mhurhangee/ep-ind-claims huggingface dataset:
A method for determining an alignment measurement between a test image and a reference image using a first search range in a first direction and a second search range in a second direction, said method comprising: a) determining a first reduction factor associated with the first direction; b) determining a second reduction factor associated with the second direction; c) scaling the reference image according to the first reduction factor and the second reduction factor; d) scaling the test image according to the first reduction factor and the second reduction factor; e) determining a first alignment measurement between the test image and the reference image using the scaled test image and the scaled reference image; f) adjusting the test image according to the first alignment measurement; and g) determining a second alignment measurement between the test image and the reference image using the adjusted test image and the reference image; wherein: a) the first reduction factor is based on the first search range in the first direction;and b) the second reduction factor is based on the second search range in the second direction; and wherein: a) the first reduction factor is calculated according to ⌊ 3 2 FirstSearchRange 2 5 ⌋, where FirstSearchRange denotes the first search range; and b) the second reduction factor is calculated according to ⌊ 3 2 SecondSearchRange 2 5 ⌋, where SecondSearchRange denotes the second search range. a) determining a first reduction factor associated with the first direction; b) determining a second reduction factor associated with the second direction; c) scaling the reference image according to the first reduction factor and the second reduction factor; d) scaling the test image according to the first reduction factor and the second reduction factor; e) determining a first alignment measurement between the test image and the reference image using the scaled test image and the scaled reference image; f) adjusting the test image according to the first alignment measurement; and g) determining a second alignment measurement between the test image and the reference image using the adjusted test image and the reference image; a) the first reduction factor is based on the first search range in the first direction;and b) the second reduction factor is based on the second search range in the second direction; a) the first reduction factor is calculated according to ⌊ 3 2 FirstSearchRange 2 5 ⌋, where FirstSearchRange denotes the first search range; and b) the second reduction factor is calculated according to ⌊ 3 2 SecondSearchRange 2 5 ⌋, where SecondSearchRange denotes the second search range.
A composite paper comprising an oil-resistant layer formed on at least one surface of a base paper, wherein the oil-resistant layer comprises a vinyl alcohol polymer having a content of ethylene units of 2 to 10 mol%, a viscosity-average degree of polymerization of 300 to 2000, a saponification degree of 95 to 99.5 mol%, a total content of carboxyl groups and lactone rings of 0.02 to 3.0 mol%, a melting point of 180 to 230 °C, a content of 1,2-glycol bonds of 1.2 to 2 mol%, and a molar fraction of central hydroxyl groups in chains of three consecutive hydroxyls by a triad expression relative to vinyl alcohol units of 65 to 98 mol%, the oil-resistant layer further comprises 1 to 50 parts by mass of a fluorine compound based on 100 parts by mass of the vinyl alcohol polymer, the base paper has an air permeability resistance of 1000 seconds or less and a bulk density of 0.5 to 1.0 g/cm 3, the oil-resistant layer is formed in an amount of 0.1 to 3.0 g/m 2 in terms of dry mass, and a water vapor transmission rate of the composite paper is 1000 g/m 2 ·24 h or more. the base paper has an air permeability resistance of 1000 seconds or less and a bulk density of 0.5 to 1.0 g/cm 3, the oil-resistant layer is formed in an amount of 0.1 to 3.0 g/m 2 in terms of dry mass, and a water vapor transmission rate of the composite paper is 1000 g/m 2 ·24 h or more.
A perfusion catheter, comprising: a balloon including an inflatable tube coiled in a helical manner around a central axis into a series of windings with adjacent windings stacked against and bonded to each other, an inner surface of the series of windings, when inflated, defining a passage through the center of the helix for delivery of a medical device or maintaining blood flow; an elongate shaft extending proximal of the balloon and eccentrically positioned relative to the passage; and a guidewire support tube having a length less than a length of the perfusion catheter and having a guidewire lumen therethrough, the guidewire support tube extending through the passage and non-coaxial with the elongate shaft. a balloon including an inflatable tube coiled in a helical manner around a central axis into a series of windings with adjacent windings stacked against and bonded to each other, an inner surface of the series of windings, when inflated, defining a passage through the center of the helix for delivery of a medical device or maintaining blood flow; an elongate shaft extending proximal of the balloon and eccentrically positioned relative to the passage; and a guidewire support tube having a length less than a length of the perfusion catheter and having a guidewire lumen therethrough, the guidewire support tube extending through the passage and non-coaxial with the elongate shaft.
