mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling an agricultural vehicle, characterized in that the method comprises: receiving, via a processor, a first signal from a user interface indicative of a value of at least one swath acquisition parameter; determining, via the processor, a path (18,60) of the agricultural vehicle toward a guidance swath based at least in part on the at least one parameter and by simulating movement of the agricultural vehicle using a guidance algorithm; outputting, via the processor, a second signal to a display of the user interface indicative of instructions to present a graphical representation of the path of the agricultural vehicle (18,60); and controlling the agricultural vehicle using said guidance algorithm, via the processor, based at least in part on the at least one parameter upon receiving at least a third signal from the user interface indicative of acceptance of the value of the at least one parameter. receiving, via a processor, a first signal from a user interface indicative of a value of at least one swath acquisition parameter; determining, via the processor, a path (18,60) of the agricultural vehicle toward a guidance swath based at least in part on the at least one parameter and by simulating movement of the agricultural vehicle using a guidance algorithm; outputting, via the processor, a second signal to a display of the user interface indicative of instructions to present a graphical representation of the path of the agricultural vehicle (18,60); and controlling the agricultural vehicle using said guidance algorithm, via the processor, based at least in part on the at least one parameter upon receiving at least a third signal from the user interface indicative of acceptance of the value of the at least one parameter.
A method of isolating extracellular vesicles (EVs) from a biological fluid sample, the method comprising the steps of: (i) mixing the biological fluid sample with a polycationic substance and an extracellular matrix forming polymer; (ii) incubating the mixture, thereby achieving precipitation of the EVs; and (ii) separating the precipitated EVs from the mixture. (i) mixing the biological fluid sample with a polycationic substance and an extracellular matrix forming polymer; (ii) incubating the mixture, thereby achieving precipitation of the EVs; and (ii) separating the precipitated EVs from the mixture.
A battery pack (100; 200), comprising: a plurality of electrode assemblies, a lower case (120; 220) including a plurality of cell compartments (124; 224) accommodating the plurality of electrode assemblies, and an upper case on the lower case (120; 220) at a top opening of the lower case (120; 220), wherein each of the upper case and the lower case (120; 220) includes a metal layer (120c; 220c) interposed between an internal layer (120a; 220a) and an external layer (120b; 220b), the internal layer (120a; 220a) and the external layer (120b; 220b) being made of a plastic material, and wherein the battery pack (100; 200) further comprises: a top plate sealing the top opening of the lower case (120; 220), and a plurality of connection tabs electrically connecting electrode tabs (111, 112) of adjacent electrode assemblies, the electrode tabs (111,112) passing through the top plate; and characterised in that the lower case includes a plurality of holes in the external layer thereof, the plurality of holes partially exposing the metal layer at an outside of the battery pack. a plurality of electrode assemblies, a lower case (120; 220) including a plurality of cell compartments (124; 224) accommodating the plurality of electrode assemblies, and an upper case on the lower case (120; 220) at a top opening of the lower case (120; 220), wherein each of the upper case and the lower case (120; 220) includes a metal layer (120c; 220c) interposed between an internal layer (120a; 220a) and an external layer (120b; 220b), the internal layer (120a; 220a) and the external layer (120b; 220b) being made of a plastic material, and wherein the battery pack (100; 200) further comprises: a top plate sealing the top opening of the lower case (120; 220), and a plurality of connection tabs electrically connecting electrode tabs (111, 112) of adjacent electrode assemblies, the electrode tabs (111,112) passing through the top plate; and characterised in that the lower case includes a plurality of holes in the external layer thereof, the plurality of holes partially exposing the metal layer at an outside of the battery pack. a top plate sealing the top opening of the lower case (120; 220), and a plurality of connection tabs electrically connecting electrode tabs (111, 112) of adjacent electrode assemblies, the electrode tabs (111,112) passing through the top plate; and characterised in that the lower case includes a plurality of holes in the external layer thereof, the plurality of holes partially exposing the metal layer at an outside of the battery pack.
