mhurhangee/ep-ind-claims huggingface dataset:
An assembly for a turbofan engine, comprising: a fan having a circumferential array of fan blades; a fan case surrounding the fan and including: a containment case; a fan case liner cartridge inboard of the containment case and mounted to the containment case, and comprising: a first metallic layer having three progressively radially inwardly staggered sections (173, 174, 175) separated by annular shoulders (176, 177) and a ballistic liner outboard of at least a portion of the first metallic layer; characterized in that the ballistic liner is attached to the first metallic layer; and the coefficient of thermal expansion of the first metallic layer and the coefficient of thermal expansion of the ballistic liner are the same or similar, such that expansion and contraction of these layers will not impose stress on adjacent layers. a fan having a circumferential array of fan blades; a fan case surrounding the fan and including: a containment case; a fan case liner cartridge inboard of the containment case and mounted to the containment case, and comprising: a first metallic layer having three progressively radially inwardly staggered sections (173, 174, 175) separated by annular shoulders (176, 177) and a ballistic liner outboard of at least a portion of the first metallic layer; characterized in that the ballistic liner is attached to the first metallic layer; and the coefficient of thermal expansion of the first metallic layer and the coefficient of thermal expansion of the ballistic liner are the same or similar, such that expansion and contraction of these layers will not impose stress on adjacent layers. a containment case; a fan case liner cartridge inboard of the containment case and mounted to the containment case, and comprising: a first metallic layer having three progressively radially inwardly staggered sections (173, 174, 175) separated by annular shoulders (176, 177) and a ballistic liner outboard of at least a portion of the first metallic layer; characterized in that the ballistic liner is attached to the first metallic layer; and the coefficient of thermal expansion of the first metallic layer and the coefficient of thermal expansion of the ballistic liner are the same or similar, such that expansion and contraction of these layers will not impose stress on adjacent layers. a first metallic layer having three progressively radially inwardly staggered sections (173, 174, 175) separated by annular shoulders (176, 177) and a ballistic liner outboard of at least a portion of the first metallic layer; characterized in that the ballistic liner is attached to the first metallic layer; and the coefficient of thermal expansion of the first metallic layer and the coefficient of thermal expansion of the ballistic liner are the same or similar, such that expansion and contraction of these layers will not impose stress on adjacent layers.
Authentication method for a passenger of an aircraft of an airline, wherein - a data processing apparatus of the airline generates flight-specific authentication data for use of an on-board communication device, wherein - the authentication data allow the authentication of the passenger device (5, 6) by wirelessly transmitting the authentication data to the on-board communication device, wherein - the data processing apparatus of the airline generates flight-specific access data for the passenger, wherein - the access data are transmitted to the portable passenger device (5, 6) of the passenger by means of a communication network, and - the access data on the passenger device (5, 6) allow access to the aircraft, wherein - the authentication data are transmitted to a portable passenger device (5, 6) of the passenger by means of a communication network, wherein - the authentication data are transmitted together with the access data to the passenger device (5, 6) in a single message. - a data processing apparatus of the airline generates flight-specific authentication data for use of an on-board communication device, wherein - the authentication data allow the authentication of the passenger device (5, 6) by wirelessly transmitting the authentication data to the on-board communication device, wherein - the data processing apparatus of the airline generates flight-specific access data for the passenger, wherein - the access data are transmitted to the portable passenger device (5, 6) of the passenger by means of a communication network, and - the access data on the passenger device (5, 6) allow access to the aircraft, wherein - the authentication data are transmitted to a portable passenger device (5, 6) of the passenger by means of a communication network, wherein - the authentication data are transmitted together with the access data to the passenger device (5, 6) in a single message.
A method of manufacturing a heat exchanger, the method comprising: inserting a tube into a through hole formed in at least one fin coated with a filler metal; and joining the tube and a fin collar of the at least one fin through the filler metal by a brazing processing, wherein the through hole and the fin collar of the at least one fin are formed by: a first step of forming a conical portion in the at least one fin, characterized in that the through hole and the fin collar are further formed by: a second step of flattening an upper portion of the conical portion to form a substantially flat top, a third step of piercing the substantially flat top portion to form the through hole and the fin collar, and a final step of ironing the fin collar configured to form the fin collar to protrude flangeless vertically from a central longitudinal plane of the at least one fin. inserting a tube into a through hole formed in at least one fin coated with a filler metal; and joining the tube and a fin collar of the at least one fin through the filler metal by a brazing processing, wherein the through hole and the fin collar of the at least one fin are formed by: a first step of forming a conical portion in the at least one fin, characterized in that the through hole and the fin collar are further formed by: a second step of flattening an upper portion of the conical portion to form a substantially flat top, a third step of piercing the substantially flat top portion to form the through hole and the fin collar, and a final step of ironing the fin collar configured to form the fin collar to protrude flangeless vertically from a central longitudinal plane of the at least one fin. a first step of forming a conical portion in the at least one fin, characterized in that the through hole and the fin collar are further formed by: a second step of flattening an upper portion of the conical portion to form a substantially flat top, a third step of piercing the substantially flat top portion to form the through hole and the fin collar, and a final step of ironing the fin collar configured to form the fin collar to protrude flangeless vertically from a central longitudinal plane of the at least one fin. a second step of flattening an upper portion of the conical portion to form a substantially flat top, a third step of piercing the substantially flat top portion to form the through hole and the fin collar, and a final step of ironing the fin collar configured to form the fin collar to protrude flangeless vertically from a central longitudinal plane of the at least one fin.
