mhurhangee/patent-ind-claim-en huggingface dataset:
An e-charger comprising: a motor that drives a shaft for rotation about an axis , the axis extending through a first end of the motor and a second end of the motor; a compressor wheel that is attached to the shaft to be rotatably driven by the motor to thereby provide a compressed fluid stream; a motor case that encases the motor; an outer housing that houses the motor case; and a cooling system with an inlet, an outlet, and a plurality of passages fluidly connecting the inlet and the outlet, the plurality of passages cooperatively defined by the outer housing and the motor case, the plurality of passages including a first longitudinal passage, a second longitudinal passage, and an end passage, the first longitudinal passage extending between the first and second ends of the motor, the second longitudinal passage extending between the second and first ends of the motor, the end passage disposed proximate the first end and fluidly connecting the first longitudinal passage and the second longitudinal passage, the cooling system configured for directing flow of the coolant from the inlet, through the first longitudinal passage in a first longitudinal direction with respect to the axis, radially and circumferentially through the end passage with respect to the axis, and back through the second longitudinal passage in a second longitudinal direction with respect to the axis. a motor that drives a shaft for rotation about an axis , the axis extending through a first end of the motor and a second end of the motor; a compressor wheel that is attached to the shaft to be rotatably driven by the motor to thereby provide a compressed fluid stream; a motor case that encases the motor; an outer housing that houses the motor case; and a cooling system with an inlet, an outlet, and a plurality of passages fluidly connecting the inlet and the outlet, the plurality of passages cooperatively defined by the outer housing and the motor case, the plurality of passages including a first longitudinal passage, a second longitudinal passage, and an end passage, the first longitudinal passage extending between the first and second ends of the motor, the second longitudinal passage extending between the second and first ends of the motor, the end passage disposed proximate the first end and fluidly connecting the first longitudinal passage and the second longitudinal passage, the cooling system configured for directing flow of the coolant from the inlet, through the first longitudinal passage in a first longitudinal direction with respect to the axis, radially and circumferentially through the end passage with respect to the axis, and back through the second longitudinal passage in a second longitudinal direction with respect to the axis.
A particulate nucleating agent comprising: a compound represented by the following General Formula , wherein in a case where dry measurement of particle diameter distribution of the particulate nucleating agent is performed by using a laser diffraction particle size distribution measurement method, a maximum particle diameter of the particulate nucleating agent is denoted by D max , and a degree of dispersion of the particulate nucleating agent measured according to the following procedure is denoted by D p , D max satisfies the following Expression (A) and D p satisfies the following Expression (B), 80 μ m ≤ D max ≤ 300 μ m 1.0 % ≤ D p ≤ 27.0 % (Procedure) First, as a sample, 5 g of the particulate nucleating agent, a charging container having an inner diameter of 3 cm and having an openable/closable shutter at the bottom, and a cylinder having an inner diameter of 10 cm and a height of 50.5 cm, and a watch glass having a diameter of 10 cm are prepared. The sample is placed in the charging container, and the charging container is set such that the bottom has a height of 60 cm. The charging container is set on the cylinder, and the watch glass is set below the cylinder. A distance between the lower end of the cylinder and a surface of the watch glass is 9 cm. The sample is put into the cylinder by opening the shutter at the bottom of the charging container, and the sample is dropped in an up and down direction in the cylinder. Then, the amount of the sample remaining on the watch glass set at the drop point of the sample is measured. Using the amount of the input sample and the amount of the sample remaining on the watch glass, a degree of dispersion (%) is measured based on the following expression. Degree of dispersion % = input sample amount g − sample amount remaining on watch glass g / input sample amount g × 100 (in General Formula , R 1 to R 4 each independently represent a hydrogen atom, a straight chain or branched alkyl group having 1 to 9 carbon atoms, R 5 represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms, m represents 1 or 2, in a case where m is 1, M 1 represents a hydrogen atom, Al(OH) 2 , or an alkali metal atom, and in a case where m is 2, M 1 represents a Group II element, AI(OH), or Zn.) a compound represented by the following General Formula , wherein in a case where dry measurement of particle diameter distribution of the particulate nucleating agent is performed by using a laser diffraction particle size distribution measurement method, a maximum particle diameter of the particulate nucleating agent is denoted by D max , and a degree of dispersion of the particulate nucleating agent measured according to the following procedure is denoted by D p , D max satisfies the following Expression (A) and D p satisfies the following Expression (B), 80 μ m ≤ D max ≤ 300 μ m 1.0 % ≤ D p ≤ 27.0 %
