mhurhangee/ep-ind-claims huggingface dataset:
A blow out preventer (12a, 12b, 12c) comprising a housing which has a longitudinal axis and which is divided in a first housing part and a second housing part, movement of the first housing part relative to the second housing part being prevented by fasteners, each fastener including a shaft which extends through a fastener receiving passage provided in the first housing part into a fastener receiving passage provided in the second housing part, the housing being further provided with fluid flow passages which extend from the first housing part to the second housing part, the fluid flow passages being interspersed between fastener receiving passages, characterised in that the blowout preventer further comprises an annular packing element and an actuating part which is movable generally parallel to the longitudinal axis of the blow out preventer (12a, 12b, 12c) to push the packing element into engagement with the first part of the housing, compression of the packing element against the first part of the housing causing the diameter of the space enclosed by the packing element to decrease.
An apparatus, comprising: a processor configured to receive an indicator of an available capacity of an output queue of a stage (632; 634; 636) of a multi-stage switch, the processor configured to send a request for a data packet within the output queue if the indicator of the available capacity of the output queue satisfies a condition, the processor configured to determine, based on the data packet, an identifier of a source edge device of the data packet; and the processor configured to send a first flow control signal to the source edge device of the data packet using a first flow control protocol, the first flow control signal configured to cause the source edge device to send a second flow control signal to a source peripheral processing device using a second flow control protocol. a processor configured to receive an indicator of an available capacity of an output queue of a stage (632; 634; 636) of a multi-stage switch, the processor configured to send a request for a data packet within the output queue if the indicator of the available capacity of the output queue satisfies a condition, the processor configured to determine, based on the data packet, an identifier of a source edge device of the data packet; and the processor configured to send a first flow control signal to the source edge device of the data packet using a first flow control protocol, the first flow control signal configured to cause the source edge device to send a second flow control signal to a source peripheral processing device using a second flow control protocol.
A method of measuring the amount of TNF-related apoptosis-inducing ligand (TRAIL) polypeptide and CRP polypeptide in a fluid sample of a subject in need thereof, the method comprising: (a) flowing said sample through a lateral flow immunoassay device which comprises a first labeled antibody against said TRAIL and a second labeled antibody against said CRP; and (b) determining the amount of said TRAIL polypeptide and said CRP polypeptide at a test band of said device. (a) flowing said sample through a lateral flow immunoassay device which comprises a first labeled antibody against said TRAIL and a second labeled antibody against said CRP; and (b) determining the amount of said TRAIL polypeptide and said CRP polypeptide at a test band of said device.
A hardener composition comprising: a) an amine component; and b) a glycol ether component comprising i) from 10 weight percent to 70 weight percent alkylene glycol phenyl ether; ii) from 25 weight percent to 80 weight percent dialkylene glycol phenyl ether; and iii) from 5 weight percent to 20 weight percent trialkylene glycol phenyl ether, based on the total weight of the glycol ether component. a) an amine component; and b) a glycol ether component comprising i) from 10 weight percent to 70 weight percent alkylene glycol phenyl ether; ii) from 25 weight percent to 80 weight percent dialkylene glycol phenyl ether; and iii) from 5 weight percent to 20 weight percent trialkylene glycol phenyl ether, based on the total weight of the glycol ether component. i) from 10 weight percent to 70 weight percent alkylene glycol phenyl ether; ii) from 25 weight percent to 80 weight percent dialkylene glycol phenyl ether; and iii) from 5 weight percent to 20 weight percent trialkylene glycol phenyl ether, based on the total weight of the glycol ether component.
A catalyst bed platform structure, comprising: a catalyst bed platform; a support pipe (120, 450, 110) supporting the bottom of the catalyst bed platform, a central axis of the pipe being approximately aligned with a geometric center of the catalyst bed platform; a flow distributor separated from the catalyst bed platform by a gap, the support pipe passing through the flow distributor and attached to the flow distributor to provide support for the flow distributor; and a pipe support structure (140, 150, 470) supporting the bottom of the support pipe, the pipe support structure being adapted to reside on a bottom surface of an existing reactor having walls and a top opening; wherein the catalyst bed platform is formed from components capable of passing into the existing reactor through the top opening, which has a diameter of 28 inches (71 cm) or less, without welding the catalyst bed platform to a structural portion of the reactor walls. a catalyst bed platform; a support pipe (120, 450, 110) supporting the bottom of the catalyst bed platform, a central axis of the pipe being approximately aligned with a geometric center of the catalyst bed platform; a flow distributor separated from the catalyst bed platform by a gap, the support pipe passing through the flow distributor and attached to the flow distributor to provide support for the flow distributor; and a pipe support structure (140, 150, 470) supporting the bottom of the support pipe, the pipe support structure being adapted to reside on a bottom surface of an existing reactor having walls and a top opening; wherein the catalyst bed platform is formed from components capable of passing into the existing reactor through the top opening, which has a diameter of 28 inches (71 cm) or less, without welding the catalyst bed platform to a structural portion of the reactor walls.
