mhurhangee/ep-ind-claims huggingface dataset:
A method to manufacture a component comprising a single crystal microstructure, the method comprising: additively manufacturing a component, wherein the additively manufactured component comprises a polycrystalline microstructure: encasing the additively manufactured component in a shell mold; wherein encasing the additively manufactured component in the shell mold comprises a process of: (a) dipping the entirety of the component in a ceramic slurry to form a layer of the shell mold on the entirety of the component, such that the layer is a ceramic layer; and (b) drying the layer of the shell mold; and (c) repeating steps (a) and (b) to increase a thickness of the shell mold; curing the shell mold; placing the encased additively manufactured component in a furnace and melting the additively manufactured component to form a melted component; solidifying the melted component in the shell mold to form a solidified component; and removing the shell mold from the solidified component, wherein the solidified component comprises the single crystal microstructure. additively manufacturing a component, wherein the additively manufactured component comprises a polycrystalline microstructure: encasing the additively manufactured component in a shell mold; wherein encasing the additively manufactured component in the shell mold comprises a process of: (a) dipping the entirety of the component in a ceramic slurry to form a layer of the shell mold on the entirety of the component, such that the layer is a ceramic layer; and (b) drying the layer of the shell mold; and (c) repeating steps (a) and (b) to increase a thickness of the shell mold; (a) dipping the entirety of the component in a ceramic slurry to form a layer of the shell mold on the entirety of the component, such that the layer is a ceramic layer; and (b) drying the layer of the shell mold; and (c) repeating steps (a) and (b) to increase a thickness of the shell mold; curing the shell mold; placing the encased additively manufactured component in a furnace and melting the additively manufactured component to form a melted component; solidifying the melted component in the shell mold to form a solidified component; and removing the shell mold from the solidified component, wherein the solidified component comprises the single crystal microstructure.
Method for producing a molded component, comprising the steps - Providing a metallic raw material of an aluminum magnesium scandium alloy (AIMgSc); - Heating the raw material to a processing temperature; - Molding of the raw material to obtain a molded component having a desired geometry using a mold tool; - Maintaining the processing temperature for a defined period of time after molding to reduce stress in the molded component; - Cooling the molded component; and - Reworking of the molded component; wherein the processing temperature is between 220°C and 280°C; characterized in that the molding of the molding component is performed as a plastic molding; while maintaining the processing temperature, the molded component is held in the mold tools for a defined period of time to relieve stresses in the molded component; the reworking of the molded component is a forming of a non-orthogonal framework structure; the raw material as a thick plate or rather is formed as a massive material. - Providing a metallic raw material of an aluminum magnesium scandium alloy (AIMgSc); - Heating the raw material to a processing temperature; - Molding of the raw material to obtain a molded component having a desired geometry using a mold tool; - Maintaining the processing temperature for a defined period of time after molding to reduce stress in the molded component; - Cooling the molded component; and - Reworking of the molded component;
A composition comprising: - a continuous aqueous phase, and - a discontinuous phase that comprises plasticized MQ-type resin and/or derivatives thereof, and/or plasticized MT-type resin and/or derivatives thereof, - a surfactant system comprising: ∘ at least one water soluble salt of a fatty acid and at least one alkali metal, ∘ PEG-9 polydimethylsiloxyethyl dimethicone and/or PEG-10 dimethicone, and ∘ one or more sugar fatty acid esters and/or derivatives thereof, that exhibit oil-in-water emulsifying activity, wherein the discontinuous phase is emulsified in the aqueous phase. - a continuous aqueous phase, and - a discontinuous phase that comprises plasticized MQ-type resin and/or derivatives thereof, and/or plasticized MT-type resin and/or derivatives thereof, - a surfactant system comprising: ∘ at least one water soluble salt of a fatty acid and at least one alkali metal, ∘ PEG-9 polydimethylsiloxyethyl dimethicone and/or PEG-10 dimethicone, and ∘ one or more sugar fatty acid esters and/or derivatives thereof, that exhibit oil-in-water emulsifying activity, ∘ at least one water soluble salt of a fatty acid and at least one alkali metal, ∘ PEG-9 polydimethylsiloxyethyl dimethicone and/or PEG-10 dimethicone, and ∘ one or more sugar fatty acid esters and/or derivatives thereof, that exhibit oil-in-water emulsifying activity,
Through-axle for attaching a bicycle wheel to the frame of a bicycle, comprising an axle extending along a longitudinal axis and having a central part flanked by two ends, the first of the said two ends comprising a threaded portion able to engage with a tapped thread formed in a first portion of the bicycle frame, the second end for its part being provided with axial-abutment means intended to come into contact with a second portion of the bicycle frame as well as drive means intended to allow a user to apply alternatively either a tightening torque or a loosening torque, a torque limiter that is operational in the tightening direction being positioned between the said driving means and the said axle, characterized in that the through-axle further comprises a braking device able to increase the torque needed to initiate rotation of the driving means in the direction of loosening, the said braking device comprising two friction surfaces which are in contact with one another when the axial-abutment means are in contact with the second frame portion; and in that the torque limiter is operational when the tightening torque exerted by the user nears the breakover threshold which immediately results in the two friction surfaces moving away from one another, thus putting the braking device out of action.