An energy storage apparatus comprising: an energy storage device; an outer case, which is formed of a rectangular-shaped bottom wall portion (111, 111c) and rectangular-shaped side wall portions (112, 113) surrounding four sides of the bottom wall portion (111, 111c); and an adhesive material, which is injected between a first surface of the energy storage device and an inner surface of the bottom wall portion (111, 111c) of the outer case, thus making the first surface and an inner surface of the outer case adhere to each other by surface adhesion, characterized in that a projecting portion (111a, 114) which projects toward the energy storage device is formed on the bottom wall portion (111, 111c), which is adhered to the energy storage device by surface adhesion by the adhesive material; the energy storage device is not exposed from the bottom wall portion (111, 111c) and the side wall portions (112, 113); the projecting portion (111a, 114) and the energy storage device are brought into contact with each other; a gap is formed between a second surface of the energy storage device, which is a surface of the energy storage device disposed adjacently to the first surface, and one of the side wall portions of the outer case; and the adhesive material is injected into the gap between the second surface of the energy storage device and an inner surface of the one of the side wall portions of the outer case, thus making the second surface and the inner surface of the outer case adhere to each other by surface adhesion. an energy storage device; an outer case, which is formed of a rectangular-shaped bottom wall portion (111, 111c) and rectangular-shaped side wall portions (112, 113) surrounding four sides of the bottom wall portion (111, 111c); and an adhesive material, which is injected between a first surface of the energy storage device and an inner surface of the bottom wall portion (111, 111c) of the outer case, thus making the first surface and an inner surface of the outer case adhere to each other by surface adhesion, characterized in that a projecting portion (111a, 114) which projects toward the energy storage device is formed on the bottom wall portion (111, 111c), which is adhered to the energy storage device by surface adhesion by the adhesive material; the energy storage device is not exposed from the bottom wall portion (111, 111c) and the side wall portions (112, 113); the projecting portion (111a, 114) and the energy storage device are brought into contact with each other; a gap is formed between a second surface of the energy storage device, which is a surface of the energy storage device disposed adjacently to the first surface, and one of the side wall portions of the outer case; and the adhesive material is injected into the gap between the second surface of the energy storage device and an inner surface of the one of the side wall portions of the outer case, thus making the second surface and the inner surface of the outer case adhere to each other by surface adhesion.
An apparatus for use in releasing tubing sleeves coupled to a bandolier, said apparatus comprising: a feed system configured to engage a bandolier and to selectively position the bandolier in said apparatus; and a dislodge system configured to dislodge tubing sleeves from an initial installed position on a bandolier propelled by said feed system characterized in that said dislodge system comprises at least a first pinch roller and a second pinch roller, said first pinch roller and said second pinch roller are configured to cooperatively dislodge tubing sleeves from their initial position on a bandolier. a feed system configured to engage a bandolier and to selectively position the bandolier in said apparatus; and a dislodge system configured to dislodge tubing sleeves from an initial installed position on a bandolier propelled by said feed system characterized in that said dislodge system comprises at least a first pinch roller and a second pinch roller, said first pinch roller and said second pinch roller are configured to cooperatively dislodge tubing sleeves from their initial position on a bandolier.
A method for screening a population of electrolytic capacitors comprising: separating said population of electrolytic capacitors into a first subpopulation of electrolytic capacitors and a second subpopulation of electrolytic capacitors; determining an average breakdown voltage of said first subpopulation of electrolytic capacitors applying a dc voltage of no less than said average breakdown voltage to each test capacitor (12, 12', 12") of said second subpopulation of electrolytic capacitors and a series resistor (24, 24', 24") wherein each test capacitor is connected in series with said series resistor (24, 24', 24"); monitoring a charge curve across said series resistor or said test capacitor until either a voltage reaches said average breakdown voltage or until a predetermined time is reached; and sorting said test capacitors into at least two groups wherein in a first group of said groups a voltage drop across each said test capacitor of said test capacitors is below a predetermined level and in a second group of said groups said voltage drop is above a predetermined level. separating said population of electrolytic capacitors into a first subpopulation of electrolytic capacitors and a second subpopulation of electrolytic capacitors; determining an average breakdown voltage of said first subpopulation of electrolytic capacitors applying a dc voltage of no less than said average breakdown voltage to each test capacitor (12, 12', 12") of said second subpopulation of electrolytic capacitors and a series resistor (24, 24', 24") wherein each test capacitor is connected in series with said series resistor (24, 24', 24"); monitoring a charge curve across said series resistor or said test capacitor until either a voltage reaches said average breakdown voltage or until a predetermined time is reached; and sorting said test capacitors into at least two groups wherein in a first group of said groups a voltage drop across each said test capacitor of said test capacitors is below a predetermined level and in a second group of said groups said voltage drop is above a predetermined level.
