mhurhangee/ep-ind-claims huggingface dataset:
A tractor and baler combination, the baler comprising: a chassis configured for towing behind the tractor; a pickup supported by the chassis and configured to deliver cut crop material into the baler; a bale chamber configured to receive the cut crop material from the pickup for forming a bale within the bale chamber; a twine arm assembly configured to apply twine onto a bale during a bale-wrapping procedure, the twine arm assembly movable from a home position at which the twine arm assembly is arranged with respect to the bale chamber to allow forming of the bale within the bale chamber to a twine arm insert position at which the twine arm assembly is arranged with respect to the bale chamber to allow twine to release from the twine arm assembly and onto the bale during the bale-wrapping procedure; and at least one sensor arranged for detecting a position of the twine arm assembly; characterized in that the baler further comprises: a control system receiving a signal from the at least one sensor corresponding to the detection of the twine arm assembly arriving at an insert preparatory position prior to the twine arm assembly reaching the insert position and stopping the tractor based on the detection of the arrival of the twine arm assembly at the insert preparatory position, wherein the bale-wrapping procedure begins substantially simultaneously with the stopping of the tractor. a chassis configured for towing behind the tractor; a pickup supported by the chassis and configured to deliver cut crop material into the baler; a bale chamber configured to receive the cut crop material from the pickup for forming a bale within the bale chamber; a twine arm assembly configured to apply twine onto a bale during a bale-wrapping procedure, the twine arm assembly movable from a home position at which the twine arm assembly is arranged with respect to the bale chamber to allow forming of the bale within the bale chamber to a twine arm insert position at which the twine arm assembly is arranged with respect to the bale chamber to allow twine to release from the twine arm assembly and onto the bale during the bale-wrapping procedure; and at least one sensor arranged for detecting a position of the twine arm assembly; characterized in that the baler further comprises: a control system receiving a signal from the at least one sensor corresponding to the detection of the twine arm assembly arriving at an insert preparatory position prior to the twine arm assembly reaching the insert position and stopping the tractor based on the detection of the arrival of the twine arm assembly at the insert preparatory position, wherein the bale-wrapping procedure begins substantially simultaneously with the stopping of the tractor.
A bearing component, composed of steel which consists of carbon not less than 0.95 mass % and not more than 1.1 mass %, silicon less than 0.3 mass %, manganese less than 0.5 mass %, sulfur less than 0.008 mass %, chromium not less than 1.4 mass % and less than 1.6 mass %, and remainder iron and an impurity and having a carbonitrided layer formed at a surface portion including a contact surface which is a surface in contact with other components, an average concentration of nitrogen in said surface portion being not lower than 0.3 mass % and not higher than 0.6 mass % and variation in nitrogen concentration in said surface portion being not higher than 0.1 mass %, the surface portion being a region extending from the contact surface to a depth of 20 μm in a direction of thickness of the bearing component, and an area ratio of a precipitate in a region where no said carbonitrided layer is formed being not higher than 7%, wherein the precipitate refers to a carbonitride resulting from substitution of a carbide of iron or a part of carbon in the carbide with nitrogen, and includes an Fe-C based compound and an Fe-C-N based compound and wherein the average concentration of nitrogen in the surface portion and the variation in nitrogen concentration in the surface portion are measured as defined in the description. an average concentration of nitrogen in said surface portion being not lower than 0.3 mass % and not higher than 0.6 mass % and variation in nitrogen concentration in said surface portion being not higher than 0.1 mass %, the surface portion being a region extending from the contact surface to a depth of 20 μm in a direction of thickness of the bearing component, and an area ratio of a precipitate in a region where no said carbonitrided layer is formed being not higher than 7%, wherein the precipitate refers to a carbonitride resulting from substitution of a carbide of iron or a part of carbon in the carbide with nitrogen, and includes an Fe-C based compound and an Fe-C-N based compound and wherein the average concentration of nitrogen in the surface portion and the variation in nitrogen concentration in the surface portion are measured as defined in the description.
