mhurhangee/patent-ind-claim-en huggingface dataset:
A solid fixing resin composition for forming a fixing member constituting a rotor which includes: a rotor core which has a laminate formed by lamination of a plurality of plate members and is fixed and installed on a rotating shaft, wherein a plurality of hole portions arranged along the peripheral portion of the rotating shaft are provided on the laminate; a magnet inserted in the hole portions; and a fixing member formed by curing the fixing resin composition filled in a separation portion between the hole portion and the magnet, the fixing resin composition comprising: a thermosetting resin (A) containing an epoxy resin; a curing agent (B); and an inorganic filler (C) including silica or alumina, wherein the ICI viscosity at 150°C of the epoxy resin as measured with a Cone Plate Type Viscometer CV-1S manufactured by TOA Industry Inc. is equal to or less than 3·10 -1 Pa·s (3 poises), the amount of the inorganic filler (C) is equal to or more than 50% by mass, based on 100% by mass of the total amount of the fixing resin composition, and the ICI viscosity at 150°C of the curing agent (B) as measured with a Cone Plate Type Viscometer CV-1S manufactured by TOA Industry Inc. is equal to or less than a rotor core which has a laminate formed by lamination of a plurality of plate members and is fixed and installed on a rotating shaft, wherein a plurality of hole portions arranged along the peripheral portion of the rotating shaft are provided on the laminate; a magnet inserted in the hole portions; and a fixing member formed by curing the fixing resin composition filled in a separation portion between the hole portion and the magnet, the fixing resin composition comprising: a thermosetting resin (A) containing an epoxy resin; a curing agent (B); and an inorganic filler (C) including silica or alumina, wherein the ICI viscosity at 150°C of the epoxy resin as measured with a Cone Plate Type Viscometer CV-1S manufactured by TOA Industry Inc. is equal to or less than 3·10 -1 Pa·s (3 poises), the amount of the inorganic filler (C) is equal to or more than 50% by mass, based on 100% by mass of the total amount of the fixing resin composition, and the ICI viscosity at 150°C of the curing agent (B) as measured with a Cone Plate Type Viscometer CV-1S manufactured by TOA Industry Inc. is equal to or less than a thermosetting resin (A) containing an epoxy resin; a curing agent (B); and an inorganic filler (C) including silica or alumina, wherein the ICI viscosity at 150°C of the epoxy resin as measured with a Cone Plate Type Viscometer CV-1S manufactured by TOA Industry Inc. is equal to or less than 3·10 -1 Pa·s (3 poises), the amount of the inorganic filler (C) is equal to or more than 50% by mass, based on 100% by mass of the total amount of the fixing resin composition, and the ICI viscosity at 150°C of the curing agent (B) as measured with a Cone Plate Type Viscometer CV-1S manufactured by TOA Industry Inc. is equal to or less than
A residual gas analyzer (RGA) comprising a detector , an ion source, an analyzer having an aperture, the analyzer defining a beamline passing through the aperture, the detector configured to receive ions traveling in a downstream direction of the beamline, and including a steering electrode offset from the beamline, a first ion-receiving electrode arranged at least partly on the opposite side of the steering electrode from the beamline, a second ion-receiving electrode at least partly offset from the beamline and arranged at least partly across the beamline from at least a portion of the steering electrode , wherein the second ion-receiving electrode is arranged at least partially upstream of at least a portion of the steering electrode and in that the detector comprises: a) a shielding electrode arranged at least partly between the beamline and the second ion-receiving electrode , wherein the shielding electrode is grounded; and b) a source for applying a potential to the steering electrode . a) a shielding electrode arranged at least partly between the beamline and the second ion-receiving electrode , wherein the shielding electrode is grounded; and b) a source for applying a potential to the steering electrode .
An apparatus for dispensing a predetermined dose of powder, comprising: a drum assembly (2; 102) having a main axis and at least one aperture into which powder can be delivered at a filling position; a piston (24; 124) associated with the or each aperture for dispensing powder out of the or each aperture at a dispensing position; and a driving assembly that is connectable to the piston, wherein the driving assembly is arranged to drive the piston radially with respect to the main axis of the drum assembly; wherein the drum assembly (2; 102) is rotatable from the filling position to a dispensing position, the driving assembly is located axially of the piston with respect to the main axis of the drum assembly, and the piston defines the base of a compartment into which powder can be delivered and the position of the piston can be controlled in order to adjust the volume of the compartment, characterised in that : the drum assembly includes a plurality of pins that act as the pistons, extending radially from a piston plate ; the piston plate is flexible relative to a main arm that extends axially towards the drive assembly ; and an an alignment adjuster arranged to adjust the inclination of the or each piston relative to its associated aperture by flexing the piston plate so that all of the pistons car line up accurately with their corresponding aperture. a drum assembly (2; 102) having a main axis and at least one aperture into which powder can be delivered at a filling position; a piston (24; 124) associated with the or each aperture for dispensing powder out of the or each aperture at a dispensing position; and a driving assembly that is connectable to the piston, wherein the driving assembly is arranged to drive the piston radially with respect to the main axis of the drum assembly; wherein the drum assembly (2; 102) is rotatable from the filling position to a dispensing position, the driving assembly is located axially of the piston with respect to the main axis of the drum assembly, and the piston defines the base of a compartment into which powder can be delivered and the position of the piston can be controlled in order to adjust the volume of the compartment, the drum assembly includes a plurality of pins that act as the pistons, extending radially from a piston plate ; the piston plate is flexible relative to a main arm that extends axially towards the drive assembly ; and an an alignment adjuster arranged to adjust the inclination of the or each piston relative to its associated aperture by flexing the piston plate so that all of the pistons car line up accurately with their corresponding aperture.
