mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: transmitting , in a network, a tracerouting probe between a source node and a target node via multi-path routing; receiving , at the source node , from the transmitted tracerouting probe, identification information of a first network node in a multi-path route of the network and identification information of a second network node in the multi-path route of the network; determining, at the source node , an identification of an edge connecting the first network node and the second network node based on the received identification information; storing, at the source node , the identification of the edge ; determining, at the source node , by comparison of the edge with previously identified edges, whether said edge is a unique edge; estimating, at the source node , a total number of unique edges between the source node and the target node using a mark-release-recapture equation; calculating an edge completion ratio based on the identified edges, wherein the edge completion ratio is calculated by a number of the identified edges that are unique divided by the estimated total number of unique edges; and terminating the tracerouting probe when the edge completion ratio is greater than or equal to a threshold. transmitting , in a network, a tracerouting probe between a source node and a target node via multi-path routing; receiving , at the source node , from the transmitted tracerouting probe, identification information of a first network node in a multi-path route of the network and identification information of a second network node in the multi-path route of the network; determining, at the source node , an identification of an edge connecting the first network node and the second network node based on the received identification information; storing, at the source node , the identification of the edge ; determining, at the source node , by comparison of the edge with previously identified edges, whether said edge is a unique edge; estimating, at the source node , a total number of unique edges between the source node and the target node using a mark-release-recapture equation; calculating an edge completion ratio based on the identified edges, wherein the edge completion ratio is calculated by a number of the identified edges that are unique divided by the estimated total number of unique edges; and terminating the tracerouting probe when the edge completion ratio is greater than or equal to a threshold.
Bullet trap comprising a container having a shot entry side and an energy-absorbent material , wherein the container is filled with the energy-absorbent material , wherein the energy-absorbent material is an elastomer, wherein the energy-absorbent material consists of particles , wherein the diameters (d1) of the particles are greater than 0 μm and less than 6 mm, wherein the energy-absorbent material is - ethylene acrylate rubber with acrylate as an additive, - ethylene propylene rubber with melamines and/or salts as additives, - butyl rubber with chlorine as an additive, - chlorinated butyl rubber with chlorine or brombythol as an additive, - bromobutyl rubber with chlorine or brombythol as an additive, - chlorosulfonated polyethylene rubber with chlorine as an additive, - polyurethane rubber with salts as an additive, - polyacrylate rubber with salts as an additive, - fluororubber with fluorides as an additive, - fluorosilicone rubber with fluorides as an additive or - chloroprene rubber with chlorine as an additive, and wherein the respective additive is embedded in the associated rubber. - ethylene acrylate rubber with acrylate as an additive, - ethylene propylene rubber with melamines and/or salts as additives, - butyl rubber with chlorine as an additive, - chlorinated butyl rubber with chlorine or brombythol as an additive, - bromobutyl rubber with chlorine or brombythol as an additive, - chlorosulfonated polyethylene rubber with chlorine as an additive, - polyurethane rubber with salts as an additive, - polyacrylate rubber with salts as an additive, - fluororubber with fluorides as an additive, - fluorosilicone rubber with fluorides as an additive or - chloroprene rubber with chlorine as an additive,
A method for adaptive traffic path management comprising: receiving at least one packet associated with a traffic flow; determining application parameters for an application associated with the at least one packet; determining attributes associated with the traffic flow associated with the at least one packet , wherein the attributes comprise attributes related to a subscriber associated with the traffic flow or related to a path of the traffic flow ; analyzing the application parameters and attributes to determine a Network Address Translation, NAT, pool for the traffic flow and choosing a Border Gateway Protocol, BGP, path, wherein the BGP path is chosen based on Key Performance Indicators associated with the traffic quality and cost for an operator ; determining if a change to a NAT of the at least one packet is needed based on a traffic flow protocol that is advertised on the BGP path and whether the NAT currently associated with the at least one packet is within the determined NAT pool; if a change to the NAT is needed, modifying the NAT for the at least one packet associated with the traffic flow to a NAT associated with a different BGP path; and sending the at least one packet and any further packet of the traffic flow associated with the at least one packet to the different BGP path associated with the modified NAT. receiving at least one packet associated with a traffic flow; determining application parameters for an application associated with the at least one packet; determining attributes associated with the traffic flow associated with the at least one packet , wherein the attributes comprise attributes related to a subscriber associated with the traffic flow or related to a path of the traffic flow ; analyzing the application parameters and attributes to determine a Network Address Translation, NAT, pool for the traffic flow and choosing a Border Gateway Protocol, BGP, path, wherein the BGP path is chosen based on Key Performance Indicators associated with the traffic quality and cost for an operator ; determining if a change to a NAT of the at least one packet is needed based on a traffic flow protocol that is advertised on the BGP path and whether the NAT currently associated with the at least one packet is within the determined NAT pool; if a change to the NAT is needed, modifying the NAT for the at least one packet associated with the traffic flow to a NAT associated with a different BGP path; and sending the at least one packet and any further packet of the traffic flow associated with the at least one packet to the different BGP path associated with the modified NAT.
