mhurhangee/patent-ind-claim-en huggingface dataset:
A grease for a refrigerating machine oil, comprising: an acyclic hydrocarbon oil having a kinematic viscosity of 1,500 to 25,000 mm 2 /s measured at 40°C based on JIS K 2283, a number average molecular weight of 500 to 3,000, and having a unit represented by a general formula: -(CH 2 -C(CH 3 ) 2 )- ; and a polyethylene resin or a polypropylene resin, having a melting point of 270°C or less, wherein an unworked penetration of the grease is 100 to 340 at 25°C based on JIS K 2220, wherein the content of the acyclic hydrocarbon oil with respect to a total mass of the grease is 93% to 96% by mass and the content of the polyethylene resin or the polypropylene resin with respect to the total mass of the grease is 4% to 7% by mass in a case where the kinematic viscosity of the hydrocarbon oil is 20,000 mm 2 /s or higher, and wherein the content of the acyclic hydrocarbon oil with respect to the total mass of the grease is 90% to 95% by mass and the content of the polyethylene resin or the polypropylene resin with respect to the total mass of the grease is 5% to 10% by mass in a case where the kinematic viscosity of the hydrocarbon oil is lower than 20,000 mm 2 /s. an acyclic hydrocarbon oil having a kinematic viscosity of 1,500 to 25,000 mm 2 /s measured at 40°C based on JIS K 2283, a number average molecular weight of 500 to 3,000, and having a unit represented by a general formula: -(CH 2 -C(CH 3 ) 2 )- ; and a polyethylene resin or a polypropylene resin, having a melting point of 270°C or less, wherein an unworked penetration of the grease is 100 to 340 at 25°C based on JIS K 2220, wherein the content of the acyclic hydrocarbon oil with respect to a total mass of the grease is 93% to 96% by mass and the content of the polyethylene resin or the polypropylene resin with respect to the total mass of the grease is 4% to 7% by mass in a case where the kinematic viscosity of the hydrocarbon oil is 20,000 mm 2 /s or higher, and wherein the content of the acyclic hydrocarbon oil with respect to the total mass of the grease is 90% to 95% by mass and the content of the polyethylene resin or the polypropylene resin with respect to the total mass of the grease is 5% to 10% by mass in a case where the kinematic viscosity of the hydrocarbon oil is lower than 20,000 mm 2 /s.
A polyester film comprising a copolymerized polyester, wherein 20% tensile modulus F20 is 8.0 to 14.5 kg/mm 2 , and 100% tensile modulus F100 is 11.0 to 21.5 kg/mm 2 in a machine direction and a transverse direction, a modulus variation A, which is the variation in both machine and transverse direction, according to a tensile rate according to Equation 1 below in 20% to 100% of tensile section is 3 to 10 kg/mm 2 : A = F 100 − F 20 / 0.8 a heat shrinkage of the film in the machine direction and the transverse direction after heat treatment at 150°C for 30 minutes is 2% or less, moldability is 80% or more, and the film includes 1 to 4.8 mol% of copolymerized component, wherein the copolymerized component is neopentyl glycol, wherein the tensile modulus F20, the tensile modulus F100, the modulus variation A, the heat shrinkage and the moldability are measured according to a method described in the description. a heat shrinkage of the film in the machine direction and the transverse direction after heat treatment at 150°C for 30 minutes is 2% or less, moldability is 80% or more, and the film includes 1 to 4.8 mol% of copolymerized component, wherein the copolymerized component is neopentyl glycol,
A liquid ejecting head chip comprising: an actuator plate in which a plurality of channels are arranged at a distance in a second direction (X) which is orthogonal to a first direction (Z), , the extension portion extending in the first direction, and the raise-and-cut portion continuing from the extension portion toward one side of the first direction and having a groove depth which is gradually reduced toward the one side of the first direction; and an in-channel electrode which is formed on an inner surface of each of the channels with a plating film, and characterized in that : the plurality of channels include ejection channels and non-ejection channels which are alternately arranged at a distance in the second direction (X), and of which each of the plurality of channels includes an extension portion and a raise-and-cut portion . an actuator plate in which a plurality of channels are arranged at a distance in a second direction (X) which is orthogonal to a first direction (Z), , the extension portion extending in the first direction, and the raise-and-cut portion continuing from the extension portion toward one side of the first direction and having a groove depth which is gradually reduced toward the one side of the first direction; and an in-channel electrode which is formed on an inner surface of each of the channels with a plating film, and
