mhurhangee/ep-ind-claims huggingface dataset:
An assembly (168; 268; 368; 468; 568; 668; 768) for a gas turbine engine comprising: a metallic damper (170; 270; 370; 470; 570; 670; 770) including a first contact surface (174C; 274C; 374C; 474C; 774C); and a gas turbine engine component (60; 62-1; 62-2; 63; 160; 260; 360; 460; 560; 562; 660; 760; 763) comprising: a main body (172; 372) extending in a first direction between a gaspath surface and a second contact surface (172C; 272C; 372C; 472C); wherein the first and second contact surfaces (174C; 274C; 374C; 474C; 774C, 172C; 272C; 372C; 472C) oppose each other along an interface (175; 375; 475; 675; 775) extending in a second direction, and the first and second contact surfaces (174C...472C) dimensioned to contact each other along the interface (175...775) in a hot assembly state; and wherein the main body (172; 372) is established by a composite (178; 278; 578) including fibers (178F; 278F) in a matrix material (178M; 278M), and at least some of the fibers (178F; 278F) are arranged to establish a plurality of cooling passages (176; 276; 576; 676; 776) aligned with the interface (175...775) relative to the second direction. a metallic damper (170; 270; 370; 470; 570; 670; 770) including a first contact surface (174C; 274C; 374C; 474C; 774C); and a gas turbine engine component (60; 62-1; 62-2; 63; 160; 260; 360; 460; 560; 562; 660; 760; 763) comprising: a main body (172; 372) extending in a first direction between a gaspath surface and a second contact surface (172C; 272C; 372C; 472C); wherein the first and second contact surfaces (174C; 274C; 374C; 474C; 774C, 172C; 272C; 372C; 472C) oppose each other along an interface (175; 375; 475; 675; 775) extending in a second direction, and the first and second contact surfaces (174C...472C) dimensioned to contact each other along the interface (175...775) in a hot assembly state; and wherein the main body (172; 372) is established by a composite (178; 278; 578) including fibers (178F; 278F) in a matrix material (178M; 278M), and at least some of the fibers (178F; 278F) are arranged to establish a plurality of cooling passages (176; 276; 576; 676; 776) aligned with the interface (175...775) relative to the second direction. a main body (172; 372) extending in a first direction between a gaspath surface and a second contact surface (172C; 272C; 372C; 472C); wherein the first and second contact surfaces (174C; 274C; 374C; 474C; 774C, 172C; 272C; 372C; 472C) oppose each other along an interface (175; 375; 475; 675; 775) extending in a second direction, and the first and second contact surfaces (174C...472C) dimensioned to contact each other along the interface (175...775) in a hot assembly state; and wherein the main body (172; 372) is established by a composite (178; 278; 578) including fibers (178F; 278F) in a matrix material (178M; 278M), and at least some of the fibers (178F; 278F) are arranged to establish a plurality of cooling passages (176; 276; 576; 676; 776) aligned with the interface (175...775) relative to the second direction.
A microfluidic multi-well-based cell culture testing device that has an array structure of a plurality of aligned microfluidic well units, each of the microfluidic well units comprises an inlet through which a first fluid enters, an accommodation compartment adapted to accommodate a second fluid therein, a microfluidic channel through which the first fluid flows, and an air outlet adapted to facilitate the entering of the first fluid, wherein the microfluidic channel is in communication with the inlet and the air outlet such that the first fluid is allowed to flow into and fill the microfluidic channel, wherein the accommodation compartment is designed in the form of a well such that the entering second fluid is retained, and a capillary valve is formed where a portion of the lower lateral side of the accommodation compartment is in communication with a portion of the lateral side of the microfluidic channel such that the first fluid and the second fluid meet each other to form an interface, wherein the air outlet is formed at one end of the microfluidic channel, is in communication with the upper wall of the microfluidic channel, and is exposed to the atmosphere.
