mhurhangee/patent-ind-claim-en huggingface dataset:
A system for shielding of at least one component within an aircraft , comprising: a floor panel disposed at least partially between joists supporting a floor within the aircraft, the floor panel being connected to joists and to cross joists ; a ground plane connected to a bottom surface of the floor panel , the ground plane extending at least partially between adjacent joists ; and at least one bracket electrically connecting the ground plane to the at least one joist , characterized in that said bracket comprises: a body defining a first end and a second end , wherein the first end connects to the ground plane and wherein the second end connects to the joist ; at least one first fastener connecting the first end to the ground plane ; and at least one second fastener connecting the second end to the joist ; a spacer connected to the first end , establishing a contact surface between the spacer and the ground plane ; and a seal surrounding the spacer . a floor panel disposed at least partially between joists supporting a floor within the aircraft, the floor panel being connected to joists and to cross joists ; a ground plane connected to a bottom surface of the floor panel , the ground plane extending at least partially between adjacent joists ; and at least one bracket electrically connecting the ground plane to the at least one joist , characterized in that said bracket comprises: a body defining a first end and a second end , wherein the first end connects to the ground plane and wherein the second end connects to the joist ; at least one first fastener connecting the first end to the ground plane ; and at least one second fastener connecting the second end to the joist ; a spacer connected to the first end , establishing a contact surface between the spacer and the ground plane ; and a seal surrounding the spacer . a body defining a first end and a second end , wherein the first end connects to the ground plane and wherein the second end connects to the joist ; at least one first fastener connecting the first end to the ground plane ; and at least one second fastener connecting the second end to the joist ; a spacer connected to the first end , establishing a contact surface between the spacer and the ground plane ; and a seal surrounding the spacer .
A stimulation lead , comprising: a lead body comprising a longitudinal surface, a distal end, and a proximal end, wherein the lead body comprises a material that is biocompatible, non-conducting, and polymeric; and a plurality of electrodes disposed along the longitudinal surface of the lead body near the distal end of the lead body , the plurality of electrodes comprising a plurality of segmented electrodes , each of the segmented electrodes comprising an exterior surface, an interior surface opposite the exterior surface, a lateral side surface between the interior surface and the exterior surface, a proximal end, and a distal end, at least one of the segmented electrodes comprising a notch formed in the segmented electrode , extending from the lateral side surface inward toward a center of the segmented electrode or extending from the center of the segmented electrode outward toward the lateral side surface , and extending from the proximal end to the distal end of the segmented electrode , wherein the notch is filled with material from the lead body to facilitate retention of the at least one of the segmented electrodes in the lead body . a lead body comprising a longitudinal surface, a distal end, and a proximal end, wherein the lead body comprises a material that is biocompatible, non-conducting, and polymeric; and a plurality of electrodes disposed along the longitudinal surface of the lead body near the distal end of the lead body , the plurality of electrodes comprising a plurality of segmented electrodes , each of the segmented electrodes comprising an exterior surface, an interior surface opposite the exterior surface, a lateral side surface between the interior surface and the exterior surface, a proximal end, and a distal end, at least one of the segmented electrodes comprising a notch formed in the segmented electrode , extending from the lateral side surface inward toward a center of the segmented electrode or extending from the center of the segmented electrode outward toward the lateral side surface , and extending from the proximal end to the distal end of the segmented electrode , wherein the notch is filled with material from the lead body to facilitate retention of the at least one of the segmented electrodes in the lead body .
A method of identifying a subject as eligible for treatment of its cancer with a combination of a hypoxia activated prodrug TH-302 or TH-281 or a pharmaceutically acceptable salt thereof; in combination with a chemotherapeutic agent that is a nucleoside analog; comprising: (a) determining whether the subject has the following characteristics: (i) the subject has an ECOG performance status of at least 2, 3, or 4; and (ii) the subject has a circulating albumin level below 3.5 g/dL; (b) identifying the subject as eligible for treatment of their cancer with said prodrug and chemotherapeutic agent if they are determined to have the listed characteristics in step (a). (a) determining whether the subject has the following characteristics: (i) the subject has an ECOG performance status of at least 2, 3, or 4; and (ii) the subject has a circulating albumin level below 3.5 g/dL; (i) the subject has an ECOG performance status of at least 2, 3, or 4; and (ii) the subject has a circulating albumin level below 3.5 g/dL; (b) identifying the subject as eligible for treatment of their cancer with said prodrug and chemotherapeutic agent if they are determined to have the listed characteristics in step (a).
