mhurhangee/ep-ind-claims huggingface dataset:
A reinforced structure comprising a base (2, 3) with a longitudinal axis (Y, Y') and at least: - a hollow tube having a longitudinal axis substantially perpendicular to the longitudinal axis (Y, Y') of the base (2, 3), an end fixed in the base (2, 3) and a free end, said hollow tube being made of a given material, - a shaft housed inside the hollow tube and having a longitudinal axis (X') coinciding with that of the hollow tube, said shaft also being made of a material having a higher hardness than that of the material forming the hollow tube, characterised in that it further comprises: - means of cooperation between the hollow tube and the shaft configured to allow the shaft to rotate freely about its longitudinal axis (X') and to retain the shaft axially with respect to the hollow tube so as to prevent its removal by the free end. - a hollow tube having a longitudinal axis substantially perpendicular to the longitudinal axis (Y, Y') of the base (2, 3), an end fixed in the base (2, 3) and a free end, said hollow tube being made of a given material, - a shaft housed inside the hollow tube and having a longitudinal axis (X') coinciding with that of the hollow tube, said shaft also being made of a material having a higher hardness than that of the material forming the hollow tube, - means of cooperation between the hollow tube and the shaft configured to allow the shaft to rotate freely about its longitudinal axis (X') and to retain the shaft axially with respect to the hollow tube so as to prevent its removal by the free end.
An engine control unit, including accelerator position sensing means for sensing an accelerator position corresponding to an operation degree of an accelerator by an operator, a target torque setting means for calculating a target torque of an engine based on the accelerator position, and an injection quantity setting means (S3, S4) for calculating a fuel injection quantity (QFIN) of fuel injected into a cylinder of the engine in accordance with the target torque, wherein the engine control unit controls the engine torque or engine rotation speed by changing the fuel injection quantity (QFIN), and wherein the target torque setting means includes a phase advance compensating means for setting a response of the calculated target torque in a transitional period, in which the accelerator portion changes, characterized in that the phase advance compensating means calculates a transfer function, which satisfies the following equation: TE = Ks + ω / s + ω • ACCP, where ACCP represents the accelerator position, TE is the target torque, K is a peak gain of the target torque with respect to the change in the accelerator position, ω is a time constant of the phase advance compensation and s is a Laplace operator, wherein by setting the time constant (ω) a convergence time is set for the target torque to change from a peak value corresponding to the peak gain to a target torque point, which is statically balanced with the engine rotation speed after the change in the accelerator position (ACCP).
A pharmaceutical for use in the prevention or treatment of constipation, which comprises as an active ingredient 3-(3-{4-[3-(β-D-glucopyranosyloxy)-5-isopropyl-1H-pyrazol-4-ylmethyl]-3-methylphenoxy}propylamino)-2,2-dimethylpropionamide, or a pharmaceutically acceptable salt thereof.
A waste sorting robot comprising: a frame, a manipulator for interacting with one or more waste objects (106a, 106b, 106c) to be sorted within a working area; and wherein the manipulator is moveably mounted on the frame and the manipulator is moveable within the working area; a conveyor for moving one or more waste objects (106a, 106b, 106c) to be sorted within the working area; a chute for receiving sorted objects moved by the manipulator from the conveyor to a chute opening; wherein the frame comprises a maintenance door for accessing the manipulator and / or the conveyor and the maintenance door is moveable to a position in which the maintenance door covers at least a portion of the chute opening and characterised in that the maintenance door covers the chute opening when the manipulator and / or the conveyor is accessible. a frame, a manipulator for interacting with one or more waste objects (106a, 106b, 106c) to be sorted within a working area; and wherein the manipulator is moveably mounted on the frame and the manipulator is moveable within the working area; a conveyor for moving one or more waste objects (106a, 106b, 106c) to be sorted within the working area; a chute for receiving sorted objects moved by the manipulator from the conveyor to a chute opening; wherein the frame comprises a maintenance door for accessing the manipulator and / or the conveyor and the maintenance door is moveable to a position in which the maintenance door covers at least a portion of the chute opening and characterised in that the maintenance door covers the chute opening when the manipulator and / or the conveyor is accessible.