A method of manufacturing a laminated article, comprising providing an adhesive to a water vapor retarder film having a water vapor permeance of up to about 1.73 perms as determined according to the desiccant method of ASTM E 96 Method A at a mean RH percentage of 25 and a permeance of not less than about 3.45 perms as determined by the water method of ASTM E 96 Method B at a mean RH percentage of 75, wherein the adhesive is provided in an amount of about 0.4 to about 1.5 grams (dry weight) per lineal 305 mm (foot) of the film based on a 381 mm (15 inch) application width; and contacting the film to at least one surface of a building material.
A method of reporting communication errors or Cyclic Redundancy Checksum, hereinafter referred to as CRC, anomalies, in particular severely errored seconds, in a service provider network, comprising: receiving, at a first transceiver 200, a bit stream transmitted by a second transceiver 100; computing, at the first transceiver 200, local CRC bits based on the received bit stream; comparing the local CRC bits to received CRC bits computed at the second transceiver 100; identifying a CRC anomaly when the local CRC bits are not identical to the received CRC bits; and normalizing a CRC anomaly counter based on a value for a CRC computation period, hereinafter referred to as PERp, wherein a Severely Errored Second is declared if there are more than N CRC anomalies in a second. receiving, at a first transceiver 200, a bit stream transmitted by a second transceiver 100; computing, at the first transceiver 200, local CRC bits based on the received bit stream; comparing the local CRC bits to received CRC bits computed at the second transceiver 100; identifying a CRC anomaly when the local CRC bits are not identical to the received CRC bits; and normalizing a CRC anomaly counter based on a value for a CRC computation period, hereinafter referred to as PERp,
An interactive fetching device for interactive fetching of a projectile by a participant, the interactive fetching device comprising: a receiver having a receiver surface extending from a lip to an opening, the receiver surface configured to receive the projectile from the participant and direct the projectile through the opening; a shell having a shell surface extending between a top portion and a bottom portion, the receiver connected to the shell at the top portion, the opening in the receiver configured to direct the projectile into an interior of the interactive fetching device; a projectile randomizer disposed in the interior of the interactive fetching device; a feeder of the projectile randomizer, the feeder configured to randomly direct the projectile from the opening into one chute opening of a plurality of chute openings; a plurality of chutes of the projectile randomizer, each chute in the plurality of chutes positioned relative to a corresponding chute opening of the plurality of chute openings; a base coupled to the shell at the bottom portion, the base having a base surface extending upwardly from a support surface to the bottom portion of the shell; and a plurality of ports defined in the base surface each chute from the plurality of chutes configured to transport the projectile from the respective chute opening of the plurality of chute openings to a corresponding port of the plurality of ports to eject the projectile through the corresponding port of the plurality of ports, each port in the plurality of ports providing a different ejection path for the projectile to travel. a receiver having a receiver surface extending from a lip to an opening, the receiver surface configured to receive the projectile from the participant and direct the projectile through the opening; a shell having a shell surface extending between a top portion and a bottom portion, the receiver connected to the shell at the top portion, the opening in the receiver configured to direct the projectile into an interior of the interactive fetching device; a projectile randomizer disposed in the interior of the interactive fetching device; a feeder of the projectile randomizer, the feeder configured to randomly direct the projectile from the opening into one chute opening of a plurality of chute openings; a plurality of chutes of the projectile randomizer, each chute in the plurality of chutes positioned relative to a corresponding chute opening of the plurality of chute openings; a base coupled to the shell at the bottom portion, the base having a base surface extending upwardly from a support surface to the bottom portion of the shell; and a plurality of ports defined in the base surface each chute from the plurality of chutes configured to transport the projectile from the respective chute opening of the plurality of chute openings to a corresponding port of the plurality of ports to eject the projectile through the corresponding port of the plurality of ports, each port in the plurality of ports providing a different ejection path for the projectile to travel.