A method for diagnosing or identifying bladder cancer in a subject, comprising: a) determining the level or amount of methylation of the promoter of the ECRG4- and/or ITIH5-gene, in particular, of the nucleic acid sequence of Seq. ID No. 1 and/or Seq. ID No. 2, in a sample of said subject; and b) diagnosing or identifying bladder cancer based on the level or amount of methylation of the promoter of the ECRG4- and/or ITIH5-gene. a) determining the level or amount of methylation of the promoter of the ECRG4- and/or ITIH5-gene, in particular, of the nucleic acid sequence of Seq. ID No. 1 and/or Seq. ID No. 2, in a sample of said subject; and b) diagnosing or identifying bladder cancer based on the level or amount of methylation of the promoter of the ECRG4- and/or ITIH5-gene.
A connection mechanism comprising a plurality of connection parts which connect a first housing, including at least one first side wall (1a1, la2, la3, la4) defining an internal space and a plurality of first openings formed in the first side wall (1a1, la2, la3, 1a4), to a second housing including at least one second side wall (2al, 2a2, 2a3, 2a4) defining an internal space and a second opening formed in the second side wall (2a1, 2a2, 2a3, 2a4), the connection parts causing one of the first openings (lb)to communicate with the second opening, each of the connection parts including: a first flange which includes a first through hole penetrating the first flange in a thickness direction and is connected to the second housing when the first through hole faces the second opening; and an attaching portion which attaches the first flange to the first side wall (1a1, la2, la3, la4) when the first through hole faces the first opening, and the attaching portion including at least one of a first adjuster adjusting an attaching position of the first flange to cause an opposite surface of the first flange, which is opposite to a surface of the first flange facing the first side wall (1a1, la2, la3, 1a4), to be vertical or a second adjuster adjusting an attaching position of the first flange about a horizontal axis which passes the center of the first through hole and extends along the thickness direction. a first flange which includes a first through hole penetrating the first flange in a thickness direction and is connected to the second housing when the first through hole faces the second opening; and an attaching portion which attaches the first flange to the first side wall (1a1, la2, la3, la4) when the first through hole faces the first opening, and the attaching portion including at least one of a first adjuster adjusting an attaching position of the first flange to cause an opposite surface of the first flange, which is opposite to a surface of the first flange facing the first side wall (1a1, la2, la3, 1a4), to be vertical or a second adjuster adjusting an attaching position of the first flange about a horizontal axis which passes the center of the first through hole and extends along the thickness direction.
A compound of formula I wherein R 1' is CH 3; R 1 is methyl, ethyl, CF 3, CH 2 OH, cyclopropyl or cyano, or R 1' and R 1 may form together a 1,1-dioxo-tetrahydro-thiophen-3-yl ring; R 2 is hydrogen, methyl, ethyl, isopropyl, tertbutyl, cyclopropyl, hydroxmethyl, or 2-propyl-2-ol; R 3 is Cl, F, CF 3, methyl, methoxy, isopropyl, cyano or cyclopropyl; R 4 is hydrogen, methyl, F or Cl; or a pharmaceutically acceptable salt or acid addition salt, a racemic mixture, or its corresponding enantiomer and/or optical isomer and/or stereoisomer thereof. R 1' is CH 3; R 1 is methyl, ethyl, CF 3, CH 2 OH, cyclopropyl or cyano, or R 1' and R 1 may form together a 1,1-dioxo-tetrahydro-thiophen-3-yl ring; R 2 is hydrogen, methyl, ethyl, isopropyl, tertbutyl, cyclopropyl, hydroxmethyl, or 2-propyl-2-ol; R 3 is Cl, F, CF 3, methyl, methoxy, isopropyl, cyano or cyclopropyl; R 4 is hydrogen, methyl, F or Cl;
A method of producing a heat conductive sheet comprising fibrous fillers and a binder resin, wherein a ratio of the fibrous fillers that are not oriented in a direction of a thickness of the heat conductive sheet in all the fibrous fillers is 45 to 95%, the method comprising the steps of: dispersing the fibrous fillers in the binder resin to prepare a heat conductive sheet-forming composition; forming a molded block from the prepared heat conductive sheet-forming composition; slicing the formed molded block to form a heat conductive sheet; and characterized in that the method further comprises the step of pressing the sliced surface of the formed heat conductive sheet. dispersing the fibrous fillers in the binder resin to prepare a heat conductive sheet-forming composition; forming a molded block from the prepared heat conductive sheet-forming composition; slicing the formed molded block to form a heat conductive sheet; and characterized in that the method further comprises the step of pressing the sliced surface of the formed heat conductive sheet.