A lubricant injector for a dosing system for cylinder lubrication oil in large diesel engine cylinders, the lubricant injector comprising - an inlet for connecting to a lubricant supply line , - an opening/closing valve unit (1001/1006), wherein said opening/closing valve unit comprises a valve body with a stem and an interacting valve seat , - one or more nozzle apertures for injecting cylinder lubricating oil into an associated cylinder ; characterised in that the injector includes a ball valve body , and that between said stem of the valve body and a wall in a valve guide of the opening/closing valve unit (1001/1006) there is a gap with a width exceeding 10 μm. - an inlet for connecting to a lubricant supply line , - an opening/closing valve unit (1001/1006), wherein said opening/closing valve unit comprises a valve body with a stem and an interacting valve seat , - one or more nozzle apertures for injecting cylinder lubricating oil into an associated cylinder ; characterised in that the injector includes a ball valve body , and that between said stem of the valve body and a wall in a valve guide of the opening/closing valve unit (1001/1006) there is a gap with a width exceeding 10 μm.
A system for arresting movement of a heat exchanger core , comprising: • a main housing , • an internal housing , located in the main housing and adapted to receive the heat exchanger core , the heat exchanger core being received in the internal housing , the internal housing comprising: ∘ a first portion ; and ∘ a second portion ; characterized in that the second portion is adapted to be displaceable with respect to the first portion , wherein the system further comprises a pressing arrangement configured between the second portion and the main housing , the pressing arrangement being adapted to press the second portion against the heat exchanger core when at least a pre-determined portion of the internal housing is received in the main housing . • a main housing , • an internal housing , located in the main housing and adapted to receive the heat exchanger core , the heat exchanger core being received in the internal housing , the internal housing comprising: ∘ a first portion ; and ∘ a second portion ; the heat exchanger core being received in the internal housing , the internal housing comprising: ∘ a first portion ; and ∘ a second portion ; ∘ a first portion ; and ∘ a second portion ;
A computer-implemented method for multi-path graphics rendering on tile-based architectures, the method comprising: receiving, with a graphics processing unit, GPU, from an application executing on a processor other than the GPU, a first set of commands for a condition true pass and a second set of commands for a condition false pass; executing , with the GPU, a query pass without executing a flush operation to flush results of the query pass to the processor; in response to the results of the query pass indicating a true condition, executing , with the GPU, the condition true pass, including executing the first set of commands, based on the query pass without executing the flush operation; in response to the results of the query pass indicating a false condition, executing , with the GPU, the condition false pass, including executing the second set of commands, based on the query pass without executing the flush operation; and responsive to executing the condition true pass and the condition false pass, executing , with the GPU, the flush operation. receiving, with a graphics processing unit, GPU, from an application executing on a processor other than the GPU, a first set of commands for a condition true pass and a second set of commands for a condition false pass; executing , with the GPU, a query pass without executing a flush operation to flush results of the query pass to the processor; in response to the results of the query pass indicating a true condition, executing , with the GPU, the condition true pass, including executing the first set of commands, based on the query pass without executing the flush operation; in response to the results of the query pass indicating a false condition, executing , with the GPU, the condition false pass, including executing the second set of commands, based on the query pass without executing the flush operation; and responsive to executing the condition true pass and the condition false pass, executing , with the GPU, the flush operation.