An apparatus , comprising: a light source comprising a plurality of coherent sources , each coherent source being configured to emit light of a different color than the remaining of the coherent sources ; a reconfigurable array of mirrors and MEMS actuators, each mirror being controlled by a corresponding one of the MEMS actuators, wherein the light source is configured to illuminate the mirrors with a time division color-multiplexed light beam characterized in that each MEMS actuator is able to translate the controlled mirror; wherein the reconfigurable array is able to modulate a phase of a wavefront of the light beam in a spatially non-uniform and reconfigurable manner. a light source comprising a plurality of coherent sources , each coherent source being configured to emit light of a different color than the remaining of the coherent sources ; a reconfigurable array of mirrors and MEMS actuators, each mirror being controlled by a corresponding one of the MEMS actuators, wherein the light source is configured to illuminate the mirrors with a time division color-multiplexed light beam characterized in that each MEMS actuator is able to translate the controlled mirror; wherein the reconfigurable array is able to modulate a phase of a wavefront of the light beam in a spatially non-uniform and reconfigurable manner.
An authentication result update method, comprising: sending, by an access and mobility management function device, a first service invocation request to an authentication server, wherein the first service invocation request is used to request to remove an authentication result stored in a unified data management device; receiving, by the authentication server, the first service invocation request; and sending, by the authentication server, a second service invocation request to the unified data management device, wherein the second service invocation request is used to request to remove the authentication result stored in the unified data management device. sending, by an access and mobility management function device, a first service invocation request to an authentication server, wherein the first service invocation request is used to request to remove an authentication result stored in a unified data management device; receiving, by the authentication server, the first service invocation request; and sending, by the authentication server, a second service invocation request to the unified data management device, wherein the second service invocation request is used to request to remove the authentication result stored in the unified data management device.
A continuous casting and rolling method, comprising: a casting operation of producing a slab in a caster; a rolling operation of rolling the slab using a roughing mill located at an outlet of the caster and a finishing mill located at an outlet of the roughing mill; and a mode selection operation of selecting mode switching between a continuous rolling mode in which the slab is provided as a continuous body in the casting operation and the rolling operation, and a discontinuous rolling mode in which the slab is cut before the rolling operation or during the rolling operation, before the rolling operation, wherein, in the mode selection operation, the continuous rolling mode is performed when the following equation is satisfied, and the discontinuous rolling mode is selected and performed when the following equation is not satisfied, HV > L T 2295 − 1 153 N R − 2 459 N F − 17 4074 t − 2 − 50 153 where, H is the numeric value of a slab thickness in mm at the outlet of the caster, V is the numeric value of a slab speed in m/min at the outlet of the caster, L is the numeric value of a length in m from an outlet of the caster to an outlet of the finishing mill, T is the numeric value of an average temperature in °C of the slab at the outlet of the caster, N R is a stand number of the roughing mill, N F is a stand number of the finishing mill, and t is the numeric value of a slab thickness in mm at an outlet of the finishing mill. a casting operation of producing a slab in a caster; a rolling operation of rolling the slab using a roughing mill located at an outlet of the caster and a finishing mill located at an outlet of the roughing mill; and a mode selection operation of selecting mode switching between a continuous rolling mode in which the slab is provided as a continuous body in the casting operation and the rolling operation, and a discontinuous rolling mode in which the slab is cut before the rolling operation or during the rolling operation, before the rolling operation, wherein, in the mode selection operation, the continuous rolling mode is performed when the following equation is satisfied, and the discontinuous rolling mode is selected and performed when the following equation is not satisfied, HV > L T 2295 − 1 153 N R − 2 459 N F − 17 4074 t − 2 − 50 153 where, H is the numeric value of a slab thickness in mm at the outlet of the caster, V is the numeric value of a slab speed in m/min at the outlet of the caster, L is the numeric value of a length in m from an outlet of the caster to an outlet of the finishing mill, T is the numeric value of an average temperature in °C of the slab at the outlet of the caster, N R is a stand number of the roughing mill, N F is a stand number of the finishing mill, and t is the numeric value of a slab thickness in mm at an outlet of the finishing mill.
