuration in which the display screen is configured to be antiparallel to the primary display screen of the laptop computer, and is configured to be disposed in a space between the first rail and the second rail. a first communications interface configured to be communicatively coupled to a first communications interface of the laptop computer; a display screen configured to display output information; and at least one hinge configured to be slidably coupled to the first rail and the second rail, the display portion being configured to move along the first axis via the at least one hinge to a parallel configuration in which the display screen is configured to be parallel to the laptop computer, the display portion being further configured to rotate 180 degrees about the at least one hinge from the parallel configuration to a tabletized configuration in which the display screen is configured to be antiparallel to the primary display screen of the laptop computer, and is configured to be disposed in a space between the first rail and the second rail.
Dispersion, characterized in that - at least one precipitated silicon dioxide and at least one superplasticizer are present, the superplasticizer being a polycarboxylate ether, - the at least one precipitated silicon dioxide has a BET surface area greater than 50 m 2 /g, - the aggregates and/or agglomerates of the precipitated silicon dioxide in the dispersion have a median diameter of less than 1 μm and - the proportion of silicon dioxide is from 5 to 50% by weight, based on the total amount of the dispersion. - at least one precipitated silicon dioxide and at least one superplasticizer are present, the superplasticizer being a polycarboxylate ether, - the at least one precipitated silicon dioxide has a BET surface area greater than 50 m 2 /g, - the aggregates and/or agglomerates of the precipitated silicon dioxide in the dispersion have a median diameter of less than 1 μm and - the proportion of silicon dioxide is from 5 to 50% by weight, based on the total amount of the dispersion.
A plastic optical component comprising: a base member made of a first plastic; a covering member disposed on a surface of the first base member, the covering member including a portion made of a second plastic, wherein the base member has a first surface and a second surface, and the covering member includes a first covering portion disposed on the first surface and a second covering portion disposed on the second surface, the plastic optical component further comprising a rib coupling the first covering portion and the second covering portion, wherein the rib has widths at a portion in contact with the first covering portion and a portion in contact with the second covering portion, characterized in that the first plastic has a lower water absorption than the second plastic, and the second plastic has a higher hardness than the first plastic, the water absorption being a value determined in accordance with JIS K7209, and the hardness referring to a pencil hardness being a value measured in accordance with JIS K5401 and in that the width at the portion in contact with the first covering portion is in the range of 1/12 to 4/12 relative to the length of the periphery of the first covering portion and the width at the portion in contact with the second covering portion is in the range of 1/12 to 4/12 relative to the length of the periphery of the second covering portion. a base member made of a first plastic; a covering member disposed on a surface of the first base member, the covering member including a portion made of a second plastic, wherein the base member has a first surface and a second surface, and the covering member includes a first covering portion disposed on the first surface and a second covering portion disposed on the second surface, the plastic optical component further comprising a rib coupling the first covering portion and the second covering portion, wherein the rib has widths at a portion in contact with the first covering portion and a portion in contact with the second covering portion, characterized in that the first plastic has a lower water absorption than the second plastic, and the second plastic has a higher hardness than the first plastic, the water absorption being a value determined in accordance with JIS K7209, and the hardness referring to a pencil hardness being a value measured in accordance with JIS K5401 and in that the width at the portion in contact with the first covering portion is in the range of 1/12 to 4/12 relative to the length of the periphery of the first covering portion and the width at the portion in contact with the second covering portion is in the range of 1/12 to 4/12 relative to the length of the periphery of the second covering portion.
