mhurhangee/ep-ind-claims huggingface dataset:
A process for the manufacture of a frozen confection with a peelable coating comprising the steps of: a) Providing a mould at a temperature of at most -10°C; b) Filling the mould with a liquid mix of a first frozen confection; c) Allowing the first frozen confection to partially freeze; d) Removing the excess liquid mix from the mould; e) Filling the mould with a second liquid mix; f) Removing the second liquid mix; g) Filling the mould with at least one further frozen confection; and then h) Freezing to form a frozen confection product characterised in that - The liquid mix of the first frozen confection comprises a chemically setting gelling biopolymer; and - The second liquid mix comprises a source of divalent cations. a) Providing a mould at a temperature of at most -10°C; b) Filling the mould with a liquid mix of a first frozen confection; c) Allowing the first frozen confection to partially freeze; d) Removing the excess liquid mix from the mould; e) Filling the mould with a second liquid mix; f) Removing the second liquid mix; g) Filling the mould with at least one further frozen confection; and then h) Freezing to form a frozen confection product - The liquid mix of the first frozen confection comprises a chemically setting gelling biopolymer; and - The second liquid mix comprises a source of divalent cations.
An isolated DNA sequence selected from the group consisting of: (a) a sequence comprising the nucleotide sequence of SEQ ID NO:9, (b) a sequence consisting in the nucleotide sequence of SEQ ID NO:9, (c) a fragment of the sequence in (b), and (d) a sequence having at least one nucleotide substitution as compared to the sequence in (b) or the fragment in (c), said sequence encoding a polypeptide having the same amino acid sequence as the polypeptide encoded by SEQ ID NO:9 or the polypeptide encoded by said fragment of SEQ ID NO:9, wherein said isolated DNA sequence encodes a polypeptide cleaving the I- Spom I site as defined in SEQ ID NO:10. (a) a sequence comprising the nucleotide sequence of SEQ ID NO:9, (b) a sequence consisting in the nucleotide sequence of SEQ ID NO:9, (c) a fragment of the sequence in (b), and (d) a sequence having at least one nucleotide substitution as compared to the sequence in (b) or the fragment in (c), said sequence encoding a polypeptide having the same amino acid sequence as the polypeptide encoded by SEQ ID NO:9 or the polypeptide encoded by said fragment of SEQ ID NO:9,
A method for producing a Beta-glucosidase enzyme, comprising: (a) transforming a fungal host cell with a fusion protein construct encoding a fusion protein, wherein the fusion protein construct comprises: (i) a first polynucleotide comprising a nucleotide sequence encoding a signal peptide obtained from a Humicola insolens CEL45 endoglucanase gene; (ii) a second polynucleotide comprising a nucleotide sequence encoding at least a catalytic domain of an endoglucanase obtained from a Humicola insolens CEL45 endoglucanase gene; and (iii) a third polynucleotide comprising a nucleotide sequence encoding a Beta-glucosidase enzyme obtained from Aspergillus oryzae, wherein the fusion protein is SEQ ID NO: 74, (b) cultivating the transformed fungal host cell under conditions suitable for production of the fusion protein; and (c) recovering the fusion protein from the cultivation medium. (a) transforming a fungal host cell with a fusion protein construct encoding a fusion protein, wherein the fusion protein construct comprises: (i) a first polynucleotide comprising a nucleotide sequence encoding a signal peptide obtained from a Humicola insolens CEL45 endoglucanase gene; (ii) a second polynucleotide comprising a nucleotide sequence encoding at least a catalytic domain of an endoglucanase obtained from a Humicola insolens CEL45 endoglucanase gene; and (iii) a third polynucleotide comprising a nucleotide sequence encoding a Beta-glucosidase enzyme obtained from Aspergillus oryzae, wherein the fusion protein is SEQ ID NO: 74, (i) a first polynucleotide comprising a nucleotide sequence encoding a signal peptide obtained from a Humicola insolens CEL45 endoglucanase gene; (ii) a second polynucleotide comprising a nucleotide sequence encoding at least a catalytic domain of an endoglucanase obtained from a Humicola insolens CEL45 endoglucanase gene; and (iii) a third polynucleotide comprising a nucleotide sequence encoding a Beta-glucosidase enzyme obtained from Aspergillus oryzae, (b) cultivating the transformed fungal host cell under conditions suitable for production of the fusion protein; and (c) recovering the fusion protein from the cultivation medium.
