mhurhangee/ep-ind-claims huggingface dataset:
A wrapping machine comprising: a base; a turntable rotatable relative to the base; and a cut, clamp, and seam system comprising: a cut-and-seam assembly movable among a film-release position, an intermediate position, and a seaming position; an actuating assembly supported by the base and to which the cut-and-seam assembly is mounted, the actuating assembly movable among a film-release configuration, an intermediate configuration, and a seaming configuration; and a film-release assembly supported by the base, the film-release assembly movable between a rest configuration and a film-release configuration, wherein when the actuating assembly is in the film-release configuration, the cut-and-seam assembly is in the film-release position and the film-release assembly is in the film-release configuration, wherein the actuating assembly actuates the film-release assembly, wherein when the actuating assembly is in the intermediate configuration, the cut-and-seam assembly is in the intermediate position and the film-release assembly is in the rest configuration, wherein when the actuating assembly is in the seaming configuration, the cut-and-seam assembly is in the seaming position and the film-release assembly is in the rest configuration. a base; a turntable rotatable relative to the base; and a cut, clamp, and seam system comprising: a cut-and-seam assembly movable among a film-release position, an intermediate position, and a seaming position; an actuating assembly supported by the base and to which the cut-and-seam assembly is mounted, the actuating assembly movable among a film-release configuration, an intermediate configuration, and a seaming configuration; and a film-release assembly supported by the base, the film-release assembly movable between a rest configuration and a film-release configuration, a cut-and-seam assembly movable among a film-release position, an intermediate position, and a seaming position; an actuating assembly supported by the base and to which the cut-and-seam assembly is mounted, the actuating assembly movable among a film-release configuration, an intermediate configuration, and a seaming configuration; and a film-release assembly supported by the base, the film-release assembly movable between a rest configuration and a film-release configuration, wherein when the actuating assembly is in the film-release configuration, the cut-and-seam assembly is in the film-release position and the film-release assembly is in the film-release configuration, wherein the actuating assembly actuates the film-release assembly, wherein when the actuating assembly is in the intermediate configuration, the cut-and-seam assembly is in the intermediate position and the film-release assembly is in the rest configuration, wherein when the actuating assembly is in the seaming configuration, the cut-and-seam assembly is in the seaming position and the film-release assembly is in the rest configuration.
A freshening composition comprising a plurality of particles; a structurant system; wherein the structurant system comprises a first polysaccharide and a second polysaccharide, wherein the first polysaccharide is xanthan gum and the second polysaccharide is selected from the group consisting of: konjac gum, locust bean gum, and combinations thereof; wherein the total polysaccharide level of the composition is less than 0.1 wt. % by weight of the composition, an aqueous carrier, wherein the composition has a spray shear viscosity, as measured according to the SPRAY SHEAR VISCOSITY TEST METHOD described herein, of less than 0.025 Pa-s, and wherein the composition has a creep recovery ratio of at least 0.1, as measured according to the CREEP RECOVERY RATIO TEST METHOD described herein, wherein the creep recovery ratio is calculated in accordance with the following equation: Creep Recovery Ratio = Maximum Strain − Average Strain Recovery / Maximum Strain and wherein the composition has a yield stress of greater than 0 Pa and less than 1.0 Pa, as measured by the YIELD STRESS TEST METHOD described herein. a plurality of particles; a structurant system; wherein the structurant system comprises a first polysaccharide and a second polysaccharide, wherein the first polysaccharide is xanthan gum and the second polysaccharide is selected from the group consisting of: konjac gum, locust bean gum, and combinations thereof; wherein the total polysaccharide level of the composition is less than 0.1 wt. % by weight of the composition, an aqueous carrier, wherein the composition has a spray shear viscosity, as measured according to the SPRAY SHEAR VISCOSITY TEST METHOD described herein, of less than 0.025 Pa-s, and wherein the composition has a creep recovery ratio of at least 0.1, as measured according to the CREEP RECOVERY RATIO TEST METHOD described herein, wherein the creep recovery ratio is calculated in accordance with the following equation: Creep Recovery Ratio = Maximum Strain − Average Strain Recovery / Maximum Strain and wherein the composition has a yield stress of greater than 0 Pa and less than 1.0 Pa, as measured by the YIELD STRESS TEST METHOD described herein.
