mhurhangee/ep-ind-claims huggingface dataset:
Goggles, comprising: - a lens body; - a lens body supporting part configured to support the lens body; and - a face plate part positioned on a peripheral edge part behind the lens body supporting part, having flexibility and capable of coming into contact with a face of a wearer; characterised by a gaze correcting part provided in a center of the face plate part, having a rectangular column shape and enabling correction of a gaze of the wearer; the gaze correcting part having mutually different colors on a facing surface facing the wearer, a right side surface located to the right of the facing surface and a left side surface located to the left of the facing surface and dividing a field of view of the wearer into a right field of view and a left field of view. - a lens body; - a lens body supporting part configured to support the lens body; and - a face plate part positioned on a peripheral edge part behind the lens body supporting part, having flexibility and capable of coming into contact with a face of a wearer; characterised by a gaze correcting part provided in a center of the face plate part, having a rectangular column shape and enabling correction of a gaze of the wearer;
A wearable watch type mobile terminal, comprising: a sensor including at least one of an acceleration sensor or a gyro sensor; a display; and a controller configured to: cause the sensor to detect that an arm on which the mobile terminal is worn is rotated over a prescribed angle with a prescribed radius, cause the display to display an object indicating an occurrence of a first event when the display is positioned in a first orientation; and cause the display to display detailed information of the first event when the display is moved to be in a second orientation according to the movement of the arm, cause the display to display detailed information of a second event at a bottom region if the mobile terminal is rotated along with the second orientation when the display is positioned in the second orientation and an object indicating an occurrence of the second event is displayed on the display, cause the display to display time information, and adjust a size of the displayed time information according to an amount or size of the detailed information displayed on the display. a sensor including at least one of an acceleration sensor or a gyro sensor; a display; and a controller configured to: cause the sensor to detect that an arm on which the mobile terminal is worn is rotated over a prescribed angle with a prescribed radius, cause the display to display an object indicating an occurrence of a first event when the display is positioned in a first orientation; and cause the display to display detailed information of the first event when the display is moved to be in a second orientation according to the movement of the arm, cause the display to display detailed information of a second event at a bottom region if the mobile terminal is rotated along with the second orientation when the display is positioned in the second orientation and an object indicating an occurrence of the second event is displayed on the display, cause the display to display time information, and adjust a size of the displayed time information according to an amount or size of the detailed information displayed on the display. cause the sensor to detect that an arm on which the mobile terminal is worn is rotated over a prescribed angle with a prescribed radius, cause the display to display an object indicating an occurrence of a first event when the display is positioned in a first orientation; and cause the display to display detailed information of the first event when the display is moved to be in a second orientation according to the movement of the arm, cause the display to display detailed information of a second event at a bottom region if the mobile terminal is rotated along with the second orientation when the display is positioned in the second orientation and an object indicating an occurrence of the second event is displayed on the display, cause the display to display time information, and adjust a size of the displayed time information according to an amount or size of the detailed information displayed on the display.
A solventless, in situ, curable reaction composition having an oxazolidone and isocyanurate structure comprising the reaction product of: (a) at least one polyepoxide compound; and (b) at least one polyisocyanate compound in the presence of (c) a catalyst system; wherein the catalyst system comprises at least one organoantimony catalyst, at least one nitrogen-containing catalyst, and at least one iodide catalyst added in a sequence in the order of first the organoantimony catalyst, then the nitrogen-containing catalyst, and last the iodide catalyst; wherein the organoantimony catalyst is triphenyl antimony and wherein the iodide catalyst is iodine; wherein the ratio of the at least one polyepoxide compound to the at least one polyisocyanate compound is from 1 to 1.5; and wherein the composition has an oxazolidone/isocyanurate ratio of greater than 0.8.
