mhurhangee/ep-ind-claims huggingface dataset:
A method implemented in an identity document comprising a microcircuit and means enabling the microcircuit to communicate with a terminal (S.I.), the microcircuit being designed to permit the transmission of data obtained from data stored in a storage zone in response to a request (rq) received from said terminal (S.I.), the method comprising the following steps: - reception by the microcircuit of an identifier (id) of said terminal (S.I.), and - identification of said terminal (S.I.) by comparing at least partially said identifier (id) of said terminal (S.I.) with distinct identifiers (id1, id2, idi) or portions of identifiers stored in the microcircuit, the method being characterised in that it further comprises the following steps: - determination of an action (Ai) to be performed, said action (Ai) being selected, as a function of the identifier (id) of the terminal (S.I.), among distinct actions (A1, A2, Ai) respectively associated to said identifiers (id1, id2, idi) or portions of identifiers in a memory module of the microcircuit; and - performance, by the microcircuit, of the action (Ai) previously determined, at least two of said actions (A1, A2, Ai), respectively associated to said identifiers (id1, id2, idi) or portions of identifiers in the memory module of the microcircuit, respectively corresponding to two distinct changes of said data stored in the storage zone. - reception by the microcircuit of an identifier (id) of said terminal (S.I.), and - identification of said terminal (S.I.) by comparing at least partially said identifier (id) of said terminal (S.I.) with distinct identifiers (id1, id2, idi) or portions of identifiers stored in the microcircuit, - determination of an action (Ai) to be performed, said action (Ai) being selected, as a function of the identifier (id) of the terminal (S.I.), among distinct actions (A1, A2, Ai) respectively associated to said identifiers (id1, id2, idi) or portions of identifiers in a memory module of the microcircuit; and - performance, by the microcircuit, of the action (Ai) previously determined,
A method comprising: contacting a material with a first catalyst in a vapor phase, the material comprising: an uncured polymer comprising a siloxane polymer; a second catalyst; and particles that inhibit the second catalyst; and after said contacting a material, curing the uncured polymer, wherein the first catalyst in a vapor phase comprises a silane-organic base. contacting a material with a first catalyst in a vapor phase, the material comprising: an uncured polymer comprising a siloxane polymer; a second catalyst; and particles that inhibit the second catalyst; and an uncured polymer comprising a siloxane polymer; a second catalyst; and particles that inhibit the second catalyst; and after said contacting a material, curing the uncured polymer,
A method for game data processing, performed by a server and comprising: obtaining a data processing instruction from a client; determining a group to which a logged-in user of the client belongs based on user information in the data processing instruction; determining a target thread corresponding to the group from a plurality of data processing threads of the server, wherein a corresponding data processing thread of the plurality of data processing threads is configured for each group in the server; and executing the data processing instruction by the target thread, so as to process, by the target thread, user data corresponding to the user information in a memory of the server, characterized in that the method further comprises, prior to obtaining the data processing instruction from the client: selecting from all users a target user satisfying a predetermined rule based on server start information, wherein the predetermined rule comprises: an online time length of a user within a predetermined time interval being larger than or equal to a predetermined time length; and loading user data of the target user into the memory of the server. obtaining a data processing instruction from a client; determining a group to which a logged-in user of the client belongs based on user information in the data processing instruction; determining a target thread corresponding to the group from a plurality of data processing threads of the server, wherein a corresponding data processing thread of the plurality of data processing threads is configured for each group in the server; and executing the data processing instruction by the target thread, so as to process, by the target thread, user data corresponding to the user information in a memory of the server, characterized in that the method further comprises, prior to obtaining the data processing instruction from the client: selecting from all users a target user satisfying a predetermined rule based on server start information, wherein the predetermined rule comprises: an online time length of a user within a predetermined time interval being larger than or equal to a predetermined time length; and loading user data of the target user into the memory of the server.