Electronic storage module having a plurality of contacts (C1, C2, C3, C4, C5, C6, C7, C8, Enj_Ca, Enj_Cb), including • at least one reinitialization contact, and • at least one first set of contacts ((C3, C7), (Enj_Ca, Enj_Cb), ENj), a first communication interface ((ISO1, ISO2), (I1_1, I1_2), (Ii_1, li_2, i=1)) between the electronic storage module and an electronic device having said electronic storage module being implemented on all the contacts of the first set of contacts ((C3, C7), (Enj_Ca, Enj_Cb), ENj), characterized in that at least one second communication interface ((USB1, USB2), (In_1, In_2), (Ii_1, Ii_2, i=2)) is implemented on all of the same contacts of the first set of contacts ((C3, C7), (Enj_Ca, Enj_Cb), ENj), the first and second communication interfaces being implemented alternatively on all of the same contacts (C3, ENj_Ca) of the first set of contacts depending on a state (Ei) of the reinitialization contact allowing control of an implementation of the first or second communication interface by said first set of contacts ((C3, C7), (Enj_Ca, Enj_Cb), ENj). • at least one reinitialization contact, and • at least one first set of contacts ((C3, C7), (Enj_Ca, Enj_Cb), ENj), a first communication interface ((ISO1, ISO2), (I1_1, I1_2), (Ii_1, li_2, i=1)) between the electronic storage module and an electronic device having said electronic storage module being implemented on all the contacts of the first set of contacts ((C3, C7), (Enj_Ca, Enj_Cb), ENj),
A method of distinguishing diarrhea predominant irritable bowel syndrome (D-IBS) from both inflammatory bowel disease and celiac disease, comprising: examining a biological sample that has been obtained from a subject desiring a diagnosis to distinguish D-IBS from both IBD and celiac disease; detecting in the biological sample, levels of anti-vinculin and anti- cytolethal distending toxin B (CdtB) antibodies; and making a diagnosis of D-IBS if the level of anti-vinculin antibodies is significantly higher than a control level from healthy individuals of anti-vinculin antibodies, the level of anti-CdtB antibodies is significantly higher than a control level from healthy individuals_of anti-CdtB antibodies, or both levels of anti-vinculin antibodies and anti-CdtB antibodies are significantly higher than the control level from healthy individuals_of anti-vinculin antibodies and anti-CdtB antibodies. examining a biological sample that has been obtained from a subject desiring a diagnosis to distinguish D-IBS from both IBD and celiac disease; detecting in the biological sample, levels of anti-vinculin and anti- cytolethal distending toxin B (CdtB) antibodies; and making a diagnosis of D-IBS if the level of anti-vinculin antibodies is significantly higher than a control level from healthy individuals of anti-vinculin antibodies, the level of anti-CdtB antibodies is significantly higher than a control level from healthy individuals_of anti-CdtB antibodies, or both levels of anti-vinculin antibodies and anti-CdtB antibodies are significantly higher than the control level from healthy individuals_of anti-vinculin antibodies and anti-CdtB antibodies.
A method, performed in a wireless device, for obtaining initial access to a network (700, 800) in order to establish a connection to a server connected to the network (700, 800), the wireless device storing a device public key and a device private key, the server storing the device public key, the method comprising: - transmitting an initial access request to a network node of the network (700, 800); - receiving an authentication request from the network node, the authentication request comprising a challenge; - generating a device authenticator based on the challenge and the device public key, which comprises generating a message authentication code, MAC, using the challenge and the device public key; - transmitting an authentication response to the network node, the authentication response comprising the device authenticator; and - receiving an initial access response from the network node, the initial access response comprising an indicator of whether the initial access has been granted or denied. - transmitting an initial access request to a network node of the network (700, 800); - receiving an authentication request from the network node, the authentication request comprising a challenge; - generating a device authenticator based on the challenge and the device public key, which comprises generating a message authentication code, MAC, using the challenge and the device public key; - transmitting an authentication response to the network node, the authentication response comprising the device authenticator; and - receiving an initial access response from the network node, the initial access response comprising an indicator of whether the initial access has been granted or denied.
