mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a resin-coated metal pigment comprising: an adsorption step of bringing a solution of a phosphate ester component containing phosphate mono- and/or diesters having a radical polymerizable double bond, or a dispersion liquid containing said phosphate ester component dispersed in a solvent into contact with a metal pigment to prepare a phosphate ester adsorbing metal pigment containing a phosphate ester adsorbed on the surface of said metal pigment; a slurry preparation step of preparing a slurry for polymerization obtained by dispersing said phosphate ester adsorbing metal pigment in a solvent for polymerization and dissolving a polymerization component including a monomer and/or an oligomer having at least one polymerizable double bond in said solvent for polymerization; and a coating step of polymerizing said polymerization component to form a resin coating layer on the surface of said phosphate ester adsorbing metal pigment, wherein said dispersion liquid is obtained by mixing a solution obtained by dissolving said phosphate ester component in a first solvent, with a second solvent, and said solvent for polymerization is a solvent having solubility at 25°C of said phosphate ester component of 10 g or less with respect to 100 g of said solvent. an adsorption step of bringing a solution of a phosphate ester component containing phosphate mono- and/or diesters having a radical polymerizable double bond, or a dispersion liquid containing said phosphate ester component dispersed in a solvent into contact with a metal pigment to prepare a phosphate ester adsorbing metal pigment containing a phosphate ester adsorbed on the surface of said metal pigment; a slurry preparation step of preparing a slurry for polymerization obtained by dispersing said phosphate ester adsorbing metal pigment in a solvent for polymerization and dissolving a polymerization component including a monomer and/or an oligomer having at least one polymerizable double bond in said solvent for polymerization; and a coating step of polymerizing said polymerization component to form a resin coating layer on the surface of said phosphate ester adsorbing metal pigment, wherein said dispersion liquid is obtained by mixing a solution obtained by dissolving said phosphate ester component in a first solvent, with a second solvent, and said solvent for polymerization is a solvent having solubility at 25°C of said phosphate ester component of 10 g or less with respect to 100 g of said solvent.
A data processing method, wherein the method is applied to an optical transport network, OTN, and the method comprises: obtaining a code block stream that carries a packet service; performing rate adaptation on the obtained code block stream; and mapping the rate-adapted code block stream to an optical channel payload unit, OPU, signal, characterized in that the performing rate adaptation on the obtained code block stream comprises at least one of the following two manners: inserting an idle code block into the obtained code block stream, or deleting some or all of idle code blocks in the obtained code block stream, wherein the idle code block is a control code block that comprises an idle code block type indicator, and the idle code block does not carry the packet service, wherein a quantity of to-be-mapped code blocks in the rate-adapted code block stream within each OPU frame period is equal to a preset value C m. obtaining a code block stream that carries a packet service; performing rate adaptation on the obtained code block stream; and mapping the rate-adapted code block stream to an optical channel payload unit, OPU, signal, characterized in that the performing rate adaptation on the obtained code block stream comprises at least one of the following two manners: inserting an idle code block into the obtained code block stream, or deleting some or all of idle code blocks in the obtained code block stream, wherein the idle code block is a control code block that comprises an idle code block type indicator, and the idle code block does not carry the packet service, wherein a quantity of to-be-mapped code blocks in the rate-adapted code block stream within each OPU frame period is equal to a preset value C m.
A method for the time-correct data transfer between cyclic tasks in a distributed real-time system, the real-time system comprising a real-time communication system and a plurality of computer nodes, wherein a local real-time clock in each computer node is synchronized with the global time, all periodic trigger signals z i b for the start of a new cycle i in each computer node are derived simultaneously from the advance of the global time, these periodic trigger signals start the tasks, and a task reads the output data of the other tasks from local input memory areas to which the real-time communication system writes, and wherein a task writes the result data of the current cycle to a local output memory area, which is associated with the real-time communication system, at an a priori determined individual completion point in time z i f prior to the end of a cycle, and the schedules for the time-triggered real-time communication system are configured such that the results data of a task present in the local output memory area are transported to the local input memory areas of the tasks requiring the data during the time interval <z i f, z i+1 b > so that, at the start of the following cycle, these results data are available in the local input memory areas of the tasks that require these results data, and wherein a task sets an aging index to zero after the start and, in addition to the results data, writes the current value of the aging index to the output memory area associated with the communication system, and a task that cannot provide the results data of the current cycle at the a priori determined completion point in time z i f prior the end of a cycle i increases the aging index by one and places the results data in the output area at the completion point in time z i + 1 f of the following cycle.
