mhurhangee/patent-ind-claim-en huggingface dataset:
An alloying element-saving hot rolled duplex stainless steel material comprising, by mass%: C: 0.03% or less; Si: 0.05% to 1.0%; Mn: 0.5% to 7.0%; P: 0.05% or less; S: 0.010% or less; Ni: 0.1% to 5.0%; Cr: 18.0% to 25.0%; N: 0.05% to 0.30%; and A1: 0.001% to 0.05%, and further comprising one or more selected from: V: 0.05% to 0.5%; Nb: 0.01% to 0.20%; and Ti: 0.003% to 0.05%, optionally further comprising one or more selected from: Mo: 1.5% or less; Cu: 2.0% or less; W: 1.0% or less; and Co: 2.0% or less, and/or optionally further comprising one or more selected from: B: 0.0050% or less; Ca: 0.0050% or less; Mg: 0.0030% or less; and REM: 0.10% or less, with a remainder being Fe and inevitable impurities, wherein the alloying element-saving hot rolled duplex stainless steel material is produced by hot rolling, a chromium nitride precipitation temperature TN2, which is a second index regarding precipitation of chromium nitrides during the hot rolling and determined in accordance with the description, is in a range of 960°C or lower, a yield strength is 50 MPa or higher than that of the alloying element-saving hot rolled duplex stainless steel material which had been subjected to a solution heat treatment at 1000°C for 5 minutes, and the alloying element-saving hot rolled duplex stainless steel material is as hot rolled state, and is not subjected to a solution heat treatment. C: 0.03% or less; Si: 0.05% to 1.0%; Mn: 0.5% to 7.0%; P: 0.05% or less; S: 0.010% or less; Ni: 0.1% to 5.0%; Cr: 18.0% to 25.0%; N: 0.05% to 0.30%; and A1: 0.001% to 0.05%, and V: 0.05% to 0.5%; Nb: 0.01% to 0.20%; and Ti: 0.003% to 0.05%, Mo: 1.5% or less; Cu: 2.0% or less; W: 1.0% or less; and Co: 2.0% or less, and/or B: 0.0050% or less; Ca: 0.0050% or less; Mg: 0.0030% or less; and REM: 0.10% or less, with a remainder being Fe and inevitable impurities, wherein the alloying element-saving hot rolled duplex stainless steel material is produced by hot rolling, a chromium nitride precipitation temperature TN2, which is a second index regarding precipitation of chromium nitrides during the hot rolling and determined in accordance with the description, is in a range of 960°C or lower, a yield strength is 50 MPa or higher than that of the alloying element-saving hot rolled duplex stainless steel material which had been subjected to a solution heat treatment at 1000°C for 5 minutes, and the alloying element-saving hot rolled duplex stainless steel material is as hot rolled state, and is not subjected to a solution heat treatment.
A clapper-type electromagnetic release for a miniature circuit breaker, comprising an armature , a magnet yoke , a coil , an iron core , a shaft and an armature torsion spring , wherein the iron core is mounted on the magnet yoke , the coil is sleeved on the iron core , the armature is mounted on the shaft and is rotatable around the shaft , the armature torsion spring is mounted on the shaft , the armature torsion spring presses against the armature , so as to make the armature reset, characterised in that , an inner side surface of the armature extends out of mounting plates , shaft installation holes are respectively provided in the mounting plates , two ends of the shaft are respectively mounted in the shaft installation holes , the armature torsion spring is mounted on the shaft and located between the mounting plates , and the armature torsion spring has one end lapped on a housing of the circuit breaker, and the other end lapped on a lower surface of the armature . the iron core is mounted on the magnet yoke , the coil is sleeved on the iron core , the armature is mounted on the shaft and is rotatable around the shaft , the armature torsion spring is mounted on the shaft , the armature torsion spring presses against the armature , so as to make the armature reset, characterised in that , an inner side surface of the armature extends out of mounting plates , shaft installation holes are respectively provided in the mounting plates , two ends of the shaft are respectively mounted in the shaft installation holes , the armature torsion spring is mounted on the shaft and located between the mounting plates , and the armature torsion spring has one end lapped on a housing of the circuit breaker, and the other end lapped on a lower surface of the armature .
