mhurhangee/ep-ind-claims huggingface dataset:
A method of producing an article, comprising the steps of: I) applying a filament of an at least partly molten construction material to a carrier, such that a layer of the construction material is obtained, which corresponds to a first selected cross section of the article; II) applying a filament of the at least partly molten construction material to a previously applied layer of the construction material, such that a further layer of the construction material is obtained, which corresponds to a further selected cross section of the article and which is bonded to the layer applied beforehand; III) repeating step II) until the article is formed; where at least steps II) and III) are conducted within a chamber and the construction material includes a fusible polymer; wherein the fusible polymer is a polyurethane obtainable from the reaction of a polyisocyanate component and a polyol component, said polyol component comprising a polyesterpolyol characterized in that the polyesterpolyol has a pour point (ASTM D5985) of ≥ 25°C, w the fusible polymer has a melting range (DSC, differential scanning calorimetry, 2nd heating operation at heating rate 5 K/min.) of ≥ 20°C to ≤ 100°C, the fusible polymer has a magnitude of the complex viscosity | η ∗ | (determined by viscometry measurement in the melt with a plate/plate oscillation shear viscometer at 100°C and a shear rate of 1/s) of ≥ 10 Pas to ≤ 1 000 000 Pas and in that the temperature within the chamber is ≤ 50°C. I) applying a filament of an at least partly molten construction material to a carrier, such that a layer of the construction material is obtained, which corresponds to a first selected cross section of the article; II) applying a filament of the at least partly molten construction material to a previously applied layer of the construction material, such that a further layer of the construction material is obtained, which corresponds to a further selected cross section of the article and which is bonded to the layer applied beforehand; III) repeating step II) until the article is formed; wherein the fusible polymer is a polyurethane obtainable from the reaction of a polyisocyanate component and a polyol component, said polyol component comprising a polyesterpolyol characterized in that the polyesterpolyol has a pour point (ASTM D5985) of ≥ 25°C, w the fusible polymer has a melting range (DSC, differential scanning calorimetry, 2nd heating operation at heating rate 5 K/min.) of ≥ 20°C to ≤ 100°C, the fusible polymer has a magnitude of the complex viscosity | η ∗ | (determined by viscometry measurement in the melt with a plate/plate oscillation shear viscometer at 100°C and a shear rate of 1/s) of ≥ 10 Pas to ≤ 1 000 000 Pas and in that the temperature within the chamber is ≤ 50°C.
A unit for weighing containers, specifically pouches, comprising: - a weighing station provided with at least one grasping gripper configured to adopt an engaged configuration, in which it holds a container, and a released configuration, in which it releases the container, the weighing station also comprising a weighing means associated with the at least one grasping gripper and configured to measure the weight of the container being supported by the grasping gripper; - movement means configured to convey the container along a feed path which passes through the weighing station; the movement means comprising retaining elements which are movable along the feed path and which are configured to adopt a conveying configuration, suitable for retaining and conveying the container, and a released configuration, in which the retaining elements release the container; wherein the grasping grippers and the retaining elements are configured and/or disposed for acting on distinct portions of the same container in such a way as to transfer at least one container between the at least one grasping gripper and at least one corresponding retaining element through at least one configuration of simultaneously engaging the same container with a grasping gripper and with a retaining element; characterized in that the weighing station comprises a plurality of grasping grippers associated with a respective plurality of weighing means and configured to transfer and weigh, preferably simultaneously, a respective plurality of the containers. - a weighing station provided with at least one grasping gripper configured to adopt an engaged configuration, in which it holds a container, and a released configuration, in which it releases the container, the weighing station also comprising a weighing means associated with the at least one grasping gripper and configured to measure the weight of the container being supported by the grasping gripper; - movement means configured to convey the container along a feed path which passes through the weighing station; the movement means comprising retaining elements which are movable along the feed path and which are configured to adopt a conveying configuration, suitable for retaining and conveying the container, and a released configuration, in which the retaining elements release the container;
A cap cutting machine, characterized in that it comprises: a housing assembly, movable along a pre-determined path and provided with a rotary housing which is structured for housing a cap and rotating the cap about a first axis of rotation; cutting means, conformed for cutting a side surface of the cap and arranged along an active tract of the path; motor means, structured for rotating the rotary housing about the first axis of rotation so that a side surface of the cap comes into contact with the cutting means, thereby rolling without sliding with respect to said cutting means. a housing assembly, movable along a pre-determined path and provided with a rotary housing which is structured for housing a cap and rotating the cap about a first axis of rotation; cutting means, conformed for cutting a side surface of the cap and arranged along an active tract of the path; motor means, structured for rotating the rotary housing about the first axis of rotation so that a side surface of the cap comes into contact with the cutting means, thereby rolling without sliding with respect to said cutting means.