A grain-finished artificial leather comprising: an artificial leather base material; and a resin layer stacked on at least one surface of the artificial leather base material, wherein the artificial leather base material contains: a fiber-entangled body of ultrafine fibers, wherein the ultrafine fibers have an average fineness of 0.9 dtex or less; 3 to 50 mass% of a first elastic polymer; 2.5 to 6 mass%, in terms of phosphorus atoms, of first phosphorous-based flame retardant particles having an average particle size of 1 to 10 μm; and 1 to 6 mass% of a plasticizer, wherein the artificial leather base material contains a fatty acid ester as the plasticizer, and the resin layer contains: a second elastic polymer; and a total content, in terms of phosphorus atoms or in terms of hydroxyl groups, of 0 to 8 mass% of flame retardant particles having an average particle size of 1 to 10 μm and being at least one selected from the group consisting of second phosphorous-based flame retardant particles and first metal hydroxide particles. an artificial leather base material; and a resin layer stacked on at least one surface of the artificial leather base material, wherein the artificial leather base material contains: a fiber-entangled body of ultrafine fibers, wherein the ultrafine fibers have an average fineness of 0.9 dtex or less; 3 to 50 mass% of a first elastic polymer; 2.5 to 6 mass%, in terms of phosphorus atoms, of first phosphorous-based flame retardant particles having an average particle size of 1 to 10 μm; and 1 to 6 mass% of a plasticizer, wherein the artificial leather base material contains a fatty acid ester as the plasticizer, and the resin layer contains: a second elastic polymer; and a total content, in terms of phosphorus atoms or in terms of hydroxyl groups, of 0 to 8 mass% of flame retardant particles having an average particle size of 1 to 10 μm and being at least one selected from the group consisting of second phosphorous-based flame retardant particles and first metal hydroxide particles.
Method for manufacturing a fabric (E) for making a textile article, having the following steps: a) creating a pattern (P) of the pattern pieces (1-23) of the textile article by defining at least two surface regions (1a-1e) with different predetermined technical properties, b) producing a marker (PL) of at least some of the pattern pieces (1-23) of the textile article on a marker area (AP) having a width (L1) that is smaller than or equal to a predetermined width (L2) of fabrics that can be produced by a fabric manufacturing machine, by arranging at least one pattern piece (1, 4-7) of the textile article such that it extends within a plurality of distinct transverse bands (BT1-BT4) of the marker, c) manufacturing at least one fabric (E) made from a run-proof knit using the fabric manufacturing machine, said fabric (E) having a width (L2) that is greater than or equal to the width (L1) of the marker area (AP) and having longitudinal portions (TL1-TL4) corresponding to the transverse bands (BT1-BT4) of the marker (PL), and wherein: - each longitudinal portion (TL1-TL4) has a predetermined number of rows of stitches per unit length, - at least two longitudinal portions (TL1-TL4) have different predetermined numbers of rows of stitches per unit length. a) creating a pattern (P) of the pattern pieces (1-23) of the textile article by defining at least two surface regions (1a-1e) with different predetermined technical properties, b) producing a marker (PL) of at least some of the pattern pieces (1-23) of the textile article on a marker area (AP) having a width (L1) that is smaller than or equal to a predetermined width (L2) of fabrics that can be produced by a fabric manufacturing machine, by arranging at least one pattern piece (1, 4-7) of the textile article such that it extends within a plurality of distinct transverse bands (BT1-BT4) of the marker, c) manufacturing at least one fabric (E) made from a run-proof knit using the fabric manufacturing machine, said fabric (E) having a width (L2) that is greater than or equal to the width (L1) of the marker area (AP) and having longitudinal portions (TL1-TL4) corresponding to the transverse bands (BT1-BT4) of the marker (PL), and wherein: - each longitudinal portion (TL1-TL4) has a predetermined number of rows of stitches per unit length, - at least two longitudinal portions (TL1-TL4) have different predetermined numbers of rows of stitches per unit length. - each longitudinal portion (TL1-TL4) has a predetermined number of rows of stitches per unit length, - at least two longitudinal portions (TL1-TL4) have different predetermined numbers of rows of stitches per unit length.
