mhurhangee/ep-ind-claims huggingface dataset:
A device for controlling memory-usage of at least one functional component, the device comprising a processor system configured to: - reserve a portion of a virtual memory, the reserved portion of the virtual memory comprising one or more mutually non-overlapping and contiguous virtual memory pages (112-116, 312-316), - form mapping (128, 328) between the virtual memory pages and physical memory areas (117-119, 317-319) implemented with a physical memory, a first one (117, 317) of the physical memory areas being mapped to a first one (116, 316) of the virtual memory pages, and - write, to one or more of the physical memory areas mapped to the virtual memory pages, data items enabling accesses to the physical memory areas, a first one (125a, 325) of the data items enabling access to the first one (117, 317) of the physical memory areas, and characterised in that, in order to enable the functional component to access to the first one of the physical memory areas, the processor system is further configured to: - translate a virtual memory address related to the first one of the virtual memory pages to a corresponding physical memory address in accordance with the mapping, - use the physical memory address for reading, from the physical memory, the first one of the data items that enables access to the first one of the physical memory areas, and - deliver information indicated by the read data item to the functional component so as to enable the functional component to access to the first one of the physical memory areas. - reserve a portion of a virtual memory, the reserved portion of the virtual memory comprising one or more mutually non-overlapping and contiguous virtual memory pages (112-116, 312-316), - form mapping (128, 328) between the virtual memory pages and physical memory areas (117-119, 317-319) implemented with a physical memory, a first one (117, 317) of the physical memory areas being mapped to a first one (116, 316) of the virtual memory pages, and - write, to one or more of the physical memory areas mapped to the virtual memory pages, data items enabling accesses to the physical memory areas, a first one (125a, 325) of the data items enabling access to the first one (117, 317) of the physical memory areas, - translate a virtual memory address related to the first one of the virtual memory pages to a corresponding physical memory address in accordance with the mapping, - use the physical memory address for reading, from the physical memory, the first one of the data items that enables access to the first one of the physical memory areas, and - deliver information indicated by the read data item to the functional component so as to enable the functional component to access to the first one of the physical memory areas.
An inkjet ink composition comprising: a. an ink vehicle including water; b. a white metal oxide pigment dispersed in the ink vehicle; and c. a latex binder dispersed in the ink vehicle including: i. a first heteropolymer including two or more aliphatic (meth)acrylate ester monomers or two or more aliphatic (meth)acrylamide monomers; and ii. a second heteropolymer including a cycloaliphatic monomer and an aromatic monomer. a. an ink vehicle including water; b. a white metal oxide pigment dispersed in the ink vehicle; and c. a latex binder dispersed in the ink vehicle including: i. a first heteropolymer including two or more aliphatic (meth)acrylate ester monomers or two or more aliphatic (meth)acrylamide monomers; and ii. a second heteropolymer including a cycloaliphatic monomer and an aromatic monomer. i. a first heteropolymer including two or more aliphatic (meth)acrylate ester monomers or two or more aliphatic (meth)acrylamide monomers; and ii. a second heteropolymer including a cycloaliphatic monomer and an aromatic monomer.
An air freshener composition, characterized in that the air freshener composition comprises component A and component B, wherein a weight ratio of the component A to the component B is 1: 0.5-3; the component A comprises, in parts by weight, 10-30 parts by weight of an active agent, 6-15 parts by weight of a carrier, 1-4 parts by weight of a pH regulator, and 0.01-0.2 part by weight of an antioxidant; the active agent comprises a compound containing at least two hydroxyl groups; and the carrier comprises an organic acid having 16-24 carbon atoms; and the component B is a plant extract solution, wherein the plant extract solution comprises at least, in parts by weight: 5-30 parts by weight of an extract of a mixture of Populus nigra var. italica, grapefruit peels and eucalyptus leaves; 0.1-5 parts by weight of Sophora flavescens extract; 1-3 parts by weight of Aloe vera extract; 1-10 parts by weight of fresh orange peel extract; 0.5-3 parts by weight of Nandina domestica extract; 0.5-10 parts by weight of Eucalyptus robusta Smith extract; 1-8 parts by weight of Robinia pseudoacacia L. extract; 1-5 parts by weight of Chrysanthemum morifolium extract, and 0.1-2 parts by weight of artemisinin; wherein the active agent is selected from a combination of any one or more of ethylene glycol, propylene glycol, butylene glycol, polyethylene glycol, glycerol and 1,3,5-cyclohexanetriol; the carrier is selected from a combination of any one or more of palmitic acid, stearic acid, arachidic acid and behenic acid; the pH regulator is selected from a combination of any one or more of sodium hydroxide, potassium hydroxide, calcium hydroxide, sodium bicarbonate and disodium hydrogen phosphate.
