mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: - programming, by at least one computer processor , a first worker to analyze a first aspect of a problem identified in a software application, wherein the problem is identified based on a finding by a property checking component of an analysis engine , wherein the first aspect corresponds to identifying events that match a particular pattern, and wherein the first worker adds a new event to an information repository indicating that an event matching the particular pattern is identified; - programming, by the at least one computer processor , a second worker to analyze a second aspect of the problem identified in the software application and to formulate a graph based query to a knowledge base , wherein the second aspect corresponds to analyzing an event from the information repository ; - moderating, by the at least one computer processor , access to the information repository by the first worker and the second worker , wherein the moderating comprises determining whether the result received from an expert is stale with respect to data being used by the expert to obtain that result, and rejecting such stale result; and - adding, by the at least one computer processor , a response received by the second worker from the knowledge base to the information repository . - programming, by at least one computer processor , a first worker to analyze a first aspect of a problem identified in a software application, wherein the problem is identified based on a finding by a property checking component of an analysis engine , wherein the first aspect corresponds to identifying events that match a particular pattern, and wherein the first worker adds a new event to an information repository indicating that an event matching the particular pattern is identified; - programming, by the at least one computer processor , a second worker to analyze a second aspect of the problem identified in the software application and to formulate a graph based query to a knowledge base , wherein the second aspect corresponds to analyzing an event from the information repository ; - moderating, by the at least one computer processor , access to the information repository by the first worker and the second worker , wherein the moderating comprises determining whether the result received from an expert is stale with respect to data being used by the expert to obtain that result, and rejecting such stale result; and - adding, by the at least one computer processor , a response received by the second worker from the knowledge base to the information repository .
A laminate structure suitable for use as electrical insulation in on-board equipment in railcars or railways, comprising: a) a mica-aramid paper layer of comprising 35 to 55 weight percent mica, 20 to 60 weight percent of a first binder, and 5 to 25 weight percent of a first aramid floc, based on the amount of mica, first binder, and aramid floc in the mica-aramid paper layer, the mica being distributed uniformly in the mica-aramid paper layer, the mica-aramid paper layer having a first and second face; and b) an aramid paper layer comprising 35 to 75 weight percent of a second binder and 25 to 65 weight percent of a second aramid floc, based on the amount of second binder and second floc in the aramid paper layer, the aramid paper layer being essentially free of mica, the aramid paper layer having a first and second face; wherein the mica-aramid paper layer by itself has a limiting oxygen index (LOI) of 37 percent or greater, and the aramid paper layer by itself has a LOI of 30 percent or less, LOI being measured according to ISO 4589-2, the aramid paper layer having a tensile strength and elongation greater than the mica-aramid paper layer; the tensile strength being measured in accordance with ISO 1924-2 and wherein the first or second face of the mica-aramid paper layer is homogeneously and continuously bound to the first face of the aramid paper layer; the laminate structure further having: i) a thickness of at least 0.10 mm, ii) a LOI of greater than 32 percent, LOI being measured according to ISO 4589-2, and iii) when exposed to a flame in an oxygen environment to determine LOI, the laminate structure burns as one piece. a) a mica-aramid paper layer of comprising 35 to 55 weight percent mica, 20 to 60 weight percent of a first binder, and 5 to 25 weight percent of a first aramid floc, based on the amount of mica, first binder, and aramid floc in the mica-aramid paper layer, the mica being distributed uniformly in the mica-aramid paper layer, the mica-aramid paper layer having a first and second face; and b) an aramid paper layer comprising 35 to 75 weight percent of a second binder and 25 to 65 weight percent of a second aramid floc, based on the amount of second binder and second floc in the aramid paper layer, the aramid paper layer being essentially free of mica, the aramid paper layer having a first and second face; i) a thickness of at least 0.10 mm, ii) a LOI of greater than 32 percent, LOI being measured according to ISO 4589-2, and iii) when exposed to a flame in an oxygen environment to determine LOI, the laminate structure burns as one piece.