A rotary x-ray emission target for generating x-ray radiation in transmission mode under electron beam irradiation, comprising: a support hub defining a predetermined axis of rotation of the target; a plurality of target plates , each consisting of target material, supported on the hub, wherein the plates are arranged on the hub to provide an annular target region about the axis of rotation, the target plates being arranged to abut one another or to overlap to provide a substantially continuous target region of target material; and a plurality of shield elements supported on the hub and arranged to overlie, on an incidence side of the target, portions of the target region at which target plates abut or overlap, thereby to interrupt the electron beam incident on the target region. a support hub defining a predetermined axis of rotation of the target; a plurality of target plates , each consisting of target material, supported on the hub, wherein the plates are arranged on the hub to provide an annular target region about the axis of rotation, the target plates being arranged to abut one another or to overlap to provide a substantially continuous target region of target material; and a plurality of shield elements supported on the hub and arranged to overlie, on an incidence side of the target, portions of the target region at which target plates abut or overlap, thereby to interrupt the electron beam incident on the target region.
A method of printing a 3D part with an additive manufacturing system , comprising: printing a first portion of the part; pre-heating the first portion of the part along an upcoming tool path to a temperature at or above a material-specific bonding temperature and below a degradation temperature of the material; extruding material onto the first portion along the pre-heated tool path while the temperature along the part surface remains at or above a material-specific bonding temperature and below the degradation temperature of the material thereby forming a newly extruded road, wherein the newly extruded road is thereby bonded to the first portion of the part; characterised by cooling the newly extruded road along the pre-heated tool path to remove heat imparted by the preheating step such that a thermally stable temperature is reached, wherein the preheating, extruding and cooling is performed in less than ten seconds. printing a first portion of the part; pre-heating the first portion of the part along an upcoming tool path to a temperature at or above a material-specific bonding temperature and below a degradation temperature of the material; extruding material onto the first portion along the pre-heated tool path while the temperature along the part surface remains at or above a material-specific bonding temperature and below the degradation temperature of the material thereby forming a newly extruded road, wherein the newly extruded road is thereby bonded to the first portion of the part; characterised by cooling the newly extruded road along the pre-heated tool path to remove heat imparted by the preheating step such that a thermally stable temperature is reached, wherein the preheating, extruding and cooling is performed in less than ten seconds.
A teat, in particular for infants and small children, having a suction part with a plurality of drinking slits (12.1, 12.2) and a teat flange connected to the lower end of the suction part for fastening to the front end of an orifice of a vessel , characterized in that the drinking slits (12.1, 12.2) are cut in the suction part by means of a laser beam, a small gap is opened in the unloaded state of the teat and the ends (13.1 to 14.2) of the drinking slits (12.1, 12.2) are rounded, and have a branched course on the surface of the suction part corresponding to the breast milk ducts of the nipple, wherein four drinking slits are arranged in the shape of a W and an additional drinking slit extends upward from the point of intersection of the two middle drinking slits.
