mhurhangee/ep-ind-claims huggingface dataset:
The use of a pellet in an apparatus allowing addition of one or more pellets to a pre-pressurized process pipeline, wherein said pellet is conveyed in such a way as to be readily dissolved by the liquid in said pipeline, wherein said apparatus comprises: (a) a solid material storage container linked with a solid material feeder; (b) a solid material feeder pipe to convey said pellet from said solid material feeder to a solid material transfer device; (c) said solid material transfer device used to transfer said pellet from said solid material feeder pipe to the point of intake in the process pipeline, without allowing liquid from the process pipeline to access the one or more pellets in the solid material feeder; and (d) means for holding said pellet in place for a sufficient length of time such that the liquid in said process pipeline can contact and dissolve said pellet downstream of the point of intake of said pellet in the process pipeline; wherein said one or more pellets comprise: (a) from 15 to 25 weight percent resazurin; (b) from 20 to 30 weight percent anhydrous sodium sulphate; (c) from 50 to 60 weight percent 1-hydroxyethylidene bisphosphonate, tetrasodium salt; and (d) from 0.3 to 0.7 weight percent stearate, wherein pellets are fed from the solid material feeder, based on an order input. (a) a solid material storage container linked with a solid material feeder; (b) a solid material feeder pipe to convey said pellet from said solid material feeder to a solid material transfer device; (c) said solid material transfer device used to transfer said pellet from said solid material feeder pipe to the point of intake in the process pipeline, without allowing liquid from the process pipeline to access the one or more pellets in the solid material feeder; and (d) means for holding said pellet in place for a sufficient length of time such that the liquid in said process pipeline can contact and dissolve said pellet downstream of the point of intake of said pellet in the process pipeline; wherein said one or more pellets comprise: (a) from 15 to 25 weight percent resazurin; (b) from 20 to 30 weight percent anhydrous sodium sulphate; (c) from 50 to 60 weight percent 1-hydroxyethylidene bisphosphonate, tetrasodium salt; and (d) from 0.3 to 0.7 weight percent stearate, (a) from 15 to 25 weight percent resazurin; (b) from 20 to 30 weight percent anhydrous sodium sulphate; (c) from 50 to 60 weight percent 1-hydroxyethylidene bisphosphonate, tetrasodium salt; and (d) from 0.3 to 0.7 weight percent stearate,
A compound having the following formula: wherein R is an alkylene chain having between 8 and 20 carbon atoms, and A is one or more anions having a total charge of -2, or R is an amine having the following formula: wherein R a and R b are each an alkylene chain having between 8 and 20 carbon atoms, and A is one or more anions having a total charge of -3; R 1, R 2, R 3, R 4, R 5 and R 6 are each independently selected from C 1-10 alkyl and H; E has the following formula wherein the ester oxygen is bonded to the aromatic ring of each E at the same position, the position being position 2 or 3; and wherein R E is H or a halide. wherein R is an alkylene chain having between 8 and 20 carbon atoms, and A is one or more anions having a total charge of -2, or R is an amine having the following formula: wherein R a and R b are each an alkylene chain having between 8 and 20 carbon atoms, and A is one or more anions having a total charge of -3; R 1, R 2, R 3, R 4, R 5 and R 6 are each independently selected from C 1-10 alkyl and H; E has the following formula wherein the ester oxygen is bonded to the aromatic ring of each E at the same position, the position being position 2 or 3; and wherein R E is H or a halide.
A method (1; 100; 200; 400; 500) of manufacturing an article, comprising: providing (5; 105; 205; 405; 505) an element having a shape that includes a surface such that at least a portion the surface of the element is defined by an elastomeric material, the elastomeric material including an uncured ultraviolet radiation curable elastomeric material, or a partially cured UV radiation curable elastomeric material; placing (10; 110; 210; 410; 515) at least a portion of the surface of the element in contact with a surface of a substrate; and applying pressure (13; 220; 530) and UV radiation (20; 425) in order to affix (15; 115; 215; 415; 520) at least a portion of the surface of the element to the surface of the substrate by forming a bond between the surface of the element and the surface of the substrate, thereby forming the article. providing (5; 105; 205; 405; 505) an element having a shape that includes a surface such that at least a portion the surface of the element is defined by an elastomeric material, the elastomeric material including an uncured ultraviolet radiation curable elastomeric material, or a partially cured UV radiation curable elastomeric material; placing (10; 110; 210; 410; 515) at least a portion of the surface of the element in contact with a surface of a substrate; and applying pressure (13; 220; 530) and UV radiation (20; 425) in order to affix (15; 115; 215; 415; 520) at least a portion of the surface of the element to the surface of the substrate by forming a bond between the surface of the element and the surface of the substrate, thereby forming the article.
