mhurhangee/ep-ind-claims huggingface dataset:
A grain-oriented electrical steel sheet with a plurality of strain regions locally present in a surface layer of the steel sheet and formed to extend in a direction transverse to a rolling direction at periodic interval s in millimeters in the rolling direction, whe rein each of the strain regions has a closure domain region that is formed continuously over a distance of 200 mm in a width direction and whose width as measured in the rolling direction varies periodically on a surface of the steel sheet, and each of the closure domain regions satisfies a set of conditions including: a ratio of W max / W min being 1.2 or more and less than 2.5, where W max and W min respectively denote a maximum width and a minimum width on the surface of the steel sheet as measured in the rolling direction; W ave being 80 μm or more, where W ave denotes an average width on the surface of the steel sheet as measured in the rolling direction; D being 32 μm or more, where D denotes a maximum depth as measured in the sheet thickness direction; and ( W ave * D)/ s being 0.0007 mm or more and 0.0016 mm or less. a ratio of W max / W min being 1.2 or more and less than 2.5, where W max and W min respectively denote a maximum width and a minimum width on the surface of the steel sheet as measured in the rolling direction; W ave being 80 μm or more, where W ave denotes an average width on the surface of the steel sheet as measured in the rolling direction; D being 32 μm or more, where D denotes a maximum depth as measured in the sheet thickness direction; and ( W ave * D)/ s being 0.0007 mm or more and 0.0016 mm or less.
An observation apparatus comprising: an imaging unit adapted to image an observation target accommodated in an accommodation part of a container in a field of view (R, R1,.... R54) smaller than the accommodation part at a series of predetermined imaging positions and to acquire a series of partial images along a scanning trajectory; a measurement unit adapted to measure a distance from the imaging unit to the accommodation part before each imaging performed by the imaging unit at the series of imaging positions; a storage unit adapted to store shape information representing a shape of the container and imaging position information representing the series of imaging positions; characterized by a calculation unit adapted to calculate effective range information indicating an effective range (F01-F03) in the scanning trajectory along said scanning trajectory based on the shape information and the imaging position information, the effective range being a range in which the distance is measurable by the measurement unit before imaging within a range of the field of view (R, R1,.... R54) of the imaging unit at the imaging positions; and a control unit adapted to compare the effective range information (e.g. F01) with a predetermined threshold value and to control a focus of imaging using a measurement result measured by the measurement unit in the effective range and a measurement result of the measurement unit in a field of view adjacent to the field of view including the effective range in a case where the effective range information is smaller than or equal to the threshold value. an imaging unit adapted to image an observation target accommodated in an accommodation part of a container in a field of view (R, R1,.... R54) smaller than the accommodation part at a series of predetermined imaging positions and to acquire a series of partial images along a scanning trajectory; a measurement unit adapted to measure a distance from the imaging unit to the accommodation part before each imaging performed by the imaging unit at the series of imaging positions; a storage unit adapted to store shape information representing a shape of the container and imaging position information representing the series of imaging positions; characterized by a calculation unit adapted to calculate effective range information indicating an effective range (F01-F03) in the scanning trajectory along said scanning trajectory based on the shape information and the imaging position information, the effective range being a range in which the distance is measurable by the measurement unit before imaging within a range of the field of view (R, R1,.... R54) of the imaging unit at the imaging positions; and a control unit adapted to compare the effective range information (e.g. F01) with a predetermined threshold value and to control a focus of imaging using a measurement result measured by the measurement unit in the effective range and a measurement result of the measurement unit in a field of view adjacent to the field of view including the effective range in a case where the effective range information is smaller than or equal to the threshold value.