A screen segment of a screening device for separating or classifying feed material, especially mineral crushed material such as oil sand, into at least two grain fractions, wherein the screen segment comprises a base plate essentially in the form of a screen having a multitude of screen passages , wherein at least one antiwear unit has been mounted on the base plate , wherein the antiwear unit has been formed from a metal matrix composite material having an antiwear insert made of a hard metal and/or of ceramic, characterized in that the metal matrix composite material comprises a metal matrix material and wherein the antiwear insert is cast at least partially into the metal matrix material of the antiwear unit . the antiwear unit has been formed from a metal matrix composite material having an antiwear insert made of a hard metal and/or of ceramic, characterized in that the metal matrix composite material comprises a metal matrix material and wherein the antiwear insert is cast at least partially into the metal matrix material of the antiwear unit .
A method for authorizing management for an embedded universal integrated circuit card, comprising: generating (S101), by an embedded universal integrated circuit card ,eUICC, manager, authorization information; encrypting (S102), by the eUICC manager, the authorization information by using eUICC management credential; and sending (S103), by the eUICC manager, the encrypted authorization information to an eUICC, wherein the authorization information comprises an identifier of at least one first device; or the authorization information comprises at least one authorization credential; wherein when the authorization information comprises the identifier of the at least one first device, the authorization information further comprises a granted profile management function corresponding to each first device in the at least one first device; and wherein when the authorization information comprises the at least one authorization credential, the authorization information further comprises a granted profile management function corresponding to each authorization credential in the at least one authorization credential; wherein when the authorization information comprises the at least one authorization credential, the authorization information further comprises a profile management function granted to a first device; characterized in that the authorization information further includes a switching identifier arranged to instruct to grant to one first device in the at least one first device, all of the profile management functions granted to another first device in the at least one first device. generating (S101), by an embedded universal integrated circuit card ,eUICC, manager, authorization information; encrypting (S102), by the eUICC manager, the authorization information by using eUICC management credential; and sending (S103), by the eUICC manager, the encrypted authorization information to an eUICC, wherein the authorization information comprises an identifier of at least one first device; or the authorization information comprises at least one authorization credential; wherein when the authorization information comprises the identifier of the at least one first device, the authorization information further comprises a granted profile management function corresponding to each first device in the at least one first device; and wherein when the authorization information comprises the at least one authorization credential, the authorization information further comprises a granted profile management function corresponding to each authorization credential in the at least one authorization credential; wherein when the authorization information comprises the at least one authorization credential, the authorization information further comprises a profile management function granted to a first device; characterized in that the authorization information further includes a switching identifier arranged to instruct to grant to one first device in the at least one first device, all of the profile management functions granted to another first device in the at least one first device.
Nickel-based superalloy consisting of (in % by weight): chromium (Cr): 9%-16%, cobalt (Co): 9%-11.5%, tungsten (W): 6.5%-10.5%, tantalum (Ta): 1%-3%, aluminium (Al): 4%-6%, carbon (C): 0.03%-0.1%, boron (B): 0.005%-0.015%, hafnium (Hf): 0.3%-1.5%, zirconium (Zr): 0.005%-0.015%, optionally yttrium (Y): 0%-0.03%, not containing any titanium (Ti), and nickel with, possibly unavoidable, impurities as balance. chromium (Cr): 9%-16%, cobalt (Co): 9%-11.5%, tungsten (W): 6.5%-10.5%, tantalum (Ta): 1%-3%, aluminium (Al): 4%-6%, carbon (C): 0.03%-0.1%, boron (B): 0.005%-0.015%, hafnium (Hf): 0.3%-1.5%, zirconium (Zr): 0.005%-0.015%, optionally yttrium (Y): 0%-0.03%, not containing any titanium (Ti), and nickel with, possibly unavoidable, impurities as balance.