A compound represented by a formula (I): [wherein, W 1 represents an oxygen atom, W 2 represents a methyl group, R 15 represents a halogen atom, a methyl group, a cyclopropyl group or a methoxy group, u is 0, E represents #-C(Z 1 )=N-N=C(Z 3 )-O-CH 2 -, G and Z 1 together with carbon atoms to which they are bound form an indan-1-ylidene group, a 1,2,3,4-tetrahydronaphthalen-1-ylidene group, a 2,3-dihydrobenzofuran-3-ylidene group, a 3,4-dihydro-2H-1-benzopyran-4-ylidene group {the indan-1-ylidene group, the 1,2,3,4-tetrahydronaphthalen-1-ylidene group, the 2,3-dihydrobenzofuran-3-ylidene group, and the 3,4-dihydro-2H-1-benzopyran-4-ylidene group may have one or more substituents selected from the group consisting of a halogen atom, a C1-C3 alkyl group which may have one or more halogen atoms, and a C1-C3 alkoxy group which may have one or more halogen atoms}, or a 3,4-dihydro-2H-1-benzothiopyran-4-ylidene group {the 3,4-dihydro-2H-1-benzothiopyran-4-ylidene group may have one or more substituents selected from the group consisting of an oxo group, a halogen atom, a C1-C3 alkyl group which may have one or more halogen atoms, and a C1-C3 alkoxy group which may have one or more halogen atoms}, # represents a binding site to G, Z 3 represents an ethyl group]. W 1 represents an oxygen atom, W 2 represents a methyl group, R 15 represents a halogen atom, a methyl group, a cyclopropyl group or a methoxy group, u is 0, E represents #-C(Z 1 )=N-N=C(Z 3 )-O-CH 2 -, G and Z 1 together with carbon atoms to which they are bound form an indan-1-ylidene group, a 1,2,3,4-tetrahydronaphthalen-1-ylidene group, a 2,3-dihydrobenzofuran-3-ylidene group, a 3,4-dihydro-2H-1-benzopyran-4-ylidene group {the indan-1-ylidene group, the 1,2,3,4-tetrahydronaphthalen-1-ylidene group, the 2,3-dihydrobenzofuran-3-ylidene group, and the 3,4-dihydro-2H-1-benzopyran-4-ylidene group may have one or more substituents selected from the group consisting of a halogen atom, a C1-C3 alkyl group which may have one or more halogen atoms, and a C1-C3 alkoxy group which may have one or more halogen atoms}, or a 3,4-dihydro-2H-1-benzothiopyran-4-ylidene group {the 3,4-dihydro-2H-1-benzothiopyran-4-ylidene group may have one or more substituents selected from the group consisting of an oxo group, a halogen atom, a C1-C3 alkyl group which may have one or more halogen atoms, and a C1-C3 alkoxy group which may have one or more halogen atoms}, # represents a binding site to G, Z 3 represents an ethyl group].
A process for removing a quaternary ammonium tribromide or quaternary phosphonium tribromide from an organic solvent, comprising a) a step of washing an organic solvent containing the quaternary ammonium tribromide or quaternary phosphonium tribromide with an aqueous hydrazine solution in an amount sufficient to provide at least 0.25 moles of hydrazine per mole of quaternary ammonium tribromide or quaternary phosphonium tribromide in the organic solvent, to produce an aqueous phase containing hydrobromic acid and a quaternary ammonium monobromide or quaternary phosphonium monobromide corresponding to the quaternary ammonium tribromide or quaternary phosphonium tribromide and then b) a step of separating the aqueous phase from the organic solvent. a) a step of washing an organic solvent containing the quaternary ammonium tribromide or quaternary phosphonium tribromide with an aqueous hydrazine solution in an amount sufficient to provide at least 0.25 moles of hydrazine per mole of quaternary ammonium tribromide or quaternary phosphonium tribromide in the organic solvent, to produce an aqueous phase containing hydrobromic acid and a quaternary ammonium monobromide or quaternary phosphonium monobromide corresponding to the quaternary ammonium tribromide or quaternary phosphonium tribromide and then b) a step of separating the aqueous phase from the organic solvent.
An apparatus configured to be employed in a user equipment, UE, comprising: one or more processors configured to: generate an unlicensed narrowband, U-NB, loT communication based on a time domain multiple carrier aggregation operation comprising an anchored carrier of a long term evolution,LTE, licensed band and an unlicensed carrier , or only unlicensed carriers in a standalone configuration; receive in a downlink, transmit in an uplink, or receive and transmit the U-NB loT communication in the downlink and the uplink, wherein one or more synchronization signals are concurrently received on both a primary carrier and a supplemental carrier based on a U-NB loT radio access technology, RAT, wherein the primary carrier comprises the anchored carrier or the unlicensed carrier, and the supplemental carrier comprises at least one of the unlicensed carriers ; and a communication interface configured to process the U-NB loT communication. one or more processors configured to: generate an unlicensed narrowband, U-NB, loT communication based on a time domain multiple carrier aggregation operation comprising an anchored carrier of a long term evolution,LTE, licensed band and an unlicensed carrier , or only unlicensed carriers in a standalone configuration; receive in a downlink, transmit in an uplink, or receive and transmit the U-NB loT communication in the downlink and the uplink, wherein one or more synchronization signals are concurrently received on both a primary carrier and a supplemental carrier based on a U-NB loT radio access technology, RAT, wherein the primary carrier comprises the anchored carrier or the unlicensed carrier, and the supplemental carrier comprises at least one of the unlicensed carriers ; and generate an unlicensed narrowband, U-NB, loT communication based on a time domain multiple carrier aggregation operation comprising an anchored carrier of a long term evolution,LTE, licensed band and an unlicensed carrier , or only unlicensed carriers in a standalone configuration; receive in a downlink, transmit in an uplink, or receive and transmit the U-NB loT communication in the downlink and the uplink, wherein one or more synchronization signals are concurrently received on both a primary carrier and a supplemental carrier based on a U-NB loT radio access technology, RAT, wherein the primary carrier comprises the anchored carrier or the unlicensed carrier, and the supplemental carrier comprises at least one of the unlicensed carriers ; and a communication interface configured to process the U-NB loT communication.