A method of in-situ producing a molded object, comprising: positioning a form on a substrate (12, 13), the form including a leg portion, a face portion, and a frangible portion, the frangible portion connecting the leg portion to the face portion; coupling the leg portion to the substrate (12, 13) to create a container open on at least one side; pouring material into the container; and fracturing the frangible portion to separate the face portion from the leg portion, wherein the face portion comprises an upper face surface to define a bottom of the molded object, a lower face surface and a side face surface; the leg portion comprises a front leg surface, a back leg surface and a bottom leg surface; and wherein the side face surface is positioned between a plane defined by the front leg surface and a plane defined by the back leg surface; characterized in that: the upper face surface is spaced from the bottom leg surface, and connected thereto by the frangible portion, such that the fracturing of the frangible portion results in the bottom leg surface being above the bottom of the molded object. positioning a form on a substrate (12, 13), the form including a leg portion, a face portion, and a frangible portion, the frangible portion connecting the leg portion to the face portion; coupling the leg portion to the substrate (12, 13) to create a container open on at least one side; pouring material into the container; and fracturing the frangible portion to separate the face portion from the leg portion, wherein the face portion comprises an upper face surface to define a bottom of the molded object, a lower face surface and a side face surface; the leg portion comprises a front leg surface, a back leg surface and a bottom leg surface; and wherein the side face surface is positioned between a plane defined by the front leg surface and a plane defined by the back leg surface; characterized in that: the upper face surface is spaced from the bottom leg surface, and connected thereto by the frangible portion, such that the fracturing of the frangible portion results in the bottom leg surface being above the bottom of the molded object.
Dispenser system, comprising - a first dispenser module having - a medium chamber which is fillable with a medium, - a first discharge head which is actuable for discharging the medium out of the medium chamber, and - a refilling opening, and - a second dispenser module which is coupleable to the first dispenser module for refilling the latter, having - a storage container for storing the medium, and - a second discharge head which is attached to the storage container of the second dispenser module, in the decoupled state of the dispenser modules (1, 2) and is actuable for discharging the medium out of the storage container and has at least one discharge opening (24, 25), characterized in that - the second discharge head has a ventilation system for the purpose of equalizing the pressure in the storage container when the medium is discharged, and - the dispenser system comprises an air pump system, wherein, in the coupled state of the dispenser modules (1, 2), the air pump system is fluidically coupled to the ventilation system of the second discharge head and is actuable in order to convey air via the ventilation system into the storage container. - a first dispenser module having - a medium chamber which is fillable with a medium, - a first discharge head which is actuable for discharging the medium out of the medium chamber, and - a refilling opening, and - a medium chamber which is fillable with a medium, - a first discharge head which is actuable for discharging the medium out of the medium chamber, and - a refilling opening, and - a second dispenser module which is coupleable to the first dispenser module for refilling the latter, having - a storage container for storing the medium, and - a second discharge head which is attached to the storage container of the second dispenser module, in the decoupled state of the dispenser modules (1, 2) and is actuable for discharging the medium out of the storage container and has at least one discharge opening (24, 25), - a storage container for storing the medium, and - a second discharge head which is attached to the storage container of the second dispenser module, in the decoupled state of the dispenser modules (1, 2) and is actuable for discharging the medium out of the storage container and has at least one discharge opening (24, 25), - the second discharge head has a ventilation system for the purpose of equalizing the pressure in the storage container when the medium is discharged, and - the dispenser system comprises an air pump system, wherein, in the coupled state of the dispenser modules (1, 2), the air pump system is fluidically coupled to the ventilation system of the second discharge head and is actuable in order to convey air via the ventilation system into the storage container.