Method for producing an impermeable screen, said method for producing comprising: - a step of providing during which a metallic sheet having micro-perforations is provided, - a step of lamination during which the micro-perforated metallic sheet is laminated, and - a step of coating during which a layer made of a breathable and impermeable material is coated on the metallic sheet thus laminated. - a step of providing during which a metallic sheet having micro-perforations is provided, - a step of lamination during which the micro-perforated metallic sheet is laminated, and - a step of coating during which a layer made of a breathable and impermeable material is coated on the metallic sheet thus laminated.
System for improving the reliability of transmission of multibroadcast data, via a telecommunications network, between: - a source of data and - a plurality of customer receivers (20 1, 20 2,..., 20 N) coupledcoupled to the telecommunications network and configured to receive the data multibroadcast via the telecommunications network, said customer receivers being peers of a peer-to-peer peer-to-peer network, characterized in that said system includes - a supervision server coupledcoupled to the telecommunications network and being configured to provide each customer receiver of the plurality of customer receivers with a list of at least one peer, said customer receiver being configured to obtain missing data of multibroadcast data from a peer of the list via a reliable peer-to-peer connection through the peer-to-peer peer-to-peer network; the source of data being adapted to transmit to said customer receivers, before the data, a root hash hash of a Merkle hash tree of said data by reliable multibroadcasting via said telecommunications network, the source of data being adapted to transmit to the customer receivers hashes of lower level than root hash hash, after said root hash hash and before said data. - a source of data and - a plurality of customer receivers (20 1, 20 2,..., 20 N) coupledcoupled to the telecommunications network and configured to receive the data multibroadcast via the telecommunications network, said customer receivers being peers of a peer-to-peer peer-to-peer network, characterized in that said system includes - a supervision server coupledcoupled to the telecommunications network and being configured to provide each customer receiver of the plurality of customer receivers with a list of at least one peer, said customer receiver being configured to obtain missing data of multibroadcast data from a peer of the list via a reliable peer-to-peer connection through the peer-to-peer peer-to-peer network;
A system for determining a coefficient of heat exchange between a fluid and a support at a surface (P N) of the support in contact with the fluid, characterised in that it comprises a temperature measurement device extending in a longitudinal direction and comprising: - a multilayer structure having: -- at least four thin ceramic layers (121, 122, 123, 124), and -- at least three metal tracks (111, 112, 113), each track being positioned between two thin layers and integrated into the thickness of one of said two layers; each track being connectable to an electrical power supply means and to a resistance measurement means so as to form a resistive probe able to measure a temperature T P1, T P2, T P3 in a measurement plane (P 1, P 2, P 3), the metal tracks thus forming a plurality of measurement planes (P 1, P 2, P 3) parallel to one another and substantially aligned in a direction perpendicular to the surface (P N); and - a resistive temperature probe attached to the multilayer structure and intended to be in contact with the fluid so as to measure a fluid temperature T F; the system further comprising a computer having: - first means for calculating, from the temperature values T P1, T P2, T P3 measured by the at least three metal tracks, a mean wall temperature value T P and a heat flow density φ; and - second means for calculating a heat exchange coefficient h from the fluid temperature T F, the mean wall temperature T P and the heat flow density φ. - a multilayer structure having: -- at least four thin ceramic layers (121, 122, 123, 124), and -- at least three metal tracks (111, 112, 113), each track being positioned between two thin layers and integrated into the thickness of one of said two layers; each track being connectable to an electrical power supply means and to a resistance measurement means so as to form a resistive probe able to measure a temperature T P1, T P2, T P3 in a measurement plane (P 1, P 2, P 3), the metal tracks thus forming a plurality of measurement