An endoscopic capsule comprising: - a first imaging system being a white light imaging system, - a second imaging system being a narrowband imaging system, wherein the first imaging system is arranged for obtaining images at a broader spectral range than the second imaging system, and - a processor arranged for image processing, such as a FPGA, wherein the endoscopic capsule is arranged for operating in any one of: - a first mode wherein a frame rate of the first imaging system is higher than a frame rate of the second imaging system , and - a second mode wherein the frame rate of the second imaging system is higher than the frame rate of the second imaging system in the first mode, wherein the processor in the first mode is arranged for: - accessing one or more images from the first imaging system , - detecting if there is a polyp in the one or more images from the first imaging system by employing a machine learning algorithm, and - switching from the first mode to the second mode if a polyp is detected in the one or more images from the first imaging system . - a first imaging system being a white light imaging system, - a second imaging system being a narrowband imaging system, wherein the first imaging system is arranged for obtaining images at a broader spectral range than the second imaging system, and - a processor arranged for image processing, such as a FPGA, - a first mode wherein a frame rate of the first imaging system is higher than a frame rate of the second imaging system , and - a second mode wherein the frame rate of the second imaging system is higher than the frame rate of the second imaging system in the first mode, - accessing one or more images from the first imaging system , - detecting if there is a polyp in the one or more images from the first imaging system by employing a machine learning algorithm, and - switching from the first mode to the second mode if a polyp is detected in the one or more images from the first imaging system .
A processing plate for a device for mechanically processing lignocellulose-containing fibrous material, the processing plate comprising an inner periphery and an outer periphery and a front surface , the front surface of the processing plate comprising a processing surface provided with projecting parts , and that at least some of the projecting parts comprise a radially inner part having an inclined ascending wall towards the outer periphery of the processing plate and a radially outer part having an inclined descending wall towards the outer periphery of the processing plate , the inner part and the outer part being radially coupled to each other by a ridge along a coupling line (CL) between the inner part and the outer part of the projecting part , wherein the inclined walls are mutually connected only partly so that they have in common only a crest section of the ridge which crest section is less than a width of at least one of the inclined ascending wall of the inner part and the inclined descending wall of the outer part at the coupling line (CL). at least some of the projecting parts comprise a radially inner part having an inclined ascending wall towards the outer periphery of the processing plate and a radially outer part having an inclined descending wall towards the outer periphery of the processing plate , the inner part and the outer part being radially coupled to each other by a ridge along a coupling line (CL) between the inner part and the outer part of the projecting part , wherein the inclined walls are mutually connected only partly so that they have in common only a crest section of the ridge which crest section is less than a width of at least one of the inclined ascending wall of the inner part and the inclined descending wall of the outer part at the coupling line (CL).
A color conversion film comprising: a substrate film ; and a color conversion functional layer provided on the substrate film , wherein the color conversion functional layer includes a solid phase change material; and the solid phase change material is at least one selected from the group consisting of a polyalcohol-based material, a cellulose-based polymer and a polyurethane-based polymer characterized in that a content of the solid phase change material is from 10 parts by weight to 80 parts by weight with respect to 100 parts by weight of the color conversion functional layer , and wherein the color conversion functional layer includes a color conversion layer and a phase transformation layer, and the phase transformation layer includes the solid phase change material. a substrate film ; and a color conversion functional layer provided on the substrate film , wherein the color conversion functional layer includes a solid phase change material; and the solid phase change material is at least one selected from the group consisting of a polyalcohol-based material, a cellulose-based polymer and a polyurethane-based polymer characterized in that a content of the solid phase change material is from 10 parts by weight to 80 parts by weight with respect to 100 parts by weight of the color conversion functional layer , and wherein the color conversion functional layer includes a color conversion layer and a phase transformation layer, and the phase transformation layer includes the solid phase change material.
Sensor device which is used to provide a control device with at least one operating parameter of an oscillating conveyor , the control device being used to control a drive device for exciting oscillation of an oscillating rail on the basis of the operating parameter, the sensor device comprising at least one sensor element for recording at least one measured value from which the operating parameter can be determined, and the sensor device comprising at least one communication device for wirelessly transmitting the operating parameter to the control device and an energy supply device for supplying the sensor device with operating energy, the energy supply device being used to convert a vibration generated by the drive device and/or electromagnetic radiation into the operating energy, the sensor device comprising a processing device for determining the operating parameter from the measured value, the processing device being designed to control the communication device to transmit the respectively determined operating parameter at predefined intervals or at intervals dependent on the measured value, characterized in that the operating parameter describes a phase of an oscillation of the oscillating rail , and/or in that a temporal profile of the measured value for an interval of time determined from the measured values is transmitted as the operating parameter or a temporal profile of a value determined from the measured value for an interval of time determined from the measured values is transmitted as the operating parameter.