A storage installation, comprising: a structure (100, 100') intended to be fixed to a vertical wall, the structure comprising at least one first upper crossbar, at least one second upper crossbar disposed under the first upper crossbar and at least one first lower crossbar, the crossbars being parallel and transversally distant from each other; at least one storage accessory (200, 200', 200", 200"', 200"") arranged to be removably mounted to the structure (100, 100'), said storage accessory comprising at least one fastening device (210, 210') arranged to be removably hooked to the structure, characterized in that said fastening device has an upper end part configured to cooperate with an upper part of the first upper crossbar by being engaged between the first upper crossbar and the second upper crossbar, and a lower end part configured to cooperate with the first lower crossbar. a structure (100, 100') intended to be fixed to a vertical wall, the structure comprising at least one first upper crossbar, at least one second upper crossbar disposed under the first upper crossbar and at least one first lower crossbar, the crossbars being parallel and transversally distant from each other; at least one storage accessory (200, 200', 200", 200"', 200"") arranged to be removably mounted to the structure (100, 100'), said storage accessory comprising at least one fastening device (210, 210') arranged to be removably hooked to the structure, characterized in that said fastening device has an upper end part configured to cooperate with an upper part of the first upper crossbar by being engaged between the first upper crossbar and the second upper crossbar, and a lower end part configured to cooperate with the first lower crossbar.
A method for enabling subscription profile download to a subscriber entity, the method being performed by a network node of a stand-alone non-public network,SNPN,, the method comprising: receiving a request from the subscriber entity for network registration with EAP based authentication to the SNPN; and granting network connectivity for the subscriber entity to the SNPN by completing the network registration upon successful EAP based authentication of the subscriber entity and upon verification that there is a pending subscription profile available for download to the subscriber entity, the network connectivity enabling subscription profile download to the subscriber entity. receiving a request from the subscriber entity for network registration with EAP based authentication to the SNPN; and granting network connectivity for the subscriber entity to the SNPN by completing the network registration upon successful EAP based authentication of the subscriber entity and upon verification that there is a pending subscription profile available for download to the subscriber entity, the network connectivity enabling subscription profile download to the subscriber entity.
A bioreactor (1;11;21) comprising a vessel (2;22) defining an inner volume (3;23), agitation means (4;24) and at least one addition tube (5;25), wherein a delivery orifice (6;26) in said addition tube is located within said inner volume and a check valve (7;27) is arranged in proximity of the delivery orifice for allowing flow of a fluid in the direction from the addition tube into the inner volume (3;23) and blocking flow in the reverse direction.
A mobile communication system, comprising: a plurality of devices that form a group; a server; a first network node; and a second network node, wherein: the server is configured to send, to the first network node, a request message including an external group ID, the first network node is configured to perform authorization to the server, the first network node is configured to receive information from the second network node that maps the external group ID to an internal group ID, and the first network node is configured to forward the request message toward each of the plurality of devices based on the information. a plurality of devices that form a group; a server; a first network node; and a second network node, wherein: the server is configured to send, to the first network node, a request message including an external group ID, the first network node is configured to perform authorization to the server, the first network node is configured to receive information from the second network node that maps the external group ID to an internal group ID, and the first network node is configured to forward the request message toward each of the plurality of devices based on the information. the server is configured to send, to the first network node, a request message including an external group ID, the first network node is configured to perform authorization to the server, the first network node is configured to receive information from the second network node that maps the external group ID to an internal group ID, and the first network node is configured to forward the request message toward each of the plurality of devices based on the information.
A method of making a luggage shell, the method comprising: providing a plurality of films; laminating the plurality of films together to form a laminate; and moulding the laminate to form a luggage shell; wherein: the films have a core of a biaxially oriented thermoplastic polymer and an outer layer of a thermoplastic polymer on each of the top and bottom side of the core; and the films are laminated at a temperature of 130°C or less, and at a pressure of 10 bar or less. providing a plurality of films; laminating the plurality of films together to form a laminate; and moulding the laminate to form a luggage shell; wherein: the films have a core of a biaxially oriented thermoplastic polymer and an outer layer of a thermoplastic polymer on each of the top and bottom side of the core; and the films are laminated at a temperature of 130°C or less, and at a pressure of 10 bar or less. the films have a core of a biaxially oriented thermoplastic polymer and an outer layer of a thermoplastic polymer on each of the top and bottom side of the core; and the films are laminated at a temperature of 130°C or less, and at a pressure of 10 bar or less.
