mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing water-absorbing resin powder, comprising sequentially: a polymerization step for polymerizing an aqueous solution of acrylic acid (salt) to obtain a hydrogel-like cross-linked polymer; a drying step for drying the obtained hydrogel-like cross-linked polymer to obtain a dried polymer; a pulverization step for pulverizing the obtained dried polymer with a pulverizing means to obtain a pulverized polymer; a classification step for classifying the obtained pulverized polymer to obtain a classified polymer; and a surface cross-linking step for surface cross-linking the obtained classified polymer; characterized in that , at least a part of the classified polymer is supplied again to the same or different pulverization step, before the surface cross-linking step, wherein circulation pulverization ratio in the pulverization step, represented by the following equation is larger than 1.50: Circulation pulverization ratio = total supply amount of the water − absorbing resin to the pulverization step / total discharge amount of the water − absorbing resin at the drying step wherein (total supply amount of the water-absorbing resin to the pulverization step)=(total discharge amount of the water-absorbing resin at the drying step)+(amount of the classified polymer supplied again to the same or different pulverization step). a polymerization step for polymerizing an aqueous solution of acrylic acid (salt) to obtain a hydrogel-like cross-linked polymer; a drying step for drying the obtained hydrogel-like cross-linked polymer to obtain a dried polymer; a pulverization step for pulverizing the obtained dried polymer with a pulverizing means to obtain a pulverized polymer; a classification step for classifying the obtained pulverized polymer to obtain a classified polymer; and a surface cross-linking step for surface cross-linking the obtained classified polymer; at least a part of the classified polymer is supplied again to the same or different pulverization step, before the surface cross-linking step, wherein circulation pulverization ratio in the pulverization step, represented by the following equation is larger than 1.50: Circulation pulverization ratio = total supply amount of the water − absorbing resin to the pulverization step / total discharge amount of the water − absorbing resin at the drying step wherein (total supply amount of the water-absorbing resin to the pulverization step)=(total discharge amount of the water-absorbing resin at the drying step)+(amount of the classified polymer supplied again to the same or different pulverization step).
A method for a network controller that manages a plurality of managed forwarding elements in a multi-tenant datacenter in which a first logical router for a logical network of a tenant is implemented across a set of the managed forwarding elements , the method characterized by comprising the steps of: receiving configuration data from the tenant for the first logical router that specifies (i) a plurality of logical ports of the first logical router , each of the logical ports associated with a particular subnet, and (ii) a connection of the first logical router to a second logical router that is configured by an operator of the multi-tenant datacenter; for the first logical router , automatically generating a connected route for each of the logical ports, wherein a particular connected route for a particular logical port specifies to logically route packets with destination addresses in the particular subnet associated with the particular logical port to the particular logical port; and when the network controller is a master controller of the second logical router , dynamically propagating the connected routes to the second logical router as dynamic routes that specify to logically route packets with destination addresses in any of the particular subnets to the logical port of the first logical router that connects to the second logical router . receiving configuration data from the tenant for the first logical router that specifies (i) a plurality of logical ports of the first logical router , each of the logical ports associated with a particular subnet, and (ii) a connection of the first logical router to a second logical router that is configured by an operator of the multi-tenant datacenter; for the first logical router , automatically generating a connected route for each of the logical ports, wherein a particular connected route for a particular logical port specifies to logically route packets with destination addresses in the particular subnet associated with the particular logical port to the particular logical port; and when the network controller is a master controller of the second logical router , dynamically propagating the connected routes to the second logical router as dynamic routes that specify to logically route packets with destination addresses in any of the particular subnets to the logical port of the first logical router that connects to the second logical router .
A tire, comprising a tire component comprising a tire composition, the tire composition comprising: an elastomer component; a silica having a nitrogen adsorption specific surface area of 170 m 2 /g or more; and a dicyclopentadiene-aromatic compound copolymer resin, wherein the nitrogen adsorption specific surface area of the silica is measured by the BET method in accordance with ASTM D3037-81. an elastomer component; a silica having a nitrogen adsorption specific surface area of 170 m 2 /g or more; and a dicyclopentadiene-aromatic compound copolymer resin, wherein the nitrogen adsorption specific surface area of the silica is measured by the BET method in accordance with ASTM D3037-81.