A chimeric antigen receptor, comprising an extracellular antigen-binding domain that binds to Fc Receptor-Like 5 (FcRL5), a transmembrane domain, and an intracellular domain, wherein the extracellular antigen-binding domain comprises: (a) a light chain variable region comprising a CDR1, a CDR2, and a CDR3 of the light chain variable region sequence set forth in SEQ ID NO: 171, and a heavy chain variable region comprising a CDR1, a CDR2, and a CDR3 of the heavy chain variable region sequence set forth in SEQ ID NO: 172; or (b) a light chain variable region comprising a CDR1, a CDR2, and a CDR3 of the light chain variable region sequence set forth in SEQ ID NO:215, and a heavy chain variable region comprising a CDR1, a CDR2, and a CDR3 of the heavy chain variable region sequence set forth in SEQ ID NO:216. (a) a light chain variable region comprising a CDR1, a CDR2, and a CDR3 of the light chain variable region sequence set forth in SEQ ID NO: 171, and a heavy chain variable region comprising a CDR1, a CDR2, and a CDR3 of the heavy chain variable region sequence set forth in SEQ ID NO: 172; or (b) a light chain variable region comprising a CDR1, a CDR2, and a CDR3 of the light chain variable region sequence set forth in SEQ ID NO:215, and a heavy chain variable region comprising a CDR1, a CDR2, and a CDR3 of the heavy chain variable region sequence set forth in SEQ ID NO:216.
An anti-aliasing method comprising: performing a Z-prepass using rasterization at one sample per pixel, wherein all pixels are marked that are fully covered by a triangle primitive, and for each fully covered pixel, writing the maximum depth (Z-max) over the pixel to a depth buffer; performing a fragment count pass using rasterization at one sample per pixel, wherein all pixels are marked that are fully or partially covered by a triangle primitive, including outputting the minimum depth (Z-min) for each pixel and counting for each pixel the number of fragments that pass the depth test, wherein pixels that are fully covered by a single triangle primitive get a count of one; performing a main rendering pass using rasterization at one sample per pixel, wherein all pixels are marked that are fully or partially covered by a triangle primitive, including outputting the minimum depth (Z-min) for each pixel and shading each generated fragment that passes the depth test at the pixel center or at an appropriately chosen centroid location for partially covered fragments; if a pixel is fully covered and the fragment count is one, write the color to the frame buffer; if the pixel is partially covered or the fragment count is larger than one, store the pixel to a separate array along with auxiliary information, and discard the pixel for further processing in a 3D pipeline, performing an anti-aliasing pass over all fragments generated in the main rendering pass, wherein for each pixel the list of associated fragments is processed to resolve visibility and color. performing a Z-prepass using rasterization at one sample per pixel, wherein all pixels are marked that are fully covered by a triangle primitive, and for each fully covered pixel, writing the maximum depth (Z-max) over the pixel to a depth buffer; performing a fragment count pass using rasterization at one sample per pixel, wherein all pixels are marked that are fully or partially covered by a triangle primitive, including outputting the minimum depth (Z-min) for each pixel and counting for each pixel the number of fragments that pass the depth test, wherein pixels that are fully covered by a single triangle primitive get a count of one; performing a main rendering pass using rasterization at one sample per pixel, wherein all pixels are marked that are fully or partially covered by a triangle primitive, including outputting the minimum depth (Z-min) for each pixel and shading each generated fragment that passes the depth test at the pixel center or at an appropriately chosen centroid location for partially covered fragments; if a pixel is fully covered and the fragment count is one, write the color to the frame buffer; if the pixel is partially covered or the fragment count is larger than one, store the pixel to a separate array along with auxiliary information, and discard the pixel for further processing in a 3D pipeline, performing an anti-aliasing pass over all fragments generated in the main rendering pass, wherein for each pixel the list of associated fragments is processed to resolve visibility and color.
Gemstone with a chaton cut, in which tapering facets of a crown adjoin a flat table all the way round inclined relative to the table, the said facets extending as far as a rondist at which the gemstone has the largest transverse dimension, wherein a pavilion of facets preferably terminating at a point adjoins below the rondist, and wherein the gemstone is at least partially, preferably entirely made of glass, wherein the crown angle (α) is between 40.5° and 42.5°; the gemstone being characterized in that the angle between the rondist plane and those crown facets that adjoin the table via a broad side, is between 33.5° and 35.5°.
A fabrication method of fabricating a thermal barrier covering a superalloy metal substrate, said thermal barrier comprising at least an underlayer and a ceramic layer, the method being characterized in that the following step is performed: • the surface state of the underlayer is smoothed by at least one physicochemical and/or mechanical process prior to depositing the ceramic layer in such a manner that the number of defects presenting a peak-to-peak difference greater than or equal to 2 μm is at most five over any distance of 50 μm, and then depositing the ceramic layer. • the surface state of the underlayer is smoothed by at least one physicochemical and/or mechanical process prior to depositing the ceramic layer in such a manner that the number of defects presenting a peak-to-peak difference greater than or equal to 2 μm is at most five over any distance of 50 μm, and then depositing the ceramic layer.