A computer-implemented method comprising: receiving a digital well plan comprising trajectory data for a well to be drilled, bottom hole assembly data for equipment to be used to drill the well and operational parameters associated with a drilling operation; issuing drilling instructions to a bottom hole assembly for drilling a well based on the digital well plan; acquiring data during drilling of the well, the data including trajectory data , bottom hole assembly data and operational parameters associated with the drilling operation; comparing the data acquired during drilling of the well with data of the digital well plan to identify one or more deviations of the acquired data from the data of the digital well plan; analyzing the one or more deviations of the acquired data from the data of the digital well plan; outputting results based on the analysis, the results indicating if a deviation is likely to have a beneficial or detrimental outcome on the drilling operation; controlling the drilling operation or adjusting the digital well plan based on the results. receiving a digital well plan comprising trajectory data for a well to be drilled, bottom hole assembly data for equipment to be used to drill the well and operational parameters associated with a drilling operation; issuing drilling instructions to a bottom hole assembly for drilling a well based on the digital well plan; acquiring data during drilling of the well, the data including trajectory data , bottom hole assembly data and operational parameters associated with the drilling operation; comparing the data acquired during drilling of the well with data of the digital well plan to identify one or more deviations of the acquired data from the data of the digital well plan; analyzing the one or more deviations of the acquired data from the data of the digital well plan; outputting results based on the analysis, the results indicating if a deviation is likely to have a beneficial or detrimental outcome on the drilling operation; controlling the drilling operation or adjusting the digital well plan based on the results.
Compound of the formula (I) in crystalline form of the modification I characterized in that the X-ray diffractogram of the compound shows peak maxima of the 2 theta angle at 5.9, 6.9, 16.2, 16.5, 24.1, 22.7, 24.7.
Bus bar for high current consumers, comprising: a superconductor for conducting an electric current extending along the bus bar; a housing with a heat pipe for cooling the superconductor to a temperature below the transition temperature of the superconductor, wherein the heat pipe , the housing and the superconductor extend along the bus bar , the heat pipe is thermally conductively connected to the housing along its length, wherein the heat pipe comprises: an evaporable heat transfer medium , a cold end , a hot end , and a conduction region between the cold and hot ends for circulating the heat transfer medium between the hot and cold ends a cooling unit for cooling the heat pipe , which is thermally conductively connected to the cold end of the heat pipe, wherein the housing is configured such that a plurality of the housings are connectable to each other at their ends in an axial direction so that the superconductor can be passed through the plurality of the interconnected housings and cooled to a temperature below the transition temperature, and the housing comprises a plurality of heat pipes , characterised in that each heat pipe is designed in such a way that a characteristic number of pressure in the unit bar multiplied with volume in the unit litre is smaller than 50 bar*litre or the volume is smaller than 1 litre. a superconductor for conducting an electric current extending along the bus bar; a housing with a heat pipe for cooling the superconductor to a temperature below the transition temperature of the superconductor, wherein the heat pipe , the housing and the superconductor extend along the bus bar , the heat pipe is thermally conductively connected to the housing along its length, wherein the heat pipe comprises: an evaporable heat transfer medium , a cold end , a hot end , and a conduction region between the cold and hot ends for circulating the heat transfer medium between the hot and cold ends a cooling unit for cooling the heat pipe , which is thermally conductively connected to the cold end of the heat pipe, wherein the housing is configured such that a plurality of the housings are connectable to each other at their ends in an axial direction so that the superconductor can be passed through the plurality of the interconnected housings and cooled to a temperature below the transition temperature, and the housing comprises a plurality of heat pipes , characterised in that each heat pipe is designed in such a way that a characteristic number of pressure in the unit bar multiplied with volume in the unit litre is smaller than 50 bar*litre or the volume is smaller than 1 litre.