A straddled vehicle, comprising: a vehicle body frame including a head pipe; a headlight disposed forward of the head pipe; an engine supported by the vehicle body frame; a starter generator configured to generate an electric power and start the engine; an engine control unit including a command unit for outputting a command signal to the engine and a regulator connected to the starter generator; a steering device supported by the head pipe; a front wheel rotatably supported by the steering device; and a front brake configured to brake the front wheel, characterized by a hydraulic unit for ABS; a brake hose connecting the front brake and the hydraulic unit, wherein the engine control unit is disposed between the head pipe and the headlight in a longitudinal direction of the vehicle, the hydraulic unit is disposed between the engine control unit and the head pipe in the longitudinal direction of the vehicle, and the engine control unit and the hydraulic unit overlap with a vehicle center line extending in the longitudinal direction of the vehicle. a vehicle body frame including a head pipe; a headlight disposed forward of the head pipe; an engine supported by the vehicle body frame; a starter generator configured to generate an electric power and start the engine; an engine control unit including a command unit for outputting a command signal to the engine and a regulator connected to the starter generator; a steering device supported by the head pipe; a front wheel rotatably supported by the steering device; and a front brake configured to brake the front wheel, characterized by a hydraulic unit for ABS; a brake hose connecting the front brake and the hydraulic unit, wherein the engine control unit is disposed between the head pipe and the headlight in a longitudinal direction of the vehicle, the hydraulic unit is disposed between the engine control unit and the head pipe in the longitudinal direction of the vehicle, and the engine control unit and the hydraulic unit overlap with a vehicle center line extending in the longitudinal direction of the vehicle.
Dosing mechanism for a drug delivery device for selecting and dispensing a number of user-variable doses of a medicament, comprising: a housing; a piston rod; a driving mechanism (40, 50, 60; 40, 50, 160) for rotating • the piston rod and/or • a movement application component (203; 303), which is directly engaged with the piston rod, in a dispense rotational direction with respect to the housing (10, 12) for dose dispense; and a rotational end stop mechanism for terminating dose dispense comprising a first engagement means (88; 188; 205; 305), wherein the first engagement means (88; 188; 205; 305) is rotationally fixed with respect to the piston rod and/or the movement application component (203; 303), and a second engagement means (94; 166; 294; 327), wherein the second engagement means (94; 166; 294; 327) is prevented from rotation with respect to the housing (10, 12) in the dispense rotational direction at an end of dose dispense, characterized in that the second engagement means (94; 166; 294; 327) is not directly engaged with the first engagement means (88; 188; 205; 305) during dose dispense, and that the second engagement means (94; 166; 294; 327), at the end of dose dispense, directly engages the first engagement means (88; 188; 205; 305) and constitutes a rotational stop for the first engagement means (88; 188; 205; 305) to prevent the first engagement means (88; 188; 205; 305) from further rotation in the dispense rotational direction with respect to the housing (10, 12). a housing; a piston rod; a driving mechanism (40, 50, 60; 40, 50, 160) for rotating • the piston rod and/or • a movement application component (203; 303), which is directly engaged with the piston rod, • the piston rod and/or • a movement application component (203; 303), which is directly engaged with the piston rod, in a dispense rotational direction with respect to the housing (10, 12) for dose dispense; and a rotational end stop mechanism for terminating dose dispense comprising a first engagement means (88; 188; 205; 305), wherein the first engagement means (88; 188; 205; 305) is rotationally fixed with respect to the piston rod and/or the movement application component (203; 303), and a second engagement means (94; 166; 294; 327), wherein the second engagement means (94; 166; 294; 327) is prevented from rotation with respect to the housing (10, 12) in the dispense rotational direction at an end of dose dispense, characterized in that the second engagement means (94; 166; 294; 327) is not directly engaged with the first engagement means (88; 188; 205; 305) during dose dispense, and that the second engagement means (94; 166; 294; 327), at the end of dose dispense, directly engages the first engagement means (88; 188; 205; 305) and constitutes a rotational stop for the first engagement means (88; 188; 205; 305) to prevent the first engagement means (88; 188; 205; 305) from further rotation in the dispense rotational direction with respect to the housing (10, 12).