A method for the separation of an amine from a first solution comprising at least one amine comprising (i) contacting said first solution comprising at least one amine with a non-liquid hydrophobic membrane; and (ii) extracting an amine from said first solution comprising at least one amine into a second solution across said non-liquid hydrophobic membrane, wherein said non-liquid hydrophobic membrane separates said first solution and said second solution, and wherein said non-liquid hydrophobic membrane is a porous inorganic membrane functionalized with an organic functional group, preferably with pore size ranging from about 0.5 nm to about 100 nm. (i) contacting said first solution comprising at least one amine with a non-liquid hydrophobic membrane; and (ii) extracting an amine from said first solution comprising at least one amine into a second solution across said non-liquid hydrophobic membrane, wherein said non-liquid hydrophobic membrane separates said first solution and said second solution, and wherein said non-liquid hydrophobic membrane is a porous inorganic membrane functionalized with an organic functional group, preferably with pore size ranging from about 0.5 nm to about 100 nm.
A temperature detection ink , comprising: a temperature detection material ; and a solvent , wherein the temperature detection material has a structure in which a thermosensitive material containing a leuco dye, a color-developing agent, and a decolorant is contained in a microcapsule, or a structure in which a phase containing the thermosensitive material is phase-separated from a matrix material , the thermosensitive material is solidified while being decolored by cooling from a molten state to a glass transition temperature (Tg) or lower at a predetermined rate or higher, the thermosensitive material has a glass transition temperature (Tg) of -20 to 60°C, characterized in that : the thermosensitive material has a melting point (Td) that is 60 to 250 ° C and lower than the boiling point of the solvent . a temperature detection material ; and a solvent , wherein the temperature detection material has a structure in which a thermosensitive material containing a leuco dye, a color-developing agent, and a decolorant is contained in a microcapsule, or a structure in which a phase containing the thermosensitive material is phase-separated from a matrix material , the thermosensitive material is solidified while being decolored by cooling from a molten state to a glass transition temperature (Tg) or lower at a predetermined rate or higher, the thermosensitive material has a glass transition temperature (Tg) of -20 to 60°C, characterized in that : the thermosensitive material has a melting point (Td) that is 60 to 250 ° C and lower than the boiling point of the solvent .
A method of manipulating a feedback signal for a native feedback controller of an apparatus, the apparatus further comprising a remote controller retrofit to the native controller , wherein the native controller , prior to retrofitting the remote controller to the native controller , was in signal communication with a first sensor , the method comprising: sensing a first control variable of the apparatus at the first sensor ; generating a first feedback signal (S5) by the first sensor based upon the first control variable; sensing a second control variable of the apparatus at a second sensor ; generating a second feedback signal (S4) by the second sensor based upon the second control variable; at the remote controller : receiving the first feedback signal (S5) and the second feedback signal (S4); generating a control signal (C2) based upon the second feedback signal (S4); combining the control signal (C2) and the first feedback signal (S5) into a modified feedback signal (S6); and transmitting the modified feedback signal (S6) to the native controller in lieu of the first feedback signal (S5); and at the native controller , controlling operation of an actuation unit of the apparatus based at least in part upon the modified feedback signal (S6). sensing a first control variable of the apparatus at the first sensor ; generating a first feedback signal (S5) by the first sensor based upon the first control variable; sensing a second control variable of the apparatus at a second sensor ; generating a second feedback signal (S4) by the second sensor based upon the second control variable; at the remote controller : receiving the first feedback signal (S5) and the second feedback signal (S4); generating a control signal (C2) based upon the second feedback signal (S4); combining the control signal (C2) and the first feedback signal (S5) into a modified feedback signal (S6); and transmitting the modified feedback signal (S6) to the native controller in lieu of the first feedback signal (S5); and receiving the first feedback signal (S5) and the second feedback signal (S4); generating a control signal (C2) based upon the second feedback signal (S4); combining the control signal (C2) and the first feedback signal (S5) into a modified feedback signal (S6); and transmitting the modified feedback signal (S6) to the native controller in lieu of the first feedback signal (S5); and at the native controller , controlling operation of an actuation unit of the apparatus based at least in part upon the modified feedback signal (S6).