mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-readable storage medium having thereon computer-executable instructions that are structured such that, when executed by one or more processors of a computing system capable of communicating with each of the network nodes in a network cause the computing system to perform the following computer-implemented method using received flow information (400; 512) for each of a plurality of flows in the network , the flow information comprising performance information (402; 515) regarding the corresponding flow, wherein a flow is a set of network communications between any two given end nodes (201, 202. 203. 204) in the network, said network communications having sufficiently common characteristics that the network communications tend to follow the same path of consecutive communication links through a mesh of transit nodes, the common characteristics comprise the Internet Protocol, IP, protocol address and TCP port information for both the source end node and the destination end node of the network communications that are included in the flow: for each one of the plurality of flows for which flow information was received, an act of estimating one or more possible paths that network traffic that belongs to that flow at least likely flows through, wherein estimating the one or more paths comprises iteratively, starting from the source end node, querying transit nodes one at a time using the flow defining characteristics to ask where the node would forward communications having those characteristics and over which link; using the performance information to identify a subset of the plurality of flows that experience problems in performance; and identifying at least one candidate problem network entity that is common amongst the estimated paths of the subset of the plurality of flows that experience problems in performance, wherein the flow information for each of the plurality of flows is received from at least one of the end nodes of the corresponding flow. for each one of the plurality of flows for which flow information was received, an act of estimating one or more possible paths that network traffic that belongs to that flow at least likely flows through, wherein estimating the one or more paths comprises iteratively, starting from the source end node, querying transit nodes one at a time using the flow defining characteristics to ask where the node would forward communications having those characteristics and over which link; using the performance information to identify a subset of the plurality of flows that experience problems in performance; and identifying at least one candidate problem network entity that is common amongst the estimated paths of the subset of the plurality of flows that experience problems in performance, wherein the flow information for each of the plurality of flows is received from at least one of the end nodes of the corresponding flow.
A rolling load prediction method for predicting a rolling load of a rolling mill for rolling steel, the method comprising a step of predicting the rolling load of the rolling mill in a case where the steel is rolled under an operating condition for prediction, by inputting the operating condition for prediction into a rolling load prediction model that has been trained with operation record data including at least a factor related to a temperature of the steel as an input variable and an actual value of the rolling load of the rolling mill as an output variable, characterized in that the factor is a direct factor related to the temperature of the steel at the time of rolling and an indirect factor related to the temperature of a skid rail which indirect factor includes a temperature of the skid rail that supports the steel in a heating furnace, and wherein the prediction accuracy of the rolling load is improved by adding the temperature of the skid rail to the input variables. a step of predicting the rolling load of the rolling mill in a case where the steel is rolled under an operating condition for prediction, by inputting the operating condition for prediction into a rolling load prediction model that has been trained with operation record data including at least a factor related to a temperature of the steel as an input variable and an actual value of the rolling load of the rolling mill as an output variable, characterized in that the factor is a direct factor related to the temperature of the steel at the time of rolling and an indirect factor related to the temperature of a skid rail which indirect factor includes a temperature of the skid rail that supports the steel in a heating furnace, and wherein the prediction accuracy of the rolling load is improved by adding the temperature of the skid rail to the input variables.
A system comprising: a network controller configured to: receive information from a plurality of nodes of a network, wherein the nodes are in motion relative to the Earth; generate or update a data structure representing available nodes and possible links in the network based on the received information, the data structure including link bandwidth information; determine that an overall link bandwidth available for servicing a geographic area is less than a set bandwidth amount based on the link bandwidth information for one or more of the possible links directly connected to client devices or ground stations in the geographic area; determine one or more additional links to connect to the client devices or the ground stations in the geographic area in a given network configuration of the network based on a difference between the overall link bandwidth and the set bandwidth amount; and send instructions to the plurality of nodes of the network to cause the plurality of nodes to implement the given network configuration and to transmit client data to or from the client devices or the ground stations in the geographic area. receive information from a plurality of nodes of a network, wherein the nodes are in motion relative to the Earth; generate or update a data structure representing available nodes and possible links in the network based on the received information, the data structure including link bandwidth information; determine that an overall link bandwidth available for servicing a geographic area is less than a set bandwidth amount based on the link bandwidth information for one or more of the possible links directly connected to client devices or ground stations in the geographic area; determine one or more additional links to connect to the client devices or the ground stations in the geographic area in a given network configuration of the network based on a difference between the overall link bandwidth and the set bandwidth amount; and send instructions to the plurality of nodes of the network to cause the plurality of nodes to implement the given network configuration and to transmit client data to or from the client devices or the ground stations in the geographic area.
