mhurhangee/ep-ind-claims huggingface dataset:
Method for planning a virtual track (B1, B2), along which a driverless transport vehicle is to move automatically within an environment from a start point to an end point, wherein the environment comprises intermediate points and sections connecting the intermediate points, the start point and the end point, comprising the following method steps: - providing a graph assigned to the environment, the graph comprising nodes (K1-K5) assigned to the intermediate points, a start node assigned to the start point, an end node assigned to the end point, and edges connecting the start node, the end node and the nodes (K1-K5) and being assigned to the corresponding sections, wherein information about the course of a virtual track section is assigned to the respective edges, the relevant virtual track section being assigned to the corresponding section, - automatically determining a path (P1, P2) between the start node and the end node within the graph, and - automatically merging the virtual track sections assigned to the edges of the determined path (P1, P2) to the virtual track (B1, B2), wherein determining the path (P1, P2) is performed based on information about the driving behaviour and/or driving ability of the driverless transport vehicle and determining the virtual track (B1, B2) is based on at least one constraint, wherein - possible virtual junctions between the courses of the corresponding virtual track sections are assigned to the start node, the end node and the individual nodes (K1-K5), and there is an automatic merging of the virtual track sections assigned to the edges of the determined path (P1, P2) and the virtual junctions assigned to the nodes (K1-K5) of the determined path (P1, P2) in order to obtain the virtual track (B1, B2). - providing a graph assigned to the environment, the graph comprising nodes (K1-K5) assigned to the intermediate points, a start node assigned to the start point, an end node assigned to the end point, and edges connecting the start node, the end node and the nodes (K1-K5) and being assigned to the corresponding sections, wherein information about the course of a virtual track section is assigned to the respective edges, the relevant virtual track section being assigned to the corresponding section, - automatically determining a path (P1, P2) between the start node and the end node within the graph, and - automatically merging the virtual track sections assigned to the edges of the determined path (P1, P2) to the virtual track (B1, B2), wherein determining the path (P1, P2) is performed based on information about the driving behaviour and/or driving ability of the driverless transport vehicle and determining the virtual track (B1, B2) is based on at least one constraint, wherein - possible virtual junctions between the courses of the corresponding virtual track sections are assigned to the start node, the end node and the individual nodes (K1-K5), and there is an automatic merging of the virtual track sections assigned to the edges of the determined path (P1, P2) and the virtual junctions assigned to the nodes (K1-K5) of the determined path (P1, P2) in order to obtain the virtual track (B1, B2).
A laminate structure comprising: a first glass layer; a second glass layer; and a polymer interlayer intermediate the first and second glass layers (110, 120), wherein the polymer interlayer includes a first region having a first modulus of elasticity and a second region having a second modulus of elasticity greater than the first modulus of elasticity, wherein the first region is a central region of the polymer interlayer and the second region is a peripheral region of the polymer interlayer encompassing the central region, and wherein at least one of the first glass layer and the second glass layer comprises a thickness in a range from 0.5 mm to 1.5 mm. a first glass layer; a second glass layer; and a polymer interlayer intermediate the first and second glass layers (110, 120), wherein the polymer interlayer includes a first region having a first modulus of elasticity and a second region having a second modulus of elasticity greater than the first modulus of elasticity, wherein the first region is a central region of the polymer interlayer and the second region is a peripheral region of the polymer interlayer encompassing the central region, and wherein at least one of the first glass layer and the second glass layer comprises a thickness in a range from 0.5 mm to 1.5 mm.
Method for improving fire resistance of a lining or membrane of a plastic material having a thickness between 0.5 to 3 mm to be used in association with supporting structures, such as for example tunnel walls, wherein a surface of the supporting structure is provided with a thin lining or membrane fixed to the surface by means of bolts, and where the membrane or lining is exposed to the possibilities of open flames or fire on the surface facing the tunnel cavity, and wherein a fire protection is added to at least one end edge surface of the lining or membrane, characterized in that the fire protection is added as a layer of a flame resistant material which is extruded onto the end edge surface of the lining or membrane.
