mhurhangee/ep-ind-claims huggingface dataset:
A method for producing cheese, the method comprising treating a milk raw material containing a milk protein with the following ingredient or: one or more kinds of ingredients selected from reduced glutathione, cysteine, γ-glutamylcysteine, sulfurous acid, ascorbic acid, erythorbic acid, and a salt thereof; a transglutaminase and a calcium salt, wherein the milk raw material containing a milk protein has been heat-treated at a temperature of 120°C to 150°C for 0.5 to 15 seconds. one or more kinds of ingredients selected from reduced glutathione, cysteine, γ-glutamylcysteine, sulfurous acid, ascorbic acid, erythorbic acid, and a salt thereof; a transglutaminase and a calcium salt,
A T cell receptor having the property of binding to a SLLQHLIGL (SEQ ID NO: 1) HLA-A*02 complex and comprising a TCR alpha chain variable domain and a TCR beta chain variable domain each of which comprises FR1-CDR1-FR2-CDR2-FR3-CDR3-FR4 where FR is a framework region and CDR is a complementarity determining region, wherein (a) the alpha chain CDRs have the following sequences: CDR1 - TISGTDY (SEQ ID NO: 39) CDR2 - GLTSN (SEQ ID NO: 40) CDR3 - CILILGHSGAGSYQLTF (SEQ ID NO: 41) with one or more mutations therein, wherein the one or more mutations is selected from (with reference to the numbering of SEQ ID NO: 2): Wild type Mutation G96 R A97 L S99 N Q101 I L102 A and (b) the beta chain CDRs have the following sequences: CDR1 - LNHDA (SEQ ID NO: 42) CDR2 - SQIVNDF (SEQ ID NO: 43) CDR3 - CASSPWTSGSREQYF (SEQ ID NO: 44) with one or more mutations therein, wherein the one or more mutations is selected from (with reference to the numbering of SEQ ID NO: 2): Wild type Mutation V52 M N53 G F55 E P95 W S98 G S100 A R101 SorA E102 P Q103 I Y104 SorR (a) the alpha chain CDRs have the following sequences: CDR1 - TISGTDY (SEQ ID NO: 39) CDR2 - GLTSN (SEQ ID NO: 40) CDR3 - CILILGHSGAGSYQLTF (SEQ ID NO: 41) with one or more mutations therein, wherein the one or more mutations is selected from (with reference to the numbering of SEQ ID NO: 2): Wild type Mutation G96 R A97 L S99 N Q101 I L102 A and CDR1 - TISGTDY (SEQ ID NO: 39) CDR2 - GLTSN (SEQ ID NO: 40) CDR3 - CILILGHSGAGSYQLTF (SEQ ID NO: 41) with one or more mutations therein, wherein the one or more mutations is selected from (with reference to the numbering of SEQ ID NO: 2): Wild type Mutation G96 R A97 L S99 N Q101 I L102 A and (b) the beta chain CDRs have the following sequences: CDR1 - LNHDA (SEQ ID NO: 42) CDR2 - SQIVNDF (SEQ ID NO: 43) CDR3 - CASSPWTSGSREQYF (SEQ ID NO: 44) with one or more mutations therein, wherein the one or more mutations is selected from (with reference to the numbering of SEQ ID NO: 2): Wild type Mutation V52 M N53 G F55 E P95 W S98 G S100 A R101 SorA E102 P Q103 I Y104 SorR CDR1 - LNHDA (SEQ ID NO: 42) CDR2 - SQIVNDF (SEQ ID NO: 43) CDR3 - CASSPWTSGSREQYF (SEQ ID NO: 44) with one or more mutations therein, wherein the one or more mutations is selected from (with reference to the numbering of SEQ ID NO: 2): Wild type Mutation V52 M N53 G F55 E P95 W S98 G S100 A R101 SorA E102 P Q103 I Y104 SorR
A method for bonding a substrate surface of a substrate layer to an adhesive surface of an adhesive, in which a low temperature plasma in a low temperature discharge configuration is generated at atmospheric pressure, the substrate surface and the adhesive surface are activated with the low temperature plasma, and thereafter the substrate surface and the adhesive surface are layered one on top of the other in order to form a compound bonded structure, wherein the plasma is generated by passing a process gas in front of a piezoelectric electrode (101, 