A method of manufacturing an inorganic electrolyte membrane, the method comprising: (a) mixing primary inorganic particles, a dispersant, and a solvent and dispersing the primary inorganic particles, thus preparing a dispersion of secondary inorganic particles having a hydrodynamic diameter of 120 to 230 nm, determined using DLS (Dynamic Light Scattering); (b) adding and mixing the dispersion of secondary inorganic particles with a binder; (c) applying a mixed solution comprising the dispersion of secondary inorganic particles and the binder and drying the mixed solution, thus forming a green sheet; and (d) firing the green sheet, thus forming an electrolyte membrane, wherein the primary inorganic particles before the dispersing have a particle diameter of less than 50 nm, as measured using a TEM or SEM, characterized in that the dispersant is an acrylate copolymer dispersant or a polyurethane-based dispersant, and in that the dispersant is contained in an amount of 10 to 20 parts by weight based on 100 parts by weight of the primary inorganic particles in terms of SOP (Solids On Pigment). (a) mixing primary inorganic particles, a dispersant, and a solvent and dispersing the primary inorganic particles, thus preparing a dispersion of secondary inorganic particles having a hydrodynamic diameter of 120 to 230 nm, determined using DLS (Dynamic Light Scattering); (b) adding and mixing the dispersion of secondary inorganic particles with a binder; (c) applying a mixed solution comprising the dispersion of secondary inorganic particles and the binder and drying the mixed solution, thus forming a green sheet; and (d) firing the green sheet, thus forming an electrolyte membrane,
A method for increasing an operation lifetime of a beam tube, BT, having an electron multiplier which amplifies a received ionic current with an electron multiplier gain, G EM, to provide an electrical current (I BT) output by the said beam tube, BT,, wherein the electrical current (I BT) output by the said beam tube, BT, is regulated by a controller to compensate for electron multiplier aging and to keep it below a characteristic current threshold, I th, by adjusting an electron multiplier gain control signal (G EM -CTRL) until it reaches a predefined maximum value, wherein the characteristic current threshold is less than 10 nAmps.
A rotor for a rotating electrical machine, comprising: a rotor shaft; and a rotor core fixedly supported to an outer periphery of the rotor shaft, wherein the rotor shaft includes a first outer circumferential edge portion and a second outer circumferential edge portion on a cross section perpendicular to a rotation axis, the first outer circumferential edge portion projecting in a radial direction of the rotor shaft, the second outer circumferential edge portion being arranged in a circumferential direction of the rotor shaft with respect to the first outer circumferential edge portion, and the second outer circumferential edge portion being disposed alternately with the first outer circumferential edge portion, the rotor core includes a core insertion hole into which the rotor shaft is inserted and a shaft holding portion formed on an inner peripheral portion of the core insertion hole, the shaft holding portion configured to hold the first outer circumferential edge portion from both sides in the circumferential direction of the rotor shaft, the rotor shaft has tangent lines mutually parallel in the cross section perpendicular to the rotation axis, the tangent lines being at contact points of the shaft holding portion to the first outer circumferential edge portion on both sides in the circumferential direction, and the shaft holding portion contacts the first outer circumferential edge portion on both sides thereof in the circumferential direction, characterized in that the shaft holding portion is not in contact with the second outer circumferential edge portion. a rotor shaft; and a rotor core fixedly supported to an outer periphery of the rotor shaft, the rotor shaft includes a first outer circumferential edge portion and a second outer circumferential edge portion on a cross section perpendicular to a rotation axis, the first outer circumferential edge portion projecting in a radial direction of the rotor shaft, the second outer circumferential edge portion being arranged in a circumferential direction of the rotor shaft with respect to the first outer circumferential edge portion, and the second outer circumferential edge portion being disposed alternately with the first outer circumferential edge portion, the rotor core includes a core insertion hole into which the rotor shaft is inserted and a shaft holding portion formed on an inner peripheral portion of the core insertion hole, the shaft holding portion configured to hold the first outer circumferential edge portion from both sides in the circumferential direction of the rotor shaft, the rotor shaft has tangent lines mutually parallel in the cross section perpendicular to the rotation axis, the tangent lines being at contact points of the shaft holding portion to the first outer circumferential edge portion on both sides in the circumferential direction, and the shaft holding portion contacts the first outer circumferential edge portion on both sides thereof in the circumferential direction, characterized in that the shaft holding portion is not in contact with the second outer circumferential edge portion.
An electrostatic charge image developing toner comprising: a toner particle including a core portion containing a binder resin and a release agent that has a melting temperature Tm of 80°C or less, and a coating layer that coats the core portion and contains an amorphous polyester resin, wherein the toner particle has a cross section in which one or more and three or less domains of the release agent are present in the core portion, the one or more and three or less domains having a circle-equivalent diameter of 1 μm or more and 3 μm or less, the number of domains and the circle-equivalent diameter are measured according to the description, the toner particle has a volume average particle diameter, which is measured in accordance with the description, of 4.2 μm or more and 5.8 μm or less, and a ratio of a thickness of the coating layer to a maximum diameter of the toner particle is 1% or more and 25% or less in the cross section, which is measured in accordance with the description. a toner particle including a core portion containing a binder resin and a release agent that has a melting temperature Tm of 80°C or less, and a coating layer that coats the core portion and contains an amorphous polyester resin, wherein the toner particle has a cross section in which one or more and three or less domains of the release agent are present in the core portion, the one or more and three or less domains having a circle-equivalent diameter of 1 μm or more and 3 μm or less, the number of domains and the circle-equivalent diameter are measured according to the description, the toner particle has a volume average particle diameter, which is measured in accordance with the description, of 4.2 μm or more and 5.8 μm or less, and a ratio of a thickness of the coating layer to a maximum diameter of the toner particle is 1% or more and 25% or less in the cross section, which is measured in accordance with the description.