A method of processing a tempered glass comprising: preparing a shaft-shaped processing device, at least an outer surface of a front end which is a surface of holding diamond grind grains (8b-1), and a concave portion formed on a central part in a radial direction of a front surface thereof; processing the chemical tempered glass having a surface reinforced layer by using the processing device which is rotated around its shaft center and vibrated in a direction of extending the shaft center; feed-back controlling the vibration of the processing device to the chemical tempered glass to approach an amplitude and a frequency of the processing device to a target amplitude and a target frequency, respectively, and setting values of the target amplitude and the target frequency to change at respective positions in a direction of thickness of the chemical tempered glass accompanied with the processing of the chemical tempered glass, which do not belong to a range of generating quality degradation; and carrying out the feedback control at every sample frequency of 0.3 msec or less. preparing a shaft-shaped processing device, at least an outer surface of a front end which is a surface of holding diamond grind grains (8b-1), and a concave portion formed on a central part in a radial direction of a front surface thereof; processing the chemical tempered glass having a surface reinforced layer by using the processing device which is rotated around its shaft center and vibrated in a direction of extending the shaft center; feed-back controlling the vibration of the processing device to the chemical tempered glass to approach an amplitude and a frequency of the processing device to a target amplitude and a target frequency, respectively, and setting values of the target amplitude and the target frequency to change at respective positions in a direction of thickness of the chemical tempered glass accompanied with the processing of the chemical tempered glass, which do not belong to a range of generating quality degradation; and carrying out the feedback control at every sample frequency of 0.3 msec or less.
A magnetic material comprising a first ferromagnetic layer, a second ferromagnetic layer, and a blocking layer between and in contact with each of the first and second ferromagnetic layers, wherein the first ferromagnetic layer consists essentially of a first rare earth nitride material and the second ferromagnetic layer consists essentially of a second rare earth nitride material, and wherein the first and second rare earth nitride materials are each independently selected from the group consisting of praseodymium nitride (PrN), neodymium nitride (NdN), samarium nitride (SmN), europium nitride (EuN), gadolinium nitride (GdN), terbium nitride (TbN), dysprosium nitride (DyN), holmium nitride (HoN), erbium nitride (ErN), thulium nitride (TmN), and ytterbium nitride (YbN), and alloys of any two or more thereof, and wherein the blocking layer is selected from the group consisting of LaN, LuN, HfN, AlN, GaN, and (Al,In,Ga)N alloys, characterized in that the first and second ferromagnetic layers have different coercive fields. wherein the first ferromagnetic layer consists essentially of a first rare earth nitride material and the second ferromagnetic layer consists essentially of a second rare earth nitride material, and wherein the first and second rare earth nitride materials are each independently selected from the group consisting of praseodymium nitride (PrN), neodymium nitride (NdN), samarium nitride (SmN), europium nitride (EuN), gadolinium nitride (GdN), terbium nitride (TbN), dysprosium nitride (DyN), holmium nitride (HoN), erbium nitride (ErN), thulium nitride (TmN), and ytterbium nitride (YbN), and alloys of any two or more thereof,
A method of assembling components of a drug delivery device, the method comprising the steps of: sterilizing a fluid pathway connection, a needle insertion mechanism, and a fluid conduit coupling the fluid pathway connection and the needle insertion mechanism; coupling a container to the fluid pathway connection and the needle insertion mechanism; and, after coupling the container to the fluid pathway connection and the needle insertion mechanism, disposing a drug within the container using a fill-finish process. sterilizing a fluid pathway connection, a needle insertion mechanism, and a fluid conduit coupling the fluid pathway connection and the needle insertion mechanism; coupling a container to the fluid pathway connection and the needle insertion mechanism; and, after coupling the container to the fluid pathway connection and the needle insertion mechanism, disposing a drug within the container using a fill-finish process.
