mhurhangee/patent-ind-claim-en huggingface dataset:
A method for casting objects made of aluminum, aluminum alloys, light alloys, brass and the like, by way of a casting apparatus which comprises a lower platen adapted to support a lower die which is connected to a duct for feeding liquid metal , an upper platen at which an upper die is arranged, a compactor punch which is arranged so that it can move coaxially with respect to said upper die , and a flow control element which is arranged concentrically inside said compactor punch , the method being characterized in that it comprises the steps of: - closing said upper die onto said lower die in order to define a casting cavity; - introducing liquid metal through said duct into said casting cavity; - placing the compactor punch upward at a preset height with respect to the lower rim of the upper die ; - accumulating a quantity of liquid metal which is equal to 6-10% of the weight of the piece to be cast in a chamber for accumulating liquid metal for forging; - closing the duct for supplying liquid metal by moving said flow control element downward and depressurizing the liquid metal supply duct , thus causing the return of said liquid metal into said duct ; - forging said liquid metal inside said casting cavity by moving said compactor punch downward, the temperature of said die varies from 250 to 380°C, with control provided by way of electrical resistance heaters with thermocouples and a cooling system . - closing said upper die onto said lower die in order to define a casting cavity; - introducing liquid metal through said duct into said casting cavity; - placing the compactor punch upward at a preset height with respect to the lower rim of the upper die ; - accumulating a quantity of liquid metal which is equal to 6-10% of the weight of the piece to be cast in a chamber for accumulating liquid metal for forging; - closing the duct for supplying liquid metal by moving said flow control element downward and depressurizing the liquid metal supply duct , thus causing the return of said liquid metal into said duct ; - forging said liquid metal inside said casting cavity by moving said compactor punch downward, the temperature of said die varies from 250 to 380°C, with control provided by way of electrical resistance heaters with thermocouples and a cooling system .
A fiber-reinforced resin structure having a hole into which a connector that connects to another member can be inserted, wherein a bearing strength at a part of an inside surface of said hole on which a load from said connector acts, represented by a stress at which displacement of said part of said inside surface of said hole starts increasing even without said load acting on said part of said inside surface of said hole from said connector increasing, is less than a breaking strength of a fiber-reinforced resin constituting that part of said structure, wherein reinforcing fibers of said fiber-reinforced resin at said part of said inside surface of said hole of said structure acted with said load from said connector are arranged more than those at another part, and wherein the reinforcing fibers at the part of the inside surface of the hole are arranged so as to be extended in a direction along the inner circumferential direction of the hole.
Nozzle system for a device for delivering a fluid jet under pressure comprising: - a nozzle with an inlet side and an outlet side and with at least one nozzle opening for at least one fluid, and - a coupling nut for fixing the nozzle at the end of a fluid line , wherein the nozzle is connected to the coupling nut , in particular via a form-fitting and non-detachable connection, wherein the nozzle is of rotationally symmetrical design and has a circumferential outer groove , and in that the coupling nut has a circumferential inner groove , wherein nozzle and coupling nut are connected to each other via a snap ring arranged in the outer groove and in the inner groove , characterised in that the coupling nut has radial relief bores . - a nozzle with an inlet side and an outlet side and with at least one nozzle opening for at least one fluid, and - a coupling nut for fixing the nozzle at the end of a fluid line ,
A sensor assembly comprising: a first sensor package including: a first sensor die ; a first set of connector pins electrically connected to the first sensor die; a first housing in which the first sensor die is located, the first housing having first and second surfaces spaced apart from one another by first, second, third, and fourth sidewalls; and a first component positioned in proximity to the second surface of the first housing; a second sensor package adjacent to the first sensor package, the second sensor package including: a second sensor die ; a second set of connector pins electrically connected to the second sensor die; a second housing in which the second sensor die is located, the second housing having third and fourth surfaces spaced apart from one another by fifth, sixth, seventh, and eighth sidewalls; and a second component positioned in proximity to the fourth surface of the second housing; and an overmold material overmolded about the first and second sensor packages to form the sensor assembly. a first sensor package including: a first sensor die ; a first set of connector pins electrically connected to the first sensor die; a first housing in which the first sensor die is located, the first housing having first and second surfaces spaced apart from one another by first, second, third, and fourth sidewalls; and a first component positioned in proximity to the second surface of the first housing; a first sensor die ; a first set of connector pins electrically connected to the first sensor die; a first housing in which the first sensor die is located, the first housing having first and second surfaces spaced apart from one another by first, second, third, and fourth sidewalls; and a first component positioned in proximity to the second surface of the first housing; a second sensor package adjacent to the first sensor package, the second sensor package including: a second sensor die ; a second set of connector pins electrically connected to the second sensor die; a second housing in which the second sensor die is located, the second housing having third and fourth surfaces spaced apart from one another by fifth, sixth, seventh, and eighth sidewalls; and a second component positioned in proximity to the fourth surface of the second housing; and a second sensor die ; a second set of connector pins electrically connected to the second sensor die; a second housing in which the second sensor die is located, the second housing having third and fourth surfaces spaced apart from one another by fifth, sixth, seventh, and eighth sidewalls; and a second component positioned in proximity to the fourth surface of the second housing; and an overmold material overmolded about the first and second sensor packages to form the sensor assembly.
