mhurhangee/patent-ind-claim-en huggingface dataset:
A draper support sub-assembly for a draper belt assembly of a header of an agricultural harvester , comprising: a first draper support having a curved surface engaging a draper belt ; a second draper support having a curved surface for supporting the draper belt ; characterized in that the first draper support is an elliptical shaped support member; and a cutter bar mount for supporting a cutter bar , wherein the cutter bar mount is positioned adjacent to the first and second draper supports . a first draper support having a curved surface engaging a draper belt ; a second draper support having a curved surface for supporting the draper belt ; characterized in that the first draper support is an elliptical shaped support member; and a cutter bar mount for supporting a cutter bar , wherein the cutter bar mount is positioned adjacent to the first and second draper supports .
A penetrator and isolation device comprising a penetrator device , a mounting nut and a penetrator isolation device , the penetrator isolation device comprising: a central cylindrical portion formed from a high performance thermoplastic having low creep properties and having an inner diameter adapted to receive the upper portion of a penetrator ; and a lower inner flange portion formed from a high performance thermoplastic having low creep properties and coupled to a lower portion of the central cylindrical portion , the lower inner flange portion forming an aperture of smaller inner diameter than the central cylindrical portion for receiving a lower portion of the penetrator ; the mounting nut comprising a tapered outer body portion being configured to be mounted in a tapered through-hole in a pressure vessel and an outer flange , and being configured to mate with a threaded portion of the penetrator ; wherein when the penetrator device is mounted in the tapered through hole in the pressure vessel with the penetrator isolation device between the outer surface of the pressure vessel and the penetrator device , the mounting nut is able to mate with the penetrator to secure the penetrator in the through hole . a central cylindrical portion formed from a high performance thermoplastic having low creep properties and having an inner diameter adapted to receive the upper portion of a penetrator ; and a lower inner flange portion formed from a high performance thermoplastic having low creep properties and coupled to a lower portion of the central cylindrical portion , the lower inner flange portion forming an aperture of smaller inner diameter than the central cylindrical portion for receiving a lower portion of the penetrator ; the mounting nut comprising a tapered outer body portion being configured to be mounted in a tapered through-hole in a pressure vessel and an outer flange , and being configured to mate with a threaded portion of the penetrator ; wherein when the penetrator device is mounted in the tapered through hole in the pressure vessel with the penetrator isolation device between the outer surface of the pressure vessel and the penetrator device , the mounting nut is able to mate with the penetrator to secure the penetrator in the through hole .
A synchronization signal block indication method, wherein the method comprises: generating , by a network device, a synchronization signal block indication message, wherein the synchronization signal block indication message comprises synchronization signal block group indication information and one synchronization signal block bitmap, the synchronization signal block group indication information is used to indicate one or more synchronization signal block groups of a plurality of synchronization signal block groups, wherein each synchronisation signal block group comprises one or more synchronization signal blocks, the one or more synchronization signal blocks being sent by the network device, the synchronization signal block bitmap is used to indicate one or more synchronization signal blocks sent by the network device in each of the one or more synchronization signal block groups; and sending , by the network device, the synchronization signal block indication message, wherein the synchronization signal block group is a synchronization signal burst. generating , by a network device, a synchronization signal block indication message, wherein the synchronization signal block indication message comprises synchronization signal block group indication information and one synchronization signal block bitmap, the synchronization signal block group indication information is used to indicate one or more synchronization signal block groups of a plurality of synchronization signal block groups, wherein each synchronisation signal block group comprises one or more synchronization signal blocks, the one or more synchronization signal blocks being sent by the network device, the synchronization signal block bitmap is used to indicate one or more synchronization signal blocks sent by the network device in each of the one or more synchronization signal block groups; and sending , by the network device, the synchronization signal block indication message, wherein the synchronization signal block group is a synchronization signal burst.
A method performed by a central unit, CU, that together with first and second distributed units, DUs , comprise a node of a wireless communication network, the method comprising: receiving from the first DU, prior to occurrence of a first event concerning a user equipment, UE, that is in communication with the first DU, a lower-layer configuration of the UE; storing the lower-layer configuration of the UE; sending , to the second DU, a setup request comprising the stored lower-layer configuration of the UE; receiving , from the second DU, a setup response comprising a first delta configuration indicating one or more differences between a lower-layer configuration of the second DU and the stored lower-layer configuration; and sending , to the first DU, a modification request comprising the first delta configuration, wherein the lower-layer configuration of the UE comprises at least one of the following: a Radio Resource Management, RRM, configuration used by the first DU with respect to the UE; and an access stratum configuration used by the first DU with respect to the UE. receiving from the first DU, prior to occurrence of a first event concerning a user equipment, UE, that is in communication with the first DU, a lower-layer configuration of the UE; storing the lower-layer configuration of the UE; sending , to the second DU, a setup request comprising the stored lower-layer configuration of the UE; receiving , from the second DU, a setup response comprising a first delta configuration indicating one or more differences between a lower-layer configuration of the second DU and the stored lower-layer configuration; and sending , to the first DU, a modification request comprising the first delta configuration, wherein the lower-layer configuration of the UE comprises at least one of the following: a Radio Resource Management, RRM, configuration used by the first DU with respect to the UE; and an access stratum configuration used by the first DU with respect to the UE.