Method for detecting a ground fault in a load zone that is connectable to a DC system , the load zone having a first load zone line , which is grounded via a parallel circuit formed by a first grounding capacitor and a first grounding resistor and is connectable to a first main line of the DC system via a circuit breaker , and having a second load zone line , which is grounded via a parallel circuit formed by a second grounding capacitor and a second grounding resistor and is connectable to a second main line of the DC system via an interrupter switch , wherein - at least one line voltage, assigned to a load zone line , between a line potential of the load zone line and a ground potential is measured continuously, and - in the case where a ground fault is not detected on any main line of the DC system before the load zone is connected, the interrupter switch is closed with the circuit breaker being open, - and a ground fault in the load zone is deduced if at least one line voltage does not change significantly after the interrupter switch is closed. - at least one line voltage, assigned to a load zone line , between a line potential of the load zone line and a ground potential is measured continuously, and - in the case where a ground fault is not detected on any main line of the DC system before the load zone is connected, the interrupter switch is closed with the circuit breaker being open, - and a ground fault in the load zone is deduced if at least one line voltage does not change significantly after the interrupter switch is closed.
Temperature-control body arrangement comprising at least one temperature-control body, through which an energy-transporting medium can flow and which comprises at least one feed line and at least one discharge line for the energy-transporting medium, wherein the temperature-control body arrangement comprises a first region , through which a first energy-transporting medium can flow in order to come into thermal contact with the first medium, and a second region , through which a second energy-transporting medium can flow independently of the first energy-transporting medium in order to come into thermal contact with the second medium, wherein the first region is a hydronically heatable or hydronically coolable region which comprises a pipe register through which a heat transfer fluid can flow, and wherein the feed line and the discharge line for the energy-transporting medium comprise a forward-flow line and a return line , respectively, for the heat transfer fluid, the first region and the second region are two adjacent regions which are spaced apart from one another along a boundary line, wherein the first region and the second region are spaced apart from one another by a boundary gap , characterized in that the entire boundary gap or an entire boundary layer between the first region and the second region is filled with a thermally insulating material.
A motor operated valve control device connected with a motor operated valve comprising a rotor with a rotor core , and a magnetic sensor , wherein the magnetic sensor faces a sensor magnet provided on an upper end face of the rotor core and detects a rotation angle value of the sensor magnet , the motor operated valve control device configured to adjust a valve opening degree by rotating the rotor , the motor operated valve control device comprising: a rotation detecting unit for detecting a rotation angle of the rotor by obtaining the rotation angle value from the magnetic sensor ; and a rotation control unit for moving the rotor toward a predetermined stop position (Q) by providing instructions on a rotating speed and a rotating direction of the rotor , wherein in control of movement of the rotor to the stop position (Q), the rotation control unit is configured to lower the rotating speed of the rotor when a difference between a reference angle value indicating a rotation angle at a reference position (P0) of the rotor and a detected rotation angle of the rotor is smaller than a first threshold, characterized in that the rotation control unit is configured to increase the rotating speed of the rotor after lowering the rotating speed of the rotor , when the difference between the detected rotation angle of the rotor and the reference angle value is equal to or larger than the first threshold.
A method of operating a fuel cell system comprising a fuel cell stack , a coolant reservoir and a coolant flow path , between the coolant reservoir and the fuel cell stack , the method comprising: providing an antimicrobial patterned surface in one or more of the fuel cell stack , the coolant reservoir , and the coolant flow path ; wherein the antimicrobial patterned surface comprises microscale corrugations for inhibiting microbial growth, wherein the microscale corrugations each have a width of between 10 and 100 μm and are separated across their width by a spacing of between 10 and 100 μm and supplying coolant from the coolant reservoir to the fuel cell stack via the coolant flow path whilst operating the fuel cell system to generate electrical power. providing an antimicrobial patterned surface in one or more of the fuel cell stack , the coolant reservoir , and the coolant flow path ; wherein the antimicrobial patterned surface comprises microscale corrugations for inhibiting microbial growth, wherein the microscale corrugations each have a width of between 10 and 100 μm and are separated across their width by a spacing of between 10 and 100 μm and supplying coolant from the coolant reservoir to the fuel cell stack via the coolant flow path whilst operating the fuel cell system to generate electrical power.