An intake manifold for an engine comprising a plurality of cylinder heads , each cylinder head defining a respective cylinder of a plurality of cylinders , the intake manifold comprising: a first passage providing a first pathway through the intake manifold for supplying intake air to the plurality of cylinders of the engine ; a gaseous fuel passage providing a pathway through the intake manifold for supplying gaseous fuel to at least one of the plurality of cylinders ; at least one gas admission valve mounted to the gaseous fuel passage configured to control a flow rate of the gaseous fuel to the at least one of the plurality of cylinders ; and a gas runner coupling the at least one gas admission valve to at least one cylinder head , and arranged such that, in use, gaseous fuel exiting the gas runner mixes with incoming intake air at a mixing region where the intake manifold is coupled to the cylinder head. a first passage providing a first pathway through the intake manifold for supplying intake air to the plurality of cylinders of the engine ; a gaseous fuel passage providing a pathway through the intake manifold for supplying gaseous fuel to at least one of the plurality of cylinders ; at least one gas admission valve mounted to the gaseous fuel passage configured to control a flow rate of the gaseous fuel to the at least one of the plurality of cylinders ; and a gas runner coupling the at least one gas admission valve to at least one cylinder head , and arranged such that, in use, gaseous fuel exiting the gas runner mixes with incoming intake air at a mixing region where the intake manifold is coupled to the cylinder head.
A printing system comprising: at least one physical memory device configured to store uniformity compensation logic; and one or more processors coupled with the at least one physical memory device and configured to execute the uniformity compensation logic to: receive, from a measurement module , first nozzle measurement data for each of a pel forming elements; identify, by defect detection logic , a defect region in the first nozzle measurement data associated with one or more defective pel forming elements; generate a first jet out mask indicating the defect regions; replace the defect regions in the first nozzle measurement data with replacement data to generate first uniformity data; and generate first uniformity compensation data based on the first uniformity data. at least one physical memory device configured to store uniformity compensation logic; and one or more processors coupled with the at least one physical memory device and configured to execute the uniformity compensation logic to: receive, from a measurement module , first nozzle measurement data for each of a pel forming elements; identify, by defect detection logic , a defect region in the first nozzle measurement data associated with one or more defective pel forming elements; generate a first jet out mask indicating the defect regions; replace the defect regions in the first nozzle measurement data with replacement data to generate first uniformity data; and generate first uniformity compensation data based on the first uniformity data. receive, from a measurement module , first nozzle measurement data for each of a pel forming elements; identify, by defect detection logic , a defect region in the first nozzle measurement data associated with one or more defective pel forming elements; generate a first jet out mask indicating the defect regions; replace the defect regions in the first nozzle measurement data with replacement data to generate first uniformity data; and generate first uniformity compensation data based on the first uniformity data.
