mhurhangee/patent-ind-claim-en huggingface dataset:
A pump for supplying high-pressure fuel, comprising: - a plunger which pressurizes fuel in a pressurizing chamber , - a cylinder which guides the reciprocating movement of the plunger on an inner peripheral side face of the same, and - a body in which the cylinder is arranged, wherein the cylinder has an opposing face which opposes the body , and wherein the entire cylinder is disposed on the side opposite to the pressurizing chamber relative to the opposing face, wherein the pressurizing chamber whose volume increases and decreases with the reciprocating movement of the plunger is formed in the body , and the pressurizing chamber is formed in a cylindrical shape having an inner diameter which is approximately equal to the outer diameter of the plunger , characterized in that a gap (B) formed between the outer periphery of the cylinder and the body in the radial direction is smaller than a gap (A) formed in the radial direction between the inner diameter of the pressurizing chamber and the outer diameter of the plunger , and that the gap (B) formed between the outer periphery of the cylinder and the body in the radial direction is smaller than a gap (C) formed in the radial direction between the outer periphery of the cylinder and the inner periphery of a holder member of the cylinder . - a plunger which pressurizes fuel in a pressurizing chamber , - a cylinder which guides the reciprocating movement of the plunger on an inner peripheral side face of the same, and - a body in which the cylinder is arranged, wherein the cylinder has an opposing face which opposes the body , and wherein the entire cylinder is disposed on the side opposite to the pressurizing chamber relative to the opposing face, wherein the pressurizing chamber whose volume increases and decreases with the reciprocating movement of the plunger is formed in the body , and the pressurizing chamber is formed in a cylindrical shape having an inner diameter which is approximately equal to the outer diameter of the plunger , characterized in that a gap (B) formed between the outer periphery of the cylinder and the body in the radial direction is smaller than a gap (A) formed in the radial direction between the inner diameter of the pressurizing chamber and the outer diameter of the plunger , and that the gap (B) formed between the outer periphery of the cylinder and the body in the radial direction is smaller than a gap (C) formed in the radial direction between the outer periphery of the cylinder and the inner periphery of a holder member of the cylinder .
An apparatus for selecting a plurality of input signals from a plurality of y signals (clc_in[0.. 15]) in a device, comprising: a switching matrix comprising: a plurality of independently controlled n-to-1 multiplexers , wherein in a first operating mode each n-to-1 multiplexer is assigned to a different input set of n of said y signals wherein a subset of less than n input signals of each set of input signals of each of the n-to-1 multiplexers is also a subset of input signals of another n-to-1 multiplexer ; wherein the switching matrix is configured to further operate in a second operating mode in which the switching matrix is configured to assign an identical sub-set of input signals from said y input signals to all of the plurality of independently controlled n-to-1 multiplexers or in which the switching matrix is configured to assign at least a first input set to at least one n-to-1 multiplexers and at least a second input set with no input signals of the first input set to at least another n-to-1 multiplexer ; and a mode register coupled with the switching matrix allowing to program one of the operating modes. a switching matrix comprising: a plurality of independently controlled n-to-1 multiplexers , wherein in a first operating mode each n-to-1 multiplexer is assigned to a different input set of n of said y signals wherein a subset of less than n input signals of each set of input signals of each of the n-to-1 multiplexers is also a subset of input signals of another n-to-1 multiplexer ; wherein the switching matrix is configured to further operate in a second operating mode in which the switching matrix is configured to assign an identical sub-set of input signals from said y input signals to all of the plurality of independently controlled n-to-1 multiplexers or in which the switching matrix is configured to assign at least a first input set to at least one n-to-1 multiplexers and at least a second input set with no input signals of the first input set to at least another n-to-1 multiplexer ; and a plurality of independently controlled n-to-1 multiplexers , wherein in a first operating mode each n-to-1 multiplexer is assigned to a different input set of n of said y signals wherein a subset of less than n input signals of each set of input signals of each of the n-to-1 multiplexers is also a subset of input signals of another n-to-1 multiplexer ; wherein the switching matrix is configured to further operate in a second operating mode in which the switching matrix is configured to assign an identical sub-set of input signals from said y input signals to all of the plurality of independently controlled n-to-1 multiplexers or in which the switching matrix is configured to assign at least a first input set to at least one n-to-1 multiplexers and at least a second input set with no input signals of the first input set to at least another n-to-1 multiplexer ; and a mode register coupled with the switching matrix allowing to program one of the operating modes.