A method of recovering multi-bit symbols from a stream of Forward Error Correction, FEC, encoded multi-bit symbols received through an optical communications system, wherein the multi-bit symbols are generated at a transmitter by constellation mapping and wherein the FEC-encoded multi-bit symbols comprise first and second parts generated at the transmitter from first and second parts of the multi-bit symbols such that the FEC-encoded multi-bit symbols comprise redundant bits obtained by FEC encoding, each FEC-encoded multi-bit symbol constituting a FEC-encoded multi-bit symbol of a modulation scheme of the optical communications system, the method comprising: for estimates of FEC-encoded multi-bit symbols in the stream, separating the estimates into first and second parts (S4) and detecting a most likely first part of each estimate (48, S6, 74, 76, S22) and a most likely second part of each estimate (50, S8, 76, 78, S26); assembling (S10) encoded FEC frames from the most likely first and second parts of the estimates, such that, for any one estimate, the most likely first and second parts of the estimate are respectively included in different encoded FEC frames; processing the encoded FEC frames by a FEC decoder to generate corrected FEC frames (S12, S30) comprising corrected first and second parts of the multi-bit symbols; and detecting the most likely second part of each estimate of the FEC-encoded multi-bit symbol in the stream using the corrected first part of the multi-bit symbol (50, S16, 76, 78, S34, S36), and wherein the stream of FEC-encoded multi-bit symbols is distributed across two or more dimensions of an optical carrier light. for estimates of FEC-encoded multi-bit symbols in the stream, separating the estimates into first and second parts (S4) and detecting a most likely first part of each estimate (48, S6, 74, 76, S22) and a most likely second part of each estimate (50, S8, 76, 78, S26); assembling (S10) encoded FEC frames from the most likely first and second parts of the estimates, such that, for any one estimate, the most likely first and second parts of the estimate are respectively included in different encoded FEC frames; processing the encoded FEC frames by a FEC decoder to generate corrected FEC frames (S12, S30) comprising corrected first and second parts of the multi-bit symbols; and detecting the most likely second part of each estimate of the FEC-encoded multi-bit symbol in the stream using the corrected first part of the multi-bit symbol (50, S16, 76, 78, S34, S36), and wherein the stream of FEC-encoded multi-bit symbols is distributed across two or more dimensions of an optical carrier light.
A ceramic matrix composite component , comprising: a plurality of longitudinally extending ceramic matrix composite (CMC) plies in a stacked configuration forming a densified body, wherein the plurality of longitudinally extending CMC plies are plies comprising a ceramic matrix reinforced by ceramic fibers; and a plurality of elongate functional features formed therein the densified body, wherein each of the plurality of elongate functional features includes an inlet and an outlet , the plurality of elongate functional features configured to provide a flow of fluid from a fluid source to an exterior of the ceramic matrix composite component , and wherein the plurality of elongate functional features are configured in multiple CMC plies of the plurality of longitudinally extending CMC plies to form a plurality of cooling channels in multiple CMC plies of the ceramic matrix composite component , wherein the plurality of the elongate functional features are defined within each of the plurality of longitudinally extending CMC plies using a plurality of sacrificial fibers, and wherein the plurality of sacrificial fibers are removed subsequent to densification to leave the plurality of elongate functional features, characterised in that each of the plurality of the elongate functional features is aligned with the CMC fibers in a respective ply. a plurality of longitudinally extending ceramic matrix composite (CMC) plies in a stacked configuration forming a densified body, wherein the plurality of longitudinally extending CMC plies are plies comprising a ceramic matrix reinforced by ceramic fibers; and a plurality of elongate functional features formed therein the densified body, wherein each of the plurality of elongate functional features includes an inlet and an outlet , the plurality of elongate functional features configured to provide a flow of fluid from a fluid source to an exterior of the ceramic matrix composite component , and wherein the plurality of elongate functional features are configured in multiple CMC plies of the plurality of longitudinally extending CMC plies to form a plurality of cooling channels in multiple CMC plies of the ceramic matrix composite component , wherein the plurality of the elongate functional features are defined within each of the plurality of longitudinally extending CMC plies using a plurality of sacrificial fibers, and wherein the plurality of sacrificial fibers are removed subsequent to densification to leave the plurality of elongate functional features, characterised in that each of the plurality of the elongate functional features is aligned with the CMC fibers in a respective ply.
An assaying system for detecting a plurality of radioactive isotopes in an eluate, comprising: an inner ionization chamber, the inner ionization chamber including a well and comprising a first gas; an outer ionization chamber and comprising a second gas, the outer ionization chamber being concentric with the inner ionization chamber; an attenuating material positioned between said inner and outer ionization chambers, wherein said inner ionization chamber, said attenuating material, and said outer ionization chamber are positioned relative to one another such that when an eluate is positioned within said well and emits first and second radiation: 1) the first radiation reaches said inner ionization chamber but is blocked from reaching said outer ionization chamber by said attenuating material; and 2) the second radiation passes through said attenuating material and reaches said outer ionization chamber; and a computing device configured to: 1) determine a first radioisotope content based on a first current associated with said inner ionization chamber; and 2) determine a second radioisotope content based at least on a second current associated with said outer ionization chamber, wherein said assaying system is configured to removably receive a vial in the well, the vial storing an eluate to be assayed. an inner ionization chamber, the inner ionization chamber including a well and comprising a first gas; an outer ionization chamber and comprising a second gas, the outer ionization chamber being concentric with the inner ionization chamber; an attenuating material positioned between said inner and outer ionization chambers, wherein said inner ionization chamber, said attenuating material, and said outer ionization chamber are positioned relative to one another such that when an eluate is positioned within said well and emits first and second radiation: 1) the first radiation reaches said inner ionization chamber but is blocked from reaching said outer ionization chamber by said attenuating material; and 2) the second radiation passes through said attenuating material and reaches said outer ionization chamber; and a computing device configured to: 1) determine a first radioisotope content based on a first current associated with said inner ionization chamber; and 2) determine a second radioisotope content based at least on a second current associated with said outer ionization chamber, wherein said assaying system is configured to removably receive a vial in the well, the vial storing an eluate to be assayed.