A method for producing a digital image from pixel signals captured by an image sensor array comprising the steps of: a) providing an image sensor array having at least two groups of pixels (X1, X2) wherein the number of pixels of any group has no less than one-quarter of the number of pixels of the portion of the entire sensor that produces the digital image and wherein the pixels of each group are uniformly distributed over the sensor; b) exposing the image sensor array to scene light and reading pixel charge from only the first group of pixels to produce a first set of pixel signals; c1) after producing the first set of pixel signals, exposing the image sensor array, and then reading pixel charge from the second group of pixels and reading again pixels from the first group to produce a second set of pixel signals; and c2) after producing the second set of pixel signals, exposing the image sensor array, and then reading pixel charge from each of: the first group of pixels, the second group of pixels, a third group of pixels and a fourth group of pixels to produce a third set of pixel signals; wherein the exposure of the third and fourth group of pixels (X3, X4) from which pixel charge is read out in step c2) overlaps at least partially the exposure of the first group of pixels from which pixel charge is read out in step b) and further overlaps at least partially the exposure of the first and second groups of pixels (X1, X2) from which pixel charge is read out in step c1); d) using the first, second and third sets of pixel signals to produce the digital image. a) providing an image sensor array having at least two groups of pixels (X1, X2) wherein the number of pixels of any group has no less than one-quarter of the number of pixels of the portion of the entire sensor that produces the digital image and wherein the pixels of each group are uniformly distributed over the sensor; b) exposing the image sensor array to scene light and reading pixel charge from only the first group of pixels to produce a first set of pixel signals; c1) after producing the first set of pixel signals, exposing the image sensor array, and then reading pixel charge from the second group of pixels and reading again pixels from the first group to produce a second set of pixel signals; and c2) after producing the second set of pixel signals, exposing the image sensor array, and then reading pixel charge from each of: the first group of pixels, the second group of pixels, a third group of pixels and a fourth group of pixels to produce a third set of pixel signals; wherein the exposure of the third and fourth group of pixels (X3, X4) from which pixel charge is read out in step c2) overlaps at least partially the exposure of the first group of pixels from which pixel charge is read out in step b) and further overlaps at least partially the exposure of the first and second groups of pixels (X1, X2) from which pixel charge is read out in step c1); d) using the first, second and third sets of pixel signals to produce the digital image.
A gypsum panel including a gypsum hardened body as a core material, wherein the gypsum hardened body comprises: a gypsum slurry that has been hardened; wherein the gypsum slurry is obtained by mixing calcined gypsum, calcium hydrogen phosphate dihydrate, water, and foam; and wherein a specific gravity of the gypsum hardened body is greater than or equal to 0.3 and less than or equal to 0.8 wherein the gypsum slurry includes the calcium hydrogen phosphate dihydrate at an amount greater than or equal to 0.01 part by mass and less than or equal to 5 parts by mass with respect to 100 parts by mass of the calcined gypsum. a gypsum slurry that has been hardened; wherein the gypsum slurry is obtained by mixing calcined gypsum, calcium hydrogen phosphate dihydrate, water, and foam; and wherein a specific gravity of the gypsum hardened body is greater than or equal to 0.3 and less than or equal to 0.8 wherein the gypsum slurry includes the calcium hydrogen phosphate dihydrate at an amount greater than or equal to 0.01 part by mass and less than or equal to 5 parts by mass with respect to 100 parts by mass of the calcined gypsum.
A method for a materials handling vehicle to automatically perform a steer correction maneuver comprising: receiving sensor data from at least one sensing device (76, 76A, 76B) by a controller on the materials handling vehicle; detecting based on the received sensor data that an object is located in an environment monitored by the controller, the environment comprising an area around the vehicle; and determining how far the detected object is from a reference coordinate (R C) associated with the vehicle; and automatically performing a steer correction maneuver by steering the vehicle away from the detected object; characterised in that: a rate of change of the steering angle that is implemented to achieve a desired angle of steer correction is dependent upon how far from the reference coordinate the detected object is determined to be. receiving sensor data from at least one sensing device (76, 76A, 76B) by a controller on the materials handling vehicle; detecting based on the received sensor data that an object is located in an environment monitored by the controller, the environment comprising an area around the vehicle; and determining how far the detected object is from a reference coordinate (R C) associated with the vehicle; and automatically performing a steer correction maneuver by steering the vehicle away from the detected object; characterised in that: a rate of change of the steering angle that is implemented to achieve a desired angle of steer correction is dependent upon how far from the reference coordinate the detected object is determined to be.