102) and thereby exciting a voltage field which forms between the piezoelectric electrode (101, 102) and an earthed electrode, characterized in that the piezoelectric electrode (101, 102) is cooled and a temperature of the plasma emerging from a plasma discharge chamber is at most 50°C, wherein the adhesive surface and the substrate surface are treated with the same low temperature discharge configuration at the same plasma temperature, wherein a pressure-sensitive acrylate adhesive is used as the adhesive. in which a low temperature plasma in a low temperature discharge configuration is generated at atmospheric pressure, the substrate surface and the adhesive surface are activated with the low temperature plasma, and thereafter the substrate surface and the adhesive surface are layered one on top of the other in order to form a compound bonded structure, wherein the plasma is generated by passing a process gas in front of a piezoelectric electrode (101, 102) and thereby exciting a voltage field which forms between the piezoelectric electrode (101, 102) and an earthed electrode, characterized in that the piezoelectric electrode (101, 102) is cooled and a temperature of the plasma emerging from a plasma discharge chamber is at most 50°C, wherein the adhesive surface and the substrate surface are treated with the same low temperature discharge configuration at the same plasma temperature, wherein a pressure-sensitive acrylate adhesive is used as the adhesive.
An automatic method of non-destructively inspecting a mechanical part by means of a device comprising an image sensor, a lighting source, and means (18, 22) for moving the image sensor, the lighting source, and the mechanical part relative to one another, the method consisting essentially in making a three-dimensional survey of the surface of the part, defining a subdivision of the surface of the part into zones suitable for being photographed by the image sensor, defining respective paths for the image sensor and for the lighting source relative to the part, and acquiring images of said zones of the surface of the part, the method being characterized in that it also consists in: • analyzing the images and determining zones in the images that are over-exposed or under-exposed; • optimizing optical parameters for image acquisition of said zones and defining a second subdivision of the surface of the part, taking account of the optimization of said optical parameters for said zones; • defining a new path for the image sensor and a new path for the lighting source that enable images to be acquired of the surface of the part while using the optimized optical parameters and the second subdivision; • acquiring images of said zones while following the new paths and recording the images; and • automatically determining any surface defects of the part in the recorded images and comparing them with known defects recorded in a database. • analyzing the images and determining zones in the images that are over-exposed or under-exposed; • optimizing optical parameters for image acquisition of said zones and defining a second subdivision of the surface of the part, taking account of the optimization of said optical parameters for said zones; • defining a new path for the image sensor and a new path for the lighting source that enable images to be acquired of the surface of the part while using the optimized optical parameters and the second subdivision; • acquiring images of said zones while following the new paths and recording the images; and • automatically determining any surface defects of the part in the recorded images and comparing them with known defects recorded in a database.