A multiple-type air conditioner comprising: a first device (110A, 110B) that includes a first heat exchanger (111A, 111B) a first detector (112A, 112B) to detect a temperature of a refrigerant in the first heat exchanger (111A, 111B); a second detector (113A, 113B) to detect a temperature of the refrigerant flowing out of the first heat exchanger (111A, 111B); a third detector (112A, 112B, 113A, 113B) to detect an air temperature outside the first device (110A, 110B); an expansion valve (140A, 140B) for the refrigerant in the first device (110A, 110B); a second device (110A, 110B) that includes a second heat exchanger (111A, 111B), and operates and stops separately from the first device (110A, 110B); and a control unit for controlling the expansion valve (140A, 140B), characterized in that the control unit is configured to increase an opening degree of the expansion valve (140A, 140B) if a ratio of a difference between the temperature detected by the first detector (112A, 112B) and the temperature detected by the second detector (113A, 113B) to a difference between the temperature detected by the first detector (112A, 112B) and the air temperature detected by the third detector (112A, 112B, 113A, 113B) is greater than a target value, and to reduce the opening degree of the expansion valve (140A, 140B) if the ratio is less than the target value, when the first device (110A, 110b) is stopped and the second device (110A, 110B) is operating with the second heat exchanger (111A, 111B) functioning as a condenser. a first device (110A, 110B) that includes a first heat exchanger (111A, 111B) a first detector (112A, 112B) to detect a temperature of a refrigerant in the first heat exchanger (111A, 111B); a second detector (113A, 113B) to detect a temperature of the refrigerant flowing out of the first heat exchanger (111A, 111B); a third detector (112A, 112B, 113A, 113B) to detect an air temperature outside the first device (110A, 110B); an expansion valve (140A, 140B) for the refrigerant in the first device (110A, 110B); a second device (110A, 110B) that includes a second heat exchanger (111A, 111B), and operates and stops separately from the first device (110A, 110B); and a control unit for controlling the expansion valve (140A, 140B), characterized in that the control unit is configured to increase an opening degree of the expansion valve (140A, 140B) if a ratio of a difference between the temperature detected by the first detector (112A, 112B) and the temperature detected by the second detector (113A, 113B) to a difference between the temperature detected by the first detector (112A, 112B) and the air temperature detected by the third detector (112A, 112B, 113A, 113B) is greater than a target value, and to reduce the opening degree of the expansion valve (140A, 140B) if the ratio is less than the target value, when the first device (110A, 110b) is stopped and the second device (110A, 110B) is operating with the second heat exchanger (111A, 111B) functioning as a condenser.
A method of forming mesoporous zeolites with tunable pore widths, the method comprising: mixing a silicon-containing material, an aluminum-containing material, and at least a quaternary amine to produce a zeolite precursor solution, wherein the quaternary amine comprises tetraethylammonium hydroxide; pre-crystallizing the zeolite precursor solution at a pre-crystallization temperature of greater than 125 °C and autogenous pressure to form a pre-crystallized zeolite precursor solution represented by the formation of an amorphous phase in pseudo-steady-state where solid and solution phases approach equilibrium and silicate and aluminosilicate anion distributions are established; combining two or more distinct organosilane mesopore templates with the pre-crystallized zeolite precursor solution to produce a zeolite precursor gel, wherein the two or more distinct organosilane mesopore templates are selected from: wherein the quaternary amine is additionally combined with the pre-crystallized zeolite precursor solution along with the two or more distinct organosilane mesopore templates; crystallizing the zeolite precursor gel to produce a crystalline zeolite intermediate; and calcining the crystalline zeolite intermediate to produce the mesoporous zeolite, wherein the mesoporous zeolite comprises a BEA framework type. mixing a silicon-containing material, an aluminum-containing material, and at least a quaternary amine to produce a zeolite precursor solution, wherein the quaternary amine comprises tetraethylammonium hydroxide; pre-crystallizing the zeolite precursor solution at a pre-crystallization temperature of greater than 125 °C and autogenous pressure to form a pre-crystallized zeolite precursor solution represented by the formation of an amorphous phase in pseudo-steady-state where solid and solution phases approach equilibrium and silicate and aluminosilicate anion distributions are established; combining two or more distinct organosilane mesopore templates with the pre-crystallized zeolite precursor solution to produce a zeolite precursor gel, wherein the two or more distinct organosilane mesopore templates are selected from: wherein the quaternary amine is additionally combined with the pre-crystallized zeolite precursor solution along with the two or more distinct organosilane mesopore templates; crystallizing the zeolite precursor gel to produce a crystalline zeolite intermediate; and calcining the crystalline zeolite intermediate to produce the mesoporous zeolite, wherein the mesoporous zeolite comprises a BEA framework type.
