mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing an aluminum-resin complex comprising: preparing an aluminum alloy material having an etched surface; and injection-molding a resin composition on the etched surface of the aluminum alloy material to thereby be integrated with each other, wherein the preparing of the aluminum alloy material includes: i) a primary processing process of treating the aluminum alloy material with an alkaline aqueous solution to which a chelating agent and 1,2-dimethylpiperazine are added; and ii) a secondary processing process of treating the aluminum alloy material with an acidic aqueous solution to which a chelating agent is added. preparing an aluminum alloy material having an etched surface; and injection-molding a resin composition on the etched surface of the aluminum alloy material to thereby be integrated with each other, wherein the preparing of the aluminum alloy material includes: i) a primary processing process of treating the aluminum alloy material with an alkaline aqueous solution to which a chelating agent and 1,2-dimethylpiperazine are added; and ii) a secondary processing process of treating the aluminum alloy material with an acidic aqueous solution to which a chelating agent is added. i) a primary processing process of treating the aluminum alloy material with an alkaline aqueous solution to which a chelating agent and 1,2-dimethylpiperazine are added; and ii) a secondary processing process of treating the aluminum alloy material with an acidic aqueous solution to which a chelating agent is added.
A compound represented by Chemical Formula 1 below, or a pharmaceutically acceptable salt thereof: wherein, R 1 is hydrogen; or halogen, R 2 is hydrogen; halogen; cyano; or C 1-4 haloalkyl, R 3 is hydrogen; halogen; cyano; C 1-4 alkoxy; C 1-4 haloalkyl or C 1-4 haloalkylsulfonyl, X is carbon; or nitrogen, wherein when X is carbon, then said X is unsubstituted or substituted with halogen, R 4 is hydrogen; halogen; C 1-4 alkyl; or is connected to R 7 to form R 5 is hydrogen; halogen; or C 1-4 haloalkylphenylamino, R 6 is hydrogen; halogen; pyridinyl; or phenyl unsubstituted or substituted with halogen, cyano, and C 1-4 haloalkyl, R 7 is phenoxyethyl substituted with one to three same or different halogen atoms; phenoxyethyl substituted with C 1-4 haloalkyl; ethyl substituted with halophenyl; C 1-4 alkoxyethyl; morpholinoethyl; C 1-4 haloalkylphenylpiperazinylethyl; halophenyl; C 1-4 haloalkylphenyl; cyclohexylmethyl; thiazolylmethyl; C 1-4 haloalkylpyridinylmethyl; C 1-4 alkyl; dimethylaminocarbonylmethyl; C 1-4 haloalkylphenylacetamido; or oxotrifluoromethylphenylethyl, R 8 is hydrogen; or is connected to R 7 to form C 1-3 alkylene. R 1 is hydrogen; or halogen, R 2 is hydrogen; halogen; cyano; or C 1-4 haloalkyl, R 3 is hydrogen; halogen; cyano; C 1-4 alkoxy; C 1-4 haloalkyl or C 1-4 haloalkylsulfonyl, X is carbon; or nitrogen, wherein when X is carbon, then said X is unsubstituted or substituted with halogen, R 4 is hydrogen; halogen; C 1-4 alkyl; or is connected to R 7 to form R 5 is hydrogen; halogen; or C 1-4 haloalkylphenylamino, R 6 is hydrogen; halogen; pyridinyl; or phenyl unsubstituted or substituted with halogen, cyano, and C 1-4 haloalkyl, R 7 is phenoxyethyl substituted with one to three same or different halogen atoms; phenoxyethyl substituted with C 1-4 haloalkyl; ethyl substituted with halophenyl; C 1-4 alkoxyethyl; morpholinoethyl; C 1-4 haloalkylphenylpiperazinylethyl; halophenyl; C 1-4 haloalkylphenyl; cyclohexylmethyl; thiazolylmethyl; C 1-4 haloalkylpyridinylmethyl; C 1-4 alkyl; dimethylaminocarbonylmethyl; C 1-4 haloalkylphenylacetamido; or oxotrifluoromethylphenylethyl, R 8 is hydrogen; or is connected to R 7 to form C 1-3 alkylene.