A security data processing device comprising a processor and a memory coupled to the processor, the processor configured to: receive a digital document (310, 502), said digital document comprising at least one primary programming requirement (506, 508) specified by a first party for programming at least one programmable device; determine if receipt of said digital document is an attempt to fulfil the same digital document more than once by determining if there is a record stored in the memory that corresponds to the digital document; receive a programming request from a programming module of a programming machine in communication with said processor, said programming request requesting the programming of the at least one programmable device; determine if the programming request complies with the at least one primary programming requirement in the digital document; and wherein if said programming request complies with the at least one primary programming requirement in the digital document and if there is no record stored in the memory that corresponds to the digital document, the processor is further configured to: output programming information to the programming module for programming the at least one programmable device, wherein said programming information comprises cryptographic information generated by said processor; and permanently store a further record in the memory, wherein the further record corresponds to said digital document. receive a digital document (310, 502), said digital document comprising at least one primary programming requirement (506, 508) specified by a first party for programming at least one programmable device; determine if receipt of said digital document is an attempt to fulfil the same digital document more than once by determining if there is a record stored in the memory that corresponds to the digital document; receive a programming request from a programming module of a programming machine in communication with said processor, said programming request requesting the programming of the at least one programmable device; determine if the programming request complies with the at least one primary programming requirement in the digital document; and wherein if said programming request complies with the at least one primary programming requirement in the digital document and if there is no record stored in the memory that corresponds to the digital document, the processor is further configured to: output programming information to the programming module for programming the at least one programmable device, wherein said programming information comprises cryptographic information generated by said processor; and permanently store a further record in the memory, wherein the further record corresponds to said digital document. output programming information to the programming module for programming the at least one programmable device, wherein said programming information comprises cryptographic information generated by said processor; and permanently store a further record in the memory, wherein the further record corresponds to said digital document.
A cylindrical hollow filter including a hole extending from one end surface toward the other end surface, wherein the hollow filter further includes a core having the hole extending from one end surface toward the other end surface and a sheath covering an outside of the core, a boundary line is present between the core and the sheath, the core comprises core forming fiber, and the sheath comprises sheath forming fiber; characterized in that the core has a total fineness of 23000 denier to 70000 denier, an additive rate of a plasticizer of 13% to 40%, and the sheath has a total fineness of 10000 denier to 47000 denier, an additive rate of the plasticizer of 0% to 15%. the hollow filter further includes a core having the hole extending from one end surface toward the other end surface and a sheath covering an outside of the core, a boundary line is present between the core and the sheath, the core comprises core forming fiber, and the sheath comprises sheath forming fiber; characterized in that the core has a total fineness of 23000 denier to 70000 denier, an additive rate of a plasticizer of 13% to 40%, and the sheath has a total fineness of 10000 denier to 47000 denier, an additive rate of the plasticizer of 0% to 15%.
A room temperature curable composition which comprises 100 parts by mass of an organosiloxane polymer which is having an alkoxysilyl-ethylene group at its terminal and represented by the following formulae or, wherein R represents a hydrogen atom or a monovalent hydrocarbon group having 1 to 20 carbon atoms which may have a substituent; each R may be the same or different from each other; "m"' represents an integer of 0 to 2,000, parts of a repeating unit of the siloxane bond may be crosslinked to form a branched chain structure; R 1 represents an alkyl group having 1 to 20 carbon atoms which may have a substituent, and those having 3 or more carbon atoms among the alkyl groups may be a cycloalkyl group which is cyclic; R 2 represents a hydrogen atom or a monovalent hydrocarbon group having 1 to 20 carbon atoms which may have a substituent; "a" represents an integer of 1 to 3, and "m"" represents an integer of 1 to 100, and m'+m" is a number which makes the viscosity of the diorganopolysiloxane at 25°C of 10 to 1,000,000 mPa·s, the viscosity being measured by a rotary viscometer, 0.001 to 15 parts by mass of a curing catalyst, 0 to 30 parts by mass of a silane compound and/or an organosiloxane polymer having at least 2 remaining alkoxy groups or alkoxy-substituted alkoxy groups in the molecule, which is formed by partially hydrolyzing and condensing the silane compound, 0 to 1,000 parts by mass of a filler, and 0 to 30 parts by mass of an adhesion promoter. 100 parts by mass of an organosiloxane polymer which is having an alkoxysilyl-ethylene group at its terminal and represented by the following formulae or, wherein R represents a hydrogen atom or a monovalent hydrocarbon group having 1 to 20 carbon atoms which may have a substituent; each R may be the same or different from each other; "m"' represents an integer of 0 to 2,000, parts of a repeating unit of the siloxane bond may be crosslinked to form a branched chain structure; R 1 represents an alkyl group having 1 to 20 carbon atoms which may have a substituent, and those having 3 or more carbon atoms among the alkyl groups may be a cycloalkyl group which is cyclic; R 2 represents a hydrogen atom or a monovalent hydrocarbon group having 1 to 20 carbon atoms which may have a substituent; "a" represents an integer of 1 to 3, and "m"" represents an integer of 1 to 100, and m'+m" is a number which makes the viscosity of the diorganopolysiloxane at 25°C of 10 to 1,000,000 mPa·s, the viscosity being measured by a rotary viscometer, 0.001 to 15 parts by mass of a curing catalyst, 0 to 30 parts by mass of a silane compound and/or an organosiloxane polymer having at least 2 remaining alkoxy groups or alkoxy-substituted alkoxy groups in the molecule, which is formed by partially hydrolyzing and condensing the silane compound, 0 to 1,000 parts by mass of a filler, and 0 to 30 parts by mass of an adhesion promoter.