Ball joint fitting made of plastic for connecting plastics pipelines, comprising a joint body which comprises a ball portion and has a pipe portion joined thereto for connecting to a first end of the pipeline, a housing lower part in which the ball portion of the joint body is pivotably mounted, wherein the housing lower part has a ball segment as inner contour, as a result of which the ball portion of the joint body is pivotably mounted therein and form-fittingly received, a housing upper part which can be connected to the opposite end to the first end of the pipeline, a positioning element, wherein the positioning element is axially fixed in the housing and axially fixes the joint body, wherein the joint body is exclusively rotatably movable, and a securing element for axially fixing the positioning element, characterized in that the housing upper and lower parts (5, 6) are integrally bonded with one another and form a media-tight housing, wherein the housing cannot be opened non-destructively, wherein, after the ball joint fitting has been installed by being connected to the opposite ends of the pipeline, the joint body is always movable in the housing, wherein the positioning element has an inner contour, wherein the inner contour of the positioning element is in the form of a ball segment and the inner contour of the positioning element corresponds to the ball portion.
Gas-liquid reactor including vertical body with inlet pipes for reactants and outlet pipes for reaction products, a mixer with a coaxial tube and vortex chamber located in the lower part of the body, the chamber having an axial outlet pipe and a tangential inlet pipe connected with inlet pipe of first reactant, the axial outlet pipe being directed towards reactor bottom, the coaxial tube being introduced into the cylindrical body of the vortex chamber, upper end of the coaxial tube being connected to the inlet pipe of second reactant, characterized in that the axial outlet pipe of the mixer is fitted with a diffuser, the tangential inlet pipe is inclined towards the mixer body in the opposite direction of the outlet opening of the axial outlet pipe by an angle of 15° to 20° to the horizontal.
A forming apparatus comprising: (a) first and second forming rolls (18, 20) with forming pockets in corresponding alignment, wherein at least one roll has one or more continuous grooves extending around the circumference of the roll in a plane perpendicular to the longitudinal axis of the roll and which intersects the forming pockets in said plane, and wherein the first and second forming rolls rotate in directions counter to one another; and (b) one or more forming pins positioned between the counter rotating rolls (18,20) and within the continuous groove of the roll. (a) first and second forming rolls (18, 20) with forming pockets in corresponding alignment, wherein at least one roll has one or more continuous grooves extending around the circumference of the roll in a plane perpendicular to the longitudinal axis of the roll and which intersects the forming pockets in said plane, and wherein the first and second forming rolls rotate in directions counter to one another; and (b) one or more forming pins positioned between the counter rotating rolls (18,20) and within the continuous groove of the roll.
A sampling probe, comprising: a fitting; an elongated portion extending from the fitting; and a restorative spring including at least two opposing magnets inserted onto the elongated portion, a Hall effect sensor for determining contact of the probe with a surface by sensing a field strength of the at least two opposing magnets as the magnets are pushed together or allowed to move apart, wherein properties of the Hall effect sensor and the at least two opposing magnets are selected to allow the restorative spring to provide a restorative force allowing sensing of an obstacle and stopping without damaging a tip of the sampling probe. a fitting; an elongated portion extending from the fitting; and a restorative spring including at least two opposing magnets inserted onto the elongated portion, a Hall effect sensor for determining contact of the probe with a surface by sensing a field strength of the at least two opposing magnets as the magnets are pushed together or allowed to move apart, wherein properties of the Hall effect sensor and the at least two opposing magnets are selected to allow the restorative spring to provide a restorative force allowing sensing of an obstacle and stopping without damaging a tip of the sampling probe.
A toggle release mechanism for a ram air turbine system, the toggle release mechanism comprising: a platform; a toggle element comprising one or more rolling or sliding elements configured to move along a track between a first, locking position and a second, release position; and a solenoid configured to move the one or more rolling or sliding elements along the track between the first, locking position and the second, release position, wherein the track is located on a surface of the platform; characterised by: one or more pivoting members rotatably mounted to the platform and connected to the toggle element such that the toggle element is attached to the platform via the pivoting members. a platform; a toggle element comprising one or more rolling or sliding elements configured to move along a track between a first, locking position and a second, release position; and a solenoid configured to move the one or more rolling or sliding elements along the track between the first, locking position and the second, release position, wherein the track is located on a surface of the platform; characterised by: one or more pivoting members rotatably mounted to the platform and connected to the toggle element such that the toggle element is attached to the platform via the pivoting members.