planes (P 1, P 2, P 3) parallel to one another and substantially aligned in a direction perpendicular to the surface (P N); and -- at least four thin ceramic layers (121, 122, 123, 124), and -- at least three metal tracks (111, 112, 113), each track being positioned between two thin layers and integrated into the thickness of one of said two layers; - a resistive temperature probe attached to the multilayer structure and intended to be in contact with the fluid so as to measure a fluid temperature T F; - first means for calculating, from the temperature values T P1, T P2, T P3 measured by the at least three metal tracks, a mean wall temperature value T P and a heat flow density φ; and - second means for calculating a heat exchange coefficient h from the fluid temperature T F, the mean wall temperature T P and the heat flow density φ.
Method for the energy conversion of pressure energy into electrical energy using an expansion turbine, wherein a pressurized gaseous first medium is heated before being fed into the expansion turbine and the expansion turbine drives a generator, wherein the expansion turbine drives a compressor in addition to the generator, wherein at least one gaseous second medium is compressed by the compressor in a heating arrangement and the heat created during compression is used for heating the gaseous first medium, characterized in that the heating arrangement has a closed circuit in which the second medium circulates and is, starting from a heating medium tank, in an at least partially liquid state.
Method for safely operating a multi-phase system, wherein a phase current (i 1,..., i n) flows in each of a plurality (n) of phases (L 1,..., L n) of the multi-phase system respectively, and wherein current measurement values (i M1,..., i Mn) of the phase currents (i 1,... i n) are captured by phase current sensors (S 1,..., S n) in order to validate the phase currents (i 1,..., i n), characterized in that a number (m) of phase groups (G 1,..., G m) is provided, which comprises some of the phases (L 1,..., L n), wherein the phase currents (i 1,..., i n) of the number (m) of phase groups (G 1,..., G m) are merged in a group node (K 1,... K m) to form a group sum current (i g1,..., i gm), and a group sum current measurement value (i Mg1,..., i Mgm) of the group sum current is captured by a group current sensor (S g1,..., S gm), in that the current measurement values (i M1,..., i Mn) belonging to the number (m) of phase groups (G 1,..., G m) are summed up by a group summation unit (E 1, E 2,..., E m) to form a group sum (i G1,..., i Gm), and in that the group sum (i G1,..., i Gm) is compared with the group sum current measurement value (i Mg1,..., i Mgm) by a group comparison unit (V 1,..., V m) to validate the phase currents (i 1,..., i n) of the phases (L 1,..., L n) in order to ensure safe operation of the multi-phase system.
A method, comprising: arranging at least one semiconductor die on a first surface of a thermally and electrically conductive die pad in a substrate, the die pad having a second surface opposite the first surface, molding an encapsulation (18, 20) of insulating material onto the die pad having the at least one semiconductor die arranged on the first surface, wherein, at the second surface of the die pad, the encapsulation (18, 20) borders on the die pad at a borderline around the die pad, providing at said borderline around the die pad a recessed portion of the encapsulation (18, 20) around the die pad, and filling thermally and electrically conductive material in said recessed portion of the encapsulation (18, 20), wherein the thermally and electrically conductive die pad is augmented by thermally and electrically conductive material in said recessed portion of the encapsulation (18, 20). arranging at least one semiconductor die on a first surface of a thermally and electrically conductive die pad in a substrate, the die pad having a second surface opposite the first surface, molding an encapsulation (18, 20) of insulating material onto the die pad having the at least one semiconductor die arranged on the first surface, wherein, at the second surface of the die pad, the encapsulation (18, 20) borders on the die pad at a borderline around the die pad, providing at said borderline around the die pad a recessed portion of the encapsulation (18, 20) around the die pad, and filling thermally and electrically conductive material in said recessed portion of the encapsulation (18, 20), wherein the thermally and electrically conductive die pad is augmented by thermally and electrically conductive material in said recessed portion of the encapsulation (18, 20).
