mhurhangee/ep-ind-claims huggingface dataset:
Lens with a fixed focal length, consisting of five lens-element groups, wherein three (G1, G3, G5) are mounted in a stationary manner and two (G2, G4) are mounted in a displaceable manner along an optical axis, characterized in that a) a first front lens-element group as viewed from an object side with negative refractive power is arranged in a stationary manner, b) a second lens-element group as a focusing front group is arranged in a displaceable manner, c) a third lens-element group with positive or negative refractive power and containing a stationary iris diaphragm, the aperture of which is adjustable, as a central group is arranged in a stationary manner, d) a fourth lens-element group as a focusing back group is arranged in a displaceable manner and e) a fifth back lens-element group with negative refractive power is arranged in a stationary manner relative to an imaging plane in a lens barrel and both the focusing front group and the focusing back group are movable jointly relative to one another and to the lens-element groups (G1, G3, G5) arranged in a stationary manner in order to focus the lens on objects at different object distances. a) a first front lens-element group as viewed from an object side with negative refractive power is arranged in a stationary manner, b) a second lens-element group as a focusing front group is arranged in a displaceable manner, c) a third lens-element group with positive or negative refractive power and containing a stationary iris diaphragm, the aperture of which is adjustable, as a central group is arranged in a stationary manner, d) a fourth lens-element group as a focusing back group is arranged in a displaceable manner and e) a fifth back lens-element group with negative refractive power is arranged in a stationary manner
O-Acetylserine, or one of its salts, for use thereof in the treatment and/or the prevention of glucose intolerance and/or one or more diseases associated with glucose intolerance in an individual.
Equipment in rescue service for making holes by cutting in roofs, walls, doors etc. in case of fire in spaces in constructions such as different types of buildings, cisterns, tanks and containers for various purposes and vehicles, trains, ships etc. for fire fighting, which equipment comprises a pressure source for supplying a pressurised extinguishing liquid; a portable lance with an extinguishing nozzle; a tubing between the pressure source and the extinguishing nozzle for supplying the extinguishing liquid, the extinguishing liquid substantially in the form of a jet being made to flow out of the extinguishing nozzle and towards the roof, wall, door etc. to cut through the same for making a hole and, when cutting through, being injected into the space on fire, and thus helping to extinguish the fire; and a vessel which contains an additive and is connected to the extinguishing nozzle for regulatable supply of the additive to the extinguishing liquid in order to improve the cutting effect, characteri sed in that the vessel is portable, wherein the lance and the vessel are adapted to be carried by an operator, in which the vessel is arranged on the lance and the operator carries the lance and the vessel with his hands, in which the additive in the vessel is an abrasive for improving the cutting effect.
A surface-wound healing dressing (1102, 1130, 1140) for a closed wound or incision comprising: a slip drain (1116, 1136) configured for placement within said closed wound or incision; a wick configured for placement over said closed wound or incision and in contact with said slip drain (1116,1136); a mat configured for placement over said wick and configured for fluidic communication therewith; a recoil core (1108, 1142) including a foam material and configured for placement over said mat; said recoil core (1108, 1142) having proximal and distal surfaces and a perimeter edge extending therebetween; an overdrape configured for placement over said recoil core (1108, 1142) in covering relation and configured for releasable attachment to a patient; wherein said dressing (1102, 1130, 1140) is configured for draining said closed wound or incision via said slip drain (1116, 1136); wherein said recoil core (1108, 1142) is configured for compressing under negative pressure and recoiling to its original position when said negative pressure is removed; a negative pressure source configured for extracting fluid and air from said dressing (1102, 1130, 1140); wherein a top of the overdrape includes a plurality of ports (1120a, b) which are connected to fittings adapted for connecting to fluid-conveying tubing and conduits; and wherein said overdrape includes perimeter ports (1124a, b) to said recoil core (1108, 1142) perimeter edge. a slip drain (1116, 1136) configured for placement within said closed wound or incision; a wick configured for placement over said closed wound or incision and in contact with said slip drain (1116,1136); a mat configured for placement over said wick and configured for fluidic communication therewith; a recoil core (1108, 1142) including a foam material and configured for placement over said mat; said recoil core (1108, 1142) having proximal and distal surfaces and a perimeter edge extending therebetween; an overdrape configured for placement over said recoil core (1108, 1142) in covering relation and configured for releasable attachment to a patient; wherein said dressing (1102, 1130, 1140) is configured for draining said closed wound or incision via said slip drain (1116, 1136); wherein said recoil core (1108, 1142) is configured for compressing under negative pressure and recoiling to its original position when said negative pressure is removed; a negative pressure source configured for extracting fluid and air from said dressing (1102, 1130, 1140); wherein a top of the overdrape includes a plurality of ports (1120a, b) which are connected to fittings adapted for connecting to fluid-conveying tubing and conduits; and wherein said overdrape includes perimeter ports (1124a, b) to said recoil core (1108, 1142) perimeter edge.