A method of measuring the biological activity of a sample batch of defibrotide comprising: growing mammalian cells in culture; incubating the cells with a solution containing at least one cytotoxic agent and at least one concentration of defibrotide from the sample batch; determining the viability of the cells after an incubation period; comparing the cell viability to the cell viability for a reference batch of defibrotide and calculating the biological activity of the sample batch of defibrotide based on the comparison; wherein said at least one cytotoxic agent has anti-metabolite, alkylating, nucleic acid intercalating or apoptotic properties. growing mammalian cells in culture; incubating the cells with a solution containing at least one cytotoxic agent and at least one concentration of defibrotide from the sample batch; determining the viability of the cells after an incubation period; comparing the cell viability to the cell viability for a reference batch of defibrotide and calculating the biological activity of the sample batch of defibrotide based on the comparison; wherein said at least one cytotoxic agent has anti-metabolite, alkylating, nucleic acid intercalating or apoptotic properties.
Device for providing sheet-format substrate sections (S'), comprising a roll unwinder for the inlet-side feeding of a web-format substrate (S); at least one application device for supplying a fluid to a first side of the web-format substrate (S); a device (03; 03'; 03") accelerating the drying and/or curing process, a drying device (03; 03'; 03") for short, downstream from the application device (02; 02'); and a cross-cutting device , by which the web-format substrate (S) can be cut into sheet-format substrate sections (S') and at the outlet of which these substrate sections (S') can be provided for subsequent processing or output to a delivery unit, characterized in that , for the formation of a barrier layer in the manner of a coating that prevents adjacent gaseous, liquid, or pasty media from entering or penetrating the substrate material, two application devices (02; 02') acting upon the same first side and formed by coating units (02; 02') for supplying a varnish, forming the barrier layer, to the same first side of the printing substrate web (S) are provided in the substrate path of the web-format substrate (S) between the roll unwinder and the cross-cutting device , and a drying device (03; 03'; 03") is provided between the cross-cutting device and the, viewed upstream, first coating unit (02; 02'), and a drying device (03; 03'; 03") is provided in the substrate path between the two coating units (02; 02').
A method for switching the type of gases loaded on a ship , which is provided with: a hull ; a tank provided in the hull and storing either ammonia or carbon dioxide; a supply line through which the other of the ammonia and the carbon dioxide is supplied to the tank ; a first discharge line through which mixed gas of the ammonia and the carbon dioxide is discharged from the tank ; and a water tank provided in the hull and storing water, the method comprising: discharging mixed gas of ammonia and carbon dioxide from the tank through the first discharge line when the other of the ammonia and the carbon dioxide is supplied to the tank through the supply line ; and introducing the mixed gas, which is discharged from the tank through the first discharge line , to the water tank . a hull ; a tank provided in the hull and storing either ammonia or carbon dioxide; a supply line through which the other of the ammonia and the carbon dioxide is supplied to the tank ; a first discharge line through which mixed gas of the ammonia and the carbon dioxide is discharged from the tank ; and a water tank provided in the hull and storing water, the method comprising: discharging mixed gas of ammonia and carbon dioxide from the tank through the first discharge line when the other of the ammonia and the carbon dioxide is supplied to the tank through the supply line ; and introducing the mixed gas, which is discharged from the tank through the first discharge line , to the water tank . discharging mixed gas of ammonia and carbon dioxide from the tank through the first discharge line when the other of the ammonia and the carbon dioxide is supplied to the tank through the supply line ; and introducing the mixed gas, which is discharged from the tank through the first discharge line , to the water tank .