An intra-mode moulding foam molding device of a thermoplastic polymer particle, comprising a supercritical fluid delivery system , a mould pressing foaming system , , wherein the supercritical fluid delivery system is communicated with the mould pressing foaming system , characterized in that the device further comprising a preheating quantitative feeding system and a moving rail , the moving rail is arranged under the mould pressing foaming system and the preheating quantitative feeding system , the mould pressing foaming system is arranged on the moving rail , and the mould pressing foaming system and the preheating quantitative feeding system are connected through the moving rail , the preheating quantitative feeding system comprises a polymer particle preheating device , a quantitative feeding device and a temperature control device , adding polymer particles into a polymer particle preheating device to be preheated, regulating a preheating temperature through a temperature control device according to the added polymer particles, and then delivering the polymer particles into a quantitative feeding device .
A method for growing a C1-fixing microorganism, comprising flowing a gaseous substrate comprising one or more of CO, CO 2 and H 2 to a bioreactor containing a culture of a C1-fixing microorganism in a liquid nutrient medium; wherein arginine is provided to the culture as the sole nitrogen source; further wherein the C1-fixing microorganism is a recombinant genetically modified microorganism comprising an arginine metabolism pathway; and further wherein the C1-fixing microorganism is Clostridium autoethanogenum, Clostridium ljungdahlii, or Clostridium ragsdalei.
A method for operating an electronic device, characterised by comprising: providing first power from the electronic device to a wire connected device using a first circuit based on detecting that the wire connected device is connected to the electronic device through an USB connection, wherein the wire connected device is different from a wired charging device, wherein the wire connected device is an external device for performing a USB On-The-Go, OTG, function, and wherein the wired charging device is a charging device for supplying power to the electronic device; receiving second power, using a second circuit , from a wireless charging device wirelessly connected to the electronic device, and providing the received second power to a battery of the electronic device using the second circuit , wherein providing the first power to the wire connected device using the first circuit and providing the received second power to the battery using the second circuit are performed simultaneously. providing first power from the electronic device to a wire connected device using a first circuit based on detecting that the wire connected device is connected to the electronic device through an USB connection, wherein the wire connected device is different from a wired charging device, wherein the wire connected device is an external device for performing a USB On-The-Go, OTG, function, and wherein the wired charging device is a charging device for supplying power to the electronic device; receiving second power, using a second circuit , from a wireless charging device wirelessly connected to the electronic device, and providing the received second power to a battery of the electronic device using the second circuit , wherein providing the first power to the wire connected device using the first circuit and providing the received second power to the battery using the second circuit are performed simultaneously.
A method of processing local area network diagnostic data obtained in respect of a local area network , the local area network having at least one user-device located therein operable to communicate via a local area network gateway device with one or more remote devices in a communications network outside the local area network, the local area network diagnostic data comprising a plurality of data units carrying data relating to performance characteristics of the local area network, said data units comprising fields having field-values stored therein, the method comprising: calculating (s420) a data-unit-value for each of a plurality of said data units, the data-unit-value for a data unit being calculated according to a predetermined function of one or more field-values stored in one or more of the fields in the data unit; identifying (s440) a first and second data unit from the plurality of data units as being similar according to predetermined criteria in dependence on a comparison of their respective data-unit-values, the second data unit having at least one field-value stored in at least one field which differs from a corresponding field-value stored in at least one corresponding field of the first data unit; in response to such an identification, creating (s450) a third data unit comprising at least one field containing a field-value indicative of the first data unit and at least one field containing an indication of the at least one field-value which differs from the corresponding field-value stored in the corresponding field of the first data unit; and then sending the first data unit and the third data unit from the local area network for local area network performance analysis at a remote network diagnostic device in the communications network outside the local area network. calculating (s420) a data-unit-value for each of a plurality of said data units, the data-unit-value for a data unit being calculated according to a predetermined function of one or more field-values stored in one or more of the fields in the data unit; identifying (s440) a first and second data unit from the plurality of data units as being similar according to predetermined criteria in dependence on a comparison of their respective data-unit-values, the second data unit having at least one field-value stored in at least one field which differs from a corresponding field-value stored in at least one corresponding field of the first data unit; in response to such an identification, creating (s450) a third data unit comprising at least one field containing a field-value indicative of the first data unit and at least one field containing an indication of the at least one field-value which differs from the corresponding field-value stored in the corresponding field of the first data unit; and then sending the first data unit and the third data unit from the local area network for local area network performance analysis at a remote network diagnostic device in the communications network outside the local area network.