Compounds of the general formula wherein is Gly- D Pro, and Z is a chain of 18 α-amino acid residues and the positions of said amino acid residues in said chain being counted starting from the N-terminal amino acid, whereby these amino acid residues are: - P1: Arg; - P2: Arg; - P3: Trp; - P4: Cys; - P5: Tyr; - P6: Arg; - P7: Lys; - P8 Cys; - P9: Tyr; - P10: Lys; - P11: Gly; - P12: Tyr; - P13: Cys; - P14: Tyr; - P15: Arg; - P16: Lys; - P17: Cys; and - P18: Arg two Cys in P4 and P17 and/or in P8 and P13 form a disulfide bridge; and pharmaceutically acceptable salts thereof. - P1: Arg; - P2: Arg; - P3: Trp; - P4: Cys; - P5: Tyr; - P6: Arg; - P7: Lys; - P8 Cys; - P9: Tyr; - P10: Lys; - P11: Gly; - P12: Tyr; - P13: Cys; - P14: Tyr; - P15: Arg; - P16: Lys; - P17: Cys; and - P18: Arg
A clock synchronization method, comprising: receiving, by a terminal, information that is about N clock domains and that is sent by an access network device. wherein information about one clock domain comprises first time information and a clock domain number of the clock domain, the first time information comprises a time of a clock source of the clock domain when the access network device sends the information about the clock domain, the clock domain number is used to identify the clock domain, and N is an integer greater than 1; determining, by the terminal, M clock domains that are associated with the terminal and that are in the N clock domains, wherein M is an integer greater than 1; and separately performing, by the terminal, clock synchronization with clock sources of the M clock domains based on information about the M clock domains. receiving, by a terminal, information that is about N clock domains and that is sent by an access network device. wherein information about one clock domain comprises first time information and a clock domain number of the clock domain, the first time information comprises a time of a clock source of the clock domain when the access network device sends the information about the clock domain, the clock domain number is used to identify the clock domain, and N is an integer greater than 1; determining, by the terminal, M clock domains that are associated with the terminal and that are in the N clock domains, wherein M is an integer greater than 1; and separately performing, by the terminal, clock synchronization with clock sources of the M clock domains based on information about the M clock domains.
A system for secure boot on a platform, comprising: a host processor coupled with a firmware memory store; firmware for booting the host processor, the firmware to utilize one or more signature keys (401 to 407) during boot, each signature key associated with a software image to be loaded on the platform during boot; characterized by: a second processor on the platform, the second processor: a) being communicatively coupled to a secure area of a memory store, the secure area of the memory store being inaccessible to the firmware and other host processor applications; b) being configured to retrieve and validate the one or more signature keys from the secure area, to control image loading during boot; c) having network access for out-of-band communications, during the period when the host processor has not even booted; d) validating the key using the out-of-band communication by accessing an active directory listing valid keys on a remote server to determine if the signature key is valid or revoked; and e) being arranged to be capable of independent connection to a power supply separate from the host processor. a host processor coupled with a firmware memory store; firmware for booting the host processor, the firmware to utilize one or more signature keys (401 to 407) during boot, each signature key associated with a software image to be loaded on the platform during boot; characterized by: a second processor on the platform, the second processor: a) being communicatively coupled to a secure area of a memory store, the secure area of the memory store being inaccessible to the firmware and other host processor applications; b) being configured to retrieve and validate the one or more signature keys from the secure area, to control image loading during boot; c) having network access for out-of-band communications, during the period when the host processor has not even booted; d) validating the key using the out-of-band communication by accessing an active directory listing valid keys on a remote server to determine if the signature key is valid or revoked; and e) being arranged to be capable of independent connection to a power supply separate from the host processor. a) being communicatively coupled to a secure area of a memory store, the secure area of the memory store being inaccessible to the firmware and other host processor applications; b) being configured to retrieve and validate the one or more signature keys from the secure area, to control image loading during boot; c) having network access for out-of-band communications, during the period when the host processor has not even booted; d) validating the key using the out-of-band communication by accessing an active directory listing valid keys on a remote server to determine if the signature key is valid or revoked; and e) being arranged to be capable of independent connection to a power supply separate from the host processor.