A method of controlling a gas turbine arranged to supply a load L, the gas turbine comprising a compressor arranged to operate at a rotational speed n , a combustor and a fuel supply means comprising a first fuel supply means and a second fuel supply means, wherein the compressor is arranged to provide air to the combustor at a steady state air mass flow rate m ̅ ̇ SS and wherein the fuel supply means is arranged to supply fuel at a fuel mass flow rate m total to the combustor , the method comprising: responsive to a load change Ä L to the load L, controlling the compressor to provide air to the combustor at a new air mass flow rate m ̅ ̇ TR , wherein the new air mass flow rate m ̅ ̇ TR is within a range between a first threshold m ̅ ̇ LBO and a second threshold m ̅ ̇ SUR (S701), characterized in that controlling the compressor to provide air to the combustor at the new air mass flow rate m ̅ ̇ TR comprises determining a correction factor CF for the load change Ä L to the load L and adjusting the air mass flow rate m ̅ ̇ to the new air mass flow rate m ̅ ̇ TR based, at least in part, on the determined correction factor CF, and in that controlling air provided to the combustor at the new air mass flow rate m ̅ ̇ TR comprises determining a rate of change of the rotational speed dn dt corresponding to the load change Ä L to the load L and adjusting the air mass flow rate m to the new air mass flow rate m ̅ ̇ TR based, at least in part, on the determined correction factor CF and the determined allowable rate of change of the rotational speed dn dt . responsive to a load change Ä L to the load L, controlling the compressor to provide air to the combustor at a new air mass flow rate m ̅ ̇ TR , wherein the new air mass flow rate m ̅ ̇ TR is within a range between a first threshold m ̅ ̇ LBO and a second threshold m ̅ ̇ SUR (S701), characterized in that controlling the compressor to provide air to the combustor at the new air mass flow rate m ̅ ̇ TR comprises determining a correction factor CF for the load change Ä L to the load L and adjusting the air mass flow rate m ̅ ̇ to the new air mass flow rate m ̅ ̇ TR based, at least in part, on the determined correction factor CF, and in that controlling air provided to the combustor at the new air mass flow rate m ̅ ̇ TR comprises determining a rate of change of the rotational speed dn dt corresponding to the load change Ä L to the load L and adjusting the air mass flow rate m to the new air mass flow rate m ̅ ̇ TR based, at least in part, on the determined correction factor CF and the determined allowable rate of change of the rotational speed dn dt .
An analysis kit comprising an analysis device, a detection reagent, and a sealing liquid, wherein the analysis device is adapted for detecting a biochemical reaction by using a detector wherein the device includes a microwell array in which a plurality of wells are formed; and each of the wells has an aspect ratio as calculated by the following Formula Aspect ratio = Depth of each well / Diameter of the largest circle among circles included in a region enclosed by a rim of each well wherein the Diameter of largest circle is an aperture diameter of the well, which is 100 μm or less, wherein the sealing liquid is an oil; wherein the device further comprises a cover member which is configured to form a gap serving as a channel between the microwell array and the cover member ; characterized in that said aspect ratio is 1.3 or more and 10 or less. the device includes a microwell array in which a plurality of wells are formed; and each of the wells has an aspect ratio as calculated by the following Formula Aspect ratio = Depth of each well / Diameter of the largest circle among circles included in a region enclosed by a rim of each well wherein the Diameter of largest circle is an aperture diameter of the well, which is 100 μm or less, wherein the sealing liquid is an oil;
A higher-order vibration control device (i) comprising: a housing secured to a large-scale construction; an impactor housed movably in the housing ; and a locking mechanism capable of selectively switching between release and restraint of movement of the impactor in the housing , wherein the locking mechanism is configured to release movement of the impactor in an event that a flying object may possibly impact the large-scale construction, characterized in that the locking mechanism includes a hydraulic pump ; a pair of pipes through which hydraulic oil supplied from the hydraulic pump flows; a cylinder connected to the pipes ; a piston configured to slide in the cylinder ; a cylinder rod attached to the piston (If); and a reaction plate which is attached to the cylinder rod and configured to move back and forth against the impactor ; or the locking mechanism (2; 2A) includes a shaft ; a reaction plate which is attached to the shaft and configured to move back and forth against the impactor ; a ball screw provided on an outer circumferential surface of the shaft ; a ball screw nut screwed to the ball screw ; a rotor secured to an outer circumference of the ball screw nut ; and a stator which is installed in a gap defined between the stator and an outer circumference of the rotor and configured to generate electromagnetic force to thereby rotating the rotor . a housing secured to a large-scale construction; an impactor housed movably in the housing ; and a locking mechanism capable of selectively switching between release and restraint of movement of the impactor in the housing , wherein the locking mechanism is configured to release movement of the impactor in an event that a flying object may possibly impact the large-scale construction, characterized in that the locking mechanism includes a hydraulic pump ; a pair of pipes through which hydraulic oil supplied from the hydraulic pump flows; a cylinder connected to the pipes ; a piston configured to slide in the cylinder ; a cylinder rod attached to the piston (If); and a reaction plate which is attached to the cylinder rod and configured to move back and forth against the impactor ; or the locking mechanism (2; 2A) includes a shaft ; a reaction plate which is attached to the shaft and configured to move back and forth against the impactor ; a ball screw provided on an outer circumferential surface of the shaft ; a ball screw nut screwed to the ball screw ; a rotor secured to an outer circumference of the ball screw nut ; and a stator which is installed in a gap defined between the stator and an outer circumference of the rotor and configured to generate electromagnetic force to thereby rotating the rotor .