A multi-port coupler for coupling a plurality of pumping light sources to a cladding pumped fiber for optical amplification, the multi-port coupler including: a central signal fiber comprising a core to which a signal light is confined and a cladding; and a rear end part (4, 5, 6) comprising a plurality of pumping fibers coupled to the plurality of pumping light sources and provided around the central signal fiber such that they directly contact the central signal fiber, a front end part (6, 7, 8) of the multi-port coupler being reduced in diameter and being coupled to the cladding pumped fiber for amplification, and comprising said core of the central signal fiber; a waveguide part provided around the core; and a cladding provided around the waveguide part, wherein: the waveguide part of the front end part (6, 7, 8) has a refractive index greater than that of the cladding and lower than that of the core and furthermore has an outer diameter smaller than the outer diameter of the cladding of the central signal fiber of the rear end part (4, 5, 6) at the coupling point between the rear end part (4, 5, 6) and the front end part (6, 7, 8), so that: in the front end part (6, 7, 8), the waveguide part confines amplified back reflected light propagating in a core of the cladding pump fiber for amplification; and in the rear end part (4, 5, 6), the cladding of the central signal fiber confines the back reflected light. a central signal fiber comprising a core to which a signal light is confined and a cladding; and a rear end part (4, 5, 6) comprising a plurality of pumping fibers coupled to the plurality of pumping light sources and provided around the central signal fiber such that they directly contact the central signal fiber, the waveguide part of the front end part (6, 7, 8) has a refractive index greater than that of the cladding and lower than that of the core and furthermore has an outer diameter smaller than the outer diameter of the cladding of the central signal fiber of the rear end part (4, 5, 6) at the coupling point between the rear end part (4, 5, 6) and the front end part (6, 7, 8), in the front end part (6, 7, 8), the waveguide part confines amplified back reflected light propagating in a core of the cladding pump fiber for amplification; and in the rear end part (4, 5, 6), the cladding of the central signal fiber confines the back reflected light.
An optoelectronic device with a, - housing which comprises a first partial region with a first thermoplast and a second partial region with a second thermoplast, - a recess in the housing, - a radiation-emitting component, which is arranged in the recess and can emit radiation, characterized in that - the first partial region is protected from the radiation by the second partial region, - the second thermoplast has a higher reflectivity to the radiation than the first thermoplast, and - the first thermoplast is selected from: polyetherimide, polysulfone, polyphenylsulfide, LCPs and PEEK, wherein the first thermoplast has been crosslinked by irradiation. - housing which comprises a first partial region with a first thermoplast and a second partial region with a second thermoplast, - a recess in the housing, - a radiation-emitting component, which is arranged in the recess and can emit radiation, characterized in that - the first partial region is protected from the radiation by the second partial region, - the second thermoplast has a higher reflectivity to the radiation than the first thermoplast, and - the first thermoplast is selected from: polyetherimide, polysulfone, polyphenylsulfide, LCPs and PEEK, wherein the first thermoplast has been crosslinked by irradiation.
A device for laying floor and wall covering for outside corners, being in the form of a single piece ready to be used directly, regardless of its size and without requiring a jig or specific fitting tools, and without using tools necessary for transforming the device from one state to another, the single piece consisting of a rigid central first portion, and a flexible peripheral second portion overmolded on the central first portion, the central first portion is substantially in the shape of a quarter of a truncated cone, and the flexible peripheral second portion is substantially triangular in shape and extends from the whole periphery of the central portion, said peripheral portion is intended to bear against a floor portion and against wall portions that are disposed facing said device.
A three-dimensional printer system comprising: a heated extrusion nozzle including a nozzle outlet; and a feeding mechanism constructed and arranged to feed a filament into the heated extrusion nozzle; characterised by a cutting mechanism constructed and arranged to cut the filament at a location at, or upstream from, the nozzle outlet. a heated extrusion nozzle including a nozzle outlet; and a feeding mechanism constructed and arranged to feed a filament into the heated extrusion nozzle; characterised by a cutting mechanism constructed and arranged to cut the filament at a location at, or upstream from, the nozzle outlet.
A composition for the immediate stopping of a free-radical polymerization, comprising a) a free-radical polymerization inhibitor selected from among phenothiazines, b) an aprotic solvent and c) an ionic liquid. a) a free-radical polymerization inhibitor selected from among phenothiazines, b) an aprotic solvent and c) an ionic liquid.
A shock wave therapy device with a shock wave therapy source that is configured to emit a shock wave having a focus onto a target in a body of a patient, with an imaging device, which is configured to visualize the target, with a control unit, which is configured to apply movement between the target and the emitted shock wave focus, with a respiration detector, which is configured to detect the respiration of a patient and configured to produce a respiration signal, characterized in that the control unit is configured to control the movement of the target or the shock wave focus according to a preselected movement pattern, and the movement is triggered by the respiration signal of the respiration detector, so that the target remains approximately stable relative to the shock wave focus during the respiratory cycle. with an imaging device, which is configured to visualize the target, with a control unit, which is configured to apply movement between the target and the emitted shock wave focus, with a respiration detector, which is configured to detect the respiration of a patient and configured to produce a respiration signal, characterized in that the control unit is configured to control the movement of the target or the shock wave focus according to a preselected movement pattern, and the movement is triggered by the respiration signal of the respiration detector, so that the target remains approximately stable relative to the shock wave focus during the respiratory cycle.