A power transmission apparatus for a vehicle, the vehicle including an engine and a motor as a driving power source, the vehicle configured to be operable to travel using only the motor as the driving power source with the engine stopped, the power transmission apparatus comprising: an input shaft into which power from the engine is configured to be inputted; a brake mechanism (7,7A,7B) arranged around the input shaft, the brake mechanism (7,7A,7B) including a stationary race and a rotary race that are adjacently arranged in an axial direction of the input shaft, the rotary race configured to rotate along with rotation of the motor; an oil pump configured to supply lubricating oil to the brake mechanism (7,7A,7B), the oil pump configured to be driven by rotation of the input shaft; a housing case housing the input shaft, the brake mechanism (7,7A,7B), and the oil pump inside the housing case; a center support (91,91A,91B) disposed between an inner surface of the housing case and the input shaft in the housing case, the center support (91,91A,91B) configured to support the input shaft relative to the housing case; a lubricating oil reservoir (92,92A,92B) disposed in a lubrication passage of the lubricating oil inside the housing case; and characterized in that an oil passage (94,94A,94B) is configured to communicate the lubricating oil reservoir (92,92A,92B) with the rotary race of the brake mechanism (7,7A,7B) such that the lubricating oil reserved in the lubricating oil reservoir (92,92A,92B) is supplied into the brake mechanism (7,7A,7B) upon rotation of the rotary race. an input shaft into which power from the engine is configured to be inputted; a brake mechanism (7,7A,7B) arranged around the input shaft, the brake mechanism (7,7A,7B) including a stationary race and a rotary race that are adjacently arranged in an axial direction of the input shaft, the rotary race configured to rotate along with rotation of the motor; an oil pump configured to supply lubricating oil to the brake mechanism (7,7A,7B), the oil pump configured to be driven by rotation of the input shaft; a housing case housing the input shaft, the brake mechanism (7,7A,7B), and the oil pump inside the housing case; a center support (91,91A,91B) disposed between an inner surface of the housing case and the input shaft in the housing case, the center support (91,91A,91B) configured to support the input shaft relative to the housing case; a lubricating oil reservoir (92,92A,92B) disposed in a lubrication passage of the lubricating oil inside the housing case; and characterized in that an oil passage (94,94A,94B) is configured to communicate the lubricating oil reservoir (92,92A,92B) with the rotary race of the brake mechanism (7,7A,7B) such that the lubricating oil reserved in the lubricating oil reservoir (92,92A,92B) is supplied into the brake mechanism (7,7A,7B) upon rotation of the rotary race.
A power line for supplying power to a home appliance, wherein the power line is also used for mounting a communication module for implementing wireless communication between the home appliance and an external device; wherein the power line comprises: a line body; a plug disposed at one end of the line body; a communication module; and an intelligent module mounting portion, wherein the intelligent module mounting portion is provided with a base having an accommodation cavity and a cover fitted with the base so as to enclose the accommodation cavity, the communication module is accommodated in the accommodation cavity, characterized in that, the power line further comprises a line body fixing portion disposed on a part of the line body distal from the plug for fixing the line body on the home appliance; wherein the intelligent module mounting portion is disposed on the line body adjacent to the line body fixing portion. a line body; a plug disposed at one end of the line body; a communication module; and an intelligent module mounting portion, wherein the intelligent module mounting portion is provided with a base having an accommodation cavity and a cover fitted with the base so as to enclose the accommodation cavity, the communication module is accommodated in the accommodation cavity, characterized in that, the power line further comprises a line body fixing portion disposed on a part of the line body distal from the plug for fixing the line body on the home appliance; wherein the intelligent module mounting portion is disposed on the line body adjacent to the line body fixing portion.