Use of a polymer obtainable by a process comprising: i) reacting a polyether polyol having a hydroxyl functionality of 2-6 and a number average molecular weight of 300-15.000 Da, with a compound of formula (I) wherein R 1 is selected from H and a linear or branched C 1 -C 10 alkyl group, and R 2 is a linear or branched C 1 -C 10 alkylene group, in a molar ratio compound of formula (I):polyether polyol from 0.05:1 to x:1, wherein x is the hydroxyl functionality of the polyether polyol minus 1, to provide a mercapto-functionalized polyether polyol; and ii) reacting the resulting mercapto-functionalized polyether polyol with an ethylenically unsaturated acid or anhydride monomer in the presence of a radical initiator; as dispersant in the acidolysis of polyurethanes. i) reacting a polyether polyol having a hydroxyl functionality of 2-6 and a number average molecular weight of 300-15.000 Da, with a compound of formula (I) wherein R 1 is selected from H and a linear or branched C 1 -C 10 alkyl group, and R 2 is a linear or branched C 1 -C 10 alkylene group, in a molar ratio compound of formula (I):polyether polyol from 0.05:1 to x:1, wherein x is the hydroxyl functionality of the polyether polyol minus 1, to provide a mercapto-functionalized polyether polyol; and R 1 is selected from H and a linear or branched C 1 -C 10 alkyl group, and R 2 is a linear or branched C 1 -C 10 alkylene group, ii) reacting the resulting mercapto-functionalized polyether polyol with an ethylenically unsaturated acid or anhydride monomer in the presence of a radical initiator;
A wire embedding head for forming an antenna line having multiple wires as a line, comprising: a head housing for embedding wires (W) such that the wires (W) wound around a spool (S) are inserted and an antenna line (AW) is formed at a specific position determined on a substrate (B); an ultrasonic generator for melting a specific position of the substrate (B) when the wires (W) are embedded, the ultrasonic generator being formed at one end of the head housing and generating vibration of 30 kHz to 60 kHz so that the wires (W) are embedded at a specific position determined in the substrate (B) and form the antenna line (AW); and a multi-wire embedding horn in which a plurality of wire outlets is formed in a specific arrangement so that the plurality of wires (W) are simultaneously discharged and embedded in the substrate (B) to form the antenna line (AW), which is connected in a parallel pattern, wherein when three or more wire outlets are formed in the multi-wire embedding horn a straight center line (CL1) of a first wire outlet and a straight center line (CL2) of a second wire outlet are shifted from each other, and a straight center line (CLn) of a further wire outlet is located on the straight center line (CL1) of the first wire outlet ; and an arrangement of the antenna line (AW), in which the plurality of wires (W) are embedded and formed in a parallel pattern, is densified, thereby maximizing communication efficiency. a head housing for embedding wires (W) such that the wires (W) wound around a spool (S) are inserted and an antenna line (AW) is formed at a specific position determined on a substrate (B); an ultrasonic generator for melting a specific position of the substrate (B) when the wires (W) are embedded, the ultrasonic generator being formed at one end of the head housing and generating vibration of 30 kHz to 60 kHz so that the wires (W) are embedded at a specific position determined in the substrate (B) and form the antenna line (AW); and a multi-wire embedding horn in which a plurality of wire outlets is formed in a specific arrangement so that the plurality of wires (W) are simultaneously discharged and embedded in the substrate (B) to form the antenna line (AW), which is connected in a parallel pattern, wherein when three or more wire outlets are formed in the multi-wire embedding horn a straight center line (CL1) of a first wire outlet and a straight center line (CL2) of a second wire outlet are shifted from each other, and a straight center line (CLn) of a further wire outlet is located on the straight center line (CL1) of the first wire outlet ; and an arrangement of the antenna line (AW), in which the plurality of wires (W) are embedded and formed in a parallel pattern, is densified, thereby maximizing communication efficiency.
A cooling appliance comprising: a body and a door having an inner liner , a grain dispensing unit mounted onto the inner liner comprising; a container for storing the grain, a dispenser pivotably attached on a lower portion of the container , wherein the dispenser is pressed by means of force applied by a user to pivot between an open position allowing the grain to flow under the influence of gravity and a closed position inhibiting flow of the grain, a chute provided under the container configured to pivot outwards to transmit the grain in the open position and to pivot back underneath the container to inhibit the flow of grain in the closed position, and a locking mechanism , characterized in that the locking mechanism comprises a lug pivotable between a first position during which the lug abuts against the chute , locking the movement of the chute , and a second position during which the lug moves away from the chute , freeing the movement of the chute , and the locking mechanism is provided under the container and behind the chute and the dispenser is configured to be freely pivotable irrespective of the position of the locking mechanism . a body and a door having an inner liner , a grain dispensing unit mounted onto the inner liner comprising; a container for storing the grain, a dispenser pivotably attached on a lower portion of the container , wherein the dispenser is pressed by means of force applied by a user to pivot between an open position allowing the grain to flow under the influence of gravity and a closed position inhibiting flow of the grain, a chute provided under the container configured to pivot outwards to transmit the grain in the open position and to pivot back underneath the container to inhibit the flow of grain in the closed position, and a locking mechanism , characterized in that the locking mechanism comprises a lug pivotable between a first position during which the lug abuts against the chute , locking the movement of the chute , and a second position during which the lug moves away from the chute , freeing the movement of the chute , and the locking mechanism is provided under the container and behind the chute and the dispenser is configured to be freely pivotable irrespective of the position of the locking mechanism .