A method of producing a porous and crystalline metal organic framework film on a substrate, the method comprising: - providing a substrate having a main surface, and; - forming on said main surface a MOF film using an organometallic compound precursor comprising a Zn ion or a cluster of Zn ions, selected to form an organometallic compound, and at least one organic ligand chosen from the class of azoles, wherein - each of said organometallic compound precursor and said at least one organic ligand is provided in vapor phase, - wherein forming said MOF film comprises at least a cyclic reaction sequence repeated for a first predetermined number of cycle times, and; - wherein the method further comprises initiating said cyclic reaction sequence by exposing said main surface to said organometallic compound precursor, thereby depositing said organometallic compound on the exposed surface, - wherein said at least a cyclic reaction sequence is done using an Atomic Layer Deposition process, wherein said cyclic reaction sequence comprises: o performing a first purge step, o subjecting said exposed main surface to an oxidizing agent, thereby forming a ZnO on said substrate, o performing a second purge step, - and; wherein the method further comprises subjecting said ZnO to said at least one organic ligand for a predetermined duration involving a one-step solid vapour deposition process thereby at least partially converting said ZnO into said MOF film. - providing a substrate having a main surface, and; - forming on said main surface a MOF film using an organometallic compound precursor comprising a Zn ion or a cluster of Zn ions, selected to form an organometallic compound, and at least one organic ligand chosen from the class of azoles, - each of said organometallic compound precursor and said at least one organic ligand is provided in vapor phase, - wherein forming said MOF film comprises at least a cyclic reaction sequence repeated for a first predetermined number of cycle times, and; - wherein the method further comprises initiating said cyclic reaction sequence by exposing said main surface to said organometallic compound precursor, thereby depositing said organometallic compound on the exposed surface, - wherein said at least a cyclic reaction sequence is done using an Atomic Layer Deposition process, wherein said cyclic reaction sequence comprises: o performing a first purge step, o subjecting said exposed main surface to an oxidizing agent, thereby forming a ZnO on said substrate, o performing a second purge step, o performing a first purge step, o subjecting said exposed main surface to an oxidizing agent, thereby forming a ZnO on said substrate, o performing a second purge step, - and; wherein the method further comprises subjecting said ZnO to said at least one organic ligand for a predetermined duration involving a one-step solid vapour deposition process thereby at least partially converting said ZnO into said MOF film.
A method of determining a condition of a fuel pump of a fuel system of a vehicle, the fuel system comprising the fuel pump and a feed pump configured to feed fuel to the fuel pump via a feed conduit, wherein the method comprises the steps of: - operating the feed pump during stand still of the fuel pump, - obtaining data representative of at least one of a flow and a pressure in the feed conduit, and - determining a condition of the fuel pump based on the data, characterized in that the fuel pump comprises one or more fuel lubricated bearings, and in that the step of determining a condition of the fuel pump comprises the step of: - determining a condition of the one or more fuel lubricated bearings. - operating the feed pump during stand still of the fuel pump, - obtaining data representative of at least one of a flow and a pressure in the feed conduit, and - determining a condition of the fuel pump based on the data, characterized in that the fuel pump comprises one or more fuel lubricated bearings, and in that the step of determining a condition of the fuel pump comprises the step of: - determining a condition of the one or more fuel lubricated bearings.