A light emitting device comprising: a reflective metal support comprising at least two pairs of first and second reflective metal layers; a light emitting structure layer comprising a first conductive type semiconductor layer, a second conductive type semiconductor layer, and an active layer between the first conductive type semiconductor layer and the second conductive type semiconductor layer on the reflective metal support; an electrode on the light emitting structure layer; and a current block region disposed under the light emitting structure layer, wherein the current block region vertically overlaps the electrode, wherein the light emitting structure layer emits a blue light, wherein the reflective metal support reflects a light emitted from the light emitting structure layer, wherein the reflective metal support includes 30 pairs to 70 pairs of the first and second reflective metal layers (80a and 80b), wherein each of the first and second reflective metal layers is formed of at least one of Al, Ag, an APC (Ag-Pd-Cu) alloy, and an Au-Ni alloy, wherein the first and second reflective metal layers which are stacked on each other are formed of a different materials, wherein the reflective metal support has a thickness of 50 μ m to 200 μ m, and wherein the first reflective metal layer has a compressive stress, and the second reflective metal layer has a tensile stress. a reflective metal support comprising at least two pairs of first and second reflective metal layers; a light emitting structure layer comprising a first conductive type semiconductor layer, a second conductive type semiconductor layer, and an active layer between the first conductive type semiconductor layer and the second conductive type semiconductor layer on the reflective metal support; an electrode on the light emitting structure layer; and a current block region disposed under the light emitting structure layer, wherein the current block region vertically overlaps the electrode, wherein the light emitting structure layer emits a blue light, wherein the reflective metal support reflects a light emitted from the light emitting structure layer, wherein the reflective metal support includes 30 pairs to 70 pairs of the first and second reflective metal layers (80a and 80b), wherein each of the first and second reflective metal layers is formed of at least one of Al, Ag, an APC (Ag-Pd-Cu) alloy, and an Au-Ni alloy, wherein the first and second reflective metal layers which are stacked on each other are formed of a different materials, wherein the reflective metal support has a thickness of 50 μ m to 200 μ m, and wherein the first reflective metal layer has a compressive stress, and the second reflective metal layer has a tensile stress.
A connector system comprising a connector fitting (2, 2', 2") for a fluid hose in a vehicle, the connector fitting (2, 2', 2") comprising: a first end for connection to the hose, a second end for connection to parts of a fluid system, and a middle portion positioned in-between the first end and the second end with the middle portion having a shoulder extending in a circumferential direction of the middle portion, and at least one snap-in tongue (16, 16') with a nib; wherein the middle portion comprises a protrusion extending perpendicular to the longitudinal direction of the middle portion, characterized in that the connector system comprises a fixing plate for fixing the connector fitting (2, 2', 2") to an engine part or vehicle part, the shoulder of the middle portion of the connector fitting is arranged for contact with a first surface of the fixing plate when the fixing plate is positioned in such a manner that inner walls of a through-going recess of the fixing plate circumferentially surround the middle portion, the nib of the snap-in tongue (16, 16') is arranged for engaging a second surface of the fixing plate positioned parallel to the first surface such that the fixing plate is fixed in the longitudinal direction of the middle portion between the shoulder and the nib of the snap-in tongue (16, 16'), and the protrusion of the middle portion is positioned adjacent to the shoulder and arranged for engaging a corresponding notch in the through-going recess of the fixing plate to rotationally fix the fixing plate relative to the connector fitting (2, 2', 2"). a first end for connection to the hose, a second end for connection to parts of a fluid system, and a middle portion positioned in-between the first end and the second end with the middle portion having a shoulder extending in a circumferential direction of the middle portion, and at least one snap-in tongue (16, 16') with a nib; wherein the middle portion comprises a protrusion extending perpendicular to the longitudinal direction of the middle portion, characterized in that the connector system comprises a fixing plate for fixing the connector fitting (2, 2', 2") to an engine part or vehicle part, the shoulder of the middle portion of the connector fitting is arranged for contact with a first surface of the fixing plate when the fixing plate is positioned in such a manner that inner walls of a through-going recess of the fixing plate circumferentially surround the middle portion, the nib of the snap-in tongue (16, 16') is arranged for engaging a second surface of the fixing plate positioned parallel to the first surface such that the fixing plate is fixed in the longitudinal direction of the middle portion between the shoulder and the nib of the snap-in tongue (16, 16'), and the protrusion of the middle portion is positioned adjacent to the shoulder and arranged for engaging a corresponding notch in the through-going recess of the fixing plate to rotationally fix the fixing plate relative to the connector fitting (2, 2', 2").