A method of determining a VIN based accelerometer threshold for a vehicular telemetry system using a telematic communication system, the telematic communication system comprising a server, a computer, a handheld device and a vehicle, and being configured to provide communication and exchange of data, information, commands and messages therebetween, wherein said vehicle includes a vehicular telemetry hardware system comprising an accelerometer and configured to receive data and information from a resident vehicle portion, and to send the same over a network (17, 18) to said server, said computer or said handheld device, the method comprising the steps of: receiving a VIN from the vehicular telemetry hardware system, using the telematic communication system, decoding said VIN to identify vehicle components, wherein said decoding comprises decoding said VIN into a first group and a second group, the first group including at least one vehicle component of a platform, model, body style, or engine type, and the second group including at least one vehicle component of installed options, engine, or transmission, analyzing said vehicle components of the first and second groups for associating a weight with each thereof, determining an accelerometer threshold based upon a sum of weight of all vehicle components, and setting the determined accelerometer threshold in the vehicular telemetry hardware system. receiving a VIN from the vehicular telemetry hardware system, using the telematic communication system, decoding said VIN to identify vehicle components, wherein said decoding comprises decoding said VIN into a first group and a second group, the first group including at least one vehicle component of a platform, model, body style, or engine type, and the second group including at least one vehicle component of installed options, engine, or transmission, analyzing said vehicle components of the first and second groups for associating a weight with each thereof, determining an accelerometer threshold based upon a sum of weight of all vehicle components, and setting the determined accelerometer threshold in the vehicular telemetry hardware system.
An electric compressor comprising: a housing having a curved external surface; an electric terminal provided at the external surface of the housing; pin-like protrusions (4a, 4b, 4c) that protrude from the external surface of the housing in a normal direction of the external surface; and a protection member that has apertures (7a, 7b, 8) which correspond to the positions and the protruding direction of the protrusions (4a, 4b, 4c), and that surrounds the electric terminal in a state in which the protrusions are inserted into the apertures (7a, 7b, 8), characterized in that two of the protrusions (4a, 4b) are arranged in a circumferential direction of the external surface, and the apertures (7a, 7b) corresponding to the two protrusions (4a, 4b) are cut out to open in a lateral direction of the protection member. a housing having a curved external surface; an electric terminal provided at the external surface of the housing; pin-like protrusions (4a, 4b, 4c) that protrude from the external surface of the housing in a normal direction of the external surface; and a protection member that has apertures (7a, 7b, 8) which correspond to the positions and the protruding direction of the protrusions (4a, 4b, 4c), and that surrounds the electric terminal in a state in which the protrusions are inserted into the apertures (7a, 7b, 8), characterized in that two of the protrusions (4a, 4b) are arranged in a circumferential direction of the external surface, and the apertures (7a, 7b) corresponding to the two protrusions (4a, 4b) are cut out to open in a lateral direction of the protection member.
A time synchronization method for network devices, comprising: a programmable logic device receiving and parsing a time synchronization message from a to-be-synchronized device in a physical layer, wherein the time synchronization message carries a synchronization parameter; the programmable logic device generating a reply message for the time synchronization message according to local reference time and update configurations of the synchronization parameter; and the programmable logic device sending the reply message and a link establishment and communication message sent to the to-be-synchronized device by a CPU to the to-be-synchronized device in a preset order; characterized in that, the synchronization parameter comprises a source address and a destination address of the time synchronization message; the update configurations of the synchronization parameter comprises: update configurations of the source address and the destination address, and precision update configurations of the reference time. a programmable logic device receiving and parsing a time synchronization message from a to-be-synchronized device in a physical layer, wherein the time synchronization message carries a synchronization parameter; the programmable logic device generating a reply message for the time synchronization message according to local reference time and update configurations of the synchronization parameter; and the programmable logic device sending the reply message and a link establishment and communication message sent to the to-be-synchronized device by a CPU to the to-be-synchronized device in a preset order; characterized in that, the synchronization parameter comprises a source address and a destination address of the time synchronization message; the update configurations of the synchronization parameter comprises: update configurations of the source address and the destination address, and precision update configurations of the reference time.