Clamp holder with a receiving opening for releasably clamping a cutting insert , which is defined by a lower clamping jaw , an upper clamping jaw opposite this and a rear stop , the receiving opening in the rear area next to the rear stop successive lining up a slot and an extension , the design of which allows the upper clamping jaw to be spread apart from the lower clamping jaw , characterized in that the upper area of the extension is followed by at least three to twenty arcuate or open polygonal slot which - viewed from the front of the clamp holder - run in a left curve over an angle of at least 120°.
An attritor mill comprising a grinding container that forms, in its inside, a grinding chamber and a rotor housed inside said container , wherein from the rotor a plurality of arms (9, 9', 9") radially protrudes and the attritor mill is arranged to grind, mince, triturate or micronize a material to be treated, such as for example urban solid waste, food scraps or more generally the so-called "wet waste", remains from mowing or pruning, vegetal residues from agricultural activity, waste similar to the urban ones, dry organic fraction of the urban waste, by carrying out the following steps: - mixing the material to be treated with a plurality of grinding free bodies in the grinding chamber ; - agitating the material to be treated and the plurality of grinding free bodies by making the rotor rotate on itself so that its arms strike the free grinding bodies and at least a part of the latter bounce against the walls of the grinding chamber and other free grinding bodies , and/or strike the material to be treated; wherein: - on the bottom or anyway in the lower part of the grinding chamber at least one lifting projection is arranged to deviate mainly upwards the free grinding bodies that strike the projection itself; and characterized in that : - close to the bottom of the grinding chamber the rotor comprises a protecting plate substantially transversal to the rotation axis (Al) of the rotor itself and that substantially covers at least half of the surface of the bottom or of the cross section of the grinding chamber ; - the at least one lifting projection is made on the protecting plate . - mixing the material to be treated with a plurality of grinding free bodies in the grinding chamber ; - agitating the material to be treated and the plurality of grinding free bodies by making the rotor rotate on itself so that its arms strike the free grinding bodies and at least a part of the latter bounce against the walls of the grinding chamber and other free grinding bodies , and/or strike the material to be treated; - on the bottom or anyway in the lower part of the grinding chamber at least one lifting projection is arranged to deviate mainly upwards the free grinding bodies that strike the projection itself; - close to the bottom of the grinding chamber the rotor comprises a protecting plate substantially transversal to the rotation axis (Al) of the rotor itself and that substantially covers at least half of the surface of the bottom or of the cross section of the grinding chamber ; - the at least one lifting projection is made on the protecting plate .
A circular cableway with a first conveying section (F1) which has a first conveyor cable , and with a second conveying section (F2) which has a second conveyor cable , and with a connecting station (V) which connects the two conveying sections (F1, F2), wherein the first conveyor cable is deflected in the connecting station (V) about a first cable sheave , and the second conveyor cable is deflected in the connecting station (V) about a second cable sheave , wherein a plurality of cableway vehicles are provided which are movable by the conveyor cables in the conveying sections (F1, F2), wherein a connecting guide device (D) is provided in the connecting station (V) along which cableway vehicles decoupled from the first conveyor cable in an entry area (E1) of the first conveying section (F1) can be moved to an exit area (A1) of the first conveying section (F1) or to an exit area (A2) of the second conveying section (F2), and along which cableway vehicles decoupled from the second conveyor cable in an entry area (E2) of the second conveying section (F2) can be moved to the exit area (A2) of the second conveying section (F2) or to the exit area (A1) of the first conveying section (F1), wherein a circulating guide section is provided in the connecting guide device (D) that forms a closed conveyor loop along which the cableway vehicles can be moved, characterized in that a first switchable guide element (S1) is provided which is displaceable between a closed position, in which it connects a first entry guide section of the connection guide device (D) provided in the entry area (E1) of the first conveying section (F1) to the circulating guide section , and an open position, that a second switchable guide element (S2) is provided which is displaceable between a closed position, in which it connects a first exit guide section of the connection guide device (D) provided in the exit area (A1) of the first conveying section (F1) to the circulating guide section , and an open position, that a third switchable guide element (S3) is provided which is displaceable between a closed position, in which it connects a second entry guide section of the connection guide section (D) provided in the entry area (E2) of the second conveying section (F2) to the circulating guide section , and an open position, and that a fourth switchable guide element (S4) is provided which can be displaced between a closed position, in which it connects a second exit guide section of the connection guide device (D) provided in the exit area (A2) of the second conveying section (F2) to the circulating guide section , and an open position.