A method of modifying a shoe-last, comprising: acquiring current digital data (F-D) representing a foot shape; providing reference digital data (R-D) representing a shoe-last shape to be modified; comparing the current digital data with the reference digital data to design patch shapes and patch positions; providing a shoe-last corresponding to the reference digital data; characterized in that the method further comprises the following steps: producing patch elements corresponding to said patch shapes; applying the patch elements on the shoe-last in accordance with said patch positions obtaining a modified shoe-last; wherein the production and the application of the patch elements on the shoe-last is performed by employing an additive manufacturing technique. acquiring current digital data (F-D) representing a foot shape; providing reference digital data (R-D) representing a shoe-last shape to be modified; comparing the current digital data with the reference digital data to design patch shapes and patch positions; providing a shoe-last corresponding to the reference digital data; characterized in that the method further comprises the following steps: producing patch elements corresponding to said patch shapes; applying the patch elements on the shoe-last in accordance with said patch positions obtaining a modified shoe-last; wherein the production and the application of the patch elements on the shoe-last is performed by employing an additive manufacturing technique. producing patch elements corresponding to said patch shapes; applying the patch elements on the shoe-last in accordance with said patch positions obtaining a modified shoe-last; wherein the production and the application of the patch elements on the shoe-last is performed by employing an additive manufacturing technique.
A fuel dispensing installation, comprising: a first fuel tank containing a first fuel having a first parameter at a first level; second fuel tank containing a second fuel having the first parameter at a second level; a fuel dispenser having a blending system for blending the first and second fuels to form at least a first fuel blend having a third level of the first parameter to be delivered via a fuel hose during a fueling event; a plurality of conduits connecting the first and second fuel tanks to the fuel dispenser ; a first and a second sensor operatively connected to the fuel dispenser so as to be in fluid communication with the first and second fuels, respectively, so as to sense the first level and the second level of the first parameter of the first and second fuels, respectively, and to output signals representative of the first level and the second level of the first parameter of the first and second fuels to the blending system; and a third sensor located downstream of the blending system and configured to detect the first parameter of retained fuel in the fuel hose prior to the fueling event and and configured to detect the third level of the first parameter of the first fuel blend during the fueling event, wherein the blending system is configured to receive the sensor output signals and to generate output control signals to maintain the first parameter level of the first fuel blend within a predetermined range of the third level of the first parameter. a first fuel tank containing a first fuel having a first parameter at a first level; second fuel tank containing a second fuel having the first parameter at a second level; a fuel dispenser having a blending system for blending the first and second fuels to form at least a first fuel blend having a third level of the first parameter to be delivered via a fuel hose during a fueling event; a plurality of conduits connecting the first and second fuel tanks to the fuel dispenser ; a first and a second sensor operatively connected to the fuel dispenser so as to be in fluid communication with the first and second fuels, respectively, so as to sense the first level and the second level of the first parameter of the first and second fuels, respectively, and to output signals representative of the first level and the second level of the first parameter of the first and second fuels to the blending system; and a third sensor located downstream of the blending system and configured to detect the first parameter of retained fuel in the fuel hose prior to the fueling event and and configured to detect the third level of the first parameter of the first fuel blend during the fueling event, wherein the blending system is configured to receive the sensor output signals and to generate output control signals to maintain the first parameter level of the first fuel blend within a predetermined range of the third level of the first parameter.
An antibody that binds to human IL-21 comprising a heavy chain variable region (HCVR) and a light chain variable region (LCVR) wherein the LCVR comprises SEQ.ID. NO:7 at CDRL1, SEQ. ID.NO:8 at CDRL2 and SEQ.ID.NO:9 at CDRL3 and wherein the HCVR comprises SEQ.ID. NO:10 at CDRH1, SEQ. ID.NO:11 at CDRH2 and SEQ.ID.NO:12 at CDRH3, wherein the heavy chain comprises a HCVR having the SEQ.ID.NO: 1 and wherein the light chain comprises a LCVR having the SEQ.ID.NO:2.