Horizontal form-fill-seal process for manufacturing a multiple pouch, the process comprising: - presenting a pair of opposing sealable films; - bonding the films to one another with substantially vertical seals; - cutting the opposing films to form a multiple pouch section (8,18) comprising at least one pouch part connected to multiple other pouch parts by seals at common side edges; and characterized in that said process further comprising: - compressing the multiple pouch section (8,18) along a general longitudinal axis of the section by compressing the outermost edges of the multiple pouch section towards each other to move them towards a point midway between the said two outermost edges by a substantially equal amount so as to provide an opening for each pouch part, wherein the common side edges are perforated along the substantially vertical seal to assist separation of pouch parts. - presenting a pair of opposing sealable films; - bonding the films to one another with substantially vertical seals; - cutting the opposing films to form a multiple pouch section (8,18) comprising at least one pouch part connected to multiple other pouch parts by seals at common side edges; and characterized in that said process further comprising: - compressing the multiple pouch section (8,18) along a general longitudinal axis of the section by compressing the outermost edges of the multiple pouch section towards each other to move them towards a point midway between the said two outermost edges by a substantially equal amount so as to provide an opening for each pouch part, wherein the common side edges are perforated along the substantially vertical seal to assist separation of pouch parts. - compressing the multiple pouch section (8,18) along a general longitudinal axis of the section by compressing the outermost edges of the multiple pouch section towards each other to move them towards a point midway between the said two outermost edges by a substantially equal amount so as to provide an opening for each pouch part, wherein the common side edges are perforated along the substantially vertical seal to assist separation of pouch parts.
A process for the production of hydrocarbon fluids for use as solvents, light oils, extender oils or viscosity depressants, said hydrocarbon fluids having sulphur levels below 10 ppm as measured by ASTM D-4045, an ASTM D-86 boiling range in the range 100°C to 400°C, the boiling range being no greater than 75°C, and at least 40 wt % naphthenics, in which process a vacuum gas oil having a specific gravity in the range 0.86 to 0.94, an ASTM D-1160 initial boiling point in the range 240°C to 370°C and an ASTM D-1160 final boiling point in the range 380°C to 610°C, is subjected to hydrocracking to obtain a hydrocracked vacuum gas oil containing from 1 to 15 ppm sulphur and from 3 to 30 wt % aromatics, and in which process a product cut of said hydrocracked vacuum gas oil that has an ASTM D-86 boiling range within 100°C to 400°C, is fractionated and then hydrogenated to produce said hydrocarbon fluid; or is hydrogenated and then fractionated to produce said hydrocarbon fluid.
A cylinder head (1, 100, 200, 300) with at least one fuel guiding section (1A, 100A, 200A, 300A) for an internal combustion engine configured to be operated with gaseous or liquid fuel, the fuel guiding section (1A, 100A, 200A, 300A) comprising: a fuel inlet valve casing (40, 140, 240, 340) for accommodating a fuel inlet valve (50, 150, 250, 350) configured to control a fuel flow rate; a fuel/air mixing chamber (20, 120, 220, 320) for mixing the fuel with air; and a fuel guiding portion (30, 130, 230, 330) connecting the fuel inlet valve casing (40, 140, 240, 340) to the fuel/air mixing chamber (20, 120, 220, 320), wherein the fuel guiding portion (30, 130, 230, 330) is integrally formed with the cylinder head (1, 100, 200, 300) and defines at least a first fuel feeding passage (33, 133, 233, 331) and at least a second fuel feeding passage (34, 134, 234, 332), the first fuel feeding passage (33, 133, 233, 331) and the second fuel feeding passage (34, 134, 234, 332) extending from the fuel inlet valve casing (40, 140, 240, 340) to the fuel/air mixing chamber (20, 120, 220, 320). a fuel inlet valve casing (40, 140, 240, 340) for accommodating a fuel inlet valve (50, 150, 250, 350) configured to control a fuel flow rate; a fuel/air mixing chamber (20, 120, 220, 320) for mixing the fuel with air; and a fuel guiding portion (30, 130, 230, 330) connecting the fuel inlet valve casing (40, 140, 240, 340) to the fuel/air mixing chamber (20, 120, 220, 320), wherein the fuel guiding portion (30, 130, 230, 330) is integrally formed with the cylinder head (1, 100, 200, 300) and defines at least a first fuel feeding passage (33, 133, 233, 331) and at least a second fuel feeding passage (34, 134, 234, 332), the first fuel feeding passage (33, 133, 233, 331) and the second fuel feeding passage (34, 134, 234, 332) extending from the fuel inlet valve casing (40, 140, 240, 340) to the fuel/air mixing chamber (20, 120, 220, 320).