A corona igniter, comprising: an insulator including an inner surface surrounding a bore and extending from an upper connection end to an insulator nose end; said inner surface of said insulator including an electrode seat between said upper connection end and said insulator nose end; said inner surface of said insulator presenting an inner diameter (Di), said inner diameter decreasing along said electrode seat in a direction moving toward said insulator nose end; a center electrode disposed in said bore of said insulator; said center electrode including a head disposed on said electrode seat of said inner surface of said insulator; a metallic coating disposed on said inner surface of said insulator between said electrode seat and said upper connection end; said metallic coating not disposed on said inner surface of said insulator below said electrode seat; and characterised by a braze disposed along said inner surface of said insulator between said electrode seat and said upper connection end. an insulator including an inner surface surrounding a bore and extending from an upper connection end to an insulator nose end; said inner surface of said insulator including an electrode seat between said upper connection end and said insulator nose end; said inner surface of said insulator presenting an inner diameter (Di), said inner diameter decreasing along said electrode seat in a direction moving toward said insulator nose end; a center electrode disposed in said bore of said insulator; said center electrode including a head disposed on said electrode seat of said inner surface of said insulator; a metallic coating disposed on said inner surface of said insulator between said electrode seat and said upper connection end; said metallic coating not disposed on said inner surface of said insulator below said electrode seat; and characterised by a braze disposed along said inner surface of said insulator between said electrode seat and said upper connection end.
An invasive cardiac valve, comprising a tubular stent and a valve, whereby one end of the tubular stent is of a frusto-conical structure, the other end of the tubular stent is wide open, and the diameter of the open end is greater than the diameter of the frusto-conical end; the valve is attached to the frusto-conical end of the tubular stent; a delivery and retrieval hole of the cardiac valve is provided at the top of the open end of the tubular stent; a frusto-cone generatrix of the frusto-conical end of the tubular stent is a straight line, a circular arc or a combination of a straight line and a circular arc, whereby the grids of the tubular stent gradually become smaller from the open end to the frusto-conical end, the open end of the tubular stent is of a horn shape, and the tubular stent is of a structure, in which both ends of the tubular stent are large and a middle part of the tubular stent is small and the tubular stent is of a grid structure composed of a plurality of rhombic stent units, characterized in that the grid of the tubular stent is composed of stent rods, and the greater the grid is, the thicker the stent rod is. the valve is attached to the frusto-conical end of the tubular stent; a delivery and retrieval hole of the cardiac valve is provided at the top of the open end of the tubular stent; a frusto-cone generatrix of the frusto-conical end of the tubular stent is a straight line, a circular arc or a combination of a straight line and a circular arc, whereby the grids of the tubular stent gradually become smaller from the open end to the frusto-conical end, the open end of the tubular stent is of a horn shape, and the tubular stent is of a structure, in which both ends of the tubular stent are large and a middle part of the tubular stent is small and the tubular stent is of a grid structure composed of a plurality of rhombic stent units, characterized in that the grid of the tubular stent is composed of stent rods, and the greater the grid is, the thicker the stent rod is.
A garment comprising: a polyester blend fabric panel comprised of at least 50% polyester and having a first surface, a first area on the first surface and, a second area on the first surface; an ink layer located at the first area on the first surface, the ink layer having an ink surface distal to the fabric panel on the first surface and being applied via a direct printing method; and a sublimation dye located at the first area and the second area of the fabric panel, wherein the sublimation dye is absorbed by at least a portion of the fabric panel at the second area and is on at least the ink surface at the first area.