Structural component, particularly for a motor vehicle, comprising at least one element to be reinforced and at least one reinforcing layer , bonded with a surface of the element, which consists of a fibre composite material which has a radiation-curable polymer matrix component, wherein the reinforcing layer has at least two regions of different strength and the borders between the regions of different strength extend substantially perpendicularly to the surface of the element to be reinforced.
A cartridge for use in a blood clotting analyzer, comprising: a plurality of reagent chambers configured to serve as blood clotting analysis chambers or in communication with blood clotting analysis chambers when used with the blood clotting analyzer; wherein the plurality of reagent chambers comprises a first chamber housing a clotting rate enhancing agent; wherein the plurality of reagent chambers comprises a second chamber housing a clotting rate enhancing agent and a heparin neutralizer; wherein the plurality of reagent chambers comprises a third chamber housing a clotting rate enhancing agent, a platelet activator, and a heparin neutralizer; wherein the plurality of reagent chambers comprises a fourth chamber housing a clotting rate enhancing agent, fibrinogen, and a platelet inhibitor. a plurality of reagent chambers configured to serve as blood clotting analysis chambers or in communication with blood clotting analysis chambers when used with the blood clotting analyzer; wherein the plurality of reagent chambers comprises a first chamber housing a clotting rate enhancing agent; wherein the plurality of reagent chambers comprises a second chamber housing a clotting rate enhancing agent and a heparin neutralizer; wherein the plurality of reagent chambers comprises a third chamber housing a clotting rate enhancing agent, a platelet activator, and a heparin neutralizer; wherein the plurality of reagent chambers comprises a fourth chamber housing a clotting rate enhancing agent, fibrinogen, and a platelet inhibitor.
A composition for silicon solar cells comprising a) Ag powder, b) glass frits, c) at least one organic resin, d) at least one solvent, e) and between 0.1-1.5 wt% of a Bi 2 O 3 additive wherein the Bi 2 O 3 has an average particle size of between 20 to 300 nm and wherein the additive contains greater than 99.0 wt% Bi 2 O 3 . a) Ag powder, b) glass frits, c) at least one organic resin, d) at least one solvent, e) and between 0.1-1.5 wt% of a Bi 2 O 3 additive wherein the Bi 2 O 3 has an average particle size of between 20 to 300 nm and wherein the additive contains greater than 99.0 wt% Bi 2 O 3 .
A method of purifying messenger RNA (mRNA), comprising (a) precipitating mRNA from an impure preparation; and (b) subjecting the impure preparation comprising precipitated mRNA to a purification process involving membrane filtration such that the precipitated mRNA is captured by a membrane; and (c) washing the captured precipitated mRNA; and (d) eluting the captured precipitated mRNA from the membrane by re-solubilizing the mRNA, thereby resulting in a purified mRNA solution. (a) precipitating mRNA from an impure preparation; and (b) subjecting the impure preparation comprising precipitated mRNA to a purification process involving membrane filtration such that the precipitated mRNA is captured by a membrane; and (c) washing the captured precipitated mRNA; and (d) eluting the captured precipitated mRNA from the membrane by re-solubilizing the mRNA, thereby resulting in a purified mRNA solution.