A method for generating modified stem cells containing a complete or partial gene deletion of gene H of the blood group antigen biosynthesis or transportation pathway that renders the product of gene H non-functional or having reduced function with respect to the synthesis of the ABO blood group antigen, the method comprising: providing collected stem cells containing a target polynucleotide associated with gene H of the blood group antigen biosynthesis or transportation pathway; introducing a transcription activator-like effector nuclease into the stem cells to generate the modified stem cells; isolating the modified stem cells; and culturing in a culture media the modified stem cells containing a complete or partial gene deletion of gene H; and wherein multiple TAL effector repeat sequences bind to the target polynucleotide of gene H of the BGA biosynthesis or transportation pathway. providing collected stem cells containing a target polynucleotide associated with gene H of the blood group antigen biosynthesis or transportation pathway; introducing a transcription activator-like effector nuclease into the stem cells to generate the modified stem cells; isolating the modified stem cells; and culturing in a culture media the modified stem cells containing a complete or partial gene deletion of gene H; and wherein multiple TAL effector repeat sequences bind to the target polynucleotide of gene H of the BGA biosynthesis or transportation pathway.
A method of controlling an electric system (5; 60) comprising a first control circuit and a plurality of modules (E i) arranged in series between first and second terminals (Phase, Neutral), each module (E i) comprising third and fourth terminals (B+, B-), at least one of the third and fourth terminals of each module being coupled to one of the third and fourth terminals of another module, each module comprising electric cells (C 1, C 2, C 3, C 4), each corresponding to an electric charge storage element, and switches (SW 1,1, SW 2,1, SW 3, SW 4) coupling the electric cells to one another and to the third and fourth terminals of the module, and a second switch control circuit, the electric system further comprising at least one first data transmission bus (BUS; BUS0, BUS1), coupling the first control circuit to each second control circuit, the first control circuit comprising a memory having chained lists stored therein, each chained list comprising elements each comprising an identifier of one of the electric cells and at least one first pointer designating another element in the chained list, each chained list comprises a classification of the identifiers of the chained list according to at least one criterium selected in the group comprising the temperature of the electric cell, the state of charge of the electric cell, the voltage across the electric cell, the internal impedance of the cell electric cell, and the state of health of the electric cell, the method being characterized by the steps of: a) reception, by the first control circuit, of a set point; b) transmission, by the first control circuit to the second control circuits, of first control signals for the connection or the disconnection of at least one of the electric cells of the modules to follow said set point, the first control signals being determined based on the chained lists; and c) transmission, by the first control circuit to the second control circuits, of second control signals for the connection of one of the electric cells and the disconnection of another electric cell among the electric cells, the second control signals being determined based on the chained lists. a) reception, by the first control circuit, of a set point; b) transmission, by the first control circuit to the second control circuits, of first control signals for the connection or the disconnection of at least one of the electric cells of the modules to follow said set point, the first control signals being determined based on the chained lists; and c) transmission, by the first control circuit to the second control circuits, of second control signals for the connection of one of the electric cells and the disconnection of another electric cell among the electric cells, the second control signals being determined based on the chained lists.
A camera module comprising: a moving lens including a first moving lens unit movably arranged in an optical axis direction, and a second moving lens unit arranged under the first moving lens; a fixed lens arranged under the moving lens; a first driving unit coupled to one side of the first moving lens unit to move the first moving lens unit in the optical axis direction; a second driving unit coupled to one side of the second moving lens unit to move the second moving lens unit in the optical axis direction; a first sensing unit disposed on the first driving unit; a second sensing unit disposed under the first driving unit; a third sensing unit disposed on the second driving unit; and a fourth sensing unit disposed under the second driving unit. a moving lens including a first moving lens unit movably arranged in an optical axis direction, and a second moving lens unit arranged under the first moving lens; a fixed lens arranged under the moving lens; a first driving unit coupled to one side of the first moving lens unit to move the first moving lens unit in the optical axis direction; a second driving unit coupled to one side of the second moving lens unit to move the second moving lens unit in the optical axis direction; a first sensing unit disposed on the first driving unit; a second sensing unit disposed under the first driving unit; a third sensing unit disposed on the second driving unit; and a fourth sensing unit disposed under the second driving unit.
A flap valve device intended to be implanted in a dysfunctional larynx, said device comprising a distal portion forming an annular bearing structure and a central portion forming a shutter intended to allow air to pass and to hermetically prevent any other element from passing, the shutter comprises i) a peripheral part forming a first valve flap secured to the annular bearing structure at a first hinge region, and ii) a central part forming a second valve flap secured to the first valve flap at a second hinge region, and a means forming a collar or skirt for fixing the intralaryngeal prosthesis into, and removing it from, a dysfunctional larynx situated below the annular bearing structure, characterized in that the annular bearing structure and the two valve flaps and that form the shutter are made of solid metal.