A surgical instrumentation assembly for positioning a shoulder prosthesis, the shoulder prosthesis comprising a patient-specific shoulder implant adapted to fit onto a glenoid cavity of a scapula (S) of a patient, wherein the assembly comprises a patient-specific impacting device having an underside surface congruent with the glenoid cavity (G) of the scapula (S) of the patient, said underside surface being provided with protrusions adapted to perforate a cortical bone (C) of the scapula (S) upon impact of the impacting device against the scapula (S) by a one-sided translation movement (F).
A method of preparing an impact resistant polycarbonate composition having improved resistance to polymer degradation comprising, in admixture, 48 to 75 weight percent of an aromatic polycarbonate and 52 to 25 weight percent of an elastomer-modified graft copolymer polymer and optional polymeric flow promoter, based on the total weight of polycarbonate, elastomer-modified graft copolymer, and polymeric flow promoter, wherein the elastomer-modified graft copolymer is prepared by an emulsion polymerization process in which before grafting a reaction mixture comprising butadiene is polymerized in the presence of an electrolyte that is selected from the group consisting of disodium phosphate, dipotassium phosphate, monosodium phosphate, monopotassium phosphate, trisodium phosphate, tripotassium phosphate, sodium bicarbonate, potassium bicarbonate, sodium carbonate, potassium carbonate, sodium nitrate, potassium nitrate, sodium sulfate, potassium sulfate, sodium bisulfate, potassium bisulfate, and combinations thereof, further in the presence of a surfactant selected from the group consisting of substituted or unsubstituted alkyl sulfonates, alkylaryl sulfonates, alkyl sulfates, alkylaryl sulfates, alkyl phosphate, alkylaryl phosphates, and mixtures thereof, wherein each alkyl group can have 1-20 carbon atoms and each aryl group can have 6-12 carbon atoms; the resultant polybutadiene is further agglomerated to a larger particle size; wherein the elastomer-modified graft copolymer is made by a process in which agglomerated polybutadiene latex is grafted with a comonomer mixture comprising styrene and acrylonitrile.
A dispensing end effector suitable for dispensing underfill to components on a printed circuit board within an underfill chamber , comprising: an electromechanical connection, said electromechanical connection being connectable to at least one dispensing robot arm capable of physically situating the dispensing proximate to the circuit board ; a communicative connection, said communicative connection being connectable to a dispense controller capable of communicatively controlling at least the dispensing; a dispenser which includes an underfill output port , which is capable of the dispensing, and which is removably mounted to the electromechanical connection; wherein, the dispensing end effector further comprises: a protective enclosure at least substantially about the dispenser , wherein the protective enclosure comprises heat shielding , characterized in that the protective enclosure comprises a laser distance sensor suitable to spatially orient the dispenser ; and wherein the heat shielding is arranged in the path of light of the laser distance sensor and is opaque or transparent. an electromechanical connection, said electromechanical connection being connectable to at least one dispensing robot arm capable of physically situating the dispensing proximate to the circuit board ; a communicative connection, said communicative connection being connectable to a dispense controller capable of communicatively controlling at least the dispensing; a dispenser which includes an underfill output port , which is capable of the dispensing, and which is removably mounted to the electromechanical connection; wherein, the dispensing end effector further comprises: a protective enclosure at least substantially about the dispenser , wherein the protective enclosure comprises heat shielding , characterized in that the protective enclosure comprises a laser distance sensor suitable to spatially orient the dispenser ; and wherein the heat shielding is arranged in the path of light of the laser distance sensor and is opaque or transparent. a protective enclosure at least substantially about the dispenser , wherein the protective enclosure comprises heat shielding , characterized in that the protective enclosure comprises a laser distance sensor suitable to spatially orient the dispenser ; and wherein the heat shielding is arranged in the path of light of the laser distance sensor and is opaque or transparent.