A staple cartridge, comprising: a plurality of staples; and a cartridge body, comprising: a tissue-contacting cartridge deck; a first side comprising a first group of staple cavities and a second side comprising a second group of staple cavities, wherein each said staple cavity comprises an opening in said deck, and wherein a said staple is positioned in each said staple cavity; and a plurality of ridges extending from said tissue-contacting cartridge deck; characterised in that the plurality of ridges are positioned intermediate adjacent staple cavities in a row of the staple cavities. a plurality of staples; and a cartridge body, comprising: a tissue-contacting cartridge deck; a first side comprising a first group of staple cavities and a second side comprising a second group of staple cavities, wherein each said staple cavity comprises an opening in said deck, and wherein a said staple is positioned in each said staple cavity; and a plurality of ridges extending from said tissue-contacting cartridge deck; a tissue-contacting cartridge deck; a first side comprising a first group of staple cavities and a second side comprising a second group of staple cavities, wherein each said staple cavity comprises an opening in said deck, and wherein a said staple is positioned in each said staple cavity; and a plurality of ridges extending from said tissue-contacting cartridge deck; characterised in that the plurality of ridges are positioned intermediate adjacent staple cavities in a row of the staple cavities.
A method of manufacturing a carburized steel member, comprising: a carburizing step of forming a carburized layer on a surface layer by heating a steel member to an austenitizing temperature or higher in a carburizing atmosphere where oxygen concentration is lower than that of the atmosphere, wherein, as a basic chemical composition, the steel member consists of, by mass%, C: 0.1% to 0.4%, Si: 0.35% to 3.0%, Mn: 0.1% to 3.0%, P: 0.03% or less, S: 0.15% or less, Al: 0.005% to 0.05%, N: 0.03% or less, Cr: less than 0.2%, Mo: 0.1% or less, optionally Ti: 0.005% to 0.2% and B: 0.0006% to 0.005%, optionally either or both of Nb: 0.01% to 0.3% and V: 0.01% to 0.2%, optionally Ni: 0.1% to 3.0%, and a remainder constituted of Fe and unavoidable impurities; a cooling step of, subsequent to the carburizing step, cooling the steel member at a cooling rate slower than a cooling rate at which martensitic transformation occurs, and cooling the steel member to not higher than a temperature at which structural transformation caused by cooling is completed; and a quenching step of heating a desired portion of the steel member with high-density energy to an austenitic region, and thereafter cooling the steel member at a cooling rate of not slower than the cooling rate at which martensitic transformation occurs. a carburizing step of forming a carburized layer on a surface layer by heating a steel member to an austenitizing temperature or higher in a carburizing atmosphere where oxygen concentration is lower than that of the atmosphere, wherein, as a basic chemical composition, the steel member consists of, by mass%, C: 0.1% to 0.4%, Si: 0.35% to 3.0%, Mn: 0.1% to 3.0%, P: 0.03% or less, S: 0.15% or less, Al: 0.005% to 0.05%, N: 0.03% or less, Cr: less than 0.2%, Mo: 0.1% or less, optionally Ti: 0.005% to 0.2% and B: 0.0006% to 0.005%, optionally either or both of Nb: 0.01% to 0.3% and V: 0.01% to 0.2%, optionally Ni: 0.1% to 3.0%, and a remainder constituted of Fe and unavoidable impurities; a cooling step of, subsequent to the carburizing step, cooling the steel member at a cooling rate slower than a cooling rate at which martensitic transformation occurs, and cooling the steel member to not higher than a temperature at which structural transformation caused by cooling is completed; and a quenching step of heating a desired portion of the steel member with high-density energy to an austenitic region, and thereafter cooling the steel member at a cooling rate of not slower than the cooling rate at which martensitic transformation occurs.