A computer-implemented method of determining, at a first node (C), a common secret (CS) that is common with the first node (C) and a second node (S), wherein the first node (C) is associated with a first asymmetric cryptography pair of an elliptic curve cryptography system common with the first node and the second node and using a generator (G) common with the first node and the second node, the first asymmetric cryptography pair having a first node master private key (V 1C ) and a first node master public key (Pic), and the second node (S) is associated with a second asymmetric cryptography pair of the common elliptic curve cryptography system, the second asymmetric cryptography pair having a second node master private key (Vis) and a second node master public key (Pis), wherein the first node master public key and second node master public key are based on elliptic curve point multiplication by the respective first node master private key and second node master private key of the generator, and wherein the method comprises: - determining a first node second private key (V 2C ) based on at least the first node master private key (V 1C ) and a deterministic key (DK) common with the first and second nodes; - determining a second node second public key (P 2S ) based on at least the second node master public key (Pis) with elliptic curve point multiplication of the deterministic key (DK) and the generator; and - determining the common secret (CS) based on the first node second private key (V 2C ) and the second node second public key (P 2S ), wherein the second node (S) has the same common secret (CS) based on a first node second public key (P 2C ) and a second node second private key (V 2S ), wherein: - the first node second public key (P 2C ) is based the first node second private key (V 2C ) with elliptic curve point multiplication with the generator; and - the second node second private key (V 2S ) is based on at least the second node master private key (Vis) and the deterministic key (DK). - determining a first node second private key (V 2C ) based on at least the first node master private key (V 1C ) and a deterministic key (DK) common with the first and second nodes; - determining a second node second public key (P 2S ) based on at least the second node master public key (Pis) with elliptic curve point multiplication of the deterministic key (DK) and the generator; and - determining the common secret (CS) based on the first node second private key (V 2C ) and the second node second public key (P 2S ), - the first node second public key (P 2C ) is based the first node second private key (V 2C ) with elliptic curve point multiplication with the generator; and - the second node second private key (V 2S ) is based on at least the second node master private key (Vis) and the deterministic key (DK).
Synthetic natural gas production device , characterized in that it comprises: - a means for performing high-temperature co-electrolysis of a carbon dioxide and water mixture in order to produce a syngas comprising carbon monoxide, carbon dioxide, water, and hydrogen; - an isothermal methanation reactor comprising: - an inlet , for syngas produced by the co-electrolysis means, connected to a syngas supply channel , and - an outlet for synthetic natural gas; - a water separation means comprising: - an inlet for synthetic natural gas connected to the synthetic natural gas outlet, and - an outlet for dehydrated synthetic natural gas; - a bypass for a portion of the dehydrated synthetic natural gas from the outlet of the water separation means to the syngas supply channel in order to provide a mixture of the bypassed syngas and synthetic natural gas to the reactor. - a means for performing high-temperature co-electrolysis of a carbon dioxide and water mixture in order to produce a syngas comprising carbon monoxide, carbon dioxide, water, and hydrogen; - an isothermal methanation reactor comprising: - an inlet , for syngas produced by the co-electrolysis means, connected to a syngas supply channel , and - an outlet for synthetic natural gas; - an inlet , for syngas produced by the co-electrolysis means, connected to a syngas supply channel , and - an outlet for synthetic natural gas; - a water separation means comprising: - an inlet for synthetic natural gas connected to the synthetic natural gas outlet, and - an outlet for dehydrated synthetic natural gas; - an inlet for synthetic natural gas connected to the synthetic natural gas outlet, and - an outlet for dehydrated synthetic natural gas; - a bypass for a portion of the dehydrated synthetic natural gas from the outlet of the water separation means to the syngas supply channel in order to provide a mixture of the bypassed syngas and synthetic natural gas to the reactor.
Article having properties of absorption of a physiological liquid, having a liquid-collecting zone and a transfer structure , the latter having absorbent fibres and being designed to transport the liquid from said collecting zone to at least one storage and/or evaporation zone , said transfer structure having a cross section increasing in the direction of said storage and/or evaporation zone, over at least part of the path separating said collecting zone from said storage and/or evaporation zone, and having a liquid absorption capacity that is less, on the one hand, than an absorbent part forming the storage and/or evaporation zone and, on the other hand, than a receiving absorbent part defining the liquid-collecting zone.
A power cable, comprising a conductor which is surrounded at least by an inner semiconductive layer, an insulation layer and an outer semiconductive layer, in that order, wherein at least the insulation layer comprises a polymer composition comprising a) a low pressure polyethylene; and (b) a LDPE. a) a low pressure polyethylene; and (b) a LDPE.
A directional acoustic sensor comprising: a case providing a space; an opening in the case defining a sound inlet through which a sound is received; a plurality of openings in the case defining respective plural sound outlets through which the sound, received through the sound inlet, is output, wherein the sound outlets are disposed below the sound inlet; and a plurality of vibration bodies (110_k) arranged in the space of the case between the sound inlet and the sound outlets, so that each sound outlet overlaps and faces, in a vertical direction, a respective one of the plurality of vibration bodies, wherein the vibration bodies selectively react to the sound received through the sound inlet according to a direction of the received sound. a case providing a space; an opening in the case defining a sound inlet through which a sound is received; a plurality of openings in the case defining respective plural sound outlets through which the sound, received through the sound inlet, is output, wherein the sound outlets are disposed below the sound inlet; and a plurality of vibration bodies (110_k) arranged in the space of the case between the sound inlet and the sound outlets, so that each sound outlet overlaps and faces, in a vertical direction, a respective one of the plurality of vibration bodies, wherein the vibration bodies selectively react to the sound received through the sound inlet according to a direction of the received sound.