A compound of Formula I where: X is a bond, -O-, -S-, -NR 7 -, alkylene, alkyleneoxy, alkylenethio, or alkylene-NR 7 -; R 1 is hydrogen, halo, or alkyl; R 2 is (pyridinyl)amino, tetrahydronaphthyridinyl, or naphthyridinyl, and is substituted with 0-2 alkyl substituents; R 3 is hydrogen, halo, or alkyl; R 4 is hydrogen or Ar 1 ; R 5 is hydrogen, benzyloxycarbonylamino, or Ar 1 SO 2 NH; R 6 is hydrogen; R 7 is hydrogen or alkyl; and Ar 1 is phenyl, naphthyl, dihydrobenzofuranyl, pyridinyl, pyridazinyl, pyrimidinyl, pyrazinyl, quinolinyl, or quinoxalinyl, and is substituted with 0-3 substituents selected from cyano, halo, alkyl, haloalkyl, hydroxy, alkoxy, (cycloalkyl)alkoxy, and haloalkoxy; or a stereoisomer, a tautomer, a pharmaceutically acceptable salt thereof or a solvate thereof. X is a bond, -O-, -S-, -NR 7 -, alkylene, alkyleneoxy, alkylenethio, or alkylene-NR 7 -; R 1 is hydrogen, halo, or alkyl; R 2 is (pyridinyl)amino, tetrahydronaphthyridinyl, or naphthyridinyl, and is substituted with 0-2 alkyl substituents; R 3 is hydrogen, halo, or alkyl; R 4 is hydrogen or Ar 1 ; R 5 is hydrogen, benzyloxycarbonylamino, or Ar 1 SO 2 NH; R 6 is hydrogen; R 7 is hydrogen or alkyl; and Ar 1 is phenyl, naphthyl, dihydrobenzofuranyl, pyridinyl, pyridazinyl, pyrimidinyl, pyrazinyl, quinolinyl, or quinoxalinyl, and is substituted with 0-3 substituents selected from cyano, halo, alkyl, haloalkyl, hydroxy, alkoxy, (cycloalkyl)alkoxy, and haloalkoxy; or a stereoisomer, a tautomer, a pharmaceutically acceptable salt thereof or a solvate thereof.
A genetically modified bacterium; wherein the bacterium has an enhanced production of biotin or lipoic acid or thiamine; wherein said bacterium comprises: a) genetically modified endogenous iscR gene encoding a mutant IscR polypeptide, wherein the amino acid sequence of said mutant IscR polypeptide has at least 80% amino acid sequence identity to a sequence selected from the group consisting of SEQ ID No: 2, 4, 6, 8, 10, 12 and 14, and wherein said amino acid sequence has at least one amino acid substitution selected from the group consisting of: i) L15X, C92X, C98X, C104X, and H107X; wherein X is any amino acid other than the corresponding amino acid residue in SEQ ID No.: 2, 4, 6, 8, 10, 12 and 14; and b) at least one transgene encoding a polypeptide selected from the group consisting of: ii) a polypeptide having biotin synthase activity (EC2.8.1.6); iii) a polypeptide having lipoic acid synthase activity (EC2.8.1.8); iv) a polypeptide having HMP-P synthase activity (EC4.1.99.17); and v) a polypeptide having tyrosine lyase activity (EC4.1.99.19). a) genetically modified endogenous iscR gene encoding a mutant IscR polypeptide, wherein the amino acid sequence of said mutant IscR polypeptide has at least 80% amino acid sequence identity to a sequence selected from the group consisting of SEQ ID No: 2, 4, 6, 8, 10, 12 and 14, and wherein said amino acid sequence has at least one amino acid substitution selected from the group consisting of: i) L15X, C92X, C98X, C104X, and H107X; wherein X is any amino acid other than the corresponding amino acid residue in SEQ ID No.: 2, 4, 6, 8, 10, 12 and 14; and i) L15X, C92X, C98X, C104X, and H107X; wherein X is any amino acid other than the corresponding amino acid residue in SEQ ID No.: 2, 4, 6, 8, 10, 12 and 14; b) at least one transgene encoding a polypeptide selected from the group consisting of: ii) a polypeptide having biotin synthase activity (EC2.8.1.6); iii) a polypeptide having lipoic acid synthase activity (EC2.8.1.8); iv) a polypeptide having HMP-P synthase activity (EC4.1.99.17); and v) a polypeptide having tyrosine lyase activity (EC4.1.99.19). ii) a polypeptide having biotin synthase activity (EC2.8.1.6); iii) a polypeptide having lipoic acid synthase activity (EC2.8.1.8); iv) a polypeptide having HMP-P synthase activity (EC4.1.99.17); and v) a polypeptide having tyrosine lyase activity (EC4.1.99.19).
Bracing device for arranging on a vehicle, in particular a bridge-laying vehicle, with a support blade which is movable to and fro between a bracing position and a travel position via a lifting device , and a buckling support for bracing the support blade in a first support direction (R1), characterized by a second buckling support for bracing the support blade , the support direction (R2) of which second buckling support differs from the support direction (R1) of the first buckling support .