A flash medium access method, comprising: selecting (S101), by a controller, a target function queue from N function queues; wherein a function queue is used to store one or more basic instructions, the basic instruction is obtained by dividing an operation instruction sent by the controller, and the operation instruction indicates a logical operation for the flash medium; wherein a quantity of function queues in the controller is equal to a quantity of dies connected to the controller, and N function queues are in a one-to-one mapping relationship with the N dies; wherein the selected target function queue is a non-empty queue, and a flash medium in which a die associated with the target function queue is located is in an idle state, where N is an integer greater than 1; obtaining (S102), by the controller, a basic instruction from the target function queue; determining (S103), by the controller according to preset queue mapping information, the die associated with the target function queue, wherein the controller is connected to at least one flash medium, each of the at least one flash medium comprises at least one die, a quantity of dies connected to the controller is N, and the queue mapping information indicates a mapping relationship between the N function queues and the N dies; generating (S104), by the controller according to a preset signal generation rule, a time sequence signal corresponding to the basic instruction; and sending (S104), by the controller, the time sequence signal to the flash medium in which the associated die is located. selecting (S101), by a controller, a target function queue from N function queues; wherein a function queue is used to store one or more basic instructions, the basic instruction is obtained by dividing an operation instruction sent by the controller, and the operation instruction indicates a logical operation for the flash medium; wherein a quantity of function queues in the controller is equal to a quantity of dies connected to the controller, and N function queues are in a one-to-one mapping relationship with the N dies; wherein the selected target function queue is a non-empty queue, and a flash medium in which a die associated with the target function queue is located is in an idle state, where N is an integer greater than 1; obtaining (S102), by the controller, a basic instruction from the target function queue; determining (S103), by the controller according to preset queue mapping information, the die associated with the target function queue, wherein the controller is connected to at least one flash medium, each of the at least one flash medium comprises at least one die, a quantity of dies connected to the controller is N, and the queue mapping information indicates a mapping relationship between the N function queues and the N dies; generating (S104), by the controller according to a preset signal generation rule, a time sequence signal corresponding to the basic instruction; and sending (S104), by the controller, the time sequence signal to the flash medium in which the associated die is located.
An engine cooling system which, comprising an engine inlet (Ei), an engine outlet (Eo), a radiator (R), a self-controlled wax-based thermostat assembly with a primary thermo-actuator , a secondary thermo-actuator , a valve , a frame structure through where mentioned valve structure is guided, a connection shaft , a first spring , a second spring , a spring holder , a valve seat , an adapter , O-ring sealing elements , a U-cap sealing element , a first cover, screws , and lastly a second cover , provides precise temperature control of the engine cooling system by adjusting the coolant flow ratio between bypass outlet (11.1) and radiator outlet (11.3) wherein the engine cooling system is configured to operate according to sum of strokes coming from each thermo-actuator which is corresponding to one inlet connected to different sensing point of the engine cooling system from each other; the self-controlled wax-based thermostat assembly further comprising - an inlet (11.2) thereby main coolant flows from the engine outlet (Eo) to heat sensitive part of the primary thermo-actuator , - a sensing inlet (11.4) thereby sensing coolant flows from the engine inlet (Ei) to heat sensitive part of the secondary thermo-actuator , and - a sensing radiator outlet (11.5) for channeling sensing coolant coming from sensing inlet (11.4) to flow toward the radiator (R). - an inlet (11.2) thereby main coolant flows from the engine outlet (Eo) to heat sensitive part of the primary thermo-actuator , - a sensing inlet (11.4) thereby sensing coolant flows from the engine inlet (Ei) to heat sensitive part of the secondary thermo-actuator , and - a sensing radiator outlet (11.5) for channeling sensing coolant coming from sensing inlet (11.4) to flow toward the radiator (R).
Method for detecting and optionally quantifying an analyte possibly present in a liquid sample, comprising the following steps: i) contacting said liquid sample with the surface of a solid support comprising at least one active zone on which at least one probe capable of binding said analyte is immobilised; ii) contacting said surface with a solution containing at least one oligonucleotide with a double stem-loop structure, capable of binding to said analyte, said oligonucleotide having been synthesised prior to said contacting; iii) washing said surface; iv) contacting said surface with two loop-mediated isothermal amplification primers in conditions permitting the amplification of said oligonucleotide; v) detecting and optionally quantifying the amplification product of said oligonucleotide. i) contacting said liquid sample with the surface of a solid support comprising at least one active zone on which at least one probe capable of binding said analyte is immobilised; ii) contacting said surface with a solution containing at least one oligonucleotide with a double stem-loop structure, capable of binding to said analyte, said oligonucleotide having been synthesised prior to said contacting; iii) washing said surface; iv) contacting said surface with two loop-mediated isothermal amplification primers in conditions permitting the amplification of said oligonucleotide; v) detecting and optionally quantifying the amplification product of said oligonucleotide.
