mhurhangee/ep-ind-claims huggingface dataset:
A flowable or malleable polymer composition in essentially dry form, comprising: (a) a poly(alkylene)-poly(ethylene glycol) block copolymer and (b) a poly(alkylene glycol) polymer or copolymer, characterized in that said composition is prepared by blending together components (a) and (b) without the addition of water or other liquid. (a) a poly(alkylene)-poly(ethylene glycol) block copolymer and (b) a poly(alkylene glycol) polymer or copolymer, characterized in that said composition is prepared by blending together components (a) and (b) without the addition of water or other liquid.
Method for burning off non-volatile components from a liquid fuel for use in a reformer with the steps - the liquid fuel with a proportion of 2 to 5% by weight of non-volatile components, which have a boiling point above 300° C, is heated to temperatures of between 300 und 410° in a burner/evaporator made as a heat exchanger, in which the components that are volatile at this temperature evaporate completely, - the proportion of evaporated fuel is taken to a separator together with the proportion of non-evaporated components of the fuel, in which the proportion of non-evaporated components of the fuel is burnt off, - the separated proportion of non-evaporated components of the fuel is burnt at least partly together with an oxidising agent, in which the heat arising through this is taken to the burner/evaporator. - the liquid fuel with a proportion of 2 to 5% by weight of non-volatile components, which have a boiling point above 300° C, is heated to temperatures of between 300 und 410° in a burner/evaporator made as a heat exchanger, in which the components that are volatile at this temperature evaporate completely, - the proportion of evaporated fuel is taken to a separator together with the proportion of non-evaporated components of the fuel, in which the proportion of non-evaporated components of the fuel is burnt off, - the separated proportion of non-evaporated components of the fuel is burnt at least partly together with an oxidising agent, in which the heat arising through this is taken to the burner/evaporator.
A process for the production of activated colloidal silica comprising contacting a colloidal silica feedstock with an activating agent for a period of time sufficient to convert the colloidal silica feedstock into the activated colloidal silica, wherein the activating agent is at least one salt selected from the group consisting of sodium bicarbonate, potassium bicarbonate, monosodium phosphate, monopotassium phosphate, disodium phosphate, dipotassium phosphate, sodium chloride, potassium chloride, sodium sulfate, potassium sulfate, sodium nitrate, potassium nitrate, sodium chlorate, and potassium chlorate and mixtures thereof, and the activating agent is used in an amount so as to afford an activation reaction mixture having a conductivity of from 0.1 mS/cm to 100 mS/cm greater than the conductivity of the colloidal silica feedstock.
A method for preparing a gas infused lactose hydrolyzed milk concentrate, the method comprising: (a) providing milk; (b) concentrating and hydrolyzing the milk to form a lactose hydrolyzed milk concentrate; and (c) injecting soluble gas into the lactose hydrolyzed milk concentrate such that the partial pressure of the soluble gasses is more than 0 kPa (0 psia) to 101.35 kPa (14.7 psia) to form a gas infused milk concentrate, wherein the soluble gas is nitrous oxide.
A head-up display apparatus for reflecting, by a reflecting part, display light emitted by a display device to express an image and displaying a virtual image corresponding to the image by the display light reflected by the reflecting part, comprising: a reflecting-part holder provided with a pair of rotary shaft parts protruding at both ends of the reflecting-part holder, the reflecting-part holder for retaining the reflecting part; a housing; a pair of bearings for rotatably supporting the pair of rotary shaft parts respectively; and a pair of bearing holders for retaining the pair of bearings in the housing respectively, wherein a first supported part protruding in a radial direction of each of the bearings is provided to each of the bearing holders, and the housing including a hole-shaped first support part in which the first supported part of one of the bearing holders is positioned, and an elongated-hole-shaped second support part along an axial direction of the rotary shaft parts in which the first supported part of the other of the bearing holders is positioned, wherein at least one of the pair of bearing holders is provided with a second supported part to be positioned in the housing, the second supported part being arranged and protruding in a direction intersecting with the axial direction of the rotary shaft parts, and wherein the housing includes an elongated-hole-shaped third support part along a direction intersecting with the axial direction, the second supported part being positioned in the third support part. a reflecting-part holder provided with a pair of rotary shaft parts protruding at both ends of the reflecting-part holder, the reflecting-part holder for retaining the reflecting part; a housing; a pair of bearings for rotatably supporting the pair of rotary shaft parts respectively; and a pair of bearing holders for retaining the pair of bearings in the housing respectively, wherein a first supported part protruding in a radial direction of each of the bearings is provided to each of the bearing holders, and the housing including a hole-shaped first support part in which the first supported part of one of the bearing holders is positioned, and an elongated-hole-shaped second support part along an axial direction of the rotary shaft parts in which the first supported part of the other of the bearing holders is positioned, wherein at least one of the pair of bearing holders is provided with a second supported part to be positioned in the housing, the second supported part being arranged and protruding in a direction intersecting with the axial direction of the rotary shaft parts, and wherein the housing includes an elongated-hole-shaped third support part along a direction intersecting with the axial direction, the second supported part being positioned in the third support part.