An electrode structure comprising a conductive part, characterised in that the structure comprises grass-like dielectric material on the conductive part, and a conductive layer on the grass-like dielectric material so that a surface area of the electrode is increased, the conductive part and the conductive layer being electrically connected to each other so that the electrode structure as whole is conductive and it has a high-surface area.
A method for estimating a normal operating efficiency of a power device coupled to at least one power source separate from the power device, the method comprising: identifying a state of operation of the power device in which the power device receives input power from the at least one power source and provides output power to a load separate from the power device; measuring at least one characteristic related to the output power; and determining an estimated normal operating efficiency of the power device in providing the output power while operating in the state of operation based on power loss parameters associated with the power device and the at least one characteristic related to the output. identifying a state of operation of the power device in which the power device receives input power from the at least one power source and provides output power to a load separate from the power device; measuring at least one characteristic related to the output power; and determining an estimated normal operating efficiency of the power device in providing the output power while operating in the state of operation based on power loss parameters associated with the power device and the at least one characteristic related to the output.
A method of making coated perlite flakes comprising: (i) providing perlite flakes; (ii) applying a layer of tin oxide on the perlite flakes to obtain tin oxide coated perlite flakes; (iii) applying a layer titanium dioxide on the tin oxide coated perlite flakes obtained in step (ii) to obtain titanium dioxide and tin oxide coated perlite flakes; and (iv) applying a layer of iron oxide to the titanium dioxide and tin oxide coated perlite flakes to obtain the coated perlite flakes. (i) providing perlite flakes; (ii) applying a layer of tin oxide on the perlite flakes to obtain tin oxide coated perlite flakes; (iii) applying a layer titanium dioxide on the tin oxide coated perlite flakes obtained in step (ii) to obtain titanium dioxide and tin oxide coated perlite flakes; and (iv) applying a layer of iron oxide to the titanium dioxide and tin oxide coated perlite flakes to obtain the coated perlite flakes.
A surgical device, comprising: an elongate shaft; an end effector at a distal end of the elongate shaft, the end effector being configured to articulate at an angle relative to a longitudinal axis of the elongate shaft; a cutting element configured to move longitudinally along the end effector to cut tissue engaged by the end effector; and a locking mechanism configured to lock the end effector at the angle in response to the movement of the cutting element along the end effector, said surgical device being characterized in that the locking mechanism comprises a pair of plates (200p, 202p) configured to frictionally engage with one another to lock the end effector at the angle until a force is applied thereto to overcome the frictional engagement. an elongate shaft; an end effector at a distal end of the elongate shaft, the end effector being configured to articulate at an angle relative to a longitudinal axis of the elongate shaft; a cutting element configured to move longitudinally along the end effector to cut tissue engaged by the end effector; and a locking mechanism configured to lock the end effector at the angle in response to the movement of the cutting element along the end effector, said surgical device being characterized in that the locking mechanism comprises a pair of plates (200p, 202p) configured to frictionally engage with one another to lock the end effector at the angle until a force is applied thereto to overcome the frictional engagement.