A conductive material paste composition for a secondary battery electrode comprising: a fibrous carbon nanomaterial; a binder; and a solvent, wherein the binder includes a first copolymer including an alkylene structural unit and a nitrile group-containing monomer unit and having a weight average molecular weight of at least 200,000 and less than 1,500,000, and a second copolymer including an alkylene structural unit and a nitrile group-containing monomer unit and having a weight average molecular weight of at least 10,000 and less than 170,000; and wherein the weight average molecular weights are measured as values in terms of polystyrene by gel permeation chromatography utilizing tetrahydrofuran as a solvent. a fibrous carbon nanomaterial; a binder; and a solvent, wherein the binder includes a first copolymer including an alkylene structural unit and a nitrile group-containing monomer unit and having a weight average molecular weight of at least 200,000 and less than 1,500,000, and a second copolymer including an alkylene structural unit and a nitrile group-containing monomer unit and having a weight average molecular weight of at least 10,000 and less than 170,000; and wherein the weight average molecular weights are measured as values in terms of polystyrene by gel permeation chromatography utilizing tetrahydrofuran as a solvent.
A nanoparticle comprising an antigen-MHC complex, wherein (a) the antigen-MHC complex comprises a MHC protein complexed to an antigenic peptide of Bacteroides vulgatus integrase; (b) the nanoparticle has a diameter from about 1 nm to about 100 nm; and (c) the ratio of antigen-MHC complex per nanoparticle is from about 10:1 to about 1000:1. (a) the antigen-MHC complex comprises a MHC protein complexed to an antigenic peptide of Bacteroides vulgatus integrase; (b) the nanoparticle has a diameter from about 1 nm to about 100 nm; and (c) the ratio of antigen-MHC complex per nanoparticle is from about 10:1 to about 1000:1.
A method of bending a door frame, comprising: a step of applying a tensile force which increases from an initial tensile force to said door frame to draw out said door frame in a lengthwise direction thereof; a step of measuring a displacement (d) of said door frame after commencement of said application of said initial tensile force; and a step of bending said door frame; characterized in that when said displacement (d) exceeds a predetermined tensile fracture threshold value within a predetermined period of time, the step of bending said door frame is performed by applying a correction tensile force which is smaller than a tensile force at the time when said displacement (d) exceeds said tensile fracture threshold value and a bending pressure for bending said door frame into a curved shape in said lengthwise direction simultaneously to said door frame; and when said displacement (d) does not exceed said tensile fracture threshold value until said predetermined period of time lapses, the step of bending said door frame is performed by applying said correction tensile force which is smaller than a tensile force at the time when said predetermined period of time lapses and said bending pressure for bending said door frame into a curved shape in said lengthwise direction simultaneously to said door frame. a step of applying a tensile force which increases from an initial tensile force to said door frame to draw out said door frame in a lengthwise direction thereof; a step of measuring a displacement (d) of said door frame after commencement of said application of said initial tensile force; and a step of bending said door frame; characterized in that when said displacement (d) exceeds a predetermined tensile fracture threshold value within a predetermined period of time, the step of bending said door frame is performed by applying a correction tensile force which is smaller than a tensile force at the time when said displacement (d) exceeds said tensile fracture threshold value and a bending pressure for bending said door frame into a curved shape in said lengthwise direction simultaneously to said door frame; and when said displacement (d) does not exceed said tensile fracture threshold value until said predetermined period of time lapses, the step of bending said door frame is performed by applying said correction tensile force which is smaller than a tensile force at the time when said predetermined period of time lapses and said bending pressure for bending said door frame into a curved shape in said lengthwise direction simultaneously to said door frame.