A method for preparing one or two nucleic acid(s) encoding the T cell receptor alpha chain construct and TCR beta chain construct of a TCR construct specific for an epitope from a defined antigen presented on a human MHC, comprising (a) stimulating T cells isolated from a human donor with human professional antigen presenting cells presenting epitopes of said defined antigen, to enrich antigen-specific T cells; and (b) contacting said T cells enriched for antigen-specific T cells of step (a) with a library of cells, wherein each cell expresses a single human MHC allele, wherein the library comprises cells expressing all MHC I or MHC II alleles present in the donor, and wherein the cells of said library present epitopes of said defined antigen; and (c) selecting T cells activated by said contact; and (d) isolating the nucleic acids encoding the TCR alpha and TCR beta chains of the TCR of said T cells. (a) stimulating T cells isolated from a human donor with human professional antigen presenting cells presenting epitopes of said defined antigen, to enrich antigen-specific T cells; and (b) contacting said T cells enriched for antigen-specific T cells of step (a) with a library of cells, wherein each cell expresses a single human MHC allele, wherein the library comprises cells expressing all MHC I or MHC II alleles present in the donor, and wherein the cells of said library present epitopes of said defined antigen; and (c) selecting T cells activated by said contact; and (d) isolating the nucleic acids encoding the TCR alpha and TCR beta chains of the TCR of said T cells.
An atomizing component for an electronic cigarette, comprising: a porous base having an atomization surface; a first coated film formed on the atomization surface; and a second coated film formed on the first coated film; wherein at least one of the first coated film and the second coated film is configured to generate heat when energized; characterized by further comprising a thermal isolation layer formed between the first coated film and the porous base, wherein the thermal isolation layer is configured to protect the porous base. a porous base having an atomization surface; a first coated film formed on the atomization surface; and a second coated film formed on the first coated film; wherein at least one of the first coated film and the second coated film is configured to generate heat when energized; characterized by further comprising a thermal isolation layer formed between the first coated film and the porous base, wherein the thermal isolation layer is configured to protect the porous base.