A method for replacing a source Virtualized Network Function Manager, VNFM, managing a source Virtualized Network Function, VNF, in a VNF based environment by a target VNFM , the method comprising the steps of: (a) triggering (S302) instantiating a target VNF , the target VNF being managed by the target VNFM and being executed in parallel to the source VNF ; (b) triggering (S304) redirecting traffic from the source VNF to the target VNF in accordance with a traffic redirection schedule; (c) triggering (S306) terminating the source VNF when redirecting traffic from the source VNF to the target VNF is complete; and (d) triggering (S308) terminating the source VNFM , wherein the source VNFM is replaced by the target VNFM as part of a software modification process transitioning at least a subsystem of the VNF based environment from a source VNFM managed deployment to a target VNFM managed deployment, wherein the source VNF does not support interaction with the target VNFM and wherein the target VNF is an updated version of the source VNF which supports interaction with the target VNFM , and wherein the source VNFM is a Specific VNFM, S-VNFM, and the target VNFM is a Generic VNFM, G-VNFM. (a) triggering (S302) instantiating a target VNF , the target VNF being managed by the target VNFM and being executed in parallel to the source VNF ; (b) triggering (S304) redirecting traffic from the source VNF to the target VNF in accordance with a traffic redirection schedule; (c) triggering (S306) terminating the source VNF when redirecting traffic from the source VNF to the target VNF is complete; and (d) triggering (S308) terminating the source VNFM , wherein the source VNFM is replaced by the target VNFM as part of a software modification process transitioning at least a subsystem of the VNF based environment from a source VNFM managed deployment to a target VNFM managed deployment, wherein the source VNF does not support interaction with the target VNFM and wherein the target VNF is an updated version of the source VNF which supports interaction with the target VNFM , and wherein the source VNFM is a Specific VNFM, S-VNFM, and the target VNFM is a Generic VNFM, G-VNFM.
A wall of a component of a gas turbine engine subjected to a flow of high temperature gas, the wall having an inner surface and an outer surface ; and comprising: a plurality of passages extending through the outer surface and spaced from each other in a direction across the flow of high temperature gas, each passage comprising: an inlet portion located at the inner surface; an outlet portion located at the outer surface and including a non-rectangular slot ; and an intermediate portion fluidly connecting the inlet portion and the outlet portion ; characterised in that : the non-rectangular slot includes a plurality of protrusions extending into the non-rectangular slot from at least one of its downstream side and its upstream side . a plurality of passages extending through the outer surface and spaced from each other in a direction across the flow of high temperature gas, each passage comprising: an inlet portion located at the inner surface; an outlet portion located at the outer surface and including a non-rectangular slot ; and an intermediate portion fluidly connecting the inlet portion and the outlet portion ; an inlet portion located at the inner surface; an outlet portion located at the outer surface and including a non-rectangular slot ; and an intermediate portion fluidly connecting the inlet portion and the outlet portion ; characterised in that : the non-rectangular slot includes a plurality of protrusions extending into the non-rectangular slot from at least one of its downstream side and its upstream side .
A composite sandwich panel comprising: a lower facing sheet ; a first core layer attached to the lower facing sheet; a first structural ply attached to the first core layer opposite the lower facing sheet; a perforated heating element bonded to the first structural ply opposite the first core layer; a second structural ply bonded to the perforated heating element opposite the first structural ply; a second core layer attached to the second structural ply opposite the heating element; and an upper facing sheet attached to the second core layer opposite the second structural ply. a lower facing sheet ; a first core layer attached to the lower facing sheet; a first structural ply attached to the first core layer opposite the lower facing sheet; a perforated heating element bonded to the first structural ply opposite the first core layer; a second structural ply bonded to the perforated heating element opposite the first structural ply; a second core layer attached to the second structural ply opposite the heating element; and an upper facing sheet attached to the second core layer opposite the second structural ply.