A process comprising exposing a cellulose ether film to a polyisocyanate to provide a cross-linked cellulose ether film, wherein the cellulose ether film contains less than 1% water by weight and comprises alkoxide groups on the cellulose.
A method for manufacturing a hollow glass item having thin walls and a thin bottom, said method comprising: - feeding at least one molten-glass parison into a parison mold, - forming, in the parison mold, a blank of the item from said at least one parison, - transferring the blank of the item into a finishing mold, - forming the item in the finishing mold, characterized in that, while forming the item in the finishing mold, excess glass is directed out of the bottom of the item so as to form a convex bulge, and the bulge is removed such that the thickness of the bottom of the item is substantially constant. - feeding at least one molten-glass parison into a parison mold, - forming, in the parison mold, a blank of the item from said at least one parison, - transferring the blank of the item into a finishing mold, - forming the item in the finishing mold,
A method for purifying lipid material, characterized in that the method comprises the following steps; a) storing the lipid material in a settling tank at elevated temperature, b) allowing the impurities to settle to the bottom of the settling tank to thereby form an oily sludge phase, c) separating the formed oily sludge phase from the rest of the lipid material, d) further processing the lipid material e) purifying said separated oily sludge phase from impurities, and optionally f) returning the purified oil from the purifying step e) to said settling tank, wherein the method is characterized in that step e) comprises a heat treatment step comprising the steps of; i. heating said oily sludge phase to a temperature of from about 150°C to about 300°C, ii. adding polar solvent to said oily sludge phase for removal of impurities from oil phase such as e.g. phosphorus or calcium compounds, and iii. separating and recovering purified oil and, wherein said elevated temperature in step a) is from about 40°C to about 120°C. a) storing the lipid material in a settling tank at elevated temperature, b) allowing the impurities to settle to the bottom of the settling tank to thereby form an oily sludge phase, c) separating the formed oily sludge phase from the rest of the lipid material, d) further processing the lipid material e) purifying said separated oily sludge phase from impurities, and optionally f) returning the purified oil from the purifying step e) to said settling tank, wherein the method is characterized in that step e) comprises a heat treatment step comprising the steps of; i. heating said oily sludge phase to a temperature of from about 150°C to about 300°C, ii. adding polar solvent to said oily sludge phase for removal of impurities from oil phase such as e.g. phosphorus or calcium compounds, and iii. separating and recovering purified oil and, wherein said elevated temperature in step a) is from about 40°C to about 120°C. i. heating said oily sludge phase to a temperature of from about 150°C to about 300°C, ii. adding polar solvent to said oily sludge phase for removal of impurities from oil phase such as e.g. phosphorus or calcium compounds, and iii. separating and recovering purified oil and, wherein said elevated temperature in step a) is from about 40°C to about 120°C.