An adaptive parameter adjustment method for a hybrid precoding millimeter-wave transmission system, comprising the following step: a receiver calculating a number of radio frequency chains that a transmitter and the receiver need to use, according to received signals powers for using different numbers of radio frequency chains and a total power consumption for using the different numbers of radio frequency chains, wherein the received signals power for using i radio frequency chains is q (i) = |(b ( i)) H Ya ( i) | 2, where i is the number of radio frequency chains and i = 1, 2,..., K, K = min N RF t N RF e, N RF r is a number of maximal configured radio frequency chains of the receiver, N RF t is a number of maximal configured radio frequency chains of the transmitter, q ( i) is received signals power for using i radio frequency chains, a ( i) is a digital domain precoding vector of the transmitter, b ( i) is a digital domain combined vector of the receiver, Y is a diagonal matrix of K × K, whose diagonal elements are { y 1, y 2,..., y K}, and off-diagonal elements are zero, whereby { y 1, y 2,..., y K} are corresponding K received signals of strongest energy received in different angle directions and arranged in descending order of received signal strengths, corresponding to K receiver analog beams and K transmitter analog beams; the receiver sending the number of radio frequency chains to the transmitter; the transmitter using the number of radio frequency chains to transmit signals; and the receiver using the number of radio frequency chains to receive signals. a receiver calculating a number of radio frequency chains that a transmitter and the receiver need to use, according to received signals powers for using different numbers of radio frequency chains and a total power consumption for using the different numbers of radio frequency chains, wherein the received signals power for using i radio frequency chains is q (i) = |(b ( i)) H Ya ( i) | 2, where i is the number of radio frequency chains and i = 1, 2,..., K, K = min N RF t N RF e, N RF r is a number of maximal configured radio frequency chains of the receiver, N RF t is a number of maximal configured radio frequency chains of the transmitter, q ( i) is received signals power for using i radio frequency chains, a ( i) is a digital domain precoding vector of the transmitter, b ( i) is a digital domain combined vector of the receiver, Y is a diagonal matrix of K × K, whose diagonal elements are { y 1, y 2,..., y K}, and off-diagonal elements are zero, whereby { y 1, y 2,..., y K} are corresponding K received signals of strongest energy received in different angle directions and arranged in descending order of received signal strengths, corresponding to K receiver analog beams and K transmitter analog beams; the receiver sending the number of radio frequency chains to the transmitter; the transmitter using the number of radio frequency chains to transmit signals; and the receiver using the number of radio frequency chains to receive signals.
A dental mirror suction device for suctioning liquids and particles from an oral cavity of a patient, with a tubular hollow main body having an inner surface, an outer surface, a longitudinal axis (X-X), a connection opening for a hose, and a suction opening, wherein the inner surface has a mirror-coated surface which is viewable through the suction opening and which is arranged such that the oral cavity is viewable at least in some portions via said mirror-coated surface, wherein - the mirror suction device is configured as a disposable mirror suction device, - the main body consists only of a single part, and - the main body is produced only from a single material, characterised in that - the main body, in the region of the suction opening, forms a planar surface which is provided with a reflective material, wherein the planar surface is vapour-coated with chromium or is painted with a reflective paint. - the mirror suction device is configured as a disposable mirror suction device, - the main body consists only of a single part, and - the main body is produced only from a single material, characterised in that - the main body, in the region of the suction opening, forms a planar surface which is provided with a reflective material, wherein the planar surface is vapour-coated with chromium or is painted with a reflective paint.