A method of visually indicating an advisory from a traffic collision avoidance system (TCAS) on a flight display of an aircraft, the method comprising: receiving a TCAS advisory; determining a severity of the received TCAS advisory; displaying a geometric body having a shape on the flight display in response to the TCAS advisory; characterized in that the method further comprises: reshaping the shape of the displayed geometric body in response to the determined severity by altering at least one of an angle and an arc of the geometric body; wherein the geometric body comprises a polygon and at least one angle of the polygon is altered as the severity increases. receiving a TCAS advisory; determining a severity of the received TCAS advisory; displaying a geometric body having a shape on the flight display in response to the TCAS advisory; characterized in that the method further comprises: reshaping the shape of the displayed geometric body in response to the determined severity by altering at least one of an angle and an arc of the geometric body; wherein the geometric body comprises a polygon and at least one angle of the polygon is altered as the severity increases. reshaping the shape of the displayed geometric body in response to the determined severity by altering at least one of an angle and an arc of the geometric body; wherein the geometric body comprises a polygon and at least one angle of the polygon is altered as the severity increases.
A method for gas filling a handle portion of a container of a collapsible type, the handle portion being defined by two opposite side walls of the container and communicating, via a duct defined by said side walls , with an opening formed in one of the side walls , comprising the step of supplying, at a gas filling station , a gas to the handle portion via said opening and said duct , characterised by the steps of blocking the duct by means of a squeezing action produced by a movable pinching means to retain the gas supplied to the handle portion , moving the movable pinching means along an, in the vertical plane, curved path from the gas filling station to a sealing station for transfer of the container by lateral movement, having no component parallel to the width direction of the side walls, to the sealing station while maintaining the squeezing action by the movable pinching means , and sealing the duct , at said sealing station , while maintaining the squeezing action by the movable pinching means , so as to permanently enclose the gas in said handle portion .
Method for desulphurizing a sulphurous first gas mixture comprising at least a hydrocarbon gas, which method comprises the steps of (i) providing the sulphurous first gas mixture, (ii) separating the sulphurous first gas mixture into a desulphurized second gas mixture and a sulphurous third gas mixture with a pressure swing adsorption process (PSA process) in a first separating device, wherein the first gas mixture is admitted into at least one vessel , purged with a sulphur-free purge gas, in which an adsorption mass for adsorbing sulphurous material is received, wherein at least a part of the desulphurized second gas mixture separated in the second step (ii) is guided to a first converting device in which the second gas mixture is converted in a third step (iii) into at least a sulphur-free fourth gas mixture, wherein the part of the sulphur-free fourth gas mixture obtained in the third step (iii) is guided directly to the at least one vessel for the purpose of purging this vessel, and wherein the first gas mixture comprises natural gas, the first converting device is one of a gas engine and a gas turbine, and the sulphur-free fourth gas mixture comprises carbon dioxide (CO 2 ). (i) providing the sulphurous first gas mixture, (ii) separating the sulphurous first gas mixture into a desulphurized second gas mixture and a sulphurous third gas mixture with a pressure swing adsorption process (PSA process) in a first separating device, wherein the first gas mixture is admitted into at least one vessel , purged with a sulphur-free purge gas, in which an adsorption mass for adsorbing sulphurous material is received,
A method for allocating a downlink bandwidth which is an end-to-end, E2E, transmission bandwidth from a Radio Network Controller, RNC, to a multimode base station, where different modes of the multimode base station compete to use the downlink bandwidth, the method comprising: acquiring a remaining downlink bandwidth of the base station after usage of downlink traffic of a second mode or a first mode, and acquiring a downlink bandwidth pre-allocated to the first mode and a downlink bandwidth pre-allocated to the second mode (S202); and adjusting, according to the remaining downlink bandwidth, the downlink bandwidth pre-allocated to the first mode and the downlink bandwidth pre-allocated to the second mode, a downlink bandwidth allocated to the first mode and a downlink bandwidth allocated to the second mode (S204). acquiring a remaining downlink bandwidth of the base station after usage of downlink traffic of a second mode or a first mode, and acquiring a downlink bandwidth pre-allocated to the first mode and a downlink bandwidth pre-allocated to the second mode (S202); and adjusting, according to the remaining downlink bandwidth, the downlink bandwidth pre-allocated to the first mode and the downlink bandwidth pre-allocated to the second mode, a downlink bandwidth allocated to the first mode and a downlink bandwidth allocated to the second mode (S204).