A quench car system for containing coke prepared for quenching at a quenching site, the quench car system comprising: a quench car having a base and a plurality of sidewalls defining an opening, the quench car having a top; and a permeable barrier removably coupled to the quench car covering at least a portion of the top of the quench car, the permeable barrier having a plurality of apertures therethrough, characterised in that the quench car system further comprises a quench tower having a nozzle positioned above the quench car, wherein an individual aperture of the permeable barrier positioned under the nozzle is generally vertically aligned with the nozzle and has a diameter larger than a diameter of another individual aperture of the permeable barrier. a quench car having a base and a plurality of sidewalls defining an opening, the quench car having a top; and a permeable barrier removably coupled to the quench car covering at least a portion of the top of the quench car, the permeable barrier having a plurality of apertures therethrough,
A collar (102,202,302,402,502) comprising: a housing containing a processor that controls the generation of an ultra-wideband radar signal and reception of resultant signals, said housing located at a first circumferential position on said collar (102,202,302,402,502); a transmit antenna (104,204,304,404,504) separate from the housing, the transmit antenna configured to output said ultra-wideband radar signal, the transmit antenna (104,204,304,404,504) located at a second circumferential position on said collar (102,202,302,402,502), said second circumferential position different from said first circumferential position; a receive antenna (105,205,305,405,505) separate from the housing, the receive antenna being different from the transmit antenna (104,204,304,404,504) and configured to receive said resultant signals, the receive antenna (105,205,305,405,505) located at a third circumferential position on said collar spaced from the second circumferential position, said third circumferential position different from said first circumferential position and said second circumferential position; and a counterweight separate from the housing, said counterweight located at a fourth circumferential position on said collar, said fourth circumferential position different from said first circumferential position, said second circumferential position, and said third circumferential position. a housing containing a processor that controls the generation of an ultra-wideband radar signal and reception of resultant signals, said housing located at a first circumferential position on said collar (102,202,302,402,502); a transmit antenna (104,204,304,404,504) separate from the housing, the transmit antenna configured to output said ultra-wideband radar signal, the transmit antenna (104,204,304,404,504) located at a second circumferential position on said collar (102,202,302,402,502), said second circumferential position different from said first circumferential position; a receive antenna (105,205,305,405,505) separate from the housing, the receive antenna being different from the transmit antenna (104,204,304,404,504) and configured to receive said resultant signals, the receive antenna (105,205,305,405,505) located at a third circumferential position on said collar spaced from the second circumferential position, said third circumferential position different from said first circumferential position and said second circumferential position; and a counterweight separate from the housing, said counterweight located at a fourth circumferential position on said collar, said fourth circumferential position different from said first circumferential position, said second circumferential position, and said third circumferential position.
A conveying device having a unit load conveyor system, in particular a workpiece conveyor system, wherein the conveying device has at least one portal conveying device for forming a passage; wherein the portal conveying device is configured approximately U-shaped in the view with two vertical portal limbs and one portal web connecting the portal limbs; and wherein the unit load conveyor system is configured for the transport of unit loads and has a plurality of unit load carriers on at least one transport track, with a transport track being associated on each side with a portal conveying device, with the unit loads being transported from one work station to the next work station on the transport track, and with the portal conveying device having a revolving transport means, characterized in that the transport means has transport cars that are arranged in an oscillating manner thereon and that serve the reception of workpiece carriers in the region of the portal limbs of the portal conveying device at the height of the respective transport track of the workpiece conveyor system, with the transport car being configured as L-shaped in the view with an oscillating limb and a reception limb, with the reception limb having reception means, for example pins, for a shape-matched gripping of a unit load carrier, and with the portal limbs having guide means for the transport car in the region of the transport track. wherein the conveying device has at least one portal conveying device for forming a passage; wherein the portal conveying device is configured approximately U-shaped in the view with two vertical portal limbs and one portal web connecting the portal limbs; and wherein the unit load conveyor system is configured for the transport of unit loads and has a plurality of unit load carriers on at least one transport track, with a transport track being associated on each side with a portal conveying device, with the unit loads being transported from one work station to the next work station on the transport track, and with the portal conveying device having a revolving transport means, characterized in that the transport means has transport cars that are arranged in an oscillating manner thereon and that serve the reception of workpiece carriers in the region of the portal limbs of the portal conveying device at the height of the respective transport track of the workpiece conveyor system, with the transport car being configured as L-shaped in the view with an oscillating limb and a reception limb, with the reception limb having reception means, for example pins, for a shape-matched gripping of a unit load carrier, and with the portal limbs having guide means for the transport car in the region of the transport track.