Inlet valve for the inlet of a compressor element of a compressor provided with a pressure vessel connected to the outlet of the compressor element , the inlet valve containing a housing with an external part with an entry for the inlet valve and an exit for the inlet valve for connection onto the inlet of the compressor element and an internal part which together with the external part delimits a flow channel between the entry and the exit of the inlet valve , whereby this flow channel is closable by means of a valve which in rest mode is pushed by means of a spring against a valve seat of the inlet valve , characterised in that this valve is composed of a piston and a co-operating valve member , whereby the piston is mounted slidably in an axial direction (X-X') in a guide of the housing and by means of said spring is pushed in the direction of the valve seat , whereby the piston on the side turned away from the valve seat is connected with the exit of the inlet valve and whereby the valve member is located on the other side of the piston and is formed by a valve shaft piston and a head provided on the valve shaft piston , whereby the valve shaft piston is mounted in a coaxially slidable way in the piston up to a certain depth which is limited by a stop which is such that in rest mode the valve member is pushed by the piston against the valve seat under the influence of said spring , whereby between the valve shaft piston and the piston an intermediary chamber is enclosed which is provided with at least one blow-off entry via which the intermediary chamber can be brought in fluid connection with the pressure vessel and at least one blow-off exit that forms a permanent fluid connection between the intermediary chamber and the entry of the inlet valve , whereby the valve shaft piston also contains a bypass channel which is connected with the intermediary chamber and which ends in the sidewall of the valve shaft piston , either directly, or indirectly via a blow-off exit of the intermediary chamber .
A shock isolator arranged between automated coupler parts in a vibration testing unit , the shock isolator comprising: a bushing ; and the shock isolator characterized in that it additionally comprises, a compressive fit rod supported in the bushing, the compressive fit rod being compressible inside the bushing to disable the shock isolator when the automated coupler parts are engaged during vibration testing, the compressive fit rod being expandable outwardly from the bushing to activate the shock isolator and absorb excess shock energy when the automated coupler parts are disengaged. a bushing ; and the shock isolator characterized in that it additionally comprises, a compressive fit rod supported in the bushing, the compressive fit rod being compressible inside the bushing to disable the shock isolator when the automated coupler parts are engaged during vibration testing, the compressive fit rod being expandable outwardly from the bushing to activate the shock isolator and absorb excess shock energy when the automated coupler parts are disengaged.
An apparatus for wirelessly sharing power, the apparatus comprising: a battery configured to operate the apparatus; a charge sensor unit configured to sense a charge state of the battery; a user interface unit configured to output the charge state of the battery; an inductive coil configured to receive power from an external device when the apparatus is in a load mode or to provide power to the external device when the apparatus is in a source mode; a power control and conversion unit configured to supply, in the load mode, the battery with power received, though the inductive coil, from an external device or to supply, in the source mode, power from the battery through the inductive coil to the external device; and a first communication unit configured to communicate with the external device to receive information needed for sharing power with the external device, characterized in that the information, received through the first communication unit, comprises a charge state of the external device, and wherein the user interface unit is further configured to output the information. a battery configured to operate the apparatus; a charge sensor unit configured to sense a charge state of the battery; a user interface unit configured to output the charge state of the battery; an inductive coil configured to receive power from an external device when the apparatus is in a load mode or to provide power to the external device when the apparatus is in a source mode; a power control and conversion unit configured to supply, in the load mode, the battery with power received, though the inductive coil, from an external device or to supply, in the source mode, power from the battery through the inductive coil to the external device; and a first communication unit configured to communicate with the external device to receive information needed for sharing power with the external device, characterized in that the information, received through the first communication unit, comprises a charge state of the external device, and wherein the user interface unit is further configured to output the information.