A routing and spectrum assignment, RSA, element configured to provide physical layer impairment, PLI, aware network path selection on a Transport Software-Defined Network, T-SDN, the RSA element configured to: receive a connection request to connect a first node with a second node of the T-SDN; receive Optical Signal-to-Noise Ratio, OSNR, measurements from controllers in communication with links of the T-SDN; receive a network utilization parameter for the T-SDN; identify a set of n network paths that connect the first node with the second node; and, select a network path connecting the first node with the second node based on the received OSNR measurements and the received network utilization parameter, wherein a particular combination of links forms a particular network path, and the RSA element further configured to: rank sorting the set of n network paths based on a linear OSNR value for each path to order the paths from highest OSNR to lowest OSNR; evaluate the set of n network paths to identify a sub-set of q network paths, starting from the network path with the highest OSNR value until the sub-set q includes one network path with no non-linear values; evaluate the sub-set of q network paths to obtain for each the network links, updated linear OSNR and updated non-linear OSNR values; and, assign the network path with the highest combination of updated linear OSNR and updated non-linear OSNR values as the network connection. receive a connection request to connect a first node with a second node of the T-SDN; receive Optical Signal-to-Noise Ratio, OSNR, measurements from controllers in communication with links of the T-SDN; receive a network utilization parameter for the T-SDN; identify a set of n network paths that connect the first node with the second node; and, select a network path connecting the first node with the second node based on the received OSNR measurements and the received network utilization parameter, rank sorting the set of n network paths based on a linear OSNR value for each path to order the paths from highest OSNR to lowest OSNR; evaluate the set of n network paths to identify a sub-set of q network paths, starting from the network path with the highest OSNR value until the sub-set q includes one network path with no non-linear values; evaluate the sub-set of q network paths to obtain for each the network links, updated linear OSNR and updated non-linear OSNR values; and, assign the network path with the highest combination of updated linear OSNR and updated non-linear OSNR values as the network connection.
A self-crosslinkable polymer having a molecular skeleton containing urethane linkages, and a hydrazide functional group and a carbonyl functional group capable of reacting with the hydrazide functional group chemically bonded to the molecular skeleton, wherein the self-crosslinkable polymer is obtained by i) providing a polyurethane prepolymer represented by formula I containing an ethylenically unsaturated functional group and terminated by an isocyanate functional group; CH 2 =C(R 1 )-PU-NCO formula I wherein the polyurethane prepolymer comprises a pendent water-dispersible group, the pendent water-dispersible group comprising a carboxylate ion group, ii) adding N,N-dimethylethanolamine as a neutralizing agent to the polyurethane prepolymer; and iii) in the presence of hydrazine or at least one polyhydrazide, reacting the polyurethane prepolymer with a carbonyl containing ethylenically unsaturated compound represented by formula II and at least one ethylenically unsaturated compound other than formula I and formula II via free radical polymerization, CH 2 =C(R 1 )-Bg-CO-L formula II thereby forming the self-crosslinkable polymer, wherein PU represents a polyurethane segment; R 1 represents H or methyl; Bg represents a divalent organic moiety in which atom of the divalent organic moiety directly attached to -CO-L is not a hetero-atom whose electronegativity is greater than that of carbon atom, or Bg is void; and L represents H or methyl. i) providing a polyurethane prepolymer represented by formula I containing an ethylenically unsaturated functional group and terminated by an isocyanate functional group; CH 2 =C(R 1 )-PU-NCO formula I wherein the polyurethane prepolymer comprises a pendent water-dispersible