A method for sealing a freezing bag having multiple compartments containing biological fluid, the method comprising (a) inserting a freezing bag comprising opposing side walls (10, 20) having exterior surfaces (12, 22), a top, and a bottom, and multiple compartments (51, 52, 53, 54, 55), each compartment having an interior volume (51a, 52a, 53a, 54a, 55a) containing biological fluid therein, the bag further comprising a passageway (75; 75a, 75b, 75c, 75d, 75e) providing fluid communication between the compartments, between first and second panels (100, 200) of an open jig, the first and second panels each having an outside surface (102, 202) and an inside surface (101, 201), the inside surfaces forming an interior of the jig, the first and second panels each having a plurality of cut outs (141, 142, 143, 144; 241, 242, 243, 244) at one end of the panels; (b) closing the jig with the bag located in the interior of the jig, such that the inside surfaces of the first and second panels contact the exterior surfaces of the opposing side walls of the bag; (c) applying heat to the bag through the plurality of cut outs; and (d) sealing the passageway and forming a plurality of sealed fluidly isolated biological fluid containing compartments in the bag, each compartment containing about the same volume of biological fluid. (a) inserting a freezing bag comprising opposing side walls (10, 20) having exterior surfaces (12, 22), a top, and a bottom, and multiple compartments (51, 52, 53, 54, 55), each compartment having an interior volume (51a, 52a, 53a, 54a, 55a) containing biological fluid therein, the bag further comprising a passageway (75; 75a, 75b, 75c, 75d, 75e) providing fluid communication between the compartments, between first and second panels (100, 200) of an open jig, the first and second panels each having an outside surface (102, 202) and an inside surface (101, 201), the inside surfaces forming an interior of the jig, the first and second panels each having a plurality of cut outs (141, 142, 143, 144; 241, 242, 243, 244) at one end of the panels; (b) closing the jig with the bag located in the interior of the jig, such that the inside surfaces of the first and second panels contact the exterior surfaces of the opposing side walls of the bag; (c) applying heat to the bag through the plurality of cut outs; and (d) sealing the passageway and forming a plurality of sealed fluidly isolated biological fluid containing compartments in the bag, each compartment containing about the same volume of biological fluid.
A braking system (200, 300), comprising: a brake stack (220, 222, 322, 324); a first electromechanical actuator (202, 302) comprising a first piston; a first hydraulic chamber (211, 314) in fluid communication with the first piston, the first hydraulic chamber mechanically coupled to the first electromechanical actuator; and a second piston (216, 318) in fluid communication with the first hydraulic chamber, the second piston configured to translate towards the brake stack in response to a translation of the first piston, and further comprising a second hydraulic chamber and a second electromechanical actuator (202, 302) comprising a third piston, the second electromechanical actuator being mechanically coupled to the second hydraulic chamber with the third piston in fluid communication with the second hydraulic chamber, the system being characterised in that the second hydraulic chamber is in fluid communication with the first hydraulic chamber (211, 314). a brake stack (220, 222, 322, 324); a first electromechanical actuator (202, 302) comprising a first piston; a first hydraulic chamber (211, 314) in fluid communication with the first piston, the first hydraulic chamber mechanically coupled to the first electromechanical actuator; and a second piston (216, 318) in fluid communication with the first hydraulic chamber, the second piston configured to translate towards the brake stack in response to a translation of the first piston, and further comprising a second hydraulic chamber and a second electromechanical actuator (202, 302) comprising a third piston, the second electromechanical actuator being mechanically coupled to the second hydraulic chamber with the third piston in fluid communication with the second hydraulic chamber, the system being characterised in that the second hydraulic chamber is in fluid communication with the first hydraulic chamber (211, 314).
An organic light-emitting device (OLED) comprising: - a transparent substrate; - a first, transparent electrode layer arranged on said substrate; - one or more organic light-active layers arranged on said first electrode layer; - a second electrode layer arranged on said one or more organic light-active layers; and - a discontinuous layer comprising discrete, nanometer-sized domains (103a, 103b, 103c) of a low refractive index material, arranged randomly distributed, in the plane of the OLED, between said first electrode layer and said one or more organic light-active layers, characterized in that said discrete, randomly distributed domains have an average width in the range of 1 to 500 nm, a refractive index lower than 1.8, wherein the average distance between two adjacent domains is 1 μm or less. - a transparent substrate; - a first, transparent electrode layer arranged on said substrate; - one or more organic light-active layers arranged on said first electrode layer; - a second electrode layer arranged on said one or more organic light-active layers; and - a discontinuous layer comprising discrete, nanometer-sized domains (103a, 103b, 103c) of a low refractive index material, arranged randomly distributed, in the plane of the OLED, between said first electrode layer and said one or more organic light-active layers, characterized in that said discrete, randomly distributed domains have an average width in the range of 1 to 500 nm, a refractive index lower than 1.8, wherein the average distance between two adjacent domains is 1 μm or less.