A method of a primary evolved Node B, P-ENB, controlling a primary cell of a User Equipment, UE, the method comprising: receiving a first packet from a serving gateway on a non-primary evolved packet system, NP-EPS, bearer configured between the P-ENB and the serving gateway, wherein the first packet is for a non-primary data radio bearer, NP-DRB, including a first packet data convergence protocol, PDCP, entity of the P-ENB and a first radio link control, RLC, entity of a non-primary evolved node B, NP-ENB , controlling a non-primary cell of the UE ; generating a PDCP protocol data unit, PDU, from the first packet, by the first PDCP entity of the P-ENB ; and transmitting, to the first RLC entity of the NP-ENB , the PDCP PDU; wherein a primary evolved packet system, P-EPS, bearer is configured between the P-ENB and the serving gateway, wherein a second packet for a primary data radio bearer, P-DRB, including a second PDCP entity of the P-ENB and a second RLC entity of the P-ENB is received on the P-EPS bearer and is delivered from the second PDCP entity of the P-ENB to the second RLC entity of the P-ENB . receiving a first packet from a serving gateway on a non-primary evolved packet system, NP-EPS, bearer configured between the P-ENB and the serving gateway, wherein the first packet is for a non-primary data radio bearer, NP-DRB, including a first packet data convergence protocol, PDCP, entity of the P-ENB and a first radio link control, RLC, entity of a non-primary evolved node B, NP-ENB , controlling a non-primary cell of the UE ; generating a PDCP protocol data unit, PDU, from the first packet, by the first PDCP entity of the P-ENB ; and transmitting, to the first RLC entity of the NP-ENB , the PDCP PDU; wherein a primary evolved packet system, P-EPS, bearer is configured between the P-ENB and the serving gateway, wherein a second packet for a primary data radio bearer, P-DRB, including a second PDCP entity of the P-ENB and a second RLC entity of the P-ENB is received on the P-EPS bearer and is delivered from the second PDCP entity of the P-ENB to the second RLC entity of the P-ENB .
A compound of formula IA: or a salt or solvate thereof, wherein: each R 1 is independently selected from C 1-20 hydroxyalkyl, C 1-6 alkyl, C 3-6 aryl optionally-substituted with one or more substituents selected from halo and - C(=O)-NH-C 1-6 hydroxyalkyl, or a carbohydrate moiety; each R 2 is independently selected from C 1-20 hydroxyalkyl, C 1-6 alkyl or hydrogen; R 3 is selected from C 1-3 alkyl or -(CH 2 ) m -C(=O)- NR 5 R 6 , wherein m is an integer from 2-5, wherein R 5 and R 6 are independently selected from hydrogen, from C 1-20 hydroxyalkyl, C 1-6 alkyl, C 3-6 aryl optionally-substituted with one or more substituents selected from halo and -C(=O)-NH-C 1-6 hydroxyalkyl, or a carbohydrate moiety; R 4 represents 0-3 substituents selected from hydroxy, C 1-6 alkyl and C 1-6 hydroxyalkyl; and, each n is an integer from 0-4. each R 1 is independently selected from C 1-20 hydroxyalkyl, C 1-6 alkyl, C 3-6 aryl optionally-substituted with one or more substituents selected from halo and - C(=O)-NH-C 1-6 hydroxyalkyl, or a carbohydrate moiety; each R 2 is independently selected from C 1-20 hydroxyalkyl, C 1-6 alkyl or hydrogen; R 3 is selected from C 1-3 alkyl or -(CH 2 ) m -C(=O)- NR 5 R 6 , wherein m is an integer from 2-5, wherein R 5 and R 6 are independently selected from hydrogen, from C 1-20 hydroxyalkyl, C 1-6 alkyl, C 3-6 aryl optionally-substituted with one or more substituents selected from halo and -C(=O)-NH-C 1-6 hydroxyalkyl, or a carbohydrate moiety; R 4 represents 0-3 substituents selected from hydroxy, C 1-6 alkyl and C 1-6 hydroxyalkyl; and, each n is an integer from 0-4.
Easy grip handle for portable container , comprising a handle connected with a hinge and rotating on the side of the container itself to define lying positions and at least one raised position with respect to the same container; the handle is maintained, at least in a raised position or in an almost vertical position, and characterized by at least one permanent magnet acting on the rotation of the handle, close to the rotation hinge, in combination with at least one ferromagnetic element positioned in the handle or in the container to define, by magnetic attraction when facing the permanent magnet, at least one said raised or almost vertical position of the handle on the portable container itself.