An air conditioning system for a vehicle comprising: an air-conditioning case having a cold air passageway and a warm air passageway, a cold air discharge port for discharging cold air of the cold air passageway to the outside, and a warm air discharge port for discharging warm air of the warm air passageway to the outside; characterized by a shielding means disposed on the outer face of the air-conditioning case to prevent outdoor air from flowing backward to the cold air discharge port and the warm air discharge port; wherein the shielding means is formed by a cover plate, which is formed on the outer face of the air-conditioning case having the cold air discharge port and the warm air discharge port to cover the cold air discharge port and the warm air discharge port; and wherein the cover plate is spaced apart from the cold air discharge port and the warm air discharge port at a predetermined interval, and both end portions in the longitudinal direction are connected with the air-conditioning case and both end portions in the width direction are open. an air-conditioning case having a cold air passageway and a warm air passageway, a cold air discharge port for discharging cold air of the cold air passageway to the outside, and a warm air discharge port for discharging warm air of the warm air passageway to the outside; characterized by a shielding means disposed on the outer face of the air-conditioning case to prevent outdoor air from flowing backward to the cold air discharge port and the warm air discharge port; wherein the shielding means is formed by a cover plate, which is formed on the outer face of the air-conditioning case having the cold air discharge port and the warm air discharge port to cover the cold air discharge port and the warm air discharge port; and wherein the cover plate is spaced apart from the cold air discharge port and the warm air discharge port at a predetermined interval, and both end portions in the longitudinal direction are connected with the air-conditioning case and both end portions in the width direction are open.
A heat-recovery water system, comprising: a heat emission source, used for providing to-be-recovered heat; multiple heat absorption sources (121, 122, 123), used for absorbing the to-be-recovered heat; and a heat-recovery flow path, comprising a heat-supply pipeline section associated with the heat emission source and multiple backheating pipeline sections (132a, 132b, 132c) associated with the multiple heat absorption sources; wherein the heat-recovery flow path is controlled to enable connection of the heat-supply pipeline section and one or more of the backheating pipeline sections; the heat absorption source comprises a first-type heat absorption source and a second-type heat absorption source (122, 123), the first-type heat absorption source having a higher temperature requirement than the second-type heat absorption source, and the heat emission source comprises a condenser heat-dissipation water loop of a water-cooled compression condensing unit, characterized by: a hydraulic control module, wherein the hydraulic control modules comprises a housing and wherein the heat-recovery flow path being arranged inside the housing, the heat-supply pipeline section being provided with at least one pair of heat-supply pipeline joints formed on the housing, and the multiple backheating pipeline sections (132a, 132b, 132c) being respectively provided with a backheating pipeline joint (230a, 230b, 230c) formed on the housing. a heat emission source, used for providing to-be-recovered heat; multiple heat absorption sources (121, 122, 123), used for absorbing the to-be-recovered heat; and a heat-recovery flow path, comprising a heat-supply pipeline section associated with the heat emission source and multiple backheating pipeline sections (132a, 132b, 132c) associated with the multiple heat absorption sources; wherein the heat-recovery flow path is controlled to enable connection of the heat-supply pipeline section and one or more of the backheating pipeline sections; the heat absorption source comprises a first-type heat absorption source and a second-type heat absorption source (122, 123), the first-type heat absorption source having a higher temperature requirement than the second-type heat absorption source, and the heat emission source comprises a condenser heat-dissipation water loop of a water-cooled compression condensing unit, characterized by: a hydraulic control module, wherein the hydraulic control modules comprises a housing and wherein the heat-recovery flow path being arranged inside the housing, the heat-supply pipeline section being provided with at least one pair of heat-supply pipeline joints formed on the housing, and the multiple backheating pipeline sections (132a, 132b, 132c) being respectively provided with a backheating pipeline joint (230a, 230b, 230c) formed on the housing.