An exposure tolerance estimation method comprising: setting a plurality of regions along a first surface of a substrate, characterized in that the method further comprises: forming a plurality of patterns (PT1a, PTlb, PT1c, PTld, PTle) for estimation by performing exposure on each of the regions using at least three levels of exposure condition using an exposure mask provided with a plurality of mask patterns (P1a, P1b, P1c, P1d, P1e) having a same dimension; measuring dimensions of the patterns (PT1a, PTlb, PT1c, PTld, PTle) for estimation formed in the each of the regions; finding relationships between the exposure condition and the dimensions for the each of the regions; selecting a first region from the regions, in the first region a first dimension of a first pattern (PT1a, PTlb, PT1c, PTld, PTle) for estimation formed by exposure using a first exposure condition of an intermediate level out of the at least three levels falling within a previously set range; and calculating an exposure tolerance from a relationship between the first exposure condition and the first dimension for the first selected region. setting a plurality of regions along a first surface of a substrate, characterized in that the method further comprises: forming a plurality of patterns (PT1a, PTlb, PT1c, PTld, PTle) for estimation by performing exposure on each of the regions using at least three levels of exposure condition using an exposure mask provided with a plurality of mask patterns (P1a, P1b, P1c, P1d, P1e) having a same dimension; measuring dimensions of the patterns (PT1a, PTlb, PT1c, PTld, PTle) for estimation formed in the each of the regions; finding relationships between the exposure condition and the dimensions for the each of the regions; selecting a first region from the regions, in the first region a first dimension of a first pattern (PT1a, PTlb, PT1c, PTld, PTle) for estimation formed by exposure using a first exposure condition of an intermediate level out of the at least three levels falling within a previously set range; and calculating an exposure tolerance from a relationship between the first exposure condition and the first dimension for the first selected region. forming a plurality of patterns (PT1a, PTlb, PT1c, PTld, PTle) for estimation by performing exposure on each of the regions using at least three levels of exposure condition using an exposure mask provided with a plurality of mask patterns (P1a, P1b, P1c, P1d, P1e) having a same dimension; measuring dimensions of the patterns (PT1a, PTlb, PT1c, PTld, PTle) for estimation formed in the each of the regions; finding relationships between the exposure condition and the dimensions for the each of the regions; selecting a first region from the regions, in the first region a first dimension of a first pattern (PT1a, PTlb, PT1c, PTld, PTle) for estimation formed by exposure using a first exposure condition of an intermediate level out of the at least three levels falling within a previously set range; and calculating an exposure tolerance from a relationship between the first exposure condition and the first dimension for the first selected region.
Method for producing sealing tape rolls from soft, compressible foam with at least one external, radially running barrier layer (6, 34), comprising the following steps in the stated sequence: - providing a foam web made of soft foam, wherein the foam web wound up onto a supply roll has a length between 3 m and 300 m and a width between 0.03 m and 3 m; - forming a foam/barrier layer web by applying a barrier layer (6, 34) to a top side and/or bottom side of the foam web; - creating a plurality of sealing tape strips by introducing at least one continuous cut into the foam/barrier layer web in a longitudinal direction of the foam/barrier layer web and perpendicular to the at least one barrier layer (6, 34); and - winding up each sealing tape strip of the plurality of sealing tape strips to form a roll, in such a manner that the at least one barrier layer (6, 34) runs radially and is arranged on one of the two axial end faces of the roll. - providing a foam web made of soft foam, wherein the foam web wound up onto a supply roll has a length between 3 m and 300 m and a width between 0.03 m and 3 m; - forming a foam/barrier layer web by applying a barrier layer (6, 34) to a top side and/or bottom side of the foam web; - creating a plurality of sealing tape strips by introducing at least one continuous cut into the foam/barrier layer web in a longitudinal direction of the foam/barrier layer web and perpendicular to the at least one barrier layer (6, 34); and - winding up each sealing tape strip of the plurality of sealing tape strips to form a roll, in such a manner that the at least one barrier layer (6, 34) runs radially and is arranged on one of the two axial end faces of the roll.