An apparatus for producing a seat cushion body (91; 101) from a fiber material, the apparatus comprising: a cutter system configured to cut at least one yarn (51, 52) to produce the fiber material, wherein the cutter system is configured to cut the at least one yarn (51, 52) to produce matrix fibers and binding fibers, said binding fibers being thermally activated in a mold, in which they at least partially melt and form an integral cushion body of thermally cross-linked fibers, and a transport system configured to transport the fiber material from the cutter system to the mold, wherein the at least one yarn (51, 52) comprises a first filament (71; 71, 75) and a second filament (72; 72, 76), and the cutter system is configured to produce segments of the first filament (71; 71, 75) and segments of the second filament (72; 72, 76) by cutting the at least one yarn (51, 52) to produce the matrix fibers and the binding fibers. a cutter system configured to cut at least one yarn (51, 52) to produce the fiber material, wherein the cutter system is configured to cut the at least one yarn (51, 52) to produce matrix fibers and binding fibers, said binding fibers being thermally activated in a mold, in which they at least partially melt and form an integral cushion body of thermally cross-linked fibers, and a transport system configured to transport the fiber material from the cutter system to the mold, wherein the at least one yarn (51, 52) comprises a first filament (71; 71, 75) and a second filament (72; 72, 76), and the cutter system is configured to produce segments of the first filament (71; 71, 75) and segments of the second filament (72; 72, 76) by cutting the at least one yarn (51, 52) to produce the matrix fibers and the binding fibers.
A stator comprising: a helical core including a plurality of stacked layers formed by winding a single metal sheet having a predetermined shape in a helix, the helical core having a base and teeth protruded from the base; an insulator, made of electrical insulation material, to surround the helical core; through holes formed to penetrate layers of the helical core; and recesses formed at an inner circumference of the base of the helical core and formed in a polygonal shape, characterized in that the through holes are disposed between adjacent teeth in order to avoid interference with the recesses, wherein the recesses are positioned on central lines of the teeth and are formed symmetrically with respect to central portions of the teeth, and wherein auxiliary recesses are formed at corners of the recesses. a helical core including a plurality of stacked layers formed by winding a single metal sheet having a predetermined shape in a helix, the helical core having a base and teeth protruded from the base; an insulator, made of electrical insulation material, to surround the helical core; through holes formed to penetrate layers of the helical core; and recesses formed at an inner circumference of the base of the helical core and formed in a polygonal shape, characterized in that the through holes are disposed between adjacent teeth in order to avoid interference with the recesses, wherein the recesses are positioned on central lines of the teeth and are formed symmetrically with respect to central portions of the teeth, and wherein auxiliary recesses are formed at corners of the recesses.
A polar code-based interleaving method, comprising: determining an interleaving matrix based on a target code length M of a polar code; interleaving, based on the interleaving matrix, encoded bits obtained after encoding of the polar code, to generate interleaved bits; characterized in that the interleaving matrix is determined based on a unit matrix and a parameter n that is determined based on the target code length M; wherein the unit matrix is M = 2", and M = N, n is equal to interleaving matrix is log 2; the calculated according to a specified algorithm, the specified algorithm being a Kronecker product, a Tracy-Singh product, or a Khatri-Rao product, to determine the interleaving matrix G N = F ⊗(log 2); wherein in the interleaving matrix, a location of 1 is used to store data, and a location of 0 does not store data. determining an interleaving matrix based on a target code length M of a polar code; interleaving, based on the interleaving matrix, encoded bits obtained after encoding of the polar code, to generate interleaved bits; characterized in that the interleaving matrix is determined based on a unit matrix and a parameter n that is determined based on the target code length M; wherein the unit matrix is M = 2", and M = N, n is equal to interleaving matrix is log 2; the calculated according to a specified algorithm, the specified algorithm being a Kronecker product, a Tracy-Singh product, or a Khatri-Rao product, to determine the interleaving matrix G N = F ⊗(log 2); wherein in the interleaving matrix, a location of 1 is used to store data, and a location of 0 does not store data.
Aircraft seat with an aircraft seat holding device, with at least one backrest (10a; 10b), with at least one aircraft seat carrier unit (12a; 12b) that is embodied by a backrest bridge and comprises, respectively on a righthand side and a lefthand side of the backrest, a connection region (48a; 50a) in which the aircraft seat carrier unit that is embodied as a backrest bridge is respectively connected to the backrest, the aircraft seat carrier unit comprising between the two connection regions (48a; 50a) a middle region, with a literature pocket having an opening via which literature and other objects are introduisible into the literature pocket, and with at least one fastening unit (14a; 14b), which is configured for fastening a PED (16a; 16b) to the backrest (10a; 10b) in an exchangeable and operable manner in at least one operating state, the fastening unit (14a; 14b) being at least partially integrated in the aircraft seat carrier unit (12a; 12b) that is embodied as a backrest bridge, characterised in that a space spanned between the middle region of the aircraft seat carrier unit and the rear side of the backrest forms the opening of the literature pocket.