A method of bonding polymer components comprising: additively manufacturing a first polymer component (12, 22, 32, 42, 52) having a first mating feature (16, 26, 36, 46, 56, 66); additively manufacturing a second polymer component (14, 24, 34, 44, 54, 64) having a second mating feature (18, 38, 48, 58), the second mating feature (18, 38, 48, 58) designed to fit with the first mating feature (16, 26, 36, 46, 56); and joining the first and second polymer components (12, 22, 32, 42, 52, 14) with an adhesive (17, 27) to form a mechanical lock wherein the mechanical lock comprises the first mating feature (16, 26, 36, 46, 56), the second mating feature (18, 38, 48, 58) and the adhesive (17, 27, 67), characterized in that said method further comprises: additively manufacturing an undercut wall structure on the first mating feature and additively manufacturing an undercut wall structure on the second mating feature, and manufacturing an edge protective bumper, buried taper and tapered edges. additively manufacturing a first polymer component (12, 22, 32, 42, 52) having a first mating feature (16, 26, 36, 46, 56, 66); additively manufacturing a second polymer component (14, 24, 34, 44, 54, 64) having a second mating feature (18, 38, 48, 58), the second mating feature (18, 38, 48, 58) designed to fit with the first mating feature (16, 26, 36, 46, 56); and joining the first and second polymer components (12, 22, 32, 42, 52, 14) with an adhesive (17, 27) to form a mechanical lock wherein the mechanical lock comprises the first mating feature (16, 26, 36, 46, 56), the second mating feature (18, 38, 48, 58) and the adhesive (17, 27, 67), characterized in that said method further comprises: additively manufacturing an undercut wall structure on the first mating feature and additively manufacturing an undercut wall structure on the second mating feature, and manufacturing an edge protective bumper, buried taper and tapered edges. additively manufacturing an undercut wall structure on the first mating feature and additively manufacturing an undercut wall structure on the second mating feature, and manufacturing an edge protective bumper, buried taper and tapered edges.
An implantable autonomous heart stimulation capsule, comprising: an elongated tubular body having: at a first end, a releasable linking device connectable to an installation lead; and at a second end, an anchoring element for anchoring the implantable autonomous heart stimulation capsule to a heart wall, the elongated tubular body housing a frame supporting an electronic unit; and an accelerometer, wherein the accelerometer comprises: a piezoelectric blade extending cantilevered from an end region of the piezoelectric blade embedded into the frame and in a direction from the first end to the second end; wherein the piezoelectric blade comprises on each one of its sides a first metallization for collecting an acceleration signal and a second metallization for collecting electrical energy. at a first end, a releasable linking device connectable to an installation lead; and at a second end, an anchoring element for anchoring the implantable autonomous heart stimulation capsule to a heart wall, the elongated tubular body housing a frame supporting an electronic unit; and an accelerometer, wherein the accelerometer comprises: a piezoelectric blade extending cantilevered from an end region of the piezoelectric blade embedded into the frame and in a direction from the first end to the second end; wherein the piezoelectric blade comprises on each one of its sides a first metallization for collecting an acceleration signal and a second metallization for collecting electrical energy. a piezoelectric blade extending cantilevered from an end region of the piezoelectric blade embedded into the frame and in a direction from the first end to the second end; wherein the piezoelectric blade comprises on each one of its sides a first metallization for collecting an acceleration signal and a second metallization for collecting electrical energy.
A hand-held work tool (100, 200, 800, 1000) comprising a first part and a second part arranged vibrationally isolated from each other, the first part comprising an interface for holding a cutting tool and an electric motor arranged to drive the cutting tool, wherein the electric motor is arranged to drive a fan configured to generate a flow of cooling air for cooling the electric motor, the second part comprising a battery compartment for holding an electrical storage device arranged to power the electric motor, wherein the hand-held work tool comprises a cooling air conduit arranged between the first part and the second part to guide a portion of the flow of cooling air there in-between for cooling the electrical storage device. the first part comprising an interface for holding a cutting tool and an electric motor arranged to drive the cutting tool, wherein the electric motor is arranged to drive a fan configured to generate a flow of cooling air for cooling the electric motor, the second part comprising a battery compartment for holding an electrical storage device arranged to power the electric motor, wherein the hand-held work tool comprises a cooling air conduit arranged between the first part and the second part to guide a portion of the flow of cooling air there in-between for cooling the electrical storage device.
A method for calculating a quantity for a route segment (306, 308) extending between two points on a digital map, said points corresponding to two geographical locations, said quantity representing a distance between the two geographical locations or an estimated time for travelling between the two geographical locations, said route segment (306, 308) corresponding to a road segment extending between the two geographical locations, said method comprising; determining a base quantity for said route segment (306, 308), determining a first parameter corresponding to a first condition of the route segment (306, 308) between the two geographical locations, wherein said first condition corresponds to a traffic flow along said road segment, characterised in that the method further comprises the steps of: determining a second parameter corresponding to a second condition of the route segment (306, 308) between the two geographical locations, determining an additional quantity based on a combined effect of said first parameter and said second parameter such that the influence of said second parameter on the size of said additional quantity depends on said first parameter, calculating a modified quantity for said route segment (306, 308) based on said base quantity and said additional quantity, and generating a signal based on said modified quantity. determining a second parameter corresponding to a second condition of the route segment (306, 308) between the two geographical locations, determining an additional quantity based on a combined effect of said first parameter and said second parameter such that the influence of said second parameter on the size of said additional quantity depends on said first parameter, calculating a modified quantity for said route segment (306, 308) based on said base quantity and said additional quantity, and generating a signal based on said modified quantity.