A method of preparing a negative electrode active material for a lithium secondary battery, the method comprising steps of: depositing an amorphous silicon layer on a surface of a glass substrate by applying the silane gas at a rate of 10 sccm/60 min to 50 sccm/60 min in a temperature range of 500°C to 700°C and in a pressure range of 133.322 x 10 -8 Pa (10 -8 Torr) to 101325 Pa (760 Torr) through chemical vapor deposition using silane (SiH 4) gas as a source; immersing the glass substrate having the amorphous silicon layer deposited thereon in an acetone solution and then performing ultrasonic milling of the amorphous silicon layer at a power of 50 W to 200 W for 10 minutes to 20 minutes at room temperature using an ultrasonic milling machine to prepare amorphous silicon particles; dispersing the amorphous silicon particles in a carbon-based precursor solution to prepare a dispersion solution; spray drying the dispersion solution to prepare a silicon-based composite precursor; and heat treating the silicon-based composite precursor to form a silicon composite which includes an amorphous carbon coating layer containing at least one amorphous silicon particle in inside thereof. depositing an amorphous silicon layer on a surface of a glass substrate by applying the silane gas at a rate of 10 sccm/60 min to 50 sccm/60 min in a temperature range of 500°C to 700°C and in a pressure range of 133.322 x 10 -8 Pa (10 -8 Torr) to 101325 Pa (760 Torr) through chemical vapor deposition using silane (SiH 4) gas as a source; immersing the glass substrate having the amorphous silicon layer deposited thereon in an acetone solution and then performing ultrasonic milling of the amorphous silicon layer at a power of 50 W to 200 W for 10 minutes to 20 minutes at room temperature using an ultrasonic milling machine to prepare amorphous silicon particles; dispersing the amorphous silicon particles in a carbon-based precursor solution to prepare a dispersion solution; spray drying the dispersion solution to prepare a silicon-based composite precursor; and heat treating the silicon-based composite precursor to form a silicon composite which includes an amorphous carbon coating layer containing at least one amorphous silicon particle in inside thereof.
A reactor vessel comprising: a hemispherical concave inner surface; a symmetrical concave portion on the hemispherical concave inner surface; a nozzle including a flange, the flange having the same shape as the symmetrical concave portion, the flange being welded by a weld part to the inner surface of the reactor vessel within the symmetrical concave portion on the inner surface of the reactor vessel wherein the symmetrical concave portion is symmetrical about a normal line of the inner surface of the reactor vessel or about a centerline of the nozzle. a hemispherical concave inner surface; a symmetrical concave portion on the hemispherical concave inner surface; a nozzle including a flange, the flange having the same shape as the symmetrical concave portion, the flange being welded by a weld part to the inner surface of the reactor vessel within the symmetrical concave portion on the inner surface of the reactor vessel wherein the symmetrical concave portion is symmetrical about a normal line of the inner surface of the reactor vessel or about a centerline of the nozzle.
An image co-registration device comprising: an imaging probe; a tracking system for tracking a location and orientation of said imaging probe, an image acquisition processor configured for controlling the imaging probe to emit energy, and to responsively and dynamically acquire images, the acquired images having a given dimensionality, wherein the image acquisition processor is configured to also store in a memory the location and orientation of the imaging probe for each acquired image; an image selection processor configured for selecting, repeatedly and dynamically with said acquiring, from among the acquired images and, as a result of said selecting, changing, repeatedly and dynamically, membership in a set of images of said dimensionality; an image co-registration processor configured for, synchronously with the change, dynamically and iteratively registering said set to an image having a dimensionality higher than said given dimensionality, and said registering being configured for said acquiring with said imaging probe being dynamically, during said acquiring, any one or more of angulated, rotated and translated; wherein said selecting entails deciding whether or not to include in said set a current one of said acquired images, the iterations of said registering being correspondingly responsive to instances of said change. an imaging probe; a tracking system for tracking a location and orientation of said imaging probe, an image acquisition processor configured for controlling the imaging probe to emit energy, and to responsively and dynamically acquire images, the acquired images having a given dimensionality, wherein the image acquisition processor is configured to also store in a memory the location and orientation of the imaging probe for each acquired image; an image selection processor configured for selecting, repeatedly and dynamically with said acquiring, from among the acquired images and, as a result of said selecting, changing, repeatedly and dynamically, membership in a set of images of said dimensionality; an image co-registration processor configured for, synchronously with the change, dynamically and iteratively registering said set to an image having a dimensionality higher than said given dimensionality, and said registering being configured for said acquiring with said imaging probe being dynamically, during said acquiring, any one or more of angulated, rotated and translated; wherein said selecting entails deciding whether or not to include in said set a current one of said acquired images, the iterations of said registering being correspondingly responsive to instances of said change.