A method of configuring a modular plant, the method comprising, in a plant engineering phase: receiving a user definition for the modular plant as a target system, wherein the user definition identifies modules to be integrated into the modular plant, defines a topology of the modular plant, and specifies sequences that can be executed by a process orchestration layer of the modular plant, wherein at least one said module is associated with a controller-agnostic configuration file specifying parameters for the said module that are not specific to any target system; and automatically binding controller software instantiated according to the controller-agnostic configuration file to a hardware controller of the said module of the target system, the binding comprising automatically adapting the controller software to the target system according to the user definition, wherein an application to be executed by the said module defines logic that is predetermined to be executable independently of state machines defining the application, and wherein the parameters comprise one or more of (i default parameters for adaptation to the target system during the plant engineering or (ii static parameters that will remain unchanged during the plant engineering. receiving a user definition for the modular plant as a target system, wherein the user definition identifies modules to be integrated into the modular plant, defines a topology of the modular plant, and specifies sequences that can be executed by a process orchestration layer of the modular plant, wherein at least one said module is associated with a controller-agnostic configuration file specifying parameters for the said module that are not specific to any target system; and automatically binding controller software instantiated according to the controller-agnostic configuration file to a hardware controller of the said module of the target system, the binding comprising automatically adapting the controller software to the target system according to the user definition, wherein an application to be executed by the said module defines logic that is predetermined to be executable independently of state machines defining the application, and wherein the parameters comprise one or more of (i default parameters for adaptation to the target system during the plant engineering or (ii static parameters that will remain unchanged during the plant engineering.
Apparatus including a forming anvil device for insertion into an end closure region of a partially formed container, the anvil device comprising a front edge region, a rear edge region, respective lateral edge regions (22, 24) extending between the front and rear edge regions (18, 20) and first and second forming portions each having a corner-forming zone including at the respective rear edge region and a lateral edge region (22, 24) arranged substantially orthogonal to each other, each lateral edge region (22, 24), extending away from the corner-forming zone and towards the front edge region, also including an obliquely inwardly arranged portion characterised in that the apparatus further comprises a pressing device comprising an outermost pressing surface for contacting sub-panels (13b,15b) of said partially formed container and connected to an arm member rotatable about an axis whereby rotating the arm member rotates the outermost pressing surface about the axis, wherein the outermost pressing surface is arranged at an oblique angle relative to the axis.
A method of forming porous concrete (36,38), the method comprising the steps of: i) providing cement; ii) providing water; iii) mixing the cement and the water to form a cement-based mixture free of aggregate; iv) after forming the cement-based mixture, applying the cement-based mixture to an aggregate laid on a surface to form the porous concrete (36,38), wherein the aggregate includes aggregate particles, and wherein the cement-based mixture has a surface tension coefficient that permits suspension of the cement-based mixture on, around, through and/or over the aggregate to form the porous concrete (36,38) by interacting with the aggregate particles (42,50,52) to form nonporous concrete portions and by passing through gaps between the aggregate particles (42,50,52) to form porous portions. i) providing cement; ii) providing water; iii) mixing the cement and the water to form a cement-based mixture free of aggregate; iv) after forming the cement-based mixture, applying the cement-based mixture to an aggregate laid on a surface to form the porous concrete (36,38), wherein the aggregate includes aggregate particles, and wherein the cement-based mixture has a surface tension coefficient that permits suspension of the cement-based mixture on, around, through and/or over the aggregate to form the porous concrete (36,38) by interacting with the aggregate particles (42,50,52) to form nonporous concrete portions and by passing through gaps between the aggregate particles (42,50,52) to form porous portions.