Retaining structure, comprising: - an anchor rod intended to be driven into the ground of a slope in order to form an anchorage, - two criss-crossed metal bars, forming a central cross, characterized in that it further comprises - four girders, forming a pyramid tip, which are arranged on the arms of the central cross, the vertex of the pyramid tip pointing in the direction opposite that of the end of the anchor rod that is intended to be driven into the ground and comprising an orifice through which the anchor rod passes, - a frame made up of girders surrounding the central cross and attached thereto at the ends of the arms of the central cross. - an anchor rod intended to be driven into the ground of a slope in order to form an anchorage, - two criss-crossed metal bars, forming a central cross, - four girders, forming a pyramid tip, which are arranged on the arms of the central cross, the vertex of the pyramid tip pointing in the direction opposite that of the end of the anchor rod that is intended to be driven into the ground and comprising an orifice through which the anchor rod passes, - a frame made up of girders surrounding the central cross and attached thereto at the ends of the arms of the central cross.
An anchoring structure adapted to be anchored within a vessel of a body, said anchoring structure comprising: a generally cylindrical tubular body having an inflow end and an outflow end; an inflow rim co-extensively formed with said tubular body at the inflow end, said inflow rim including at least one rail having outwardly flared distal and proximal portions; an outflow rim; a plurality of longitudinal supports posts connecting said inflow and outflow rims (41,43), wherein said support posts include a substantially paddle-shaped blade having an axial slot therethrough and an elongated vertical member. a generally cylindrical tubular body having an inflow end and an outflow end; an inflow rim co-extensively formed with said tubular body at the inflow end, said inflow rim including at least one rail having outwardly flared distal and proximal portions; an outflow rim; a plurality of longitudinal supports posts connecting said inflow and outflow rims (41,43), wherein said support posts include a substantially paddle-shaped blade having an axial slot therethrough and an elongated vertical member.
An image sensor comprising: at least one pixel having a photodiode; a sensing node coupled to the photodiode via a transfer gate; and a further node coupled to the sensing node via a first transistor; and a control circuit adapted: to apply, during a reset operation of the voltage levels at the sensing node and further node, a first voltage level to a control node of the first transistor; to apply, during a transfer operation of charge from the photodiode to the sensing node, a second voltage level to the control node of the first transistor, the second voltage level being lower than the first voltage level and higher than a ground voltage of the pixel; and to perform, after the transfer operation, a first read operation to generate a first value (ΔV SN) based on the voltage at the sensing node while the second voltage level is applied to the control node of the first transistor, and a second read operation to generate a second value (ΔV SN+AN.) based on the voltage at the sensing node while applying the first voltage level to the control node of the first transistor. at least one pixel having a photodiode; a sensing node coupled to the photodiode via a transfer gate; and a further node coupled to the sensing node via a first transistor; and a control circuit adapted: to apply, during a reset operation of the voltage levels at the sensing node and further node, a first voltage level to a control node of the first transistor; to apply, during a transfer operation of charge from the photodiode to the sensing node, a second voltage level to the control node of the first transistor, the second voltage level being lower than the first voltage level and higher than a ground voltage of the pixel; and to perform, after the transfer operation, a first read operation to generate a first value (ΔV SN) based on the voltage at the sensing node while the second voltage level is applied to the control node of the first transistor, and a second read operation to generate a second value (ΔV SN+AN.) based on the voltage at the sensing node while applying the first voltage level to the control node of the first transistor. to apply, during a reset operation of the voltage levels at the sensing node and further node, a first voltage level to a control node of the first transistor; to apply, during a transfer operation of charge from the photodiode to the sensing node, a second voltage level to the control node of the first transistor, the second voltage level being lower than the first voltage level and higher than a ground voltage of the pixel; and to perform, after the transfer operation, a first read operation to generate a first value (ΔV SN) based on the voltage at the sensing node while the second voltage level is applied to the control node of the first transistor, and a second read operation to generate a second value (ΔV SN+AN.) based on the voltage at the sensing node while applying the first voltage level to the control node of the first transistor.