A topical composition comprising a therapeutically and/or prophylactically effective dose of at least one BRaf inhibitor or a combination thereof and a pharmaceutically acceptable carrier or excipient for use in the treatment, prevention or alleviation of radiation dermatitis by topical administration to a subject in need thereof, wherein said at least one BRaf inhibitor is selected from BAY43-9006 (Sorafenib), LGX818 (encorafenib), PLX4032 (vemurafenib), GSK2118436 (dabrafenib), ARQ736, ARQ680, AZ628, C-I, C-15, C-19, C-A, , CEP-32496, GDC-0879, NMS-P186, NMS-P349, NMS- P383, NMS-P396, NMS-P730, PLX3603 (RO5212054), PLX4720 (Difluorophenyl-sulfonamine), PF-04880594, PLX4734, RAF265, R04987655, SB590885, ZM336372, BMS908662, WYE-130600, TAK632, MLN 2480, XL281, a compound of formula (I): wherein R is selected from the group consisting of p-chlorophenyl, 3- ethynylphenyl, 3 -chloro-4-fluorophenyl, 2-fluoro-4-iodophenyl, 4-chloro-3- (trifluoromethyl)phenyl, 3 -( 1, 1 -dimethylethyl)- 1-methyl- 1 H-pyrazol-5-yl, 3 - (trifluoromethoxy)phenyl, 3 ,5 -dihydroxyphenyl, phenyl-3 -sulfonamide or 3- (trifluoromethyl)phenyl, or a pharmaceutically acceptable salt or a solvate thereof; a compound of formula (II): wherein R is NHR1, wherein R1 is 2-fluoro-4-iodophenyl, or a pharmaceutically acceptable salt or a solvate thereof; a compound of formula (III): wherein R is NHR1, wherein R1 is 3 -ethynylphenyl, 3 -chloro-4-fluorophenyl, 2-fluoro-4-iodophenyl, or 4-chloro-3 -(trifluoromethyl) phenyl, or a pharmaceutically acceptable salt or a solvate thereof; or a combination thereof; and a pharmaceutically acceptable carrier or excipient. wherein said at least one BRaf inhibitor is selected from BAY43-9006 (Sorafenib), LGX818 (encorafenib), PLX4032 (vemurafenib), GSK2118436 (dabrafenib), ARQ736, ARQ680, AZ628, C-I, C-15, C-19, C-A, , CEP-32496, GDC-0879, NMS-P186, NMS-P349, NMS- P383, NMS-P396, NMS-P730, PLX3603 (RO5212054), PLX4720 (Difluorophenyl-sulfonamine), PF-04880594, PLX4734, RAF265, R04987655, SB590885, ZM336372, BMS908662, WYE-130600, TAK632, MLN 2480, XL281, a compound of formula (I): wherein R is selected from the group consisting of p-chlorophenyl, 3- ethynylphenyl, 3 -chloro-4-fluorophenyl, 2-fluoro-4-iodophenyl, 4-chloro-3- (trifluoromethyl)phenyl, 3 -( 1, 1 -dimethylethyl)- 1-methyl- 1 H-pyrazol-5-yl, 3 - (trifluoromethoxy)phenyl, 3 ,5 -dihydroxyphenyl, phenyl-3 -sulfonamide or 3- (trifluoromethyl)phenyl, or a pharmaceutically acceptable salt or a solvate thereof; a compound of formula (II): wherein R is NHR1, wherein R1 is 2-fluoro-4-iodophenyl, or a pharmaceutically acceptable salt or a solvate thereof; a compound of formula (III): wherein R is NHR1, wherein R1 is 3 -ethynylphenyl, 3 -chloro-4-fluorophenyl, 2-fluoro-4-iodophenyl, or 4-chloro-3 -(trifluoromethyl) phenyl, or a pharmaceutically acceptable salt or a solvate thereof; or a combination thereof; and a pharmaceutically acceptable carrier or excipient.
An authoring device comprising: ancillary information generating means for generating information (D6) composed of non-encrypted encoding information specifying information pertinent to the encoding of contents data (D1), the contents data (D1) being encoded picture and/or audio data, and packetizing control information for forming a packet of a preset format; encrypted contents data generating means for encrypting said contents data (D1); and means for forwarding the information (D6) and encrypted contents data (D7) to a streaming server for packetizing the encrypted contents data (D7) and distributing the resulting data (D4) to a client terminal . ancillary information generating means for generating information (D6) composed of non-encrypted encoding information specifying information pertinent to the encoding of contents data (D1), the contents data (D1) being encoded picture and/or audio data, and packetizing control information for forming a packet of a preset format; encrypted contents data generating means for encrypting said contents data (D1); and means for forwarding the information (D6) and encrypted contents data (D7) to a streaming server for packetizing the encrypted contents data (D7) and distributing the resulting data (D4) to a client terminal .