A method of priming a plant to induce a resistance response against a pathogen, the method comprising: (a) obtaining a composition comprising an effective amount of azelaic acid or a salt thereof; and (b) contacting plant foliage component with the composition to prime the plant to induce its resistance response against a pathogen attack. (a) obtaining a composition comprising an effective amount of azelaic acid or a salt thereof; and (b) contacting plant foliage component with the composition to prime the plant to induce its resistance response against a pathogen attack.
An optical distance measuring apparatus, configured for measuring an object under measurement by sending an irradiation light, from a light source which irradiates a coherent irradiation light, to the object under measurement, comprising: a scanning element, configured for scanning the irradiation light from the light source and sending it to the object under measurement; a photo detector, configured for receiving the irradiation light modulated by being passed through the object under measurement in accordance with the scanning, and performing photoelectric conversion on the irradiation light; and a measuring unit (33, 34), configured for obtaining phase information of the object under measurement based on a signal photoelectrically converted by the photo detector and a signal to be a reference for the scanning by the scanning element, and configured for obtaining an optical distance regarding the object under measurement based on the phase information, wherein the phase information corresponds to an optical phase displacement between a zero order diffracted light and a first order diffracted light caused when a single irradiation light from the light source passes through the object under measurement; and the measuring unit (33, 34) is configured to calculate the optical distance based on updating a gain of an obtained spatial frequency on the basis of an output value of a modulation transfer function curve in a frequency band of a spatial frequency, in which an overlap of the zero order diffracted light and the first order diffracted light decreases. a scanning element, configured for scanning the irradiation light from the light source and sending it to the object under measurement; a photo detector, configured for receiving the irradiation light modulated by being passed through the object under measurement in accordance with the scanning, and performing photoelectric conversion on the irradiation light; and a measuring unit (33, 34), configured for obtaining phase information of the object under measurement based on a signal photoelectrically converted by the photo detector and a signal to be a reference for the scanning by the scanning element, and configured for obtaining an optical distance regarding the object under measurement based on the phase information, wherein the phase information corresponds to an optical phase displacement between a zero order diffracted light and a first order diffracted light caused when a single irradiation light from the light source passes through the object under measurement; and the measuring unit (33, 34) is configured to calculate the optical distance based on updating a gain of an obtained spatial frequency on the basis of an output value of a modulation transfer function curve in a frequency band of a spatial frequency, in which an overlap of the zero order diffracted light and the first order diffracted light decreases.
A method for producing a curable composition for imprints, which comprises passing a curable composition comprising a polymerizable monomer and a polymerization initiator through a filter having an effective filter area of 200 cm 2 or more at least one time and preferably at least twice, wherein the pressure applied to the composition at the filtration is 0.5 MPa or less; at least one filter has a pore size of 0.1 μm or less; the polymerizable monomer has a weight-average molecular weight of at most 1,000; the content of a solvent is 3% or less by mass of the curable composition for imprints; and the content of the polymerizable monomer in the curable composition for imprints, excluding a solvent, is 70 to 99.5% by mass.