A modular pre-fabricated water control pump system comprising: a) A first module comprising a first frame comprising: i. two side panels ; ii. a base panel interconnecting the two side panels ; iii. a front panel comprising a grate adapted for retaining waterborne residues; and iv. at least one lifting anchor or coupler adapted for receiving a lifting anchor; and b) A second module comprising a second frame comprising: i. two side panels ; and ii. a base panel interconnecting the two side panels ; iii. at least one lifting anchor or coupler adapted for receiving a lifting anchor; and iv. pump means ; characterized in that the modular pre-fabricated water control pump system further comprises a third module comprising: a. a third frame comprising: i. two side panels ; and ii. a base panel interconnecting the two side panels ; iii. at least one lifting anchor or coupler adapted for receiving a lifting anchor; b. one or more sluice gate members ; and c. an actuator adapted for moving the one or more sluice gate members; wherein the side and/or base panels are adapted for mounting the one or more sluice gate members thereto. a) A first module comprising a first frame comprising: i. two side panels ; ii. a base panel interconnecting the two side panels ; iii. a front panel comprising a grate adapted for retaining waterborne residues; and iv. at least one lifting anchor or coupler adapted for receiving a lifting anchor; and i. two side panels ; ii. a base panel interconnecting the two side panels ; iii. a front panel comprising a grate adapted for retaining waterborne residues; and iv. at least one lifting anchor or coupler adapted for receiving a lifting anchor; and b) A second module comprising a second frame comprising: i. two side panels ; and ii. a base panel interconnecting the two side panels ; iii. at least one lifting anchor or coupler adapted for receiving a lifting anchor; and iv. pump means ; i. two side panels ; and ii. a base panel interconnecting the two side panels ; iii. at least one lifting anchor or coupler adapted for receiving a lifting anchor; and iv. pump means ; a. a third frame comprising: i. two side panels ; and ii. a base panel interconnecting the two side panels ; iii. at least one lifting anchor or coupler adapted for receiving a lifting anchor; i. two side panels ; and ii. a base panel interconnecting the two side panels ; iii. at least one lifting anchor or coupler adapted for receiving a lifting anchor; b. one or more sluice gate members ; and c. an actuator adapted for moving the one or more sluice gate members;
A compound of Formula (I): wherein: Z is tetrazole or CO 2 Q; Q is H or a protecting group, wherein the protecting group is selected from the group consisting of benzyl, p-methoxybenzyl (PMB), tertiary butyl (t-Bu), methoxymethyl (MOM), methoxyethoxymethyl (MEM), methylthiomethyl (MTM), tetrahydropyranyl (THP), tetrahydrofuranyl (THF), benzyloxymethyl (BOM), trimethylsilyl (TMS), triethylsilyl (TES), t-butyldimethylsilyl (TBDMS), and triphenylmethyl (trityl, Tr); m is an integer selected from the group consisting of 1, 2, 3, 4, and 5; R is -CH 2 -R 1 ; R 1 is selected from the group consisting of: wherein X is independently Br or I; L is a linker selected from the group consisting of C 1 -C 6 alkylene and C 3 -C 6 cycloalkylene, and arylene; W is selected from the group consisting of -NR 2 -(C=O)-, -NR 2 -(C=S)-, -(C=O)-NR 2 -, and -(C=S)-NR 2 -; wherein each occurrence of L and W can be the same or different; R 2 is H or a C 1 -C 4 alkyl; n is an integer selected from the group consisting of 1, 2, and 3; and Ch is a chelating agent that comprises a radiometal selected from the group consisting of 68 Ga, 64 Cu, 86 Y, 90 Y, 89 Zr, 111 In, 99m Tc, 177 Lu, 153 Sm, 186 Re, 188 Re, 67 Cu, 212 Pb, 225 Ac, 213 Bi, 212 Bi, 212 Pb, 67 Ga, 203 Pb, 47 Sc, and 166 Ho, wherein the chelating agent is selected from the group consisting of: and pharmaceutically acceptable salts thereof. Z is tetrazole or CO 2 Q; Q is H or a protecting group, wherein the protecting group is selected from the group consisting of benzyl, p-methoxybenzyl (PMB), tertiary butyl (t-Bu), methoxymethyl (MOM), methoxyethoxymethyl (MEM), methylthiomethyl (MTM), tetrahydropyranyl (THP), tetrahydrofuranyl (THF), benzyloxymethyl (BOM), trimethylsilyl (TMS), triethylsilyl (TES), t-butyldimethylsilyl (TBDMS), and triphenylmethyl (trityl, Tr); m is an integer selected from the group consisting of 1, 2, 3, 4, and 5; R is -CH 2 -R 1 ; R 1 is selected from the group consisting of: wherein X is independently Br or I; L is a linker selected from the group consisting of C 1 -C 6 alkylene and C 3 -C 6 cycloalkylene, and arylene; W is selected from the group consisting of -NR 2 -(C=O)-, -NR 2 -(C=S)-, -(C=O)-NR 2 -, and -(C=S)-NR 2 -; wherein each occurrence of L and W can be the same or different; R 2 is H or a C 1 -C 4 alkyl; n is an integer selected from the group consisting of 1, 2, and 3; and Ch is a chelating agent that comprises a radiometal selected from the group consisting of 68 Ga, 64 Cu, 86 Y, 90 Y, 89 Zr, 111 In, 99m Tc, 177 Lu, 153 Sm, 186 Re, 188 Re, 67 Cu, 212 Pb, 225 Ac, 213 Bi, 212 Bi, 212 Pb, 67 Ga, 203 Pb, 47 Sc, and 166 Ho, wherein the chelating agent is selected from the group consisting of: and pharmaceutically acceptable salts thereof.
Planning device for generating control data for a treatment apparatus for eye surgery which generates at least one incision in the cornea by means of a laser device , wherein the planning device comprises calculation means for defining at least one corneal relief incision (T, U), wherein the calculation means define the at least one corneal relief incision based on the data of a refractive correction, and generate a control data record for controlling the laser device for the corneal relief incisions (T, U), wherein the calculation means determine the at least one corneal relief incision (T, U) in such a way that refractive errors present following the insertion of an implant (L) into a pocket in the cornea , with an incision geometry of the pocket comprising a pocket incision (P) under a cap (C) of thickness d and an opening incision (O), are countervailed, characterized in that the at least one corneal relief incision (T, U) extends in the cap (C), does not reach the anterior corneal surface and does not reach deeper than the pocket incision (P) and extends outside the optically effective zone. wherein the calculation means determine the at least one corneal relief incision (T, U) in such a way that refractive errors present following the insertion of an implant (L) into a pocket in the cornea , with an incision geometry of the pocket comprising a pocket incision (P) under a cap (C) of thickness d and an opening incision (O), are countervailed, characterized in that the at least one corneal relief incision (T, U) extends in the cap (C), does not reach the anterior corneal surface and does not reach deeper than the pocket incision (P) and extends outside the optically effective zone.
A sheet feeding device configured to feed a sheet (P) from a sheet roll (Pr), the sheet feeding device comprising: a sensor ; a roller ; and a support on which the sensor and the roller are disposed, characterized in that : the support is configured to support the sensor and the roller so that the sensor and the roller contact a surface of the sheet roll, the sensor and the roller face toward an axial center of the sheet roll, the roller is spaced apart from the sensor in a circumferential direction of the sheet roll, the sensor has a detection accuracy capable of detecting a step at a leading end of the sheet roll. a sensor ; a roller ; and a support on which the sensor and the roller are disposed, characterized in that : the support is configured to support the sensor and the roller so that the sensor and the roller contact a surface of the sheet roll, the sensor and the roller face toward an axial center of the sheet roll, the roller is spaced apart from the sensor in a circumferential direction of the sheet roll, the sensor has a detection accuracy capable of detecting a step at a leading end of the sheet roll. the support is configured to support the sensor and the roller so that the sensor and the roller contact a surface of the sheet roll, the sensor and the roller face toward an axial center of the sheet roll, the roller is spaced apart from the sensor in a circumferential direction of the sheet roll, the sensor has a detection accuracy capable of detecting a step at a leading end of the sheet roll.