A modular photochemical reactor system comprising: a plurality of fluidic modules each having a planar form with first and second major surfaces (22,24), each of said first and second major surfaces (22,24) having a free surface area (22F,24F) free of inlet and outlet ports, and each having i) a central planar process fluid layer and ii) two outer planar thermal control fluid layers for containing flowing thermal control fluid, said central planar process fluid layer and said two outer planar thermal control fluid layers being arranged between said first and second major surfaces (22,24) and being at least partially radiation-transparent to at least some wavelengths in the UV and/or visible spectrum; and a plurality of illumination modules, each having a planar form with first and second major surfaces (52,54), and each comprising at least a first array of semiconductor emitters, said emitters capable of emitting at visible and/or UV wavelengths, positioned to emit from or through the first major surface to the free surface area (22F or 24F) of one of the first and second major surfaces (22,24) of a fluidic module, wherein said first array of semiconductor emitters comprises at least a first emitter and a second emitter, the first emitter capable of emitting at a first center wavelength and the second emitter capable of emitting at a second center wavelength, said first and second center wavelengths differing from each other. a plurality of fluidic modules each having a planar form with first and second major surfaces (22,24), each of said first and second major surfaces (22,24) having a free surface area (22F,24F) free of inlet and outlet ports, and each having i) a central planar process fluid layer and ii) two outer planar thermal control fluid layers for containing flowing thermal control fluid, said central planar process fluid layer and said two outer planar thermal control fluid layers being arranged between said first and second major surfaces (22,24) and being at least partially radiation-transparent to at least some wavelengths in the UV and/or visible spectrum; and a plurality of illumination modules, each having a planar form with first and second major surfaces (52,54), and each comprising at least a first array of semiconductor emitters, said emitters capable of emitting at visible and/or UV wavelengths, positioned to emit from or through the first major surface to the free surface area (22F or 24F) of one of the first and second major surfaces (22,24) of a fluidic module, wherein said first array of semiconductor emitters comprises at least a first emitter and a second emitter, the first emitter capable of emitting at a first center wavelength and the second emitter capable of emitting at a second center wavelength, said first and second center wavelengths differing from each other.
A spinel type lithium nickel manganese-containing composite oxide, which is represented by a general formula [Li(Li a Ni y Mn x Ti b Mg z M a)O 4-δ] where 0 < a, 0 < b, 0.30 ≤ y < 0.60, 0 < z, 0 ≤ α, x = 2-a-b-y-z-α < 1.7, 3 ≤ b/a ≤ 8, 0.11 < b+z+α, 0 < z/b ≤ 1, 0 ≤ δ ≤ 0.2, and M represents one or two or more elements selected from the group consisting of Fe, Co and Zr.
A position controller that performs position control by outputting a drive signal to a control valve of a hydraulic actuator that changes an operation position of an object, the position controller comprising: an oil temperature acquisition unit that acquires information on an oil temperature of the hydraulic actuator; a position acquisition unit that acquires an actual value of an operation position of the object; a position control unit that calculates an operation command value for the control valve by closed-loop control so as to reduce a deviation between a target value of the operation position of the object and the actual value; and a gain setting unit (60, 61) that changes at least one gain (G 2, K B) of the closed-loop control so that sensitivity of the closed-loop control increases as the oil temperature decreases, wherein the at least one gain (G 2, K B) is a first gain (G 2) used to obtain the operation command value from the deviation, wherein the gain setting unit increases the first gain (G 2) as the oil temperature decreases, and wherein the first gain (G 2) is a calculation gain of the position control unit, wherein the position controller further comprises a position subtraction unit that obtains the deviation, characterized in that a second gain (K B) is used to obtain the actual value input to the position subtraction unit, and wherein the gain setting unit decreases the second gain (K B) as the oil temperature decreases. an oil temperature acquisition unit that acquires information on an oil temperature of the hydraulic actuator; a position acquisition unit that acquires an actual value of an operation position of the object; a position control unit that calculates an operation command value for the control valve by closed-loop control so as to reduce a deviation between a target value of the operation position of the object and the actual value; and a gain setting unit (60, 61) that changes at least one gain (G 2, K B) of the closed-loop control so that sensitivity of the closed-loop control increases as the oil temperature decreases, wherein the at least one gain (G 2, K B) is a first gain (G 2) used to obtain the operation command value from the deviation, wherein the gain setting unit increases the first gain (G 2) as the oil temperature decreases, and wherein the first gain (G 2) is a calculation gain of the position control unit, wherein the position controller further comprises a position subtraction unit that obtains the deviation, characterized in that a second gain (K B) is used to obtain the actual value input to the position subtraction unit, and wherein the gain setting unit decreases the second gain (K B) as the oil temperature decreases.