A microprocessor that records an execution trace, comprising: a processing unit ; a memory cache ; and control logic that configures the microprocessor to at least: based on executing a first instruction at the processing unit, detect occurrence of a first cache event that initiates a lifetime of a cache line within the memory cache; based on detecting the first cache event, initiate logging, into the execution trace , first trace information indicating a beginning of the lifetime of the cache line within the memory cache; subsequent to initiating logging of the first trace information, and based on executing a second instruction at the processing unit, detect occurrence of a second cache event that ends the lifetime of the cache line within the memory cache; and based on detecting the second cache event, initiate logging, into the execution trace, second trace information indicating an ending of the lifetime of the cache line within the memory cache. a processing unit ; a memory cache ; and control logic that configures the microprocessor to at least: based on executing a first instruction at the processing unit, detect occurrence of a first cache event that initiates a lifetime of a cache line within the memory cache; based on detecting the first cache event, initiate logging, into the execution trace , first trace information indicating a beginning of the lifetime of the cache line within the memory cache; subsequent to initiating logging of the first trace information, and based on executing a second instruction at the processing unit, detect occurrence of a second cache event that ends the lifetime of the cache line within the memory cache; and based on detecting the second cache event, initiate logging, into the execution trace, second trace information indicating an ending of the lifetime of the cache line within the memory cache. based on executing a first instruction at the processing unit, detect occurrence of a first cache event that initiates a lifetime of a cache line within the memory cache; based on detecting the first cache event, initiate logging, into the execution trace , first trace information indicating a beginning of the lifetime of the cache line within the memory cache; subsequent to initiating logging of the first trace information, and based on executing a second instruction at the processing unit, detect occurrence of a second cache event that ends the lifetime of the cache line within the memory cache; and based on detecting the second cache event, initiate logging, into the execution trace, second trace information indicating an ending of the lifetime of the cache line within the memory cache.
Gas circulation system for transporting heat from a high-temperature source , in particular a high-temperature fuel cell, to a heat consumer , having: a pipe system , through which a gaseous heat transfer medium flows, wherein part of the pipe system is formed as a heat exchanger connected to the high-temperature source , in which heat is transferred from the high-temperature source into the heat transfer medium, wherein part of the pipe system is formed as a heat sink , in which the heat transferred to the heat transfer medium can be transferred to a heat consumer , or as a heat consumer, characterized in that one or more gas flow enhancers functioning according to the Coand effect and/or the Venturi effect which are supplied with pressurized impulse gas are provided in the pipe system , in order to propel the heat transfer medium in the pipe system in a flow direction . a pipe system , through which a gaseous heat transfer medium flows, wherein part of the pipe system is formed as a heat exchanger connected to the high-temperature source , in which heat is transferred from the high-temperature source into the heat transfer medium, wherein part of the pipe system is formed as a heat sink , in which the heat transferred to the heat transfer medium can be transferred to a heat consumer , or as a heat consumer, characterized in that one or more gas flow enhancers functioning according to the Coand effect and/or the Venturi effect which are supplied with pressurized impulse gas are provided in the pipe system , in order to propel the heat transfer medium in the pipe system in a flow direction .