A medical system comprising: one or more optical fiber sensors configured to be coupled to a patient's chest ; and an ablation catheter ; a controller configured to: determine orientation variables of the patient's body based on signals received from the one or more optical fiber sensors determine a property of respiration of the patient based on signals received from the one or more optical fiber sensors; and deliver ablation energy to the ablation catheter at the same point in the respiratory cycle of the patient . one or more optical fiber sensors configured to be coupled to a patient's chest ; and an ablation catheter ; a controller configured to: determine orientation variables of the patient's body based on signals received from the one or more optical fiber sensors determine a property of respiration of the patient based on signals received from the one or more optical fiber sensors; and deliver ablation energy to the ablation catheter at the same point in the respiratory cycle of the patient . determine orientation variables of the patient's body based on signals received from the one or more optical fiber sensors determine a property of respiration of the patient based on signals received from the one or more optical fiber sensors; and deliver ablation energy to the ablation catheter at the same point in the respiratory cycle of the patient .
A dispensing assembly for a snow generator for snowmaking on ski runs; the dispensing assembly extending along a longitudinal axis (A1) and comprising: - a fixed structure having a circular opening extending along the longitudinal axis (A1); - a rotor extending along the longitudinal axis (A1), which has one free end at the circular opening , and is configured to rotate around a rotational axis, preferably coinciding with the longitudinal axis (A1), at a rotation speed of the rotor , wherein the rotation speed of the rotor is adjustable and the rotor is mobile along a direction substantially coincident with or parallel to the longitudinal axis (A1) with respect to the fixed structure ; and - a water supply assembly , configured to supply water at a given pressure within the fixed structure , at the free end of the rotor ; the free end of the rotor being coupled to the circular opening of the fixed structure so as to delimit, together with the fixed structure , an annular gap configured to guide a jet of atomised water towards the outside of the dispensing assembly . - a fixed structure having a circular opening extending along the longitudinal axis (A1); - a rotor extending along the longitudinal axis (A1), which has one free end at the circular opening , and is configured to rotate around a rotational axis, preferably coinciding with the longitudinal axis (A1), at a rotation speed of the rotor , wherein the rotation speed of the rotor is adjustable and the rotor is mobile along a direction substantially coincident with or parallel to the longitudinal axis (A1) with respect to the fixed structure ; and - a water supply assembly , configured to supply water at a given pressure within the fixed structure , at the free end of the rotor ;
A lactase solution of which a permeation rate is 5 kg/min × m 2 or more upon measuring at the time of permeation of 366 kg/m 2 through a membrane filter with a pore diameter of 0.22 μm at a concentration for having an activity of 1,000 NLU/g or 2,000 ALU/g, after being subjected to a stirring treatment at 100 rpm, 10°C for 16 hours with a concentration for having an activity of 5,000 NLU/g or 10,000 ALU/g, wherein the lactase solution comprises an aggregation inhibitor, wherein the aggregation inhibitor is at least one selected from a surfactant with HLB of 12 to 15, polyethylene glycol, and a Mg ion or a salt thereof, wherein a concentration of the surfactant with HLB of 12 to 15 is 0.001% by mass to 5% by mass, a concentration of the polyethylene glycol is 0.3% by mass to 15% by mass, and a concentration of the Mg ion or the salt thereof is 1 mM to 20 mM. wherein the lactase solution comprises an aggregation inhibitor, wherein the aggregation inhibitor is at least one selected from a surfactant with HLB of 12 to 15, polyethylene glycol, and a Mg ion or a salt thereof, wherein a concentration of the surfactant with HLB of 12 to 15 is 0.001% by mass to 5% by mass, a concentration of the polyethylene glycol is 0.3% by mass to 15% by mass, and a concentration of the Mg ion or the salt thereof is 1 mM to 20 mM.