An attic access unit with a folding stairs comprising a frame mounted in a slab with the folding stairs mounted in said frame, said stairs are arranged to be opened downwards to the room below said slab, and to be positioned inside said frame in closed attic access unit position, said attic access unit further including a hatch (3, 6), said hatch closing the frame from underneath in the attic access unit closed position, said folding stairs and said hatch are rotatably mounted in the frame, preferably said folding stairs or said hatch are mounted directly in said frame, and said attic access unit further including a spring for partially compensating the weight of said stairs and said hatch (3, 6) is supported by at least a single pair of swivel joints, said swivel joints forming a four-bar linkage with said hatch (3, 6) and other component (21, 73) of said attic access unit, wherein the hatch is adjustably supported in relation to said frame in the attic access unit closed position by a means comprising a bar (41/72) which is connected rotatably with the frame and with at least one of the swivel joints characterised in that the connection of the bar (41, 72) in said swivel joint is adjustable in the bar length.
A congestion control method, comprising: obtaining a transmission rate of a transmission link, and obtaining a congestion control window size of the transmission link; calculating a congestion risk coefficient of the transmission link based on the transmission rate and the congestion control window size; characterized by: determining whether the congestion risk coefficient is not less than a preset threshold, and if the congestion risk coefficient is not less than the preset threshold, triggering an adjustment to the congestion control window size, wherein the preset threshold is preset in a congestion control apparatus; and wherein the congestion control window size indicates a maximum quantity of data streams that can be transmitted on the transmission link. obtaining a transmission rate of a transmission link, and obtaining a congestion control window size of the transmission link; calculating a congestion risk coefficient of the transmission link based on the transmission rate and the congestion control window size; characterized by: determining whether the congestion risk coefficient is not less than a preset threshold, and if the congestion risk coefficient is not less than the preset threshold, triggering an adjustment to the congestion control window size, wherein the preset threshold is preset in a congestion control apparatus; and wherein the congestion control window size indicates a maximum quantity of data streams that can be transmitted on the transmission link. determining whether the congestion risk coefficient is not less than a preset threshold, and if the congestion risk coefficient is not less than the preset threshold, triggering an adjustment to the congestion control window size, wherein the preset threshold is preset in a congestion control apparatus; and wherein the congestion control window size indicates a maximum quantity of data streams that can be transmitted on the transmission link.
An agricultural seeding machine, comprising: an opener (234, 242), mounted to a structural frame, that opens a seed trench in soil; a seed delivery system that disperses seed in the seed trench; a closer, mounted to the structural frame, that moves soil over the seed trench to close the trench; at least one soil characteristic sensor element (252, 254, 256, 258, 304-306) that generates a sensor signal indicative of a sensed soil characteristic; and a sensor supporting member that carries the at least one soil characteristic sensor element (252, 254, 256, 258, 304-306), the sensor supporting member mounted so that the at least one soil characteristic sensor element (252, 254, 256, 258, 304-306) engages the soil forward of the seed delivery system in a direction of travel characterized in that the sensor supporting member comprises: a shank (224, 226) depending from the structural frame having a soil engaging portion that engages the soil to generate an opening in the soil, the at least one soil characteristic sensor element (252, 254, 256, 258, 304-306) being mounted on the soil engaging portion, wherein the at least one soil characteristic sensor element (252, 254, 256, 258, 304-306) is mounted on a forward or laterally facing, soil engaging surface of the soil engaging portion or on a bottom, soil engaging, surface of the soil engaging portion. an opener (234, 242), mounted to a structural frame, that opens a seed trench in soil; a seed delivery system that disperses seed in the seed trench; a closer, mounted to the structural frame, that moves soil over the seed trench to close the trench; at least one soil characteristic sensor element (252, 254, 256, 258, 304-306) that generates a sensor signal indicative of a sensed soil characteristic; and a sensor supporting member that carries the at least one soil characteristic sensor element (252, 254, 256, 258, 304-306), the sensor supporting member mounted so that the at least one soil characteristic sensor element (252, 254, 256, 258, 304-306) engages the soil forward of the seed delivery system in a direction of travel characterized in that the sensor supporting member comprises: a shank (224, 226) depending from the structural frame having a soil engaging portion that engages the soil to generate an opening in the soil, the at least one soil characteristic sensor element (252, 254, 256, 258, 304-306) being mounted on the soil engaging portion, wherein the at least one soil characteristic sensor element (252, 254, 256, 258, 304-306) is mounted on a forward or laterally facing, soil engaging surface of the soil engaging portion or on a bottom, soil engaging, surface of the soil engaging portion.