A humidification system for a dispensing head of a dosing machine of fluid products, wherein said dispensing head comprises a closing device including a cup and a closing element having an upper open rim, said closing element being displaceable between an inoperative distal position with respect to said dispensing head and an operative proximal position wherein said upper rim of the closing element sealingly engages a lower edge of the dispensing head, said humidification system being designed to automatically generate a humid environment inside said cup in said operative proximal position of the closing element, and including a cooling device comprising a Peltier cell arranged within a forced flow duct of environmental air, and a collecting tank of the water condensed or frosted by said Peltier cell, a water supply circuit (38, 39) from said collecting tank to said cup, and an automatic control unit of the cooling device and of the supply circuit (38, 39).
A top patch configured to be attached to an energy-storage apparatus, wherein the top patch defines a first pole through-hole and a first elongated hole in a length direction of the top patch, the first elongated hole comprises two side walls arranged opposite to each other in a width direction of the top patch, and each of the two side walls is provided with an extension bump; the first elongated hole on one side of the extension bump forms a first explosion-proof valve through-hole, and the first elongated hole on the other side of the extension bump forms a second pole through-hole; the first pole through-hole is spaced apart from the first elongated hole; and a connecting through-hole is defined between two extension bumps, the connecting through-hole is located between the second pole through-hole and the first explosion-proof valve through-hole, and the connecting through-hole communicates with the second pole through-hole and the first explosion-proof valve through-hole.
Method for manufacturing a conductor part (10, 10a, 10b) for a connector unit, especially for a use in a subsea application, wherein the conductor part (10, 10a, 10b) comprises a conductive core, an insulating sleeve and at least a first conductive layer (18, 18a) arranged between the conductive core and the insulating sleeve, wherein the method comprises at least the following steps, wherein the first two steps may be reversed: - Equipping at least one section of a radially inner surface of the insulating sleeve with the first conductive layer (18, 18a); - Equipping at least one section of a radially outer surface of the insulating sleeve with at least a second conductive layer, wherein the second conductive layer is a metal layer and the equipping step is one of plating, spraying, vapour deposition, or sputtering, of the metal layer of the second conductive layer onto the section of the outer surface of the insulating sleeve; - Inserting the conducting core in the insulating sleeve before or after an equipping step of a surface (22, 26) of the insulating sleeve with a conductive layer (18, 18a; 28). - Equipping at least one section of a radially inner surface of the insulating sleeve with the first conductive layer (18, 18a); - Equipping at least one section of a radially outer surface of the insulating sleeve with at least a second conductive layer, wherein the second conductive layer is a metal layer and the equipping step is one of plating, spraying, vapour deposition, or sputtering, of the metal layer of the second conductive layer onto the section of the outer surface of the insulating sleeve; - Inserting the conducting core in the insulating sleeve before or after an equipping step of a surface (22, 26) of the insulating sleeve with a conductive layer (18, 18a; 28).
A base for a sheet sander, suitable for being operatively coupled to a drive shaft of the sheet sander, the base comprising: a baseplate (30, 35) including an upper side and a lower side, opposite the upper side, for facing a workpiece during operation of the sander, the upper side defining a guide mount; a guide coupled to the guide mount adjacent an edge of the baseplate (30, 35), the upper side of the baseplate (30, 35) and the guide cooperatively defining a space, the guide configured to receive and temporarily hold an end of a sanding sheet in the space; and a clamp coupled to the baseplate (30, 35) and movable between an unclamped position configured to permit attachment of the sanding sheet to the baseplate (30, 35) via the guide, and a clamped position configured to secure the sanding sheet to the baseplate (30, 35), wherein the clamp is in the clamped position after the sanding sheet is positioned in the space. a baseplate (30, 35) including an upper side and a lower side, opposite the upper side, for facing a workpiece during operation of the sander, the upper side defining a guide mount; a guide coupled to the guide mount adjacent an edge of the baseplate (30, 35), the upper side of the baseplate (30, 35) and the guide cooperatively defining a space, the guide configured to receive and temporarily hold an end of a sanding sheet in the space; and a clamp coupled to the baseplate (30, 35) and movable between an unclamped position configured to permit attachment of the sanding sheet to the baseplate (30, 35) via the guide, and a clamped position configured to secure the sanding sheet to the baseplate (30, 35), wherein the clamp is in the clamped position after the sanding sheet is positioned in the space.