A bispecific antibody comprising a first antibody and a second antibody joined to each other wherein said first antibody has binding specificity for at least one epitope on HER2/neu, and the second antibody has binding specificity for a second epitope on HER3, and wherein said first antibody comprises: a VH domain comprising the C6B1D2 VH CDR1 sequence SYWIA, the C6B1D2 VH CDR2 sequence LIYPGDSDTKYSPSFQG, and the C6B1D2 VH CDR3 sequence HDVGYCTDRTCAKWPEWLGV; and a VL domain comprising C6B1D2 VL CDR1 sequence SGSSSNIGNNYVS, the C6B1D2 VL CDR2 sequence DHTNRPA, and the C6B1D2VL CDR3 sequence ASWDYTLSGWV; and further wherein said second antibody comprises the CDRs of the antibody HER3.H3 (SEQ ID NO:4). a VH domain comprising the C6B1D2 VH CDR1 sequence SYWIA, the C6B1D2 VH CDR2 sequence LIYPGDSDTKYSPSFQG, and the C6B1D2 VH CDR3 sequence HDVGYCTDRTCAKWPEWLGV; and a VL domain comprising C6B1D2 VL CDR1 sequence SGSSSNIGNNYVS, the C6B1D2 VL CDR2 sequence DHTNRPA, and the C6B1D2VL CDR3 sequence ASWDYTLSGWV; and further wherein said second antibody comprises the CDRs of the antibody HER3.H3 (SEQ ID NO:4).
A process for the production of an automotive OEM multi-layer coating, comprising the steps: applying a base coat layer onto an automotive substrate, applying a clear top coat layer onto the base coat layer, and jointly curing the base coat and clear top coat layers, wherein the base coat layer is applied from a modified water-borne base coat produced by mixing an unmodified water-borne base coat with a polyisocyanate crosslinker component making use of a static mixer, and wherein the polyisocyanate crosslinker component comprises at least one polyisocyanate crosslinker and γ-butyrolactone as water-miscible solvent. applying a base coat layer onto an automotive substrate, applying a clear top coat layer onto the base coat layer, and jointly curing the base coat and clear top coat layers,
An occlusion crossing system, the system comprising: an outer shaft (2604, 3101, 3303, 3503, 3603) defining a lumen and a distal opening (3109, 3708) that is angled relative to a central axis of the outer shaft (3303, 3503, 3603) to form a distal-most tip (3113, 3719), and a first engagement region within the lumen; and an inner shaft (2605, 3103, 3305, 3505) extending within the lumen and configured to rotate with respect to the outer shaft, the inner shaft including a distal end having a fluted tip (3410, 3508) that is configured to extend through the distal opening, a side-facing optical coherence tomography imaging window (3135, 3432, 3536, 3814) on a lateral side of the inner shaft at a distal end region of the inner shaft, and a second engagement region (3519, 3619) on an outer surface of the inner shaft configured to engage with the first engagement region to limit a distal movement of the inner shaft within the outer shaft; wherein the distal-most tip of the distal opening is configured to occlude the OCT imaging window at a defined rotational position as the inner shaft is rotated relative to the outer shaft while the first engagement region is engaged with the second engagement region, to provide a registration mark for OCT imaging. an outer shaft (2604, 3101, 3303, 3503, 3603) defining a lumen and a distal opening (3109, 3708) that is angled relative to a central axis of the outer shaft (3303, 3503, 3603) to form a distal-most tip (3113, 3719), and a first engagement region within the lumen; and an inner shaft (2605, 3103, 3305, 3505) extending within the lumen and configured to rotate with respect to the outer shaft, the inner shaft including a distal end having a fluted tip (3410, 3508) that is configured to extend through the distal opening, a side-facing optical coherence tomography imaging window (3135, 3432, 3536, 3814) on a lateral side of the inner shaft at a distal end region of the inner shaft, and a second engagement region (3519, 3619) on an outer surface of the inner shaft configured to engage with the first engagement region to limit a distal movement of the inner shaft within the outer shaft; wherein the distal-most tip of the distal opening is configured to occlude the OCT imaging window at a defined rotational position as the inner shaft is rotated relative to the outer shaft while the first engagement region is engaged with the second engagement region, to provide a registration mark for OCT imaging.