A mutant reverse transcriptase comprising: a DNA interaction region having a substitution of an amino acid residue corresponding to an aspartate residue at position 124 in a DNA interaction region of a wild-type reverse transcriptase with a positively-charged amino acid residue or a nonpolar amino acid residue selected from an alanine residue, a lysine residue or an arginine residue, and having a positive effective charge larger than that of the DNA interaction region in the wild-type reverse transcriptase, wherein the wild-type reverse transcriptase comprises an amino acid sequence corresponding to SEQ ID NO.: 2, and wherein the mutant reverse transcriptase exhibits a reverse transcriptase activity. a DNA interaction region having a substitution of an amino acid residue corresponding to an aspartate residue at position 124 in a DNA interaction region of a wild-type reverse transcriptase with a positively-charged amino acid residue or a nonpolar amino acid residue selected from an alanine residue, a lysine residue or an arginine residue, and having a positive effective charge larger than that of the DNA interaction region in the wild-type reverse transcriptase, wherein the wild-type reverse transcriptase comprises an amino acid sequence corresponding to SEQ ID NO.: 2, and wherein the mutant reverse transcriptase exhibits a reverse transcriptase activity.
A lane line processing method, comprising: performing a binarization processing on a first image to obtain a binary image, wherein the performing a binarization processing on a first image comprises: obtaining, by a deep learning model, confidences of pixel points in the first image, and classifying the pixel points as lane line points and non-lane line points using a confidence threshold; performing (S 12) a connected domain analysis on the binary image to obtain at least one connected domain in the binary image, the connected domain comprising a plurality of adjacent lane line points; determining lane line points in a group corresponding to a lane line, based on the connected domain; and obtaining representation information of the lane line corresponding to the group, by using the lane line points in the group, wherein the representation information comprises at least one of a curve equation, a start point, or an end point of the lane line. performing a binarization processing on a first image to obtain a binary image, wherein the performing a binarization processing on a first image comprises: obtaining, by a deep learning model, confidences of pixel points in the first image, and classifying the pixel points as lane line points and non-lane line points using a confidence threshold; performing (S 12) a connected domain analysis on the binary image to obtain at least one connected domain in the binary image, the connected domain comprising a plurality of adjacent lane line points; determining lane line points in a group corresponding to a lane line, based on the connected domain; and obtaining representation information of the lane line corresponding to the group, by using the lane line points in the group, wherein the representation information comprises at least one of a curve equation, a start point, or an end point of the lane line.
A partition having an air blowing function of blowing air to a predetermined region, comprising: a casing; a blower mechanism arranged in the casing; and a blow-out port formed in the casing, and a controller including a CPU executing a control program and a memory storing the control program for controlling the number of rotations of the blower mechanism, characterized in that the controller is configured to generate an air flow on a virtual plane facing the blow-out port, the air flow having a wind velocity of 0.2 m/s or more and whose average momentum per unit area is in a range of 0.05 kg/ms 2 or more and 0.75 kg/ms 2 or less,. wherein the virtual plane is a plane having a width of 0.6 m and a height of 0.5 m at a position away by 0.3 m from the blow-out port or wherein the virtual plane is a plane having a width of 1.2 m and a height of 0.5 m at a position away by 2.0 m from the blow-out port or wherein the virtual plane is a plane having a width of 1.8 m and a height of 0.5 m at a position away by 4.0 m from the blow-out port. a casing; a blower mechanism arranged in the casing; and a blow-out port formed in the casing, and a controller including a CPU executing a control program and a memory storing the control program for controlling the number of rotations of the blower mechanism, characterized in that the controller is configured to generate an air flow on a virtual plane facing the blow-out port, the air flow having a wind velocity of 0.2 m/s or more and whose average momentum per unit area is in a range of 0.05 kg/ms 2 or more and 0.75 kg/ms 2 or less,. wherein the virtual plane is a plane having a width of 0.6 m and a height of 0.5 m at a position away by 0.3 m from the blow-out port or wherein the virtual plane is a plane having a width of 1.2 m and a height of 0.5 m at a position away by 2.0 m from the blow-out port or wherein the virtual plane is a plane having a width of 1.8 m and a height of 0.5 m at a position away by 4.0 m from the blow-out port.
