mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a display substrate, comprising: forming a pixel definition layer on a lower surface of a base so as to define a pixel area; forming a spacer on a lower surface of the pixel definition layer; arranging a mask plate under the spacer; and moving an evaporation source along a first direction parallel to the lower surface of the base, so as to form an organic light emitting layer in the pixel area, wherein an acute angle between a side surface of the pixel definition layer in the first direction for defining the pixel area and the lower surface of the base is a first angle ( α), wherein an acute angle between a border of an evaporation area of the evaporation source in the first direction and the lower surface of the base is a second angle (β), the second angle (β) being greater than or equal to the first angle ( α), and when the evaporation source is moved in the first direction so as to start forming the organic light emitting layer in the pixel area, the spacer under the pixel definition layer and the mask plate under the spacer do not block a first border of the evaporation area, and when the evaporation source is moved in the first direction so as to stop forming the organic light emitting layer in the pixel area, the spacer under the pixel definition layer and the mask plate under the spacer do not block a second border (6") of the evaporation area. forming a pixel definition layer on a lower surface of a base so as to define a pixel area; forming a spacer on a lower surface of the pixel definition layer; arranging a mask plate under the spacer; and moving an evaporation source along a first direction parallel to the lower surface of the base, so as to form an organic light emitting layer in the pixel area, wherein an acute angle between a side surface of the pixel definition layer in the first direction for defining the pixel area and the lower surface of the base is a first angle ( α), wherein an acute angle between a border of an evaporation area of the evaporation source in the first direction and the lower surface of the base is a second angle (β), the second angle (β) being greater than or equal to the first angle ( α), and when the evaporation source is moved in the first direction so as to start forming the organic light emitting layer in the pixel area, the spacer under the pixel definition layer and the mask plate under the spacer do not block a first border of the evaporation area, and when the evaporation source is moved in the first direction so as to stop forming the organic light emitting layer in the pixel area, the spacer under the pixel definition layer and the mask plate under the spacer do not block a second border (6") of the evaporation area.
A well killing method, comprising: installing a flow passage with a casing string into a wellbore, wherein the flow passage is external to the casing string and extends from a surface location to a downhole location; and then flowing a kill weight fluid into the wellbore via the flow passage, characterized in that: the flow passage is accessible from the surface and extends to the bottom of the last casing string. installing a flow passage with a casing string into a wellbore, wherein the flow passage is external to the casing string and extends from a surface location to a downhole location; and then flowing a kill weight fluid into the wellbore via the flow passage, characterized in that: the flow passage is accessible from the surface and extends to the bottom of the last casing string.
A method of fabricating a three-dimensional object, the method comprising: (c) providing a polymer microfiller composite comprising a molecularly self-assembling material and a microfiller dispersed in the MSA material; (d) depositing the polymer microfiller composite; (e) repeating the depositing step until the three-dimensional object is formed; wherein the molecularly self-assembling material comprises repeat units of formula I: and at least one second repeat unit selected from the ester-amide units of Formula II and III: and the ester-urethane units of Formula IV: or combinations thereof wherein: R is at each occurrence, independently a C 2 -C 20 non-aromatic hydrocarbylene group, a C 2 -C 20 non-aromatic heterohydrocarbylene group, or a polyalkylene oxide group having a group molecular weight of from about 100 grams per mole to about 5000 grams per mole; R 1 at each occurrence independently is a bond or a C 1 -C 20 non-aromatic hydrocarbylene group; R 2 at each occurrence independently is a C 1 -C 20 non-aromatic hydrocarbylene group; R N is -N(R 3)-Ra-N(R 3)-, where R 3 at each occurrence independently is H or a C 1 -C 6 alkylene and Ra is a C 2 -C 20 non-aromatic hydrocarbylene group, or R N is a C 2 -C 20 heterocycloalkyl group containing the two nitrogen atoms, wherein each nitrogen atom is bonded to a carbonyl group according to formula above; n is at least 1 and has a mean value less than 2; and w represents the ester mol fraction of Formula I, and x, y and z represent the amide or urethane mole fractions of Formulas II, III, and IV, respectively, where w+x+y+z=1, and 0 < w < 1, and at least one of x, y and z is greater than zero but less than 1. (c) providing a polymer microfiller composite comprising a molecularly self-assembling material and a microfiller dispersed in the MSA material; (d) depositing the polymer microfiller composite; (e) repeating the depositing step until the three-dimensional object is formed; R is at each occurrence, independently a C 2 -C 20 non-aromatic hydrocarbylene group, a C 2 -C 20 non-aromatic heterohydrocarbylene group, or a polyalkylene oxide group having a group molecular weight of from about 100 grams per mole to about 5000 grams per mole; R 1 at each occurrence independently is a bond or a C 1 -C 20 non-aromatic hydrocarbylene group; R 2 at each occurrence independently is a C 1 -C 20 non-aromatic hydrocarbylene group; R N is -N(R 3)-Ra-N(R 3)-, where R 3 at each occurrence independently is H or a C 1 -C 6 alkylene and Ra is a C 2 -C 20 non-aromatic hydrocarbylene group, or R N is a C 2 -C 20 heterocycloalkyl group containing the two nitrogen atoms, wherein each nitrogen atom is bonded to a carbonyl group according to formula above; n is at least 1 and has a mean value less than 2; and w represents the ester mol fraction of Formula I, and x, y and z represent the amide or urethane mole fractions of Formulas II, III, and IV, respectively, where w+x+y+z=1, and 0 < w < 1, and at least one of x, y and z is greater than zero but less than 1.