A method of determination of a nuclear core loading pattern defining the disposition of fuel assemblies in the nuclear core for an operation cycle of a nuclear plant, the method comprising at least the following steps: - definition of at least one potential core loading pattern, - calculation of predictive bowing of the fuel assemblies at the end of the operation cycle for each potential core loading pattern, the calculation being carried out by an automatic learning algorithm trained on a training data set comprising a plurality of others loading patterns and, for each of them, the measures of bowing of fuel assemblies at the end of cycle, - evaluation of the at least one core loading pattern based on the predictive bowing calculations and at least one predetermined criteria, and - selection of one of the potential core loading patterns. - definition of at least one potential core loading pattern, - calculation of predictive bowing of the fuel assemblies at the end of the operation cycle for each potential core loading pattern, the calculation being carried out by an automatic learning algorithm trained on a training data set comprising a plurality of others loading patterns and, for each of them, the measures of bowing of fuel assemblies at the end of cycle, - evaluation of the at least one core loading pattern based on the predictive bowing calculations and at least one predetermined criteria, and - selection of one of the potential core loading patterns.
A method of preparing a LNA oligonucleotide comprising the steps of: a) Incorporating at least one LNA-G monomer comprising an acyl protected exocyclic nitrogen into an oligonucleotide b) Incorporating at least one optionally protected aliphatic amine group into the oligonucleotide c) deprotecting the acyl protected exocyclic nitrogen of the at least one LNA-G monomer by removal of the acyl protection group. wherein steps a) and b) can occur in either order. a) Incorporating at least one LNA-G monomer comprising an acyl protected exocyclic nitrogen into an oligonucleotide b) Incorporating at least one optionally protected aliphatic amine group into the oligonucleotide c) deprotecting the acyl protected exocyclic nitrogen of the at least one LNA-G monomer by removal of the acyl protection group.
Computation apparatus for identifying attacks on a technical system on the basis of events of an event sequence, having: a reception unit for receiving the event sequence, which has a plurality of events, wherein an attack is determined by a particular sequence of events in the received event sequence, a checking unit for checking the received event sequence based on a main event that the particular sequence of events contains, wherein the checking unit is set up to perform a pattern recognition in the received event sequence based on the particular sequence of events when the main event has occurred, and a memory unit for storing the received event sequence in a log file, wherein the checking unit is set up to perform a backward pattern recognition in the stored event sequence, wherein the checking unit begins the pattern recognition at the time of the occurrence of the main event. a reception unit for receiving the event sequence, which has a plurality of events, wherein an attack is determined by a particular sequence of events in the received event sequence, a checking unit for checking the received event sequence based on a main event that the particular sequence of events contains, wherein the checking unit is set up to perform a pattern recognition in the received event sequence based on the particular sequence of events when the main event has occurred, and a memory unit for storing the received event sequence in a log file, wherein the checking unit is set up to perform a backward pattern recognition in the stored event sequence, wherein the checking unit begins the pattern recognition at the time of the occurrence of the main event.
An apparatus for holding a tissue sample comprising, a retaining member comprising a retaining element having a first tissue engaging surface and at least one biasing element, the first tissue engaging surface being moveably attached to a part of the retaining member by said biasing element; a base comprising a second tissue engaging surface and configured to engage the retaining member to form an interior area with the first and second tissue engaging surfaces (20, 14) facing each other; the at least one biasing element configured to urge the first tissue engaging surface toward the second tissue engaging surface to retain the tissue sample therebetween in the interior area, characterized by a retracting member connected to the retaining member and configured to retract the first tissue engaging surface and compress the biasing element to form a gap between the tissue sample and one of the first tissue engaging surface and the second tissue engaging surface.
A method comprising: identifying a converged system compliance checking field for hardware in a converged system, wherein the converged system compliance checking field is based on a purpose of the hardware; identifying baseline compliance data for the converged system compliance checking field; identifying actual compliance data for the converged system compliance checking field by testing the hardware; comparing the actual compliance data to the baseline compliance data; determining whether the hardware is in compliance with the converged system based on the comparison between the actual compliance data and the baseline compliance data, the method being characterized in: determining, with the converged system, the purpose of the hardware based on a position of the hardware in a rack. identifying a converged system compliance checking field for hardware in a converged system, wherein the converged system compliance checking field is based on a purpose of the hardware; identifying baseline compliance data for the converged system compliance checking field; identifying actual compliance data for the converged system compliance checking field by testing the hardware; comparing the actual compliance data to the baseline compliance data; determining whether the hardware is in compliance with the converged system based on the comparison between the actual compliance data and the baseline compliance data, the method being characterized in: determining, with the converged system, the purpose of the hardware based on a position of the hardware in a rack.