An image displaying apparatus comprising: a signal control unit for receiving an input image signal and converting the signal into a signal for alternately in time sequential manner displaying a right-eye image and a left-eye image; a display panel into which the signal converted in the signal control unit is input for alternately in time sequential manner displaying the right-eye image and the left-eye image; a surface light source for illuminating the display panel from its back; a pair of viewing glasses with a respective pair of liquid crystal shutters (200a, 200b) as right-eye and left-eye shutters each capable of performing an opening/closing operation in accordance with a timing signal; a surface light source control unit for causing the surface light source to emit light in each shutter-opened period of said liquid crystal shutters for a period (t30-t31; t32-t33) substantially shorter than the shutter-opened period (t40-t41; t42-t43) and synchronized with said alternately displaying the right-eye image and the left-eye image; and a shutter control unit for generating said timing signal indicating a period in which the right-eye and left-eye shutters (200a, 200b) are opened for said pair of viewing glasses, and for relatively changing the shutter-opened period for the emission timing of the surface light source such that the shutter-opened periods can be variably time-shifted by a same amount with respect to the light emission periods. a signal control unit for receiving an input image signal and converting the signal into a signal for alternately in time sequential manner displaying a right-eye image and a left-eye image; a display panel into which the signal converted in the signal control unit is input for alternately in time sequential manner displaying the right-eye image and the left-eye image; a surface light source for illuminating the display panel from its back; a pair of viewing glasses with a respective pair of liquid crystal shutters (200a, 200b) as right-eye and left-eye shutters each capable of performing an opening/closing operation in accordance with a timing signal; a surface light source control unit for causing the surface light source to emit light in each shutter-opened period of said liquid crystal shutters for a period (t30-t31; t32-t33) substantially shorter than the shutter-opened period (t40-t41; t42-t43) and synchronized with said alternately displaying the right-eye image and the left-eye image; and a shutter control unit for generating said timing signal indicating a period in which the right-eye and left-eye shutters (200a, 200b) are opened for said pair of viewing glasses, and for relatively changing the shutter-opened period for the emission timing of the surface light source such that the shutter-opened periods can be variably time-shifted by a same amount with respect to the light emission periods.
A nucleic acid construct comprising at least one structural gene of interest functionally linked to a heterologous promoter and one or more control sequences selected from the nucleic acid sequence SEQ ID NO: 1 and its complement, wherein the one or more control sequences are amplifiable using oligonucleotides selected from the group consisting of SEQ ID NOS: 4-7.
A rotating electrical machine comprising: a housing having an approximately cylindrical shape; a stator and a rotor which are accommodated in the housing; and a cooling frame which is provided on an outer circumferential surface of the housing and in which a first liquid refrigerant is circulated, wherein the cooling frame has a partially cylindrical shape, a flow path of the first liquid refrigerant is formed in a clearance between the cooling frame and the housing, and a sealing member for sealing the first liquid refrigerant, characterized in that, the cooling frame is capable of being attached to an arbitrary position of the outer circumferential surface of the housing by bolt fastening at a plurality of locations. a housing having an approximately cylindrical shape; a stator and a rotor which are accommodated in the housing; and a cooling frame which is provided on an outer circumferential surface of the housing and in which a first liquid refrigerant is circulated, wherein the cooling frame has a partially cylindrical shape, a flow path of the first liquid refrigerant is formed in a clearance between the cooling frame and the housing, and a sealing member for sealing the first liquid refrigerant, characterized in that, the cooling frame is capable of being attached to an arbitrary position of the outer circumferential surface of the housing by bolt fastening at a plurality of locations.
A method for managing a link connection between nodes, comprising: setting up, by a first mobile node, link connections with a plurality of peer network nodes separately through a network interface setup process, wherein a network interface comprising at least one of Next Generation, NG, interface, F1 interface and Xn interface of Transport Network Layer, TNL interface; said method being characterised by further comprising the steps of setting up, by the first mobile node, the link connections with the plurality of peer network nodes separately through the network interface setup process comprises: dividing, by the first mobile node, a plurality of local serving cells subordinate to the first mobile node into a plurality of local cell sets; and initiating, by each of the plurality of local cell sets over a corresponding network interface, setup processes of link connections with at least two of the plurality of peer network nodes, and interacting with the at least two of the plurality of peer network nodes about respective configuration information. setting up, by a first mobile node, link connections with a plurality of peer network nodes separately through a network interface setup process, wherein a network interface comprising at least one of Next Generation, NG, interface, F1 interface and Xn interface of Transport Network Layer, TNL interface; said method being characterised by further comprising the steps of setting up, by the first mobile node, the link connections with the plurality of peer network nodes separately through the network interface setup process comprises: dividing, by the first mobile node, a plurality of local serving cells subordinate to the first mobile node into a plurality of local cell sets; and initiating, by each of the plurality of local cell sets over a corresponding network interface, setup processes of link connections with at least two of the plurality of peer network nodes, and interacting with the at least two of the plurality of peer network nodes about respective configuration information. dividing, by the first mobile node, a plurality of local serving cells subordinate to the first mobile node into a plurality of local cell sets; and initiating, by each of the plurality of local cell sets over a corresponding network interface, setup processes of link connections with at least two of the plurality of peer network nodes, and interacting with the at least two of the plurality of peer network nodes about respective configuration information.