A method of preventing interference with the rendering of content elements on information resources, comprising: receiving, by a client device from a data processing system, an information resource including a content rendering verification script and a first content element, the script including computer-executable instructions to cause the client device to: render the first content element for display on the information resource in a first format; determine that the first content element is not successfully displayed in the first format; and responsive to determining that the first content element is not successfully displayed in the first format, render the first content element for display on the information resource in a second format. render the first content element for display on the information resource in a first format; determine that the first content element is not successfully displayed in the first format; and responsive to determining that the first content element is not successfully displayed in the first format, render the first content element for display on the information resource in a second format.
A cooling regulation system, comprising: - a valve having an control device provided in the interior of the valve, wherein the control device is configured for controlling an opening of an orifice provided between a valve inlet and a valve outlet such that a flow of a coolant from the valve inlet to the valve outlet can be regulated; - an evaporator with a contact surface that is adapted to be thermally connected to a heat source (140, 141) such that a thermal load from the heat source (140, 141) is dissipated by the evaporator in an operating state of the cooling regulation system, the evaporator having an evaporator inlet connected to the valve outlet; and - a regulation device configured for providing a temperature dependent gas pressure to the valve for regulating a position of the control device in order to regulate the flow of the coolant; wherein the regulation device is in thermal contact with the evaporator at a position at which a vapor quality χ of the coolant is χ ≤ χ cr, wherein χ cr is the critical vapor quality, the regulation device is positioned in a heat flow path between the heat source (140, 141) and at least one channel of an array of channels of the evaporator through which the coolant is provided. - a valve having an control device provided in the interior of the valve, wherein the control device is configured for controlling an opening of an orifice provided between a valve inlet and a valve outlet such that a flow of a coolant from the valve inlet to the valve outlet can be regulated; - an evaporator with a contact surface that is adapted to be thermally connected to a heat source (140, 141) such that a thermal load from the heat source (140, 141) is dissipated by the evaporator in an operating state of the cooling regulation system, the evaporator having an evaporator inlet connected to the valve outlet; and - a regulation device configured for providing a temperature dependent gas pressure to the valve for regulating a position of the control device in order to regulate the flow of the coolant;
A nozzle for a turbomachine, comprising: an inner side wall; an outer side wall radially spaced apart from the inner side wall; and an airfoil extending radially from the inner side wall to the outer side wall, the airfoil defining a cavity that extends radially through the nozzle, the cavity being at least partially defined by a cavity wall; wherein the cavity wall and the outer side wall at least partially define a pocket in fluid communication with the cavity; the pocket comprises a pocket inlet defined in the cavity wall; the pocket comprises a bottom surface, a top surface, side surfaces, and a rear surface, the rear surface being opposite the pocket inlet; and the nozzle being characterised in that: a cooling passage defined by the outer side wall, wherein the cooling passage intersects the bottom surface of the pocket and is in fluid communication with the cavity via the pocket and comprises an outlet in the radially inner surface of the outer side wall. an inner side wall; an outer side wall radially spaced apart from the inner side wall; and an airfoil extending radially from the inner side wall to the outer side wall, the airfoil defining a cavity that extends radially through the nozzle, the cavity being at least partially defined by a cavity wall; wherein the cavity wall and the outer side wall at least partially define a pocket in fluid communication with the cavity; the pocket comprises a pocket inlet defined in the cavity wall; the pocket comprises a bottom surface, a top surface, side surfaces, and a rear surface, the rear surface being opposite the pocket inlet; and the nozzle being characterised in that: a cooling passage defined by the outer side wall, wherein the cooling passage intersects the bottom surface of the pocket and is in fluid communication with the cavity via the pocket and comprises an outlet in the radially inner surface of the outer side wall.