A bottom hole assembly for use in a wellbore, comprising: a whipstock (1020, 120, 920); a downhole tool (195, 910, 915); and a cleaning tool (1050, 500, 600, 700, 800, 900) coupled to the downhole tool (195, 910, 915), the cleaning tool (1050, 500, 600, 700, 800, 900) or the downhole tool (195, 910, 915) coupled to the whipstock (1020, 120, 920), the cleaning tool (1050, 500, 600, 700, 800, 900) having: a body (510, 610, 710, 810); and a plurality of cleaning elements (530, 630, 730, 830) disposed at least partially in the body (510, 610, 710, 810) and being movable to an extended position, the cleaning elements (530, 630, 730, 830) in the extended position being configured to clean a portion of a wall of the wellbore, wherein the downhole tool (195, 910, 915) is configured to engage the cleaned portion of the wall. a whipstock (1020, 120, 920); a downhole tool (195, 910, 915); and a cleaning tool (1050, 500, 600, 700, 800, 900) coupled to the downhole tool (195, 910, 915), the cleaning tool (1050, 500, 600, 700, 800, 900) or the downhole tool (195, 910, 915) coupled to the whipstock (1020, 120, 920), the cleaning tool (1050, 500, 600, 700, 800, 900) having: a body (510, 610, 710, 810); and a plurality of cleaning elements (530, 630, 730, 830) disposed at least partially in the body (510, 610, 710, 810) and being movable to an extended position, the cleaning elements (530, 630, 730, 830) in the extended position being configured to clean a portion of a wall of the wellbore, a body (510, 610, 710, 810); and a plurality of cleaning elements (530, 630, 730, 830) disposed at least partially in the body (510, 610, 710, 810) and being movable to an extended position, the cleaning elements (530, 630, 730, 830) in the extended position being configured to clean a portion of a wall of the wellbore, wherein the downhole tool (195, 910, 915) is configured to engage the cleaned portion of the wall.
An electrically conductive ink, comprising a) from 8 to 12 wt% based on the total amount of the electrically conductive ink of one or more aromatic resins; b) from 52 to 68 wt% based on the total amount of the electrically conductive ink of electrically conductive silver particles, wherein the electrically conductive silver particles have a silver content of at least 95 wt.-%, based on the total amount of the electrically conductive silver particles, having an average particle size of 2 μm to 20 μm, wherein D 50 value is measured through laser diffractometry, and a tap density of 2.5 g/cm 3 to 6.0 g/cm 3, wherein the tap density is determined in accordance to ISO 3953 typically using a 25 cm 3 graduated glass cylinder; and c) from 15 to 35 wt% based on the total amount of the electrically conductive ink of one or more organic solvents, when the electrically conductive ink only comprises aromatic resins and no further non-aromatic resins. a) from 8 to 12 wt% based on the total amount of the electrically conductive ink of one or more aromatic resins; b) from 52 to 68 wt% based on the total amount of the electrically conductive ink of electrically conductive silver particles, wherein the electrically conductive silver particles have a silver content of at least 95 wt.-%, based on the total amount of the electrically conductive silver particles, having an average particle size of 2 μm to 20 μm, wherein D 50 value is measured through laser diffractometry, and a tap density of 2.5 g/cm 3 to 6.0 g/cm 3, wherein the tap density is determined in accordance to ISO 3953 typically using a 25 cm 3 graduated glass cylinder; and c) from 15 to 35 wt% based on the total amount of the electrically conductive ink of one or more organic solvents,
A rotation valve, comprising an inlet region (6b, 19; 81) with a plurality of stationary, separate inlets (6c, 19a; 101-112) for several flows of a fluid and an outlet region with an in particular identical plurality of stationary, separate outlets (6d, 17a; 201-211) for the flows of the fluid, wherein a switching region with a switching device (16, 31, 24; 114) rotatable about an axis is provided between the inlet region (6b, 19; 81) and the outlet region, wherein in a first position of the switching device (16; 114) the plurality of inlets (6c, 19a; 101-112) are connected to the plurality of outlets (6d, 17a; 201-212) in a first assignment and wherein in a second position of the switching device (16; 114) the plurality of inlets (6c, 19a; 101-112) are connected to the plurality of outlets (6d, 17a; 201-212) in a second assignment, characterised in that the switching device (16; 114) comprises a plurality of openings (16a, 126, 128, 129) moved with the switching device and flowed through by the fluid flows axially in the direction of the rotation axis, which openings alternately overlap a plurality of stationary, axially directed openings (19a, 101 through 112, 201 through 212) in the course of the rotation of the switching device (16; 114), wherein the different assignments of the inlets (19a; 101-112) to the outlets (17a; 201-212) are carried out through the alternating overlapping of the axially directed openings (16a, 19a).