A flexible display apparatus (10, 20), comprising: a flexible display module comprising a flexible display panel; a sliding shaft coupled with the flexible display panel; a frame module comprising a predefined sliding path along which the sliding shaft is moved to wind or unwind the flexible display panel, the predefined sliding path being configured such that no portion of the surface of the wound flexible display panel received in the frame module is in physical contact with another portion of the surface of the wound flexible display panel received in the frame module, the sliding shaft comprising a first side edge portion and a second side edge portion opposite the first side edge portion; the frame module comprising a first support end portion and a second support end portion, the first support end portion comprising a first sliding guide member to support the first side edge portion of the sliding shaft in a sliding manner; and the second support end portion comprising a second sliding guide member to support the second side edge portion of the sliding shaft in a sliding manner; wherein the sliding path is formed by the first sliding guide member and the second sliding guide member, characterized in that the sliding path has a spiral form and in that the first sliding guide member and the second sliding guide member have a thickness greater than the thickness of the flexible display module. a flexible display module comprising a flexible display panel; a sliding shaft coupled with the flexible display panel; a frame module comprising a predefined sliding path along which the sliding shaft is moved to wind or unwind the flexible display panel, the predefined sliding path being configured such that no portion of the surface of the wound flexible display panel received in the frame module is in physical contact with another portion of the surface of the wound flexible display panel received in the frame module, the sliding shaft comprising a first side edge portion and a second side edge portion opposite the first side edge portion; the frame module comprising a first support end portion and a second support end portion, the first support end portion comprising a first sliding guide member to support the first side edge portion of the sliding shaft in a sliding manner; and the second support end portion comprising a second sliding guide member to support the second side edge portion of the sliding shaft in a sliding manner; wherein the sliding path is formed by the first sliding guide member and the second sliding guide member, characterized in that the sliding path has a spiral form and in that the first sliding guide member and the second sliding guide member have a thickness greater than the thickness of the flexible display module.
An oral liquid composition comprising: i) 0.25% to 1% w/v of methimazole, a pharmaceutically acceptable salt thereof, a solvate thereof, or combinations thereof; ii) at least 0.2% w/v of an anionic polysaccharide, which is a gum; and iii) a liquid vehicle, for use in the treatment or prevention of hyperthyroidism in cats. i) 0.25% to 1% w/v of methimazole, a pharmaceutically acceptable salt thereof, a solvate thereof, or combinations thereof; ii) at least 0.2% w/v of an anionic polysaccharide, which is a gum; and iii) a liquid vehicle,
A method of cooling melamine melt obtainable by pyrolysis of urea in a high-pressure non-catalytic process by water to a temperature of 130 to 230°C in the cooling zone with the transition of melamine to a solid state and removal of melamine from the cooling zone characterized in that the cooling is carried out with evaporation of water and formation of solid melamine-water vapour gaseous suspension, and melamine is removed from the cooling zone in the form of solid melamine-water vapour gaseous suspension, wherein the cooling is conducted in a cooling vessel comprising a body 1 consisting of an upper cylindrical part 2 and a cone-shaped bottom 3, a nozzle 4 being provided along the central axis of the upper cylindrical part 2 of the body 1, eight nozzles 5 for cooling water input being located symmetrically and perpendicularly to unit axis in the walls of upper cylindrical part 2 of the body 1 and a throttle valve 6 being provided in the cone-shaped bottom 3, and wherein the melamine melt is input via nozzle 4, water is input via the nozzles 5 for cooling water input and the solid melamine-water vapour gaseous suspension is removed from the vessel via throttle valve 6.
Method for determining the position and/or location of plant components of a mining extracting plant, in particular a coal mining extracting plant, wherein the plant components comprise at least one face conveyor for removing extracted materials, a shield-type support system having a plurality of shield-type support frames for keeping a face open, displacing devices for moving the face conveyor and the shield-type support system in active operation, and an extracting machine that is moveable along the face conveyor, wherein the method comprises: determining the position and/or location of at least one plant component by way of an evaluation system that comprises a plurality of detection units (25; 275A) located distributed along the shield-type support in a fixed manner, the detection units including an image sensor, by way of which at least four object points, which are at a predetermined spacing from each other and are detectable within the optical wavelength range, of at least one or precisely one measuring object (20; 270A) entrained with the extracting machine (6; 256) are detected, wherein the position and/or location of the extracting machine (6; 256) is determined by way of the evaluation system from the projection of the object points detected by way of the image sensor. determining the position and/or location of at least one plant component by way of an evaluation system that comprises a plurality of detection units (25; 275A) located distributed along the shield-type support in a fixed manner, the detection units including an image sensor, by way of which at least four object points, which are at a predetermined spacing from each other and are detectable within the optical wavelength range, of at least one or precisely one measuring object (20; 270A) entrained with the extracting machine (6; 256) are detected, wherein the position and/or location of the extracting machine (6; 256) is determined by way of the evaluation system from the projection of the object points detected by way of the image sensor.