A process for preparing polymeric beads comprising a polymer, wherein the polymer comprises, based on the weight of the polymer, from 25% to 75% by weight of structural units of an acetoacetoxy or acetoacetamide functional monomer, and from 25% to 75% by weight of structural units of a polyvinyl monomer; and wherein the polymeric beads contain at least 5,000 μg/g of an alkali metal ion, measured by Inductively Coupled Plasma (ICP), and have a specific surface area in the range of from 80 to 400 m 2 /g determined by the nitrogen adsorption method in which dried and degassed samples were analyzed on an automatic volumetric sorption analyser, said process comprising, (i) suspension polymerization of monomers in the presence of a porogen, wherein the monomers comprise, based on the total weight of monomers, from 25% to 75% by weight of an acetoacetoxy or acetoacetamide functional monomer, and from 25% to 75% by weight of a polyvinyl monomer; and (ii) contacting the obtained polymer from step (i) with a base selected from the group consisting of an alkali metal hydroxide, an alkali metal carbonate, and an alkali metal bicarbonate to obtain the polymeric beads; and wherein the porogen is toluene. from 25% to 75% by weight of structural units of an acetoacetoxy or acetoacetamide functional monomer, and from 25% to 75% by weight of structural units of a polyvinyl monomer; and wherein the polymeric beads contain at least 5,000 μg/g of an alkali metal ion, measured by Inductively Coupled Plasma (ICP), and have a specific surface area in the range of from 80 to 400 m 2 /g determined by the nitrogen adsorption method in which dried and degassed samples were analyzed on an automatic volumetric sorption analyser, said process comprising, (i) suspension polymerization of monomers in the presence of a porogen, wherein the monomers comprise, based on the total weight of monomers, from 25% to 75% by weight of an acetoacetoxy or acetoacetamide functional monomer, and from 25% to 75% by weight of a polyvinyl monomer; and (ii) contacting the obtained polymer from step (i) with a base selected from the group consisting of an alkali metal hydroxide, an alkali metal carbonate, and an alkali metal bicarbonate to obtain the polymeric beads; and wherein the porogen is toluene. (i) suspension polymerization of monomers in the presence of a porogen, wherein the monomers comprise, based on the total weight of monomers, from 25% to 75% by weight of an acetoacetoxy or acetoacetamide functional monomer, and from 25% to 75% by weight of a polyvinyl monomer; and from 25% to 75% by weight of an acetoacetoxy or acetoacetamide functional monomer, and from 25% to 75% by weight of a polyvinyl monomer; and (ii) contacting the obtained polymer from step (i) with a base selected from the group consisting of an alkali metal hydroxide, an alkali metal carbonate, and an alkali metal bicarbonate to obtain the polymeric beads; and wherein the porogen is toluene.
A flow control method performed by a virtualized infrastructure manager, VIM, under a network functions virtualization, NFV, architecture, comprising: • virtualizing a physical resource into multiple virtual resources that are used to independently run services, and dividing the physical resource into multiple sub physical resources, wherein, for each virtual resource among the multiple virtual resources there is a correspondence between the virtual resource and at least one sub physical resource among the multiple sub physical resources, wherein the physical resource is one of a computing resource, a storage resource or a network resource; • obtaining , for each virtual resource, a preset mapping relationship between a service priority and the virtual resource from a network function virtualization orchestrator, NFVO; • setting , for each virtual resource, a priority for the virtual resource according to the preset mapping relationship between the service priority and the virtual resource; and • when a service traffic burst causes congestion of the physical resource, increasing a quantity of sub physical resources that are correspondingly used by a virtual resource with a priority higher than a preset priority threshold, and decreasing a quantity of sub physical resources that are correspondingly used by a virtual resource with a priority lower than the preset priority threshold. • virtualizing a physical resource into multiple virtual resources that are used to independently run services, and dividing the physical resource into multiple sub physical resources, wherein, for each virtual resource among the multiple virtual resources there is a correspondence between the virtual resource and at least one sub physical resource among the multiple sub physical resources, wherein the physical resource is one of a computing resource, a storage resource or a network resource; • obtaining , for each virtual resource, a preset mapping relationship between a service priority and the virtual resource from a network function virtualization orchestrator, NFVO; • setting , for each virtual resource, a priority for the virtual resource according to the preset mapping relationship between the service priority and the virtual resource; and • when a service traffic burst causes congestion of the physical resource, increasing a quantity of sub physical resources that are correspondingly used by a virtual resource with a priority higher than a preset priority threshold, and decreasing a quantity of sub physical resources that are correspondingly used by a virtual resource with a priority lower than the preset priority threshold.
A viscosupplement composition comprising ulvan for use in the treatment, therapy or prophylaxis of a musculoskeletal disease.