A method of operation of a core network Traffic Handling Function, TFA, to enable definition of an allowed area in which data services are provided to a User Equipment, UE,, the allowed area having a maximum size defined by one or more criteria indicating a predefined maximum number of tracking areas within the allowed area, the method being performed by the TFA and comprises: • once the UE is attached, accepting registration of a new tracking area for the allowed area of the UE when the UE registers in the new tracking area, as long as the number of tracking areas already registered for the allowed area of the UE is less than the predefined maximum number of tracking areas within the allowed area. • once the UE is attached, accepting registration of a new tracking area for the allowed area of the UE when the UE registers in the new tracking area, as long as the number of tracking areas already registered for the allowed area of the UE is less than the predefined maximum number of tracking areas within the allowed area.
A leading-edge component (2, 34, 40, 46, 48, 60) for an aircraft, comprising at least a part of a flow body having a front skin, a hollow space at least partially delimited by the front skin and at least one separate retention device (18, 36, 50), wherein the at least one retention device (18, 36, 50) comprises a flexible structure with a mesh, a web, a fabric or a plurality of strings, and wherein the retention device (18, 36, 50) is arranged behind the front skin in a distance thereto and extends along a main extension direction of at least a section of the front skin, characterized in that the retention device (18, 36, 50) is designed for retaining the front skin that deforms to move into the hollow space upon an impact of a foreign object. wherein the at least one retention device (18, 36, 50) comprises a flexible structure with a mesh, a web, a fabric or a plurality of strings, and wherein the retention device (18, 36, 50) is arranged behind the front skin in a distance thereto and extends along a main extension direction of at least a section of the front skin, characterized in that the retention device (18, 36, 50) is designed for retaining the front skin that deforms to move into the hollow space upon an impact of a foreign object.
A method for managing network resources between a first communication network associated with a first network domain and a second communication network associated with a second network domain, the method comprising: receiving, at a resource broker in the first network domain, a request for additional network resources; transmitting, to a resource broker in the second network domain, a request for additional network resources; and receiving, from the resource broker in the second network domain, an offer for at least some of the requested additional network resources; the method characterized in that an independent, Virtual Network Function Manager, VNFM is communicatively coupled between a Management and Orchestration, MANO, entity operative on the first communication network and a set of Virtual Network Functions, VNFs, associated with the requested additional network resources; and the MANO entity operative on the first communication network manages the set of VNFs associated with the requested additional network resources via the independent VNFM. receiving, at a resource broker in the first network domain, a request for additional network resources; transmitting, to a resource broker in the second network domain, a request for additional network resources; and receiving, from the resource broker in the second network domain, an offer for at least some of the requested additional network resources; the method characterized in that an independent, Virtual Network Function Manager, VNFM is communicatively coupled between a Management and Orchestration, MANO, entity operative on the first communication network and a set of Virtual Network Functions, VNFs, associated with the requested additional network resources; and the MANO entity operative on the first communication network manages the set of VNFs associated with the requested additional network resources via the independent VNFM.