A method of operating a network having a plurality of endpoints which communicate with a first data centre and a second data centre via access points, wherein the first data centre includes a first physically secure environment having a first certificate, and the second data centre includes a second physically secure environment having a second certificate, the method comprising: receiving, by the second physically secure environment, an indication that security of the first secure environment has been compromised; and in response to receiving the indication, issuing, by the second physically secure environment, a command to the access points to configure a certificate revocation list indicating that the certificate associated with the first physically secure environment is invalid; and issuing, by the second physically secure environment, a command to the endpoint nodes to load the certificate revocation list from any one of the access points. receiving, by the second physically secure environment, an indication that security of the first secure environment has been compromised; and in response to receiving the indication, issuing, by the second physically secure environment, a command to the access points to configure a certificate revocation list indicating that the certificate associated with the first physically secure environment is invalid; and issuing, by the second physically secure environment, a command to the endpoint nodes to load the certificate revocation list from any one of the access points. issuing, by the second physically secure environment, a command to the access points to configure a certificate revocation list indicating that the certificate associated with the first physically secure environment is invalid; and issuing, by the second physically secure environment, a command to the endpoint nodes to load the certificate revocation list from any one of the access points.
A method for manufacturing a laminate including a substrate made of a metal or an alloy having a Vickers hardness of 120 HV or more, and a film formed on a surface of the substrate and made of a metal or an alloy, the method comprising: a blasting step of blasting the surface of the substrate by accelerating powder of non-metal together with a gas heated to a temperature lower than a melting point of the non-metal and spraying the powder of non-metal onto the surface of the substrate in a solid phase state; and a film forming step of forming the film by accelerating a metal or alloy powder together with a gas heated to a temperature lower than the melting point of the metal or the alloy, spraying the powder in a solid phase state onto the surface of the substrate blasted in the blasting step, and depositing the powder onto the surface of the substrate, wherein the non-metal is ceramics, diamond, or glass, an average particle diameter of the powder of the non-metal is 15 to 500 μm, an average particle diameter of the metal or alloy powder is 20 to 150 μm, and a gas pressure of a working gas at the blasting step and the film forming step is 2 to 5 MPa. a blasting step of blasting the surface of the substrate by accelerating powder of non-metal together with a gas heated to a temperature lower than a melting point of the non-metal and spraying the powder of non-metal onto the surface of the substrate in a solid phase state; and a film forming step of forming the film by accelerating a metal or alloy powder together with a gas heated to a temperature lower than the melting point of the metal or the alloy, spraying the powder in a solid phase state onto the surface of the substrate blasted in the blasting step, and depositing the powder onto the surface of the substrate, wherein the non-metal is ceramics, diamond, or glass, an average particle diameter of the powder of the non-metal is 15 to 500 μm, an average particle diameter of the metal or alloy powder is 20 to 150 μm, and a gas pressure of a working gas at the blasting step and the film forming step is 2 to 5 MPa.
A surgical stapling apparatus, comprising: a first jaw member; a cartridge configured to selectively couple to the first jaw member, the cartridge housing having a plurality of fasteners disposed in slots; a second jaw member having an anvil with staple forming depressions; and a drive member movable from a retracted position to an advanced position for driving the fasteners toward the anvil; characterised in that the cartridge has a cartridge housing defining a recess for housing a resilient member, the resilient member having a first position, a tip (133a, 133b) of the resilient member extending above a surface of the cartridge housing when the resilient member is in the first position, the resilient member having a second position in which the tip (133a, 133b) does not extend above the cartridge housing; the anvil having a locking member with a first position and a second position, an end of the locking member being aligned with the resilient member when the cartridge is coupled to the first jaw member, the locking member blocking movement of the drive member in the first position; the resilient member moving the locking member to the second position when the cartridge is attached to the first jaw member, the locking member allowing movement of the drive member when the locking member is in the second position. a first jaw member; a cartridge configured to selectively couple to the first jaw member, the cartridge housing having a plurality of fasteners disposed in slots; a second jaw member having an anvil with staple forming depressions; and a drive member movable from a retracted position to an advanced position for driving the fasteners toward the anvil; characterised in that the cartridge has a cartridge housing defining a recess for housing a resilient member, the resilient member having a first position, a tip (133a, 133b) of the resilient member extending above a surface of the cartridge housing when the resilient member is in the first position, the resilient member having a second position in which the tip (133a, 133b) does not extend above the cartridge housing; the anvil having a locking member with a first position and a second position, an end of the locking member being aligned with the resilient member when the cartridge is coupled to the first jaw member, the locking member blocking movement of the drive member in the first position; the resilient member moving the locking member to the second position when the cartridge is attached to the first jaw member, the locking member allowing movement of the drive member when the locking member is in the second position.