A vacuum cleaner bag assembly adapted to be removably disposed within a vacuum cleaner, the vacuum cleaner bag assembly comprising: a panel assembly forming an enclosure having an interior volume, wherein an aperture extends through the panel assembly, the aperture adapted to receive debris exiting an outlet end of a hose assembly such that the debris is retained within the interior volume, the panel assembly comprising a first panel and a second panel, with each of the first panel and the second panel including an outer sheet (75, 79) and a liner sheet (77, 81), wherein each of the outer sheets (75, 79) comprises a first outer material and each of the liner sheets (77, 81) comprises a first liner material; and a shield member disposed within the interior volume and secured to one or more portions of the panel assembly, wherein the shield member comprises a second non-porous and non-absorbent flexible material that is different than each of the first outer material and the first liner material, the shield member extends vertically from a first point at or adjacent to a top portion of the panel assembly to a second point vertically disposed between a bottom portion of the aperture and a bottom portion of the panel assembly, the shield member is disposed opposite the aperture on the second panel when the vacuum cleaner bag assembly is disposed within a tank such that the shield member protects a corresponding portion of the panel assembly from being impacted by debris passing through the aperture and into the interior volume. a panel assembly forming an enclosure having an interior volume, wherein an aperture extends through the panel assembly, the aperture adapted to receive debris exiting an outlet end of a hose assembly such that the debris is retained within the interior volume, the panel assembly comprising a first panel and a second panel, with each of the first panel and the second panel including an outer sheet (75, 79) and a liner sheet (77, 81), wherein each of the outer sheets (75, 79) comprises a first outer material and each of the liner sheets (77, 81) comprises a first liner material; and a shield member disposed within the interior volume and secured to one or more portions of the panel assembly, wherein the shield member comprises a second non-porous and non-absorbent flexible material that is different than each of the first outer material and the first liner material, the shield member extends vertically from a first point at or adjacent to a top portion of the panel assembly to a second point vertically disposed between a bottom portion of the aperture and a bottom portion of the panel assembly, the shield member is disposed opposite the aperture on the second panel when the vacuum cleaner bag assembly is disposed within a tank such that the shield member protects a corresponding portion of the panel assembly from being impacted by debris passing through the aperture and into the interior volume.
Biocidal compositions comprising • as isothiazolinones, only 2-methyl-2H-isothiazol-3-one and 1,2-benzisothiazolin-3-one and/or salts thereof and • 1 to 500 ppm by weight of copper ions, based on the total weight fraction of the isothiazolinone or isothiazolinones in the biocidal composition. • as isothiazolinones, only 2-methyl-2H-isothiazol-3-one and 1,2-benzisothiazolin-3-one and/or salts thereof and • 1 to 500 ppm by weight of copper ions, based on the total weight fraction of the isothiazolinone or isothiazolinones in the biocidal composition.
Animal feed dispenser, in particular for horses, comprising a substantially vertically oriented tube open towards the bottom having at least one filling opening for animal feed arranged in the upper section of the tube, wherein at least two elastic cables protruding through the interior of the tube transverse to the longitudinal axis of the tube are arranged one above the other, wherein a free space remains above each cable and permits the reception of only one individual unit portion of the animal feed, and wherein each cable is connected to one end of an associated pulling element which extends to the outside substantially normal to the respective elastic cable via an opening in the tube wall, wherein a biting element is fastened to the end of the pulling element located outside the tube.
Active arm module for a modular robot arm of an industrial robot, - having a first housing, a heat exchanger, a drive device, and a first connection side having a first connection plate, - wherein the first connection plate for transmitting drive forces and supporting forces is mechanically connectable to a further arm module or a robot base of the robot arm, - wherein the first housing extends along a rotation axis (Ra n) and delimits an interior space that receives the drive device, - wherein the heat exchanger at least in portions receives the drive device and is thermally coupled to the drive device, - wherein the heat exchanger has at least one heat exchanger fluid duct, - wherein the heat exchanger is configured to exchange heat between the drive device and the fluid, characterized by - a first fluid contact device disposed on the first connection plate, - wherein a fluid by way of the first fluid contact device is able to be exchanged with the further arm module or the robot base, - wherein the heat exchanger fluid duct for exchanging the fluid with the first fluid contact device is able to be filled with the fluid. - having a first housing, a heat exchanger, a drive device, and a first connection side having a first connection plate, - wherein the first connection plate for transmitting drive forces and supporting forces is mechanically connectable to a further arm module or a robot base of the robot arm, - wherein the first housing extends along a rotation axis (Ra n) and delimits an interior space that receives the drive device, - wherein the heat exchanger at least in portions receives the drive device and is thermally coupled to the drive device, - wherein the heat exchanger has at least one heat exchanger fluid duct, - wherein the heat exchanger is configured to exchange heat between the drive device and the fluid, characterized by - a first fluid contact device disposed on the first connection plate, - wherein a fluid by way of the first fluid contact device is able to be exchanged with the further arm module or the robot base, - wherein the heat exchanger fluid duct for exchanging the fluid with the first fluid contact device is able to be filled with the fluid.