Use of a dispersion comprising a) at least one polythiophene, wherein the polythiophene is poly(3,4-ethylenedioxythiophene), b) at least one polymer having SO 3 - M + groups, wherein the polymer having SO 3 - M + groups is a polystyrenesulphonic acid, c) at least one fluorinated or perfluorinated polymer having SO 3 - M + groups, wherein the fluorinated or perfluorinated polymer having SO 3 - M + groups is a copolymer of a perfluorinated sulphonic acid and tetrafluoroethylene, and d) at least one dispersing agent, wherein M + represents H +, Li +, Na +, K + or NH 4 + and wherein the dispersion is characterized by an FOM value of at most 100 Ω/sq, wherein the dispersion additionally comprises additives which increase the conductivity selected from the group consisting of polyalkylene glycols, polyglycerols, polyols, sulphoxides, carboxylic acid amides, ionic liquids and sugars, for the deposition of a transparent conductive layer which in an OLED or an OPV element serves at the same time as a hole injection layer and as a base electrode. a) at least one polythiophene, wherein the polythiophene is poly(3,4-ethylenedioxythiophene), b) at least one polymer having SO 3 - M + groups, wherein the polymer having SO 3 - M + groups is a polystyrenesulphonic acid, c) at least one fluorinated or perfluorinated polymer having SO 3 - M + groups, wherein the fluorinated or perfluorinated polymer having SO 3 - M + groups is a copolymer of a perfluorinated sulphonic acid and tetrafluoroethylene, and d) at least one dispersing agent,
A method for wireless communication, comprising: identifying a transport block group size for a transmission to a receiver; and characterized by: determining a retransmission size (415; 420) of one or more code blocks of one or more prior transport blocks to be retransmitted to the receiver during the transmission; and determining whether to transmit a new transport block to the receiver during the transmission based at least in part on the transport block group size and the retransmission size. determining a retransmission size (415; 420) of one or more code blocks of one or more prior transport blocks to be retransmitted to the receiver during the transmission; and determining whether to transmit a new transport block to the receiver during the transmission based at least in part on the transport block group size and the retransmission size.
A developing device comprising: a developer bearing member that bears a developer on a surface thereof; a supplying member that contacts the surface of the developer bearing member and supplies the developer to the surface of the developer bearing member; and a regulating member that contacts the surface of the developer bearing member and regulates the developer borne on the surface of the developer bearing member, wherein the developer includes a toner; characterized in that the toner has a Martens hardness of at least 200 MPa and not more than 1100 MPa when measured under a condition of a maximum load of 2.0 × 10 -4 N as explained in the description; and wherein a contact pressure of the regulating member against the surface of the developer bearing member is denoted by N (gf/mm) and a contact pressure of the supplying member against the surface of the developer bearing member is denoted by D (gf/mm) and is measured according to the description, the following expressions are satisfied: D + 2 × N − 6 ≥ 0, 1.5 ≤ N ≤ 4.5, and 2.0 ≤ D ≤ 4.5. a developer bearing member that bears a developer on a surface thereof; a supplying member that contacts the surface of the developer bearing member and supplies the developer to the surface of the developer bearing member; and a regulating member that contacts the surface of the developer bearing member and regulates the developer borne on the surface of the developer bearing member, wherein the developer includes a toner; characterized in that the toner has a Martens hardness of at least 200 MPa and not more than 1100 MPa when measured under a condition of a maximum load of 2.0 × 10 -4 N as explained in the description; and wherein a contact pressure of the regulating member against the surface of the developer bearing member is denoted by N (gf/mm) and a contact pressure of the supplying member against the surface of the developer bearing member is denoted by D (gf/mm) and is measured according to the description, the following expressions are satisfied: D + 2 × N − 6 ≥ 0, 1.5 ≤ N ≤ 4.5, and 2.0 ≤ D ≤ 4.5.
A battery module (10, 10a, 10b) comprising: a stack (11, 11a, 11b) comprising a plurality of unit cells (12, 12', 12") and a plurality of cell barriers (13, 13a, 13b), each cell barrier being interposed between, two adjacent unit cells; a housing (20, 20') enclosing the stack; an inlet (23, 23', 23") formed at an upper part of the stack in the housing and configured to receive a coolant into the housing; and an outlet (25, 25', 25") formed in the housing and configured to discharge the coolant from the housing; wherein each of the cell barriers (13, 13a, 13b) is arranged to provide a coolant passage (14, 14a, 14b) for the coolant, the coolant passage (14, 14a, 14b) being arranged to receive coolant at the upper part of the stack and to discharge the coolant at a lateral side surface of the stack into the outlet. a stack (11, 11a, 11b) comprising a plurality of unit cells (12, 12', 12") and a plurality of cell barriers (13, 13a, 13b), each cell barrier being interposed between, two adjacent unit cells; a housing (20, 20') enclosing the stack; an inlet (23, 23', 23") formed at an upper part of the stack in the housing and configured to receive a coolant into the housing; and an outlet (25, 25', 25") formed in the housing and configured to discharge the coolant from the housing; wherein each of the cell barriers (13, 13a, 13b) is arranged to provide a coolant passage (14, 14a, 14b) for the coolant, the coolant passage (14, 14a, 14b) being arranged to receive coolant at the upper part of the stack and to discharge the coolant at a lateral side surface of the stack into the outlet.