A cosmetic composition comprising eicosapentaenoic free acid; gamma-linolenic free acid; and cosmetically acceptable excipients comprising water, disodium EDTA, glycerine, sodium polyacrylate, C12-15 alkyl benzoate, cetearyl isononanoate, butyrospermum parkii butter, 90% phenoxyethanol & 10% ethylhexylglycerin, a fragrance, dimethylmethoxy chromanol, ascorbyl palmitate, glyceryl stearate citrate, glyceryl stearate, behenyl alcohol, sodium hydroxide and aluminum starch octenylsuccinate, wherein the eicosapentaenoic free acid and the gamma-linolenic free acid are present in a weight ratio of 2:1 to 8:1.
A method for compression of images or shape information, comprising the steps of: separating binary shape images into objects; subtracting holes from a representation of the objects; identifying deterministic and stochastic components, and block sizes of the objects based on shapes of the objects; encoding the deterministic components of each object based on first parametric models; encoding the stochastic components of each object with block based methods or chain code; and combining the encoded deterministic components and the encoded stochastic components to provide a compressed encoded output; wherein the step of identifying the deterministic and stochastic component comprises the steps of: obtaining a boundary of an object; storing vertices on the boundary in a point list; generating line segments from the vertices of the point list; extracting the line segments from the object; fitting a second parametric model to the line segments; calculating an approximation error between the second parametric model and the line segments of the object; and comparing the approximation error with a threshold, wherein line segments with an approximation error below the threshold are taken as deterministic components and line segments with an approximation error above the threshold are taken as stochastic components. separating binary shape images into objects; subtracting holes from a representation of the objects; identifying deterministic and stochastic components, and block sizes of the objects based on shapes of the objects; encoding the deterministic components of each object based on first parametric models; encoding the stochastic components of each object with block based methods or chain code; and combining the encoded deterministic components and the encoded stochastic components to provide a compressed encoded output; wherein the step of identifying the deterministic and stochastic component comprises the steps of: obtaining a boundary of an object; storing vertices on the boundary in a point list; generating line segments from the vertices of the point list; extracting the line segments from the object; fitting a second parametric model to the line segments; calculating an approximation error between the second parametric model and the line segments of the object; and comparing the approximation error with a threshold, wherein line segments with an approximation error below the threshold are taken as deterministic components and line segments with an approximation error above the threshold are taken as stochastic components. obtaining a boundary of an object; storing vertices on the boundary in a point list; generating line segments from the vertices of the point list; extracting the line segments from the object; fitting a second parametric model to the line segments; calculating an approximation error between the second parametric model and the line segments of the object; and comparing the approximation error with a threshold, wherein line segments with an approximation error below the threshold are taken as deterministic components and line segments with an approximation error above the threshold are taken as stochastic components.
A method for applying an adhesive tape on a baseplate (12, 13) of a stiffener, each baseplate (12, 13) extending longitudinally and comprising an outer profile (12C, 13C), the method comprising: - a step of driving from upstream to downstream the stiffener on a travelling path; - a step of measuring the outer profile (12C, 13C) of a portion of the baseplate (12, 13) of the stiffener at a first position (X 40) of said travelling path; - a step of applying said adhesive tape on the baseplate (12, 13) of the stiffener; and then - a step of cutting said adhesive tape, at a second position (X 90) of said travelling path located downstream of the first position (X 40), according to said measured outer profile (12C, 13C) so that the adhesive tape is accurately applied on the baseplate (12, 13) in order to fit its geometric deformations. - a step of driving from upstream to downstream the stiffener on a travelling path; - a step of measuring the outer profile (12C, 13C) of a portion of the baseplate (12, 13) of the stiffener at a first position (X 40) of said travelling path; - a step of applying said adhesive tape on the baseplate (12, 13) of the stiffener; and then - a step of cutting said adhesive tape, at a second position (X 90) of said travelling path located downstream of the first position (X 40), according to said measured outer profile (12C, 13C) so that the adhesive tape is accurately applied on the baseplate (12, 13) in order to fit its geometric deformations.