group, the pendent water-dispersible group comprising a carboxylate ion group, ii) adding N,N-dimethylethanolamine as a neutralizing agent to the polyurethane prepolymer; and iii) in the presence of hydrazine or at least one polyhydrazide, reacting the polyurethane prepolymer with a carbonyl containing ethylenically unsaturated compound represented by formula II and at least one ethylenically unsaturated compound other than formula I and formula II via free radical polymerization, CH 2 =C(R 1 )-Bg-CO-L formula II thereby forming the self-crosslinkable polymer, wherein PU represents a polyurethane segment; R 1 represents H or methyl; Bg represents a divalent organic moiety in which atom of the divalent organic moiety directly attached to -CO-L is not a hetero-atom whose electronegativity is greater than that of carbon atom, or Bg is void; and L represents H or methyl. thereby forming the self-crosslinkable polymer, wherein PU represents a polyurethane segment; R 1 represents H or methyl; Bg represents a divalent organic moiety in which atom of the divalent organic moiety directly attached to -CO-L is not a hetero-atom whose electronegativity is greater than that of carbon atom, or Bg is void; and L represents H or methyl.
An adhesive composition comprising: a modified polyolefin (A), a glycidyl amine-type epoxy resin (B1), a glycidyl ether-type epoxy resin (B2), and an organic solvent (C); wherein the modified polyolefin (A) is (A1) or (A2) below: (A1): a crystalline acid-modified polyolefin having an acid value of 5 to 50 mg KOH/g-resin; or (A2): an acid-modified chlorinated polyolefin having an acid value of 5 to 50 mg KOH/g-resin and a chlorine content of 5 to 40 mass%, wherein the adhesive composition comprises 80 parts by mass or more of organic solvent (C), based on 100 parts by mass of modified polyolefin (A). a modified polyolefin (A), a glycidyl amine-type epoxy resin (B1), a glycidyl ether-type epoxy resin (B2), and an organic solvent (C); wherein the modified polyolefin (A) is (A1) or (A2) below: (A1): a crystalline acid-modified polyolefin having an acid value of 5 to 50 mg KOH/g-resin; or (A2): an acid-modified chlorinated polyolefin having an acid value of 5 to 50 mg KOH/g-resin and a chlorine content of 5 to 40 mass%, wherein the adhesive composition comprises 80 parts by mass or more of organic solvent (C), based on 100 parts by mass of modified polyolefin (A). (A1): a crystalline acid-modified polyolefin having an acid value of 5 to 50 mg KOH/g-resin; or (A2): an acid-modified chlorinated polyolefin having an acid value of 5 to 50 mg KOH/g-resin and a chlorine content of 5 to 40 mass%, wherein the adhesive composition comprises 80 parts by mass or more of organic solvent (C), based on 100 parts by mass of modified polyolefin (A).
An apparatus for operating a base station, comprising: a processing unit configured to select, from among one or more unit frequency bands in an off state in a plurality of unit frequency bands, a first unit frequency band in an off state, and a transmission processing unit configured to transmit a signal for measurement in the selected first unit frequency band to enable measurement in the first unit frequency band in an off state, wherein the processing unit is configured to report information indicating the first unit frequency band to a terminal, in a case where there is a change in the first unit frequency band to be used for transmission of the signal for measurement, and wherein a physical downlink control channel, PDCCH, or system information is used for the reporting. a processing unit configured to select, from among one or more unit frequency bands in an off state in a plurality of unit frequency bands, a first unit frequency band in an off state, and a transmission processing unit configured to transmit a signal for measurement in the selected first unit frequency band to enable measurement in the first unit frequency band in an off state, wherein the processing unit is configured to report information indicating the first unit frequency band to a terminal, in a case where there is a change in the first unit frequency band to be used for transmission of the signal for measurement, and wherein a physical downlink control channel, PDCCH, or system information is used for the reporting.