A composite fiber comprising: a polyurethane elastomer having a glass transition temperature of 15 to 50°C as a component A, the component A constituting a core in a cross section of the fiber, and a readily soluble thermoplastic polymer as a component B, the component B covering 70% or longer of the circumference of the component A in the cross section; wherein the component B comprises at least one selected from the group consisting of a readily soluble polyester and a thermoplastic polyvinyl alcohol-based polymer copolymerized with an α-olefin having 4 or less carbon atoms in a proportion of 0.1 to 20% by mole; wherein the readily soluble polyester is substantially completely dissolved in 60 minutes or less when immersed in a 2% aqueous sodium hydroxide solution that has a temperature of 100°C at a bath ratio of 1: 30; wherein the thermoplastic polyvinyl alcohol-based polymer is substantially completely dissolved in 60 minutes or less when immersed in hot water of 100°C at a bath ratio of 1: 30; wherein the glass transition temperature is defined as a temperature at which the elastomer shows a peak with respect to the mechanical dynamic loss tangent (tan δ) with the mechanical dynamic loss tangent being defined as the tangent of the ratio G"/G' of the loss elastic modulus G" to the storage elastic modulus G' at a frequency of 1 Hz; wherein the composite fiber is adapted for producing a polyurethane elastomer fabric by removing the component B; and wherein the composite fiber has a single fiber fineness of 0.3 to 10 dtex. a polyurethane elastomer having a glass transition temperature of 15 to 50°C as a component A, the component A constituting a core in a cross section of the fiber, and a readily soluble thermoplastic polymer as a component B, the component B covering 70% or longer of the circumference of the component A in the cross section; wherein the component B comprises at least one selected from the group consisting of a readily soluble polyester and a thermoplastic polyvinyl alcohol-based polymer copolymerized with an α-olefin having 4 or less carbon atoms in a proportion of 0.1 to 20% by mole; wherein the readily soluble polyester is substantially completely dissolved in 60 minutes or less when immersed in a 2% aqueous sodium hydroxide solution that has a temperature of 100°C at a bath ratio of 1: 30; wherein the thermoplastic polyvinyl alcohol-based polymer is substantially completely dissolved in 60 minutes or less when immersed in hot water of 100°C at a bath ratio of 1: 30; wherein the glass transition temperature is defined as a temperature at which the elastomer shows a peak with respect to the mechanical dynamic loss tangent (tan δ) with the mechanical dynamic loss tangent being defined as the tangent of the ratio G"/G' of the loss elastic modulus G" to the storage elastic modulus G' at a frequency of 1 Hz; wherein the composite fiber is adapted for producing a polyurethane elastomer fabric by removing the component B; and wherein the composite fiber has a single fiber fineness of 0.3 to 10 dtex.
A robot system comprising: a robot including an operable working arm driven by an actuator; a region setting unit configured to set a region with a predetermined range around the robot; a moving body detection unit configured to detect a position of a moving body other than the robot; and an abnormality determination unit configured to determine abnormality when detecting of the position of the moving body within the region, characterized by: an operation load detection unit configured to detect an operation load of the actuator; wherein the region setting unit is configured to change the range of the region in accordance with the operation load of the actuator; wherein: the operation load detection unit is configured to detect at least one component of an X-direction component, a Y-direction component, and a Z-direction component on an XYZ coordinate system of the operation load at an end of the working arm; and the region setting unit is configured to set the range of the region in accordance with at least one component among the X-direction component, the Y-direction component, and the Z-direction component of the load detected by the operation load detection unit; wherein the operation load detection unit is configured to detect the operation load by estimating the operation load based on at least one of a driving current value of the actuator and posture data for the robot; or wherein the operation load detection unit is configured to detect the operation load by estimating the operation load based on content of a motion order input to the robot. a robot including an operable working arm driven by an actuator; a region setting unit configured to set a region with a predetermined range around the robot; a moving body detection unit configured to detect a position of a moving body other than the robot; and an abnormality determination unit configured to determine abnormality when detecting of the position of the moving body within the region, an operation load detection unit configured to detect an operation load of the actuator; wherein the region setting unit is configured to change the range of the region in accordance with the operation load of the actuator; the operation load detection unit is configured to detect at least one component of an X-direction component, a Y-direction component, and a Z-direction component on an XYZ coordinate system of the operation load at an end of the working arm; and the region setting unit is configured to set the range of the region in accordance with at least one component among the X-direction component, the Y-direction component, and the Z-direction component of the load detected by the operation load detection unit; wherein the operation load detection unit is configured to detect the operation load by estimating the operation load based on at least one of a driving current value of the actuator and posture data for the robot; or wherein the operation load detection unit is configured to detect the operation load by estimating the operation load based on content of a motion order input to the robot.
An ink composition, comprising: at least one color dye in an amount between and including 1% by weight and 7% by weight; at least one polymeric dispersant in an amount between and including 0.1% by weight and 1% by weight; at least one organic solvent in an amount between and including 18% by weight and 22% by weight; at least one surfactant in an amount between and including 0.5% by weight and 1.5% by weight; at least one buffer in an amount between and including 0.1% by weight and 0.5% by weight; at least one biocide in an amount between and including 0.05% by weight and 0.2% by weight; and the balance being deionized water, wherein the polymeric dispersant comprises a hydrophobic segment and a hydrophilic segment. at least one color dye in an amount between and including 1% by weight and 7% by weight; at least one polymeric dispersant in an amount between and including 0.1% by weight and 1% by weight; at least one organic solvent in an amount between and including 18% by weight and 22% by weight; at least one surfactant in an amount between and including 0.5% by weight and 1.5% by weight; at least one buffer in an amount between and including 0.1% by weight and 0.5% by weight; at least one biocide in an amount between and including 0.05% by weight and 0.2% by weight; and the balance being deionized water, wherein the polymeric dispersant comprises a hydrophobic segment and a hydrophilic segment.