A method of identifying a peptide antigen, the method comprising: a) contacting an antibody-comprising composition derived from a subject to a peptide microarray having an array surface and a plurality of feature pairs disposed thereon, each of said feature pairs of said peptide microarray including a first feature of wild-type peptides having a defined sequence and a second feature of mutant peptides having the defined sequence with a single amino acid mutation, each of said wild-type peptides and said mutant peptides of said peptide microarray having an array-coupled terminus coupled to the array surface and an opposing free terminus, the position of the amino acid mutation in the mutant peptides located closer to the array-coupled terminus of the mutant peptides than the free terminus; b) detecting binding of an antibody in the antibody-comprising composition to at least one of the plurality of feature pairs on the peptide microarray; c) identifying feature pairs exhibiting differential binding; and d) characterizing the mutant peptides identified in step c) as neoantigens, characterized in that said wild-type and mutant peptides have a length of 12-20 amino acids wherein the position of the amino acid mutation in the mutant peptides is located within the first 6 amino acids positions numbered from the array-coupled terminus of the mutant peptides. a) contacting an antibody-comprising composition derived from a subject to a peptide microarray having an array surface and a plurality of feature pairs disposed thereon, each of said feature pairs of said peptide microarray including a first feature of wild-type peptides having a defined sequence and a second feature of mutant peptides having the defined sequence with a single amino acid mutation, each of said wild-type peptides and said mutant peptides of said peptide microarray having an array-coupled terminus coupled to the array surface and an opposing free terminus, the position of the amino acid mutation in the mutant peptides located closer to the array-coupled terminus of the mutant peptides than the free terminus; b) detecting binding of an antibody in the antibody-comprising composition to at least one of the plurality of feature pairs on the peptide microarray; c) identifying feature pairs exhibiting differential binding; and d) characterizing the mutant peptides identified in step c) as neoantigens,
An antenna apparatus comprising: a conductive plate extending in a first plane; a pair of conductive elements arranged to form a dipole antenna, the pair of conductive elements located in a second plane parallel to the first plane, and each conductive element forming a conductive ring in the second plane that surrounds a non-conductive inner area; a first conductive element in the pair of conductive elements having a conductive bridge extending across the conductive ring to divide the non-conductive inner area into at least two portions; and a conductive connection extending from the conductive bridge to the conductive plate, characterized in that : a second conductive element in the pair of conductive elements is not provided with the conductive bridge; and the first and second conductive elements are shaped in the second plane such that the first conductive element has an equivalent electrical length to the second conductive element despite the provision of the conductive bridge in the first conductive element. a conductive plate extending in a first plane; a pair of conductive elements arranged to form a dipole antenna, the pair of conductive elements located in a second plane parallel to the first plane, and each conductive element forming a conductive ring in the second plane that surrounds a non-conductive inner area; a first conductive element in the pair of conductive elements having a conductive bridge extending across the conductive ring to divide the non-conductive inner area into at least two portions; and a conductive connection extending from the conductive bridge to the conductive plate, a second conductive element in the pair of conductive elements is not provided with the conductive bridge; and the first and second conductive elements are shaped in the second plane such that the first conductive element has an equivalent electrical length to the second conductive element despite the provision of the conductive bridge in the first conductive element.