An interface for an electrical combination, the electrical combination including a battery pack and an electrical device, the interface being operable to connect the battery pack and the electrical device, the interface comprising: a body and a rail extending along an axis, the rail and the body defining a space therebetween, characterized by the space having a first dimension proximate a first axial location, a second dimension at a second axial location, and a third dimension at a third axial location, the first dimension, the second dimension, and the third dimension being different, the second axial location positioned between the first axial location and the third axial location, wherein the first dimension is larger than the second dimension and the third dimension, and wherein the second dimension is larger than the third dimension. a body and a rail extending along an axis, the rail and the body defining a space therebetween, characterized by the space having a first dimension proximate a first axial location, a second dimension at a second axial location, and a third dimension at a third axial location, the first dimension, the second dimension, and the third dimension being different, the second axial location positioned between the first axial location and the third axial location, wherein the first dimension is larger than the second dimension and the third dimension, and wherein the second dimension is larger than the third dimension.
A mobile station configured to perform carrier aggregation by establishing a secondary cell in a specific frequency band requiring no license, the mobile station comprising: a received power measurement unit configured to repeatedly measure received power in the frequency band of the secondary cell; a report determination unit configured to determine based on a measurement result of the received power measured by the received power measurement unit, whether the measurement result is to be reported to a radio access network; and a measurement report unit configured to report the measurement result to the radio access network based on the determination of the report determination unit, wherein the report determination unit is configured to determine that the measurement result of the received power is to be reported to the radio access network if a probability in a predetermined category in a frequency distribution of the measurement result exceeds a predetermined threshold. a received power measurement unit configured to repeatedly measure received power in the frequency band of the secondary cell; a report determination unit configured to determine based on a measurement result of the received power measured by the received power measurement unit, whether the measurement result is to be reported to a radio access network; and a measurement report unit configured to report the measurement result to the radio access network based on the determination of the report determination unit, wherein the report determination unit is configured to determine that the measurement result of the received power is to be reported to the radio access network if a probability in a predetermined category in a frequency distribution of the measurement result exceeds a predetermined threshold.
A circuit configured for controlling deactivation of noise injection during a startup of an oscillator circuit, the circuit comprising: a learning black configured to: receive a signal from the oscillator circuit, the signal indicating an oscillation level of a crystal element in the oscillator circuit during a startup of the crystal element; when the signal indicates that crystal element is just being started: reset a count of the learning block to 0; and start incrementing the count by clock cycles; compare the oscillation level of the crystal element with a predetermined target oscillation level; and when the signal indicates that the oscillation level of the crystal element has reached the predetermined target oscillation level, stop incrementing and store the count; and, wherein the learning block is connected to a disable mechanism configured to control the deactivation of noise injection to the oscillator circuit based on the count. a learning black configured to: receive a signal from the oscillator circuit, the signal indicating an oscillation level of a crystal element in the oscillator circuit during a startup of the crystal element; when the signal indicates that crystal element is just being started: reset a count of the learning block to 0; and start incrementing the count by clock cycles; compare the oscillation level of the crystal element with a predetermined target oscillation level; and when the signal indicates that the oscillation level of the crystal element has reached the predetermined target oscillation level, stop incrementing and store the count; and, wherein receive a signal from the oscillator circuit, the signal indicating an oscillation level of a crystal element in the oscillator circuit during a startup of the crystal element; when the signal indicates that crystal element is just being started: reset a count of the learning block to 0; and start incrementing the count by clock cycles; reset a count of the learning block to 0; and start incrementing the count by clock cycles; compare the oscillation level of the crystal element with a predetermined target oscillation level; and when the signal indicates that the oscillation level of the crystal element has reached the predetermined target oscillation level, stop incrementing and store the count; and, wherein the learning block is connected to a disable mechanism configured to control the deactivation of noise injection to the oscillator circuit based on the count.