A device for causing the transdermal flux of a permeant into a subject via at least one formed pathway through a skin layer of the subject, comprising: an anhydrous delivery reservoir comprising: i) a non-biodegradable matrix comprising a water-insoluble polymer, having a bottom surface and defining a plurality of conduits therein the matrix, at least a portion of the plurality of conduits being in communication with the bottom surface; and ii) an undissolved hydrophilic permeant disposed therein at least a portion of the plurality of conduits of the matrix, the hydrophilic permeant comprising at least one bioactive agent and at least one biocompatible filler, wherein the hydrophilic permeant can come in contact with subcutaneous fluid from the subject when the bottom surface of the matrix is positioned in fluid communication with the at least one formed pathway. i) a non-biodegradable matrix comprising a water-insoluble polymer, having a bottom surface and defining a plurality of conduits therein the matrix, at least a portion of the plurality of conduits being in communication with the bottom surface; and ii) an undissolved hydrophilic permeant disposed therein at least a portion of the plurality of conduits of the matrix, the hydrophilic permeant comprising at least one bioactive agent and at least one biocompatible filler, wherein the hydrophilic permeant can come in contact with subcutaneous fluid from the subject when the bottom surface of the matrix is positioned in fluid communication with the at least one formed pathway.
A process of making paper having higher wet strength comprising: providing an aqueous solution of at least 8% solids of an initial water-soluble wet-strength resin having an RSV of less than 0.25dL/dry gram and may be less than 0.15dL/dry gram selected from the group consisting of polyaminopolyamide-epihalohydrin resins, polyalkylene polyamine-epihalohydrin resins, and mixtures thereof, treating the aqueous solution with a base to a pH of from 13.0 to 11.0, at a temperature of from 30°C to 60°C for from 20 minutes to 4 hours, thereby forming an aqueous solution of a treated resin, wherein the resin has an RSV of greater than 0.35dL/g, and wherein at least 95% of the tertiary aminohalohydrin present in the starting resin is converted to epoxides; and adding the treated resin to a papermaking furnish, wherein RSV is the reduced specific viscosity of a 1% solution of the resin in 1 M aqueous ammonium chloride determined at 25 degrees Celsius. providing an aqueous solution of at least 8% solids of an initial water-soluble wet-strength resin having an RSV of less than 0.25dL/dry gram and may be less than 0.15dL/dry gram selected from the group consisting of polyaminopolyamide-epihalohydrin resins, polyalkylene polyamine-epihalohydrin resins, and mixtures thereof, treating the aqueous solution with a base to a pH of from 13.0 to 11.0, at a temperature of from 30°C to 60°C for from 20 minutes to 4 hours, thereby forming an aqueous solution of a treated resin, wherein the resin has an RSV of greater than 0.35dL/g, and wherein at least 95% of the tertiary aminohalohydrin present in the starting resin is converted to epoxides; and adding the treated resin to a papermaking furnish, wherein RSV is the reduced specific viscosity of a 1% solution of the resin in 1 M aqueous ammonium chloride determined at 25 degrees Celsius.
A working machine comprising: a ground engaging structure provided in the form of front and rear wheels or a pair of endless tracks; a body supported on the ground engaging structure; a first working arm connected to the body for performing work functions, the first working arm comprising a first implement mount at a distal end thereof; a second implement mount connected to the body; a milling device mounted to the second implement mount and configured to break up a surface, in use; and an apparatus mounted to the first implement mount for removing material from the surface, the apparatus comprising a collector having a first opening, and a sweeper trailing the collector in a preferred direction of operation of the apparatus, wherein the sweeper is configured and arranged to move surface material broken up by the milling device into the collector via the first opening. a ground engaging structure provided in the form of front and rear wheels or a pair of endless tracks; a body supported on the ground engaging structure; a first working arm connected to the body for performing work functions, the first working arm comprising a first implement mount at a distal end thereof; a second implement mount connected to the body; a milling device mounted to the second implement mount and configured to break up a surface, in use; and an apparatus mounted to the first implement mount for removing material from the surface, the apparatus comprising a collector having a first opening, and a sweeper trailing the collector in a preferred direction of operation of the apparatus, wherein the sweeper is configured and arranged to move surface material broken up by the milling device into the collector via the first opening.