A regeneration method, comprising: (a) conducting fuel through at least one first conduit and oxidant through at least one second conduit, the first and second conduits being located in a recuperation zone of a reactor system; (b) combining and reacting at least a portion of the fuel with at least a portion of the oxidant in a mixing-distributing zone to produce heat and a first reaction product, the mixing-distributing zone being located (i) in the reactor system and (ii) downstream of the recuperation zone and upstream of a reaction zone, the mixing-distributing zone comprising a mixer-distributor having a Maldistribution ≤ 15.0%, a pressure drop ≤ 0.3 bar, and a combined fuel-oxidant flow rate ≥ 10.0 kg/hr; and (c) conducting the reaction product through the reaction zone and transferring at least a portion of the heat from the reaction product to the reaction zone, wherein the mixer-distributor comprises a plurality of first orifices in a first location; at least one second orifice at a second location, the first location being upstream of the second location with respect to the fuel-oxidant flow; and means for substantially preventing fuel-oxidant flow through the mixer-distributor except via the orifices, wherein the number of orifices at the first location is greater than the number of orifices at the second location. (a) conducting fuel through at least one first conduit and oxidant through at least one second conduit, the first and second conduits being located in a recuperation zone of a reactor system; (b) combining and reacting at least a portion of the fuel with at least a portion of the oxidant in a mixing-distributing zone to produce heat and a first reaction product, the mixing-distributing zone being located (i) in the reactor system and (ii) downstream of the recuperation zone and upstream of a reaction zone, the mixing-distributing zone comprising a mixer-distributor having a Maldistribution ≤ 15.0%, a pressure drop ≤ 0.3 bar, and a combined fuel-oxidant flow rate ≥ 10.0 kg/hr; and (c) conducting the reaction product through the reaction zone and transferring at least a portion of the heat from the reaction product to the reaction zone,
A conversion device configured to convert a manual liquid supply device into an automated liquid supply device by mounting the conversion device to the manual liquid supply device including a liquid discharging portion, the liquid discharging portion being protruded from a mounting surface in the manual liquid supply device and discharging or stopping liquid with an operation of a manual operation member in the liquid discharging portion, the conversion device comprising: an automated operation portion configured to automatically operate the manual operation member; and a mounting plate made of a resin, positioned between the automated operation portion and the mounting surface, and configured to mount the automated operation portion to the mounting surface, the mounting plate including: a back surface facing to the manual liquid supply device and coming in contact with the mounting surface; a front surface opposed to the back surface and facing to the automated operation portion; and a liquid discharging portion opening passed through the front and back surfaces (110a, 110b) and through which the liquid discharging portion is inserted, and the conversion device further comprising a spacer configured to be interspersed and sandwiched between the front surface and the automated operation portion, and configured to create a gap between the front surface and the automated operation portion. an automated operation portion configured to automatically operate the manual operation member; and a mounting plate made of a resin, positioned between the automated operation portion and the mounting surface, and configured to mount the automated operation portion to the mounting surface, the mounting plate including: a back surface facing to the manual liquid supply device and coming in contact with the mounting surface; a front surface opposed to the back surface and facing to the automated operation portion; and a liquid discharging portion opening passed through the front and back surfaces (110a, 110b) and through which the liquid discharging portion is inserted, and the conversion device further comprising a spacer configured to be interspersed and sandwiched between the front surface and the automated operation portion, and configured to create a gap between the front surface and the automated operation portion.