A nuclear reactor fuel assembly, comprising: a bundle of fuel rods; guide channels; two nozzles (4, 5), one of the nozzles (4, 5) having a bearing plate with openings; elements for the detachable connection of the nozzles (4, 5) to the guide channels; a locking device for the detachable connection and a fastening means for the locking device, whereby the elements for the detachable connection of the nozzles (4, 5) to the guide channels have a cross-section size greater than the size of the openings in the bearing plate, said elements are designed in such a way that their cross-section can be decreased to enable passage through the opening in the bearing plate of the nozzle (4, 5), and said elements are secured in the guide channels; and the locking device is provided with bushes which secure the elements for the detachable connection of the nozzles (4, 5)to the guide channels in the openings in the bearing plate of the nozzle (4, 5), and characterized in that all bushes of the locking device are made as a single component. a bundle of fuel rods; guide channels; two nozzles (4, 5), one of the nozzles (4, 5) having a bearing plate with openings; elements for the detachable connection of the nozzles (4, 5) to the guide channels; a locking device for the detachable connection and a fastening means for the locking device, whereby the elements for the detachable connection of the nozzles (4, 5) to the guide channels have a cross-section size greater than the size of the openings in the bearing plate, said elements are designed in such a way that their cross-section can be decreased to enable passage through the opening in the bearing plate of the nozzle (4, 5), and said elements are secured in the guide channels; and the locking device is provided with bushes which secure the elements for the detachable connection of the nozzles (4, 5)to the guide channels in the openings in the bearing plate of the nozzle (4, 5), and characterized in that all bushes of the locking device are made as a single component.
A three dimensional implantation device formed of a flexible membrane, wherein the membrane is capable of supporting at least one of cell adherence, cell proliferation or cell differentiation and comprises at least one positively charged synthetic, hydrophobic polymer, at least one hydrophilic polymer and at least one plasticizer, wherein both said hydrophilic polymer and said plasticizer are polyethylene glycol ranging from 300-20,000.
A data center, wherein the data center comprises N computing devices and T power modules; each power module in the T power modules comprises a first power device and a bus; the bus comprises a first electrical connection end, N intermediate ends (k 1, k 2,..., k N), and a second electrical connection end; the first electrical connection end is connected to the first power device; the N intermediate ends (k 1, k 2,..., k N) are respectively connected to the N computing devices; characterized in that: the bus further comprises a plug-in node disposed between an (I-1) th intermediate end (k I-1) and an I th intermediate end (k I) of the N intermediate ends (k 1, k 2,..., k N); wherein the plug-in node is configured to divide the bus into a first subline and a second subline, wherein T is a positive integer, N and I are positive integers greater than or equal to 2, and it is satisfied that I<N; and for at least one power module in the T power modules, when the data center needs to be expanded, a second power device for expansion is configured to be added to the data center, such that: before the data center is expanded, the plug-in node of the at least one power module is configured to communicate the first subline with the second subline, and the second electrical connection end of the at least one power module is idle; and after the data center is expanded, the plug-in node of the at least one power module is configured to disconnect the first subline and the second subline, and the second electrical connection end of the at least one power module is connected to the second power device for expansion. the bus further comprises a plug-in node disposed between an (I-1) th intermediate end (k I-1) and an I th intermediate end (k I) of the N intermediate ends (k 1, k 2,..., k N); wherein the plug-in node is configured to divide the bus into a first subline and a second subline, wherein T is a positive integer, N and I are positive integers greater than or equal to 2, and it is satisfied that I<N; and for at least one power module in the T power modules, when the data center needs to be expanded, a second power device for expansion is configured to be added to the data center, such that: before the data center is expanded, the plug-in node of the at least one power module is configured to communicate the first subline with the second subline, and the second electrical connection end of the at least one power module is idle; and after the data center is expanded, the plug-in node of the at least one power module is configured to disconnect the first subline and before the data center is expanded, the plug-in node of the at least one power module is configured to communicate the first subline with the second subline, and the second electrical connection end of the at least one power module is idle; and after the data center is expanded, the plug-in node of the at least one power module is configured to disconnect the first subline and the second subline, and the second electrical connection end of the at least one power module is connected to the second power device for expansion.