A data processing method, comprising: receiving, by a base station, first data from a first terminal on a first resource; receiving (230, 240), by the base station, second data from the first terminal and third data from a second terminal on a second resource, wherein a transmit power of the second data is less than a transmit power of the first data, and wherein a modulation order of the second data is lower than a modulation order of the first data; demodulating and decoding, by the base station, the first data; and demodulating and decoding, by the base station, the second data and the third data; wherein the first resource and the second resource are time-frequency-domain resources; wherein the first resource starts earlier and ends later than the second resource; and wherein the first data and the second data are based on a joint channel coding operation. receiving, by a base station, first data from a first terminal on a first resource; receiving (230, 240), by the base station, second data from the first terminal and third data from a second terminal on a second resource, wherein a transmit power of the second data is less than a transmit power of the first data, and wherein a modulation order of the second data is lower than a modulation order of the first data; demodulating and decoding, by the base station, the first data; and demodulating and decoding, by the base station, the second data and the third data; wherein the first resource and the second resource are time-frequency-domain resources; wherein the first resource starts earlier and ends later than the second resource; and wherein the first data and the second data are based on a joint channel coding operation.
A nasal powder delivery device comprising a reservoir containing at least one dose of powder, a nasal delivery head intended to be inserted in a nostril of a user, said nasal delivery head comprising a delivery aperture, and an air discharge system generating, upon actuation of said nasal powder delivery device, a flow of compressed air to deliver a dose of powder in said nostril through said delivery aperture, said air discharge system comprising an air chamber, formed by a hollow axial cylinder and a piston which, upon actuation of the device, sealingly slides in said air chamber to compress the air contained in said air chamber, said hollow axial cylinder comprises a radial shoulder which connects a first cylinder portion of larger diameter and a second cylinder portion of smaller diameter, said piston being arranged before actuation at said first cylinder portion, and upon actuation, said piston sealingly cooperates with said second cylinder portion, to compress the air contained in said air chamber, and thus generate the flow of compressed air, said radial shoulder defining in said hollow axial cylinder, a profile that said piston must overcome at the start of actuation, said piston comprising an upper lip and a lower lip, a skirt being arranged around said hollow axial cylinder, said skirt comprising, in the vicinity of its axially lower edge, a lower flange, which radially projects inwards, characterised in that said skirt comprises, in the vicinity of said lower flange, at least one profile, which radially projects inwards cooperating before actuation with said lower lip of said piston.
An aircraft fuel tank ullage gas management system, comprising a cabin air fluid flow path arranged to receive a flow of aircraft cabin air; an electrochemical cell comprising a membrane electrode assembly that comprises a cathode and an anode separated by an electrolyte separator, a cathode fluid flow path in fluid communication with the cathode and arranged to receive the flow of cabin air from the cabin air fluid flow path and to discharge nitrogen-enriched air, and an anode fluid flow path in fluid communication with the anode; a water circulation loop in fluid communication with the anode; an ullage flow path arranged to receive nitrogen-enriched air from the cathode fluid flow path and to deliver it to the fuel tank; and an electrical power source and electrical connections to the anode and cathode for providing an electric potential difference between the anode and cathode.
A communications device (30, 30') comprising: processing circuitry (31, 31') configured to generate a baseband signal and a feedforward signal based upon the baseband signal, both the baseband and the feedforward signals being supplied to a transmit path (32, 32'); a transmit path for processing the baseband and the feedforward signals, and comprising an RF tuner (47, 47') and a power amplifier (48, 48'); a receive path (33, 33') operable simultaneously with said transmit path and at a same frequency as said transmit path, and comprising a low noise amplifier (50, 50') and a receive antenna (34, 34b'); and an RF combiner (51, 51') coupled between the receive antenna (34, 34b') and the low noise amplifier (50, 50') of the receive path and configured to combine the processed feedforward signal directly output from the RF tuner and a received signal, characterized in that the processing circuitry (31, 31') is configured to generate the feedforward signal as an inverted replica of the baseband signal. processing circuitry (31, 31') configured to generate a baseband signal and a feedforward signal based upon the baseband signal, both the baseband and the feedforward signals being supplied to a transmit path (32, 32'); a transmit path for processing the baseband and the feedforward signals, and comprising an RF tuner (47, 47') and a power amplifier (48, 48'); a receive path (33, 33') operable simultaneously with said transmit path and at a same frequency as said transmit path, and comprising a low noise amplifier (50, 50') and a receive antenna (34, 34b'); and an RF combiner (51, 51') coupled between the receive antenna (34, 34b') and the low noise amplifier (50, 50') of the receive path and configured to combine the processed feedforward signal directly output from the RF tuner and a received signal, characterized in that the processing circuitry (31, 31') is configured to generate the feedforward signal as an inverted replica of the baseband signal.