Material comprising a superposition of at least three layers, a lower layer, at least one intermediate layer and an upper layer, each of the at least three layers (200, 300, 400) comprising: - a plurality of platelets (210, 310, 410) arranged in a juxtaposed manner while forming a paving, with a clearance between said platelets, - means (290, 390, 490) for connecting the platelets together, the at least three layers (200, 300, 400) being superposed on one another so that the platelets of one layer are offset with respect to the platelets of the other layers so as to remove all openings in the material, characterized in that each platelet of the upper layer includes a local thickening at the level of an outer periphery of said platelet. - a plurality of platelets (210, 310, 410) arranged in a juxtaposed manner while forming a paving, with a clearance between said platelets, - means (290, 390, 490) for connecting the platelets together, the at least three layers (200, 300, 400) being superposed on one another so that the platelets of one layer are offset with respect to the platelets of the other layers so as to remove all openings in the material, characterized in that each platelet of the upper layer includes a local thickening at the level of an outer periphery of said platelet.
An electric energy generating system, comprising: a mounting frame; at least one fuel cell power module mounted to the mounting frame, and having at least one fuel cell stack, each fuel cell power module having an anode inlet for a fuel; a fuel storage vessel in fluid communication with the anode inlet via at least one fuel pipe; a ventilation shaft for evacuating fluids emanating from the at least one fuel cell power module, the ventilation shaft having a plurality of connection apertures; an evacuation pump arranged to draw exhaust fluid from the ventilation shaft and discharge the exhaust fluid away from the electric energy generating system via at least one vent opening, to maintain a pressure within the ventilation shaft which pressure is lower than ambient pressure; wherein the at least one fuel cell power module comprises a fluid-tight casing encompassing the at least one fuel cell power module, the casing being in fluid communication with the ventilation shaft via one of the connection apertures, and wherein the casing comprises at least one air inlet aperture to provide air ingress into the casing. a mounting frame; at least one fuel cell power module mounted to the mounting frame, and having at least one fuel cell stack, each fuel cell power module having an anode inlet for a fuel; a fuel storage vessel in fluid communication with the anode inlet via at least one fuel pipe; a ventilation shaft for evacuating fluids emanating from the at least one fuel cell power module, the ventilation shaft having a plurality of connection apertures; an evacuation pump arranged to draw exhaust fluid from the ventilation shaft and discharge the exhaust fluid away from the electric energy generating system via at least one vent opening, to maintain a pressure within the ventilation shaft which pressure is lower than ambient pressure; wherein the at least one fuel cell power module comprises a fluid-tight casing encompassing the at least one fuel cell power module, the casing being in fluid communication with the ventilation shaft via one of the connection apertures, and wherein the casing comprises at least one air inlet aperture to provide air ingress into the casing.
Receiving and guiding apparatus for receiving a workpiece and guiding a cutting tool, in particular a jigsaw, consisting of a receiving frame having a bearing surface for the workpiece and a guide rail for the cutting tool, said guide rail being adjustable between a functional position and a non-functional position, wherein, in the functional position, the guide rail is located in a position above the bearing surface in the receiving frame, and having a support arm arranged on the receiving and guiding apparatus, the guide rail being supported on said support arm in the functional position, wherein the support arm and the guide rail can execute a relative movement with respect to one another, wherein the guide rail is held so as to be pivotable between the functional position and the non-functional position, wherein the pivot axis extends horizontally and the guide rail is intended to be flapped up or down in order to be transferred between the functional position and the non-functional position, characterized in that the guide rail and optionally the support arm are mounted in a rotatable manner on the receiving frame, wherein the guide rail can be rotated, in particular through about +/-45° in both directions with respect to a central position arranged orthogonally to the longitudinal direction of the bearing surface.