An assembly comprising: a main housing having an internal chamber therein; an electric motor disposed in the internal chamber of the main housing and comprising (i) a stator fixedly positioned in the internal chamber of the main housing, and (ii) a rotor positioned within the stator; a hydraulic pump positioned in the main housing and at least partially within the rotor of the electric motor, wherein the hydraulic pump is configured to receive fluid from an inlet port and provide fluid flow to an outlet port, wherein the hydraulic pump comprises a pump shaft rotatably coupled to the rotor of the electric motor, wherein the hydraulic pump is a gear pump comprising: (i) a pump housing disposed within the internal chamber of the main housing and at least partially within the rotor, (ii) a pump ring gear disposed within the pump housing, and (iii) a pump pinion coupled to the pump shaft and disposed within the pump ring gear, such that external teeth of the pump pinion are configured to engage with internal teeth of the pump ring gear; a controller housing coupled to the main housing; and a motor controller comprising one or more circuit boards (600, 602) disposed within the controller housing and configured to generate electric current to drive the electric motor. a main housing having an internal chamber therein; an electric motor disposed in the internal chamber of the main housing and comprising (i) a stator fixedly positioned in the internal chamber of the main housing, and (ii) a rotor positioned within the stator; a hydraulic pump positioned in the main housing and at least partially within the rotor of the electric motor, wherein the hydraulic pump is configured to receive fluid from an inlet port and provide fluid flow to an outlet port, wherein the hydraulic pump comprises a pump shaft rotatably coupled to the rotor of the electric motor, wherein the hydraulic pump is a gear pump comprising: (i) a pump housing disposed within the internal chamber of the main housing and at least partially within the rotor, (ii) a pump ring gear disposed within the pump housing, and (iii) a pump pinion coupled to the pump shaft and disposed within the pump ring gear, such that external teeth of the pump pinion are configured to engage with internal teeth of the pump ring gear; a controller housing coupled to the main housing; and a motor controller comprising one or more circuit boards (600, 602) disposed within the controller housing and configured to generate electric current to drive the electric motor.
A method for controlling an electronic device, the method comprising: displaying, on a touch screen display of the electronic device, a plurality of characters, a first handler and a second handler, wherein the first handler is displayed to face a first direction and the second handler is displayed to face a second direction different from the first direction; receiving a drag input on the first handler; displaying the first handler on a first position touched according to the drag input while the drag input is received; based on the first position being less than or equal to a predetermined distance away from a side portion of the touch screen display, rotating the first handler, wherein based on the first handler being rotated, at least a part of the first handler is displayed within an area, a position of which is greater than the predetermined distance away from the side portion of the display, and the rotated first handler is displayed to face the second direction; and displaying a visual effect on one or more characters among the plurality of characters based on a position corresponding to the second direction of the rotated first handler and the position corresponding to the second direction of the second handler. displaying, on a touch screen display of the electronic device, a plurality of characters, a first handler and a second handler, wherein the first handler is displayed to face a first direction and the second handler is displayed to face a second direction different from the first direction; receiving a drag input on the first handler; displaying the first handler on a first position touched according to the drag input while the drag input is received; based on the first position being less than or equal to a predetermined distance away from a side portion of the touch screen display, rotating the first handler, wherein based on the first handler being rotated, at least a part of the first handler is displayed within an area, a position of which is greater than the predetermined distance away from the side portion of the display, and the rotated first handler is displayed to face the second direction; and displaying a visual effect on one or more characters among the plurality of characters based on a position corresponding to the second direction of the rotated first handler and the position corresponding to the second direction of the second handler.