A method for extending a handshake communication between a communication device and an application server, comprising the following steps in the application server: receiving at least two messages (MesC) from the communication device, each message (MesC) comprising a handshake index (IndH) and triggering a handshake session so that the application server negotiates with the communication device a set of cryptographic parameters, for each handshake index of the at least two messages (MesC) received, storing the negotiated set of cryptographic parameters with a corresponding connection state index (IndC) depending on an associated handshake index (IndH), wherein the corresponding connection state index is a single byte contained in a protocol message field, activating the negotiated set of cryptographic parameters stored with a lowest connection state index for establishing a secured connection with only one port of the communication device, whereby the application server receives a connection state from the communication device, switches a security context for the secure connection corresponding to the received connection state by activating the one or more cryptographic parameters of the negotiated set of cryptographic parameters stored with a corresponding connection state index in correspondence with the received connection state. receiving at least two messages (MesC) from the communication device, each message (MesC) comprising a handshake index (IndH) and triggering a handshake session so that the application server negotiates with the communication device a set of cryptographic parameters, for each handshake index of the at least two messages (MesC) received, storing the negotiated set of cryptographic parameters with a corresponding connection state index (IndC) depending on an associated handshake index (IndH), wherein the corresponding connection state index is a single byte contained in a protocol message field, activating the negotiated set of cryptographic parameters stored with a lowest connection state index for establishing a secured connection with only one port of the communication device, whereby the application server receives a connection state from the communication device, switches a security context for the secure connection corresponding to the received connection state by activating the one or more cryptographic parameters of the negotiated set of cryptographic parameters stored with a corresponding connection state index in correspondence with the received connection state.
A method of producing a plant, said method comprising growing a plant cell comprising an exogenous nucleic acid, said exogenous nucleic acid comprising a regulatory region operably linked to a nucleotide sequence encoding a polypeptide having 80 percent or greater sequence identity to SEQ ID NO: 749; and wherein a plant produced from said plant cell has a difference in drought tolerance or heat tolerance as compared to a control plant that does not comprise said nucleic acid.
A method for producing a mold for minute pattern transfer, comprising: a step of applying a block copolymer solution made of at least a first polymer and a second polymer on a surface of a base member to form a thin film, a step of drying the thin film on the base member; a first heating step for heating the thin film after the drying at a temperature higher than a glass transition temperature of a block copolymer of the block copolymer solution; and an etching step for etching the thin film after the first heating step to remove the second polymer so that a concavity and convexity structure is formed on the base member; characterized by a second heating step for heating the concavity and convexity structure at a temperature higher than a glass transition temperature of the first polymer; a step of forming a seed layer on the concavity and convexity structure after the second heating step; a step of stacking a metal layer on the seed layer by an electroforming; and a step of peeling off the base member having the concavity and convexity structure from the metal layer and the seed layer. a step of applying a block copolymer solution made of at least a first polymer and a second polymer on a surface of a base member to form a thin film, a step of drying the thin film on the base member; a first heating step for heating the thin film after the drying at a temperature higher than a glass transition temperature of a block copolymer of the block copolymer solution; and an etching step for etching the thin film after the first heating step to remove the second polymer so that a concavity and convexity structure is formed on the base member; a step of forming a seed layer on the concavity and convexity structure after the second heating step; a step of stacking a metal layer on the seed layer by an electroforming; and a step of peeling off the base member having the concavity and convexity structure from the metal layer and the seed layer.