A phase change memory device, comprising: a first electrode; a second electrode; and a phase change layer between the first electrode and the second electrode, the phase change layer including a layered structure of at least one layer of two-dimensional material, the at least one layer of 2D material configured to at least partially change phase between a first crystalline phase and a second crystalline phase based on an electrical signal applied to the phase change layer through the first electrode and the second electrode, the second crystalline phase having a crystalline structure different from the first crystalline phase; characterised in that the 2D material is associated with a phase change temperature that is greater than or equal to 200°C and lower than or equal to 500°C; wherein the 2D material includes (i) a chalcogenide-based material including a mixture of a first chalcogenide-based material and a second chalcogenide-based material, or (ii) a phosphorene. a first electrode; a second electrode; and a phase change layer between the first electrode and the second electrode, the phase change layer including a layered structure of at least one layer of two-dimensional material, the at least one layer of 2D material configured to at least partially change phase between a first crystalline phase and a second crystalline phase based on an electrical signal applied to the phase change layer through the first electrode and the second electrode, the second crystalline phase having a crystalline structure different from the first crystalline phase; characterised in that the 2D material is associated with a phase change temperature that is greater than or equal to 200°C and lower than or equal to 500°C; wherein the 2D material includes (i) a chalcogenide-based material including a mixture of a first chalcogenide-based material and a second chalcogenide-based material, or (ii) a phosphorene.
A process for removing metal ions and ions with a negative net charge, being oxyanions from waste water characterized in that the process comprises the steps of a. providing plant-derived anionic nanofibrillar cellulose, said plant-derived anionic nanofibrillar cellulose having a zero sheer viscosity of 2,000 to 100,000 Pa·s, and a yield stress of 2 to 50 Pa, when dispersed to a concentration of 0.5 wt.-% in water, b. using said plant-derived anionic nanofibrillar cellulose in an amount of 0.005 to 25 kg/m 3 waste water, based on the dry weight of the nanofibrillar cellulose, to carry out a purification treatment comprising sorption of positively charged metal ions contained in the waste water, to a hydrogel of said plant-derived anionic nanofibrillar cellulose, c. separating used plant-derived anionic nanofibrillar cellulose from the waste water, and d. recovering treated waste water. a. providing plant-derived anionic nanofibrillar cellulose, said plant-derived anionic nanofibrillar cellulose having a zero sheer viscosity of 2,000 to 100,000 Pa·s, and a yield stress of 2 to 50 Pa, when dispersed to a concentration of 0.5 wt.-% in water, b. using said plant-derived anionic nanofibrillar cellulose in an amount of 0.005 to 25 kg/m 3 waste water, based on the dry weight of the nanofibrillar cellulose, to carry out a purification treatment comprising sorption of positively charged metal ions contained in the waste water, to a hydrogel of said plant-derived anionic nanofibrillar cellulose, c. separating used plant-derived anionic nanofibrillar cellulose from the waste water, and d. recovering treated waste water.
Sectional door, comprising a roller shutter curtain consisting of several transversely extending door sections, which are connected to each other via articulations, and which are movable upwards along two lateral guide tracks by means of guide rollers, as well as an escape door also consisting of several sections, which are connectable to adjacent door sections and lockable in order to open the curtain, and which are unlockable and detachable from those door sections at least one-sidedly in order to open the escape door, characterized in that locking and unlocking of the escape door with the adjacent door sections of the curtain happens automatically, controlled by the distance between the two lateral guide tracks.
A continuous casting method for continuously casting a slab made of titanium or a titanium alloy by injecting molten metal having titanium or a titanium alloy melted therein into a bottomless mold having a rectangular cross section and withdrawing the molten metal downward while being solidified, wherein a plasma torch is configured to horizontally rotate on the surface of the molten metal in the mold, and a horizontally rotating flow is generated by electromagnetic stirring at least on the surface of the molten metal in the mold.