A terminal fitting, comprising: a connecting portion to be connected with a mating terminal, a base plate provided adjacent to the connecting portion, the base plate being formed with one or more side walls by bending one or more lateral edge portions thereof, a wire barrel to be crimped into connection with an end portion of a wire, and at least one restricting portion arranged between the connecting portion and the wire barrel, wherein in a developed shape, the restricting portion projects sideways from one of the opposite lateral edges of the base plate, the restricting portion substantially facing a placing surface of the base plate where the end portion of the wire is to be placed and capable of restricting a movement of the end portion of the wire in a direction substantially away from the base plate, characterized in that a front stop portion, with which a longitudinal front end of the end portion of the wire can come into contact, is formed integral or unitary to the restricting portion between the connecting portion and the wire barrel, and the front stop portion is formed by being bent at an edge of the restricting portion toward the connecting portion to extend toward the base plate. a connecting portion to be connected with a mating terminal, a base plate provided adjacent to the connecting portion, the base plate being formed with one or more side walls by bending one or more lateral edge portions thereof, a wire barrel to be crimped into connection with an end portion of a wire, and at least one restricting portion arranged between the connecting portion and the wire barrel, wherein in a developed shape, the restricting portion projects sideways from one of the opposite lateral edges of the base plate, the restricting portion substantially facing a placing surface of the base plate where the end portion of the wire is to be placed and capable of restricting a movement of the end portion of the wire in a direction substantially away from the base plate, characterized in that a front stop portion, with which a longitudinal front end of the end portion of the wire can come into contact, is formed integral or unitary to the restricting portion between the connecting portion and the wire barrel, and the front stop portion is formed by being bent at an edge of the restricting portion toward the connecting portion to extend toward the base plate.
A method of processing ceramic fiber for the manufacture of a ceramic matrix composite article, comprising: providing at least one frame, the frame defining a void and being configured to couple to ends or end portions of unidirectional ceramic fibers; coupling ends or end portions of unidirectional ceramic fibers to the frame to define a planar array of the unidirectional fibers extending across the void; providing, using the frame, a tensile force sufficient to maintain the planar array and unidirectional direction of the ceramic fibers; and at least one of: depositing a coating on the ceramic fibers of the least one frame via a chemical vapor deposition process; and impregnating the ceramic fibers of the at least one frame with a slurry including a ceramic matrix precursor composition to form at least one CMC prepreg. providing at least one frame, the frame defining a void and being configured to couple to ends or end portions of unidirectional ceramic fibers; coupling ends or end portions of unidirectional ceramic fibers to the frame to define a planar array of the unidirectional fibers extending across the void; providing, using the frame, a tensile force sufficient to maintain the planar array and unidirectional direction of the ceramic fibers; and at least one of: depositing a coating on the ceramic fibers of the least one frame via a chemical vapor deposition process; and impregnating the ceramic fibers of the at least one frame with a slurry including a ceramic matrix precursor composition to form at least one CMC prepreg. depositing a coating on the ceramic fibers of the least one frame via a chemical vapor deposition process; and impregnating the ceramic fibers of the at least one frame with a slurry including a ceramic matrix precursor composition to form at least one CMC prepreg.
Method for unlocking an operating device, provided with an operating lever, of a traction vehicle for the transition operating state of braking to accelerating, characterised in that the speed of the traction vehicle is measured and when the speed of the traction vehicle is not equal to zero, the operating device is automatically unlocked.
An extract of algae from the order of ulvales, in particular an extract of green algae of the Ulva type, comprising sulfated and non-sulfated polyanionic polysaccharides for which the size is less than or equal to 50 kDa, excluding sulfated and non-sulfated polyanionic polysaccharides for which the size discriminated by ultrafiltration is greater than 50 kDa, for its use for modulating the immune response in a human being or an animal.
A turbine.blade extending along a longitudinal axis comprising: an anchoring portion provided with a base face; a platform integrally coupled to the anchoring portion; a main elongated body which extends from the platform on the opposite side with respect to the anchoring portion and comprises a trailing edge; a cooling circuit, which comprises a first cooling line for cooling the trailing edge and is provided with a first inlet opening arranged on the base face of the anchoring portion of the blade; and a metering plate coupled to the base face at the first inlet opening; the metering plate comprises a first portion and a second portion couplable to each other and shaped in such a way to define, together, an opening having variable section; the blade being characterized by the fact that the first portion and the second portion are, in use, both in contact with the base face. an anchoring portion provided with a base face; a platform integrally coupled to the anchoring portion; a main elongated body which extends from the platform on the opposite side with respect to the anchoring portion and comprises a trailing edge; a cooling circuit, which comprises a first cooling line for cooling the trailing edge and is provided with a first inlet opening arranged on the base face of the anchoring portion of the blade; and a metering plate coupled to the base face at the first inlet opening; the metering plate comprises a first portion and a second portion couplable to each other and shaped in such a way to define, together, an opening having variable section; the blade being characterized by the fact that the first portion and the second portion are, in use, both in contact with the base face.