A device for a minimal irritating, optimal organ-tolerable sealing of a lumen, which opens as an ostium into the region of the body surface, in particular a natural or artificial anus of a patient, comprising an extremely thin-walled, externally fillable balloon body made of a soft-film-type material with a low volumetric expandability, which has at least one transostial region and a central lumen, which extends from the distal to the proximal end of the device and serves for the reception of an insertion aid and/or allows the intestinal gas to escape, characterized in that a) the central lumen inside the balloon body is not surrounded by a shaft, so that rigid, potentially irritating components in the region of the ostium as well as in a possibly adjoining, extracorporeal region are entirely avoided, and in that b) at least one flat, soft-film-type retaining projection coated with a skin-tolerable adhesive adjoins to the proximal end of the balloon body allowing a direct fixation of the device to the skin of the patient. a) the central lumen inside the balloon body is not surrounded by a shaft, so that rigid, potentially irritating components in the region of the ostium as well as in a possibly adjoining, extracorporeal region are entirely avoided, and in that b) at least one flat, soft-film-type retaining projection coated with a skin-tolerable adhesive adjoins to the proximal end of the balloon body allowing a direct fixation of the device to the skin of the patient.
A memory apparatus, comprising: a substrate; a first memory cell (105-b) formed in a first recess positioned on the substrate and comprising a first type of capacitor; a second memory cell (105-c) formed in a second recess positioned on the substrate, the second memory cell comprising a second type of capacitor that is different from the first type of capacitor; a word line in electronic communication with the first memory cell (105-b) and the second memory cell (105-c); and a dielectric material that is in direct contact with a first surface, a second surface, and a third surface of at least one of the first memory cell (105-b) or the second memory cell (105-c), wherein a top surface of the dielectric material is in direct contact with a ferroelectric material of the first type of capacitor and a paraelectric material of the second type of capacitor. a substrate; a first memory cell (105-b) formed in a first recess positioned on the substrate and comprising a first type of capacitor; a second memory cell (105-c) formed in a second recess positioned on the substrate, the second memory cell comprising a second type of capacitor that is different from the first type of capacitor; a word line in electronic communication with the first memory cell (105-b) and the second memory cell (105-c); and a dielectric material that is in direct contact with a first surface, a second surface, and a third surface of at least one of the first memory cell (105-b) or the second memory cell (105-c), wherein a top surface of the dielectric material is in direct contact with a ferroelectric material of the first type of capacitor and a paraelectric material of the second type of capacitor.
A roof comprising mutually overlapping tiles/slates (5;17), wherein the roof comprises: a roof edging device (10;100) comprising a plastics strip (12;112) located under an edge of the roof, wherein the roof edging device (10; 100) further comprises a first web (2B;102B) and a second web (2A;102C) each upstanding from a same side of the strip (12;112) and extending along the strip (12;112), the second web (2A;102C) being further from the edge of the roof than the first web (2B;102B), wherein each web (2A;2B;102B;102C) is formed of flexible elastic material; and wherein the roof is characterised in that: the second web (2A;102C) has a height greater than that of the first web; and in mounting position each web (2A;2B;102B;102C) is bent towards the edge of the roof by said tiles/slates (5;17) so as to form a water-resistant seal therewith. a roof edging device (10;100) comprising a plastics strip (12;112) located under an edge of the roof, wherein the roof edging device (10; 100) further comprises a first web (2B;102B) and a second web (2A;102C) each upstanding from a same side of the strip (12;112) and extending along the strip (12;112), the second web (2A;102C) being further from the edge of the roof than the first web (2B;102B), wherein each web (2A;2B;102B;102C) is formed of flexible elastic material; and wherein the roof is characterised in that: the second web (2A;102C) has a height greater than that of the first web; and in mounting position each web (2A;2B;102B;102C) is bent towards the edge of the roof by said tiles/slates (5;17) so as to form a water-resistant seal therewith. the second web (2A;102C) has a height greater than that of the first web; and in mounting position each web (2A;2B;102B;102C) is bent towards the edge of the roof by said tiles/slates (5;17) so as to form a water-resistant seal therewith.