Method for forming a through hole in a metal workpiece by means of a laser beam and a process gas, in particular oxygen or nitrogen, emerging from a process gas nozzle, comprising the following steps: a) forming a piercing hole in the workpiece that does not go all the way through by piercing the workpiece by means of the laser beam while process gas flows in; b) removing a bulge deposited in step a) around the piercing hole on the workpiece surface by means of the process gas and/or an inert gas, whose gas pressure is higher than in step a), by movement of the process gas nozzle past the piercing hole and/or beyond the piercing hole with the laser beam switched off; and c) fully piercing the piercing hole by means of the laser beam and the process gas. a) forming a piercing hole in the workpiece that does not go all the way through by piercing the workpiece by means of the laser beam while process gas flows in; b) removing a bulge deposited in step a) around the piercing hole on the workpiece surface by means of the process gas and/or an inert gas, whose gas pressure is higher than in step a), by movement of the process gas nozzle past the piercing hole and/or beyond the piercing hole with the laser beam switched off; and c) fully piercing the piercing hole by means of the laser beam and the process gas.
A silicate luminescent material, characterized in that the chemical formula of said silicate luminescent material is Re 4-x Tb x MgSi 3 O 13, wherein Re is a combination of two or more elements selected from Y, Gd, La, Lu, Sc, and wherein x is 0.1-0.5.
A glazing comprising a transparent glass substrate coated with a stack of thin layers comprising at least one silver-based functional metal layer and at least two antireflective coatings, each antireflective coating comprising at least one dielectric layer, so that each functional metal layer is positioned between two antireflective coatings, characterized in that the stack comprises: - at least one antireflective coating comprising a dielectric layer capable of generating defects of hole type chosen from layers based on titanium oxide, on niobium oxide and on tin oxide, the antireflective coating being located below a silver-based functional metal layer, and - at least one blocking layer based on titanium oxide exhibiting a thickness of greater than 1 nm, the blocking layer being located between the antireflective coating comprising a dielectric layer capable of generating defects of hole type and a silver-based functional metal layer, immediately in contact with the silver-based functional metal layer, - the antireflective coating located below the silver-based functional metal layer comprises at least one dielectric layer based on zinc oxide having a stabilizing function immediately in contact with the blocking layer. - at least one antireflective coating comprising a dielectric layer capable of generating defects of hole type chosen from layers based on titanium oxide, on niobium oxide and on tin oxide, the antireflective coating being located below a silver-based functional metal layer, and - at least one blocking layer based on titanium oxide exhibiting a thickness of greater than 1 nm, the blocking layer being located between the antireflective coating comprising a dielectric layer capable of generating defects of hole type and a silver-based functional metal layer, immediately in contact with the silver-based functional metal layer, - the antireflective coating located below the silver-based functional metal layer comprises at least one dielectric layer based on zinc oxide having a stabilizing function immediately in contact with the blocking layer.
Method for manufacturing a space divider from fibre composite mats, comprising: heating two fibre composite mats to a shaping temperature, compressing the two heated fibre composite mats into one another in a single operating pass of a shaping tool to form a planar shaped part in accordance with a shape of the space divider, a cavity being formed between the two fibre composite mats by laying a mould core between the two fibre composite mats and withdrawing it again after the compression, and fixing a mounting element in the cavity for mounting the space divider, the fibre composite mats each being formed as a single-piece flexible textile fabric having a plastics material component having a melting point below the shaping temperature. heating two fibre composite mats to a shaping temperature, compressing the two heated fibre composite mats into one another in a single operating pass of a shaping tool to form a planar shaped part in accordance with a shape of the space divider, a cavity being formed between the two fibre composite mats by laying a mould core between the two fibre composite mats and withdrawing it again after the compression, and fixing a mounting element in the cavity for mounting the space divider, the fibre composite mats each being formed as a single-piece flexible textile fabric having a plastics material component having a melting point below the shaping temperature.