A robotic surgical instrument comprising: a shaft; an end effector element; an articulation connecting the end effector element to the shaft, the articulation comprising: joints (506, 507) permitting the end effector element to adopt a range of orientations relative to a longitudinal axis of the shaft; pairs of driving elements (B1, B2, C1, C2) configured to drive the joints (506, 507); a supporting body having a bevelled surface; and a redirecting pulley mounted on the bevelled surface such that the redirecting pulley rotates about a redirecting pulley axis transverse to the bevelled surface so as to redirect a driving element (B1, C1) between two joints (506, 507), the driving element (B1, C1) being constrained to move around the redirecting pulley; characterised in that the supporting body has a groove adjacent to the bevelled surface and the driving element (B1, C1) is seated in the groove. a shaft; an end effector element; an articulation connecting the end effector element to the shaft, the articulation comprising: joints (506, 507) permitting the end effector element to adopt a range of orientations relative to a longitudinal axis of the shaft; pairs of driving elements (B1, B2, C1, C2) configured to drive the joints (506, 507); a supporting body having a bevelled surface; and a redirecting pulley mounted on the bevelled surface such that the redirecting pulley rotates about a redirecting pulley axis transverse to the bevelled surface so as to redirect a driving element (B1, C1) between two joints (506, 507), the driving element (B1, C1) being constrained to move around the redirecting pulley; characterised in that the supporting body has a groove adjacent to the bevelled surface and the driving element (B1, C1) is seated in the groove. joints (506, 507) permitting the end effector element to adopt a range of orientations relative to a longitudinal axis of the shaft; pairs of driving elements (B1, B2, C1, C2) configured to drive the joints (506, 507); a supporting body having a bevelled surface; and a redirecting pulley mounted on the bevelled surface such that the redirecting pulley rotates about a redirecting pulley axis transverse to the bevelled surface so as to redirect a driving element (B1, C1) between two joints (506, 507), the driving element (B1, C1) being constrained to move around the redirecting pulley; characterised in that the supporting body has a groove adjacent to the bevelled surface and the driving element (B1, C1) is seated in the groove.
A carbon dioxide separation recovery system comprising: an absorption tower that allows carbon dioxide contained in a combustion exhaust gas to be absorbed to an absorption liquid; a regeneration tower that is supplied with the absorption liquid having carbon dioxide absorbed, from the absorption tower, discharges a carbon dioxide gas that contains steam from the absorption liquid, regenerates the absorption liquid, and discharges an exhaust gas that contains steam and the discharged carbon dioxide gas; a regenerative heat exchanger that is provided between the absorption tower and the regeneration tower, and heats the absorption liquid, which has absorbed carbon dioxide and is supplied to the regeneration tower from the absorption tower, by using the regenerated absorption liquid, which is supplied to the absorption tower from the regeneration tower, as a heat source; and a reboiler that is connected to the regeneration tower and heats the absorption liquid of the regeneration tower, using a heating medium; characterized by a measuring device that measures an amount of heat supplied to the absorption liquid from the heating medium, wherein the measuring device includes a cooler that cools the heating medium discharged from the reboiler, and obtains the amount of heat that is supplied to the absorption liquid from the heating medium by subtracting an amount of heat that is retained by the heating medium cooled by the cooler and an amount of heat, which is removed from the heating medium in the cooler, from an amount of heat that is retained by the heating medium supplied to the reboiler. an absorption tower that allows carbon dioxide contained in a combustion exhaust gas to be absorbed to an absorption liquid; a regeneration tower that is supplied with the absorption liquid having carbon dioxide absorbed, from the absorption tower, discharges a carbon dioxide gas that contains steam from the absorption liquid, regenerates the absorption liquid, and discharges an exhaust gas that contains steam and the discharged carbon dioxide gas; a regenerative heat exchanger that is provided between the absorption tower and the regeneration tower, and heats the absorption liquid, which has absorbed carbon dioxide and is supplied to the regeneration tower from the absorption tower, by using the regenerated absorption liquid, which is supplied to the absorption tower from the regeneration tower, as a heat source; and a reboiler that is connected to the regeneration tower and heats the absorption liquid of the regeneration tower, using a heating medium; characterized by a measuring device that measures an amount of heat supplied to the absorption liquid from the heating medium, wherein the measuring device includes a cooler that cools the heating medium discharged from the reboiler, and obtains the amount of heat that is supplied to the absorption liquid from the heating medium by subtracting an amount of heat that is retained by the heating medium cooled by the cooler and an amount of heat, which is removed from the heating medium in the cooler, from an amount of heat that is retained by the heating medium supplied to the reboiler.