Method for producing a detent and/or driving pawl (13, 15) for a slack adjuster of a clutch device for locking and/or rotating a drive pinion which is provided on a rotatably mounted spindle drive acting on a rotatable adjustment ring and which has a toothed structure, wherein the detent and/or driving pawl (13, 15) has at least two pawl tongues (14, 16) which can be brought into alternating engagement with the toothed structure of the drive pinion, characterized in that the pawl tongues (14, 16) are at least partially cut out of a detent and/or driving pawl blank by means of a laser or water jet, and the distance between two adjacent pawl tongues (14, 16) corresponds to the cutting width of the laser or water jet.
A selective high resolution imaging method for a charged particle beam apparatus, comprising: acquiring and displaying a sample area image of a sample at a first resolution on a display; and scanning at least one exact region of interest in the sample area image defined by an arbitrary outline positioned on the sample area image, acquiring an image of the at least one exact region of interest at a second resolution greater than the first resolution; overlaying the image of the at least one exact region of interest at the second resolution, over the arbitrary outline positioned on the sample area image; and simultaneously displaying on the display, the sample area image at the first resolution and the image of the at least one exact region of interest overlayed at the arbitrary outline positioned on the sample area image at the second resolution, such that features in the image of the at least one exact region of interest are seen with greater detail relative to features in the sample area image at the same zoom level. acquiring and displaying a sample area image of a sample at a first resolution on a display; and scanning at least one exact region of interest in the sample area image defined by an arbitrary outline positioned on the sample area image, acquiring an image of the at least one exact region of interest at a second resolution greater than the first resolution; overlaying the image of the at least one exact region of interest at the second resolution, over the arbitrary outline positioned on the sample area image; and simultaneously displaying on the display, the sample area image at the first resolution and the image of the at least one exact region of interest overlayed at the arbitrary outline positioned on the sample area image at the second resolution, such that features in the image of the at least one exact region of interest are seen with greater detail relative to features in the sample area image at the same zoom level. acquiring an image of the at least one exact region of interest at a second resolution greater than the first resolution; overlaying the image of the at least one exact region of interest at the second resolution, over the arbitrary outline positioned on the sample area image; and simultaneously displaying on the display, the sample area image at the first resolution and the image of the at least one exact region of interest overlayed at the arbitrary outline positioned on the sample area image at the second resolution, such that features in the image of the at least one exact region of interest are seen with greater detail relative to features in the sample area image at the same zoom level.
A tumor necrosis factor-alpha stimulated gene 6 (TSG-6) protein for use in a method of reducing the size of a myocardial infarcation in a mammalian subject comprising: administering said tumor necrosis factor-alpha stimulated gene 6 (TSG-6) protein to said mammalian subject, after the occurrence of said myocardial infarction. administering said tumor necrosis factor-alpha stimulated gene 6 (TSG-6) protein to said mammalian subject, after the occurrence of said myocardial infarction.
A cuff for attaching to a heart of a patient for facilitating the attachment of a heart blood pump near or against the cuff, the cuff comprising: a sewing ring including two or more disc-shaped layers (1020, 1022) of fabric and an insert disposed between the disc-shaped layers (1020, 1022), the sewing ring defining a central opening for receiving an inflow cannula of the heart blood pump, the insert increasing a rigidity of the cuff such that at least a portion of a myocardium of the heart conforms to a shape of the cuff by an attachment of the cuff to the myocardium; wherein a flexural modulus of the insert is greater than 344,7 kPa [50 psi]. a sewing ring including two or more disc-shaped layers (1020, 1022) of fabric and an insert disposed between the disc-shaped layers (1020, 1022), the sewing ring defining a central opening for receiving an inflow cannula of the heart blood pump, the insert increasing a rigidity of the cuff such that at least a portion of a myocardium of the heart conforms to a shape of the cuff by an attachment of the cuff to the myocardium; wherein a flexural modulus of the insert is greater than 344,7 kPa [50 psi].