A method of fabricating an implantable lead for providing electrical pulses to tissue of a patient, the method comprising: (i) providing a sheath of transparent insulative material, wherein the sheath comprises a plurality of lumens (410a, 410b, 410c, 410d); (ii) scanning across the sheath with a confocal displacement meter to generate displacement data; (iii) processing the displacement data, in software executed on a computer system, to generate a representation of an exterior surface and lumens (410a, 410b, 410c, 410d) of the sheath; (iv) automatically selecting locations, in software executed on a computer system, on the exterior surface for application of laser pulses to create apertures in the sheath that provide access to respective lumens (410a, 410b, 410c, 410d) of the sheath; and (v) applying laser pulses to the sheath to create the apertures. (i) providing a sheath of transparent insulative material, wherein the sheath comprises a plurality of lumens (410a, 410b, 410c, 410d); (ii) scanning across the sheath with a confocal displacement meter to generate displacement data; (iii) processing the displacement data, in software executed on a computer system, to generate a representation of an exterior surface and lumens (410a, 410b, 410c, 410d) of the sheath; (iv) automatically selecting locations, in software executed on a computer system, on the exterior surface for application of laser pulses to create apertures in the sheath that provide access to respective lumens (410a, 410b, 410c, 410d) of the sheath; and (v) applying laser pulses to the sheath to create the apertures.
A method of making a floor board using a digital-printing floor board processing technology, the floor board having a base material, a UV balance layer on a bottom surface of the base material, an adhesion layer on an upper surface of the base material, a printing layer arranged on the adhesion layer and a protection layer arranged on the printing layer, the method comprising the steps of: step 1: taking the base material with a flat surface; step 2: roll-coating a UV paint with adhesion ability on the upper surface of the base material, thereby forming the adhesion layer, coating the UV balance layer on the bottom surface of the base material, and curing with a UV lamp; step 3: printing patterns on the surface of the adhesion layer by a digital printing apparatus thereby forming the printing layer; step 4: forming the protection layer on the surface of the patterns through showering-coating a UV glue, wherein in this step, no curing process is required; step 5: printing a transparent special UV material on the portions designed to be stereoscopic on the uncured surface of the protection layer, thus enabling them to sink, and then half-curing with a UV lamp; step 6: brushing the surface beyond the sunken portions with a steel brush, thereby forming fine lines, and fully curing with a UV lamp. step 1: taking the base material with a flat surface; step 2: roll-coating a UV paint with adhesion ability on the upper surface of the base material, thereby forming the adhesion layer, coating the UV balance layer on the bottom surface of the base material, and curing with a UV lamp; step 3: printing patterns on the surface of the adhesion layer by a digital printing apparatus thereby forming the printing layer; step 4: forming the protection layer on the surface of the patterns through showering-coating a UV glue, wherein in this step, no curing process is required; step 5: printing a transparent special UV material on the portions designed to be stereoscopic on the uncured surface of the protection layer, thus enabling them to sink, and then half-curing with a UV lamp; step 6: brushing the surface beyond the sunken portions with a steel brush, thereby forming fine lines, and fully curing with a UV lamp.
Touch input apparatus for operating a system of a motor vehicle, having a cover plate made from a cover plate material with a plate upper side and a plate lower side and furthermore having a touch sensor surface, wherein the plate upper side has an operating surface, and wherein the plate lower side faces the cover plate of the touch sensor surface, wherein the plate lower side has at least one sloping surface that is arranged at an angle with respect to the touch sensor surface, wherein a free space is formed between the plate lower side and the touch sensor surface, wherein the operating surface at least partially projects over the free space, wherein a filling body made of at least one filling material is arranged in the free space, and wherein the at least one filling material has a permittivity for electrical fields that is greater than a permittivity of air, wherein the at least one sloping surface is arranged in a periphery region of the cover plate, characterized in that the filling body has a recess, in which the plate lower side is accommodated, and wherein the plate upper side is configured to be planar.
Firearm comprising a main body and a barrel, which extends starting from said main body, and a verification device suitable for verifying and detecting the presence of partial or total occlusions in the barrel or variations of cross-section, such constituting an anomaly of the barrel status, wherein the device comprises receiver means, on the firearm, suitable for detecting a detected signal derivable from an emitted signal, influenced by said anomaly; wherein the verification device comprises control means, operatively connected to the receiver means and/or to emitter means suitable for producing the emitted signal, wherein the control means are suitable for detecting and measuring a variation of the detected signal from an expected signal (R'), deriving from the emitted signal in predefined conditions of the firearm, due to the presence of said anomaly; wherein the firearm further comprises signalling means wherein the signalling means are at the firearm and operatively connected to the control means in such a way that, in a configuration in which said control means detect a variation of the detected signal compared to the expected signal (R'), they signal said detection to the user and/or prevent use of the firearm.