An evaporator (22, 24) of a heat recovery steam generator, the evaporator (22, 24) having at least one tube, the at least one tube having an outer surface with a plurality of solid serrated fins extending outwardly therefrom, characterised by a plurality of dimples or indentations formed in the outer surface, the dimples being arranged in a pattern and configured to introduce turbulence in a flow of a gas around the at least one tube for enhancing heat transfer from the gas to the at least one tube.
A multilayer reflective polarizer, comprising: a plurality of alternating first polymer layers and second polymer layers; wherein each of the first polymer layers and the second polymer layers has an in-plane birefringence of at least 0.01; wherein each of the first polymer layers and the second polymer layers exhibits crystallinity; wherein for at least one in-plane direction, the difference in refractive index between each of the first polymer layers and the second polymer layers is at least 0.04; wherein for a second in-plane direction orthogonal to the at least one in-plane direction, the difference in refractive index between each of the first polymer layers and the second polymer layers is less than 0.04; wherein the multilayer reflective polarizer has at least four edges; wherein no index of refraction for either of the first or second polymer layers, measured at 550 nm, is greater than 1.7; and wherein the first polymer layers include polyethylene terephthalate, and wherein the second polymer layers include a glycol-modified co(polyethylene terephthalate). wherein each of the first polymer layers and the second polymer layers has an in-plane birefringence of at least 0.01; wherein each of the first polymer layers and the second polymer layers exhibits crystallinity; wherein for at least one in-plane direction, the difference in refractive index between each of the first polymer layers and the second polymer layers is at least 0.04; wherein for a second in-plane direction orthogonal to the at least one in-plane direction, the difference in refractive index between each of the first polymer layers and the second polymer layers is less than 0.04; wherein the multilayer reflective polarizer has at least four edges; wherein no index of refraction for either of the first or second polymer layers, measured at 550 nm, is greater than 1.7; and wherein the first polymer layers include polyethylene terephthalate, and wherein the second polymer layers include a glycol-modified co(polyethylene terephthalate).
A refrigerator with a refrigerating air supply assembly, the refrigerator comprising a freezing compartment, a refrigerating compartment, a freezing fan, a fan bracket, an evaporator, a freezing air duct, a refrigerating air duct, a refrigerating liner and a foamed cabinet, wherein the freezing compartment is communicated with the refrigerating compartment by the freezing air duct provided therein with a refrigerating air supply damper, wherein the refrigerator is configured as a side-by-side refrigerator, characterized in that the refrigerating air supply damper is provided in the freezing compartment and integrated into an upper portion of the evaporator, the refrigerating air duct includes a first section extending to the upper section of a mullion horizontally and a second section extending along the mullion downwards, and is led to the refrigerating compartment through air outlets, a damper insulator is further provided at the refrigerating air supply damper which is fixed at the fan bracket by the damper insulator and a bracket claw.
A facade panel comprising an insertion section, a spring clip section and a facade section arranged between the insertion section and the spring clip section, in particular forming a facade surface, wherein the facade panel further comprises a fastening section, wherein the facade panel is formed in one piece and the spring clip section is arranged between the facade section and the fastening section, wherein the spring clip section is designed to clamp and hold an insertion section of a further, in particular identical, facade panel, characterised in that the extension of the insertion section runs parallel to the direction of extension of the facade section and in the same plane. wherein the facade panel further comprises a fastening section, wherein the facade panel is formed in one piece and the spring clip section is arranged between the facade section and the fastening section, wherein the spring clip section is designed to clamp and hold an insertion section of a further, in particular identical, facade panel, characterised in that the extension of the insertion section runs parallel to the direction of extension of the facade section and in the same plane.