Housing for a cooling system for a battery, delimiting a receiving portion for battery modules , the housing comprising: - a lower casing comprising an inlet opening for a cooling fluid; - an upper casing comprising an outlet opening for the cooling fluid; - a circulation duct for the cooling fluid which communicates with the inlet opening and the outlet opening , the upper casing comprising a plurality of holes which lead into said receiving portion, characterized in that at least one hot-melt nozzle is disposed at each hole , each nozzle comprising an opening through which cooling fluid can pass, and each hot-melt nozzle being capable of melting when the temperature exceeds a threshold. - a lower casing comprising an inlet opening for a cooling fluid; - an upper casing comprising an outlet opening for the cooling fluid; - a circulation duct for the cooling fluid which communicates with the inlet opening and the outlet opening , the upper casing comprising a plurality of holes which lead into said receiving portion,
A railroad chassis comprising: a supply of ballast stones disposed on the railroad chassis; a plurality of workheads coupled to the railroad chassis, each workhead being independently operable and capable of receiving ballast stones from the supply of ballast stones; and at least one air compressor coupled to the railroad chassis and capable of blowing ballast stones through one or more of the workheads to dispense ballast stones into a bed of ballast stones underlying a railroad track; wherein each workhead comprises a blowing tube configured to be inserted into the bed of ballast stones for dispensing ballast stones, the blowing tube being coupled to the workhead via insertion of the blowing tube into a housing coupled at a distal end of the workhead, characterised in that a motor is disposed within the housing and is configured to rotate the blowing tube independently relative to the workhead based on instructions received from a computing system associated with the railroad chassis . a supply of ballast stones disposed on the railroad chassis; a plurality of workheads coupled to the railroad chassis, each workhead being independently operable and capable of receiving ballast stones from the supply of ballast stones; and at least one air compressor coupled to the railroad chassis and capable of blowing ballast stones through one or more of the workheads to dispense ballast stones into a bed of ballast stones underlying a railroad track; wherein each workhead comprises a blowing tube configured to be inserted into the bed of ballast stones for dispensing ballast stones, the blowing tube being coupled to the workhead via insertion of the blowing tube into a housing coupled at a distal end of the workhead, characterised in that a motor is disposed within the housing and is configured to rotate the blowing tube independently relative to the workhead based on instructions received from a computing system associated with the railroad chassis .
A pressurization processing system that performs pressurization processing on a target by immersing the target in the sea or a lake, comprising: a housing body that is configured to house the target; a buoyancy body that is configured to float the housing body; a weight body that has a specific gravity greater than that of seawater or lake water; and a separation mechanism that separably connects the housing body and the weight body, wherein the buoyancy body includes a housing bag having water permeability, and the housing bag houses a plurality of hollow glass spheres, and is immersed in the seawater or the lake water so that a space between the plurality of hollow glass spheres housed in the housing bag is filled with the seawater or the lake water. a housing body that is configured to house the target; a buoyancy body that is configured to float the housing body; a weight body that has a specific gravity greater than that of seawater or lake water; and a separation mechanism that separably connects the housing body and the weight body, wherein the buoyancy body includes a housing bag having water permeability, and the housing bag houses a plurality of hollow glass spheres, and is immersed in the seawater or the lake water so that a space between the plurality of hollow glass spheres housed in the housing bag is filled with the seawater or the lake water.
A method for analyzing site occupancy ratios in antibody-drug conjugates, said method comprising: (i) providing a sample comprising an antibody-drug conjugate compound; (ii) exposing the sample to de-salting; (iii) exposing the sample to multi-enzyme digestion to form a digested peptide mixture, wherein the digested peptide mixture comprises conjugated peptide and unconjugated peptide, both resulting from the digestion of the antibody-drug conjugate; (iv) ionizing the digested peptide mixture to form radical ion fragments; (v) detecting the mass-to-charge ratios associated with the radical ion fragments; (vi) analyzing the mass-to-charge ratios of the radical ion fragments to determine the site occupancy ratio of occupied to unoccupied sites in the antibody-drug conjugate compound; and (vii) quantifying the site occupancy ratio in the sample by determining the ratio of conjugated peptide to unconjugated peptide. (i) providing a sample comprising an antibody-drug conjugate compound; (ii) exposing the sample to de-salting; (iii) exposing the sample to multi-enzyme digestion to form a digested peptide mixture, wherein the digested peptide mixture comprises conjugated peptide and unconjugated peptide, both resulting from the digestion of the antibody-drug conjugate; (iv) ionizing the digested peptide mixture to form radical ion fragments; (v) detecting the mass-to-charge ratios associated with the radical ion fragments; (vi) analyzing the mass-to-charge ratios of the radical ion fragments to determine the site occupancy ratio of occupied to unoccupied sites in the antibody-drug conjugate compound; and (vii) quantifying the site occupancy ratio in the sample by determining the ratio of conjugated peptide to unconjugated peptide.