Channel structure for use in a robot for coating articles which has a robot part with an operating space through which fluid lines are guided which are used to guide various media to an application device carried by the robot, wherein a) the channel structure is configured as a separate component; characterized in that the channel structure b) comprises a guide structure for a plurality of fluid lines which comprises, for each fluid line, a respective channel line with an inlet end and an outlet end, said channel line defining a passage channel and serving as guide channel line, in such a way that the fluid line can be guided through the passage channel; and/or c) comprises a line structure for media guided in one or more fluid lines. a) the channel structure is configured as a separate component; characterized in that the channel structure b) comprises a guide structure for a plurality of fluid lines which comprises, for each fluid line, a respective channel line with an inlet end and an outlet end, said channel line defining a passage channel and serving as guide channel line, in such a way that the fluid line can be guided through the passage channel; and/or c) comprises a line structure for media guided in one or more fluid lines.
A ply bonding adhesive composition for the manufacture of multi-ply paper tissue and multi-ply paper towel comprising: (a) water; (b) polyvinyl alcohol; and (c) nanofibrillated cellulose, wherein the adhesive comprises from 90-98.5% by weight of the composition water, from to 0.5% to 10% by weight of the composition polyvinyl alcohol and from 0.05% to 2.5% by weight of the composition nanofibrillated cellulose and wherein said nanofibrillated cellulose is characterized in that: (i) the nanofibrillated cellulose contains fibrils 4-20 nm wide and 500-2000 nm long, as measured according to the description; or (ii) the nanofibrillated cellulose exhibits a Characteristic Nanofiber Viscosity Reduction of at least 80% as the shear rate is increased from 5 sec -1 to 500 sec -1, the viscosity being measured on a 1 wt% suspension of the nanofibrillated cellulose in water at room temperature, between 23°C and 29°C, as described in the description. (a) water; (b) polyvinyl alcohol; and (c) nanofibrillated cellulose,
A system for digital lithography, comprising: a slab disposed in a temperature-controlled safety enclosure adapted to operate at ambient pressures; two stages (130A, 130B) disposed on the slab, each of the two stages (130A, 130B) adapted to independently move along a first direction on a planar surface of the slab without contact with the slab; and a vibration damping system disposed on the slab, the vibration damping system comprising counterweights provided in addition to the two stages, the counterweights having a collective weight within +/- 2 kilograms of the weight of one of the two stages (130A, 130B) and a substrate, wherein the counterweights are movably coupled to a track that is aligned along the length of the slab; and wherein the vibration dampening system is configured to move the counterweights simultaneously with movement of the one of the two stages (130A, 130B). a slab disposed in a temperature-controlled safety enclosure adapted to operate at ambient pressures; two stages (130A, 130B) disposed on the slab, each of the two stages (130A, 130B) adapted to independently move along a first direction on a planar surface of the slab without contact with the slab; and a vibration damping system disposed on the slab, the vibration damping system comprising counterweights provided in addition to the two stages, the counterweights having a collective weight within +/- 2 kilograms of the weight of one of the two stages (130A, 130B) and a substrate, wherein the counterweights are movably coupled to a track that is aligned along the length of the slab; and wherein the vibration dampening system is configured to move the counterweights simultaneously with movement of the one of the two stages (130A, 130B).
Method for training a controller of a rail vehicle including: - providing training data based on sensor data for a rail vehicle; - training a surrogate model of the rail vehicle based on the training data with respect to a relationship between an actuation of a drive of the rail vehicle and a resulting speed of the rail vehicle; - training an action selection rule based on the training data and the surrogate model using machine learning and taking into account at least one objective control target, wherein the action selection rule includes control instructions for actuating the drive of the rail vehicle configured to accelerate the rail vehicle from a first speed state into a second speed state; and - generating a trained action selection rule, wherein the trained action selection rule includes control instructions configured to accelerate the rail vehicle and to meet the control target. - providing training data based on sensor data for a rail vehicle; - training a surrogate model of the rail vehicle based on the training data with respect to a relationship between an actuation of a drive of the rail vehicle and a resulting speed of the rail vehicle; - training an action selection rule based on the training data and the surrogate model using machine learning and taking into account at least one objective control target, wherein the action selection rule includes control instructions for actuating the drive of the rail vehicle configured to accelerate the rail vehicle from a first speed state into a second speed state; and - generating a trained action selection rule, wherein the trained action selection rule includes control instructions configured to accelerate the rail vehicle and to meet the control target.