Method of manufacturing a metal cord with three concentric layers (C1, C2, C3) of the type rubberized in situ, i.e. incorporating a composition made of rubber in the uncrosslinked state referred to as "filling rubber", the said cord comprising a first, internal, layer or core, around which there are wound together in a helix, at a pitch p 2, in a second, intermediate, layer, N wires of diameter d 2, N varying from 3 to 12, around which second layer there are wound together as a helix at a pitch p 3, in a third, outer, layer, P wires of diameter d 3, P varying from 8 to 20, characterized in that said method comprises the following steps: - a first sheathing step in which the core is sheathed with the filling rubber; - a first assembling step by twisting the N wires of the second layer around the core thus sheathed in order to form, at a point named the "assembling point", an intermediate cord named "core strand" (C1+C2); - downstream of the said assembling point, a second sheathing step in which the core strand (C1+C2) is sheathed with the filling rubber; - a second assembling step in which the P wires of the third layer are twisted around the core strand (C1+C2) thus sheathed; - a final twist-balancing step of the metal cord comprising the filling rubber in the uncrosslinked state. - a first sheathing step in which the core is sheathed with the filling rubber; - a first assembling step by twisting the N wires of the second layer around the core thus sheathed in order to form, at a point named the "assembling point", an intermediate cord named "core strand" (C1+C2); - downstream of the said assembling point, a second sheathing step in which the core strand (C1+C2) is sheathed with the filling rubber; - a second assembling step in which the P wires of the third layer are twisted around the core strand (C1+C2) thus sheathed; - a final twist-balancing step of the metal cord comprising the filling rubber in the uncrosslinked state.
Lid for pots or pans with a handle, in particular multistage formed lid for pots or pans with different diameters, with an integrated steam outlet with an odour filter consisting of activated carbon or containing this, characterized in that a fragrance is arranged in the steam outlet in a fragrance dispenser and that the fragrance which adds fragrance to outflowing gases, and the activated carbon are contained in a plastic-housing capsule in the form of power, granules, chips or beads or in a paper- or fabric bag.
Radome for vehicles, comprising a frontal layer and a rear layer, both made from thermoplastic material, the radome also comprising a heating element placed on the frontal layer, on its face opposed to the rear layer,the heating element being a foil with conductive wires, wherein both frontal and rear layers (1, 2) have indentations and protrusions complementary to each other, characterized in that the radome comprises at least one conductive element that is connected with the conductive wires of said foil, and wherein said conductive element is placed in a recess made on the foil rear surface. wherein both frontal and rear layers (1, 2) have indentations and protrusions complementary to each other, characterized in that the radome comprises at least one conductive element that is connected with the conductive wires of said foil, and wherein said conductive element is placed in a recess made on the foil rear surface.
A softening apparatus comprising: a regenerator comprising an anode and a cathode, wherein the regenerator is configured to supply power to the anode and cathode to generate regeneration water containing hydrogen ions (H+); a softener comprising an ion exchange body configured to be regenerated by the regeneration water; a first space between the anode and cathode; and a second space partitioned from the first space by the anode, wherein the softener comprising the ion exchange body is disposed in the second space and not the first space. a regenerator comprising an anode and a cathode, wherein the regenerator is configured to supply power to the anode and cathode to generate regeneration water containing hydrogen ions (H+); a softener comprising an ion exchange body configured to be regenerated by the regeneration water; a first space between the anode and cathode; and a second space partitioned from the first space by the anode, wherein the softener comprising the ion exchange body is disposed in the second space and not the first space.
A throttling and distributing component, comprising: a main body extending from a first end to a second end, wherein a fluid enters the main body from the first end; a regulator having a valve rod; one or more openings disposed on a sidewall of the main body, each opening being in fluid communication with a plurality of branches extending from the main body respectively; and a piston attached to the valve rod, wherein the regulator is configured to adjust the position of the piston in the main body by using the valve rod, so as to selectively cover at least a part of each opening; characterised in that the valve rod passes through the second end and extends into the main body. a main body extending from a first end to a second end, wherein a fluid enters the main body from the first end; a regulator having a valve rod; one or more openings disposed on a sidewall of the main body, each opening being in fluid communication with a plurality of branches extending from the main body respectively; and a piston attached to the valve rod, wherein the regulator is configured to adjust the position of the piston in the main body by using the valve rod, so as to selectively cover at least a part of each opening; characterised in that the valve rod passes through the second end and extends into the main body.