A precisely locating and address confirming method, comprising the following steps: S1, a printing carrier is divided into several areas with equal interval, and the width of each area is set to be the same with the width of a shelf article depositing unit, and a main bar code containing article depositing position information is printed in the center of each area of the printing carrier; S2, the printing carrier is disposed on the shelf in such a way that each area corresponds to each shelf article depositing unit; and S3, when a stocker moves to the front of a shelf article depositing unit to be accessed and the scanning beam of a manipulator disposed on the stocker happens to be superposed with the main bar code of the area corresponding to the shelf article depositing unit, the main bar code is scanned and the article depositing position information contained in the main bar code is read so as to confirm the address of the article depositing position; characterized by following step: S4, when a stocker moves to the front of a shelf article depositing unit to be accessed and the scanning beam of a manipulator disposed on the stocker is not superposed with the main bar code of the area corresponding to the shelf article depositing unit, it moves in a direction according to a preset program, and then when one of the main bar code of the area and the main bar code (11a, 11b) of an adjacent area (100a, 100b) is scanned, the article depositing position information contained in the main bar code is read so as to confirm the address of the article depositing position. S1, a printing carrier is divided into several areas with equal interval, and the width of each area is set to be the same with the width of a shelf article depositing unit, and a main bar code containing article depositing position information is printed in the center of each area of the printing carrier; S2, the printing carrier is disposed on the shelf in such a way that each area corresponds to each shelf article depositing unit; and S3, when a stocker moves to the front of a shelf article depositing unit to be accessed and the scanning beam of a manipulator disposed on the stocker happens to be superposed with the main bar code of the area corresponding to the shelf article depositing unit, the main bar code is scanned and the article depositing position information contained in the main bar code is read so as to confirm the address of the article depositing position; S4, when a stocker moves to the front of a shelf article depositing unit to be accessed and the scanning beam of a manipulator disposed on the stocker is not superposed with the main bar code of the area corresponding to the shelf article depositing unit, it moves in a direction according to a preset program, and then when one of the main bar code of the area and the main bar code (11a, 11b) of an adjacent area (100a, 100b) is scanned, the article depositing position information contained in the main bar code is read so as to confirm the address of the article depositing position.
A composition comprising: (a) 40-90% by weight of pelargonic acid; and (b) at least one emulsifying agent belonging to the class of anionic surfactants having formula up to 15% by weight (R-(OCHR 1 -CHR 2) n -(OCHR 3 -CHR 4) m -O-) q -Z where R is a linear or branched C 4 -C 18 alkyl radical, R1, R2, R3 and R4 are independently H or CH 3, n and m are identical or different integers from 0 to 30 and at least one of them is not 0, q is 1 or 2, Z represents a sulfate or phosphate group in acid form or a salt thereof, (c) 5-55% by weight of at least one organic solvent, (d) from 1 to < 15% by weight of at least one emulsifying agent belonging to the class of non-ionic surfactants; wherein the ratio between the weight content of the sum of anionic surfactants (b) and non-ionic surfactants (d) respect to pelargonic acid is 0.05-0.15. (a) 40-90% by weight of pelargonic acid; and (b) at least one emulsifying agent belonging to the class of anionic surfactants having formula up to 15% by weight (R-(OCHR 1 -CHR 2) n -(OCHR 3 -CHR 4) m -O-) q -Z where R is a linear or branched C 4 -C 18 alkyl radical, R1, R2, R3 and R4 are independently H or CH 3, n and m are identical or different integers from 0 to 30 and at least one of them is not 0, q is 1 or 2, Z represents a sulfate or phosphate group in acid form or a salt thereof, R1, R2, R3 and R4 are independently H or CH 3, n and m are identical or different integers from 0 to 30 and at least one of them is not 0, q is 1 or 2, Z represents a sulfate or phosphate group in acid form or a salt thereof, (c) 5-55% by weight of at least one organic solvent, (d) from 1 to < 15% by weight of at least one emulsifying agent belonging to the class of non-ionic surfactants;