Sealed container comprising: - a container body having a through-hole delimited by a flange and closed by a removable door mounted on the flange, - an annular seal located between the flange and the door , - the flange, the door and the seal forming a sealed connection device capable of being connected to a complementary connection device of a sterile enclosure by means of bayonet connection means in order to allow sterile communication between the sealed container and the sterile enclosure, characterized in that the container comprises an annular attachment bead for attaching the door to the flange inserted into a notch of said door provided for this purpose, so as to allow an assembly of the door on the flange by clipping, and vice versa. - a container body having a through-hole delimited by a flange and closed by a removable door mounted on the flange, - an annular seal located between the flange and the door , - the flange, the door and the seal forming a sealed connection device capable of being connected to a complementary connection device of a sterile enclosure by means of bayonet connection means in order to allow sterile communication between the sealed container and the sterile enclosure,
A multistage method for producing precipitated calcium carbonate and silica concentrate from calcium and silica containing waste and by-products, characterized in that the method comprises following steps: Step 1: adding solid material bearing calcium and silica into the extraction solution in a continuously stirred extraction reactor, said solid material bearing calcium and silica being an oil shale ash or coal ash or waste cement; Step 2: separating the solid residual material from the calcium rich solution; Step 3: subjecting the calcium rich solution from step 2 to carbonation, in the carbonation reactor, to precipitate calcium carbonate, wherein the carbonation is induced by introducing carbon dioxide gas directly into the calcium containing aqueous solution in a closed reactor; Step 4: separating the calcium carbonate precipitate from solution of the previous step; Step 5: directing the residual material from step 2 and the recovered extraction solution from step 4 to an extraction reactor, where a second calcium extraction step takes place; Step 6: separating the solid residual material from calcium rich solution; Step 7: subjecting the calcium rich solution from step 6 to carbonation, in the carbonation reactor, to precipitate calcium carbonate, wherein the carbonation is induced by introducing carbon dioxide gas directly into the calcium containing aqueous solution in a closed reactor; Step 8: separating the calcium carbonate precipitate from solution of the previous step. Step 1: adding solid material bearing calcium and silica into the extraction solution in a continuously stirred extraction reactor, said solid material bearing calcium and silica being an oil shale ash or coal ash or waste cement; Step 2: separating the solid residual material from the calcium rich solution; Step 3: subjecting the calcium rich solution from step 2 to carbonation, in the carbonation reactor, to precipitate calcium carbonate, wherein the carbonation is induced by introducing carbon dioxide gas directly into the calcium containing aqueous solution in a closed reactor; Step 4: separating the calcium carbonate precipitate from solution of the previous step; Step 5: directing the residual material from step 2 and the recovered extraction solution from step 4 to an extraction reactor, where a second calcium extraction step takes place; Step 6: separating the solid residual material from calcium rich solution; Step 7: subjecting the calcium rich solution from step 6 to carbonation, in the carbonation reactor, to precipitate calcium carbonate, wherein the carbonation is induced by introducing carbon dioxide gas directly into the calcium containing aqueous solution in a closed reactor; Step 8: separating the calcium carbonate precipitate from solution of the previous step.
A system for forming a fistula between two blood vessels comprising: a first catheter , comprising a catheter body, a leaf spring electrode for ablating or vaporizing tissue and at least one alignment element, wherein the leaf spring electrode is moveable between a low-profile configuration and a deployed position wherein at least a portion of the leaf spring electrode deforms away from catheter body and is separated from the catheter body by a distance, wherein the electrode naturally flexes away from the catheter body. a first catheter , comprising a catheter body, a leaf spring electrode for ablating or vaporizing tissue and at least one alignment element, wherein the leaf spring electrode is moveable between a low-profile configuration and a deployed position wherein at least a portion of the leaf spring electrode deforms away from catheter body and is separated from the catheter body by a distance, wherein the electrode naturally flexes away from the catheter body.
A computer implemented method of identifying an encryption algorithm used by a ransomware algorithm, the ransomware algorithm encrypting a data store of a target computer system using a searchable encryption algorithm, the method comprising: intercepting an ordered plurality of messages communicated from the target computer system to a ransomware server computer system, each message including a payload storing an encrypted unit of data from the target computer system; inspecting a final byte in the encrypted unit of data in each message to identify a byte value used by an encryption algorithm of the ransomware as a padding byte to pad messages to the size of an integral multiple of units of encryption for the encryption algorithm; training an autoencoder based on a position of a message in the ordered plurality of messages and the padding byte to provide a trained autoencoder adapted to differentiate the encryption algorithm used by the ransomware from other different encryption algorithms. intercepting an ordered plurality of messages communicated from the target computer system to a ransomware server computer system, each message including a payload storing an encrypted unit of data from the target computer system; inspecting a final byte in the encrypted unit of data in each message to identify a byte value used by an encryption algorithm of the ransomware as a padding byte to pad messages to the size of an integral multiple of units of encryption for the encryption algorithm; training an autoencoder based on a position of a message in the ordered plurality of messages and the padding byte to provide a trained autoencoder adapted to differentiate the encryption algorithm used by the ransomware from other different encryption algorithms.