Gearbox comprising: - a gearbox housing , preferably made of aluminium; - a rotatable shaft , extending horizontally; - a rolling bearing , via which said shaft is rotatably mounted in the gearbox housing , and which features: ▪ an outer ring of the bearing , fitted in a bearing seat for the roller bearing , the bearing seat being arranged in the gearbox housing , wherein such an outer ring of the bearing features, at a first axial end, a first edge surface abutting against a supporting surface in the bearing seat , and a second edge surface at an opposite second axial end, ▪ an inner ring of the bearing , attached to said shaft , and ▪ several rolling bodies arranged between the bearing's outer ring and the bearing's inner ring ; wherein: - a mounting plate abuts against the second edge surface of the bearing's outer ring and is screwed onto the gearbox housing in order to thus keep the outer ring of the bearing biased between the mounting plate and said supporting surface in the first bearing seat , - a reservoir for receipt of gearbox oil is arranged in the gearbox housing ,on the outside of and above the bearing seat , wherein the mounting plate forms an end wall of such a reservoir , and - a groove for leading gearbox oil from said reservoir into the bearing seat is arranged in the bearing seat. - a gearbox housing , preferably made of aluminium; - a rotatable shaft , extending horizontally; - a rolling bearing , via which said shaft is rotatably mounted in the gearbox housing , and which features: ▪ an outer ring of the bearing , fitted in a bearing seat for the roller bearing , the bearing seat being arranged in the gearbox housing , wherein such an outer ring of the bearing features, at a first axial end, a first edge surface abutting against a supporting surface in the bearing seat , and a second edge surface at an opposite second axial end, ▪ an inner ring of the bearing , attached to said shaft , and ▪ several rolling bodies arranged between the bearing's outer ring and the bearing's inner ring ; ▪ an outer ring of the bearing , fitted in a bearing seat for the roller bearing , the bearing seat being arranged in the gearbox housing , wherein such an outer ring of the bearing features, at a first axial end, a first edge surface abutting against a supporting surface in the bearing seat , and a second edge surface at an opposite second axial end, ▪ an inner ring of the bearing , attached to said shaft , and ▪ several rolling bodies arranged between the bearing's outer ring and the bearing's inner ring ; - a mounting plate abuts against the second edge surface of the bearing's outer ring and is screwed onto the gearbox housing in order to thus keep the outer ring of the bearing biased between the mounting plate and said supporting surface in the first bearing seat , - a reservoir for receipt of gearbox oil is arranged in the gearbox housing ,on the outside of and above the bearing seat , wherein the mounting plate forms an end wall of such a reservoir , and - a groove for leading gearbox oil from said reservoir into the bearing seat is arranged in the bearing seat.
A method of preparing a conjugated diene-based polymer, comprising: adding a conjugated diene-based monomer, a catalyst, and a solvent to parallel polymerization reactors, wherein the parallel polymerization reactors include two or more polymerization reactors connected in parallel, and performing a polymerization reaction to prepare a first polymer solution including a first conjugated diene-based polymer; and adding the first polymer solution discharged from the parallel polymerization reactors to a series polymerization reactor connected in series to the parallel polymerization reactors and performing a polymerization reaction to prepare a second polymer solution including a second conjugated diene-based polymer, wherein after the polymerization reaction in the series polymerization reactor, gas produced by polymerization heat is condensed by a condenser in the series polymerization reactor and refluxed to the parallel polymerization reactors, and a reaction temperature of the series polymerization reactor is maintained to be lower than a reaction temperature of the parallel polymerization reactors by 10 °C or more. adding a conjugated diene-based monomer, a catalyst, and a solvent to parallel polymerization reactors, wherein the parallel polymerization reactors include two or more polymerization reactors connected in parallel, and performing a polymerization reaction to prepare a first polymer solution including a first conjugated diene-based polymer; and adding the first polymer solution discharged from the parallel polymerization reactors to a series polymerization reactor connected in series to the parallel polymerization reactors and performing a polymerization reaction to prepare a second polymer solution including a second conjugated diene-based polymer, wherein after the polymerization reaction in the series polymerization reactor, gas produced by polymerization heat is condensed by a condenser in the series polymerization reactor and refluxed to the parallel polymerization reactors, and a reaction temperature of the series polymerization reactor is maintained to be lower than a reaction temperature of the parallel polymerization reactors by 10 °C or more.