mhurhangee/ep-ind-claims huggingface dataset:
A method for managing cookies by a multi-core device (200, 545) intermediary to a client and one or more servers, the method comprising: (a) receiving, by a first core of a multi-core device (200, 545) intermediary to a client and one or more servers, via a session, a response from a server to a first request of the client, the response comprising a cookie; (b) removing, by the first core, the cookie from the response; (c) storing, by the first core, the cookie in a corresponding storage for the session; (d) forwarding, by the first core, the response without the cookie to the client, the response including a session cookie;; (e) receiving, by a second core of the multi-core device (200, 545), via the session a second request and the session cookie from the client; (f) determining, by the second core from the received session cookie, identification of the first core as owner of the session; (g) communicating, by the second core to the first core, a third request for cookie information for the session; and (h) receiving, by the second core from the first core, the cookie information, to include in the second request to forward to a server of the one or more servers. (a) receiving, by a first core of a multi-core device (200, 545) intermediary to a client and one or more servers, via a session, a response from a server to a first request of the client, the response comprising a cookie; (b) removing, by the first core, the cookie from the response; (c) storing, by the first core, the cookie in a corresponding storage for the session; (d) forwarding, by the first core, the response without the cookie to the client, the response including a session cookie;; (e) receiving, by a second core of the multi-core device (200, 545), via the session a second request and the session cookie from the client; (f) determining, by the second core from the received session cookie, identification of the first core as owner of the session; (g) communicating, by the second core to the first core, a third request for cookie information for the session; and (h) receiving, by the second core from the first core, the cookie information, to include in the second request to forward to a server of the one or more servers.
A lattice structure for use in a damping system for a turbine blade, the lattice structure comprising: a first lattice structure comprising: a first outer passage comprising a hollow interior; a second outer passage orthogonal to the first outer passage, the second outer passage comprising a hollow interior; and an outer node comprising a hollow interior, the outer node forming an intersection of the first outer passage and the second outer passage; characterized in that the lattice structure for use in a damping system for a turbine blade is nested, wherein the lattice structure further comprises a second lattice structure nested within the hollow interior of the first lattice structure, the second lattice structure comprising: a first inner passage; a second inner passage; and an inner node, the inner node forming an intersection of the first inner passage and the second inner passage; wherein each of the first inner passage, the second inner passage, and the inner node are nested within the respective first outer passage, the second outer passage, and the outer node. a first lattice structure comprising: a first outer passage comprising a hollow interior; a second outer passage orthogonal to the first outer passage, the second outer passage comprising a hollow interior; and an outer node comprising a hollow interior, the outer node forming an intersection of the first outer passage and the second outer passage; a first outer passage comprising a hollow interior; a second outer passage orthogonal to the first outer passage, the second outer passage comprising a hollow interior; and an outer node comprising a hollow interior, the outer node forming an intersection of the first outer passage and the second outer passage; characterized in that the lattice structure for use in a damping system for a turbine blade is nested, wherein the lattice structure further comprises a second lattice structure nested within the hollow interior of the first lattice structure, the second lattice structure comprising: a first inner passage; a second inner passage; and an inner node, the inner node forming an intersection of the first inner passage and the second inner passage; wherein each of the first inner passage, the second inner passage, and the inner node are nested within the respective first outer passage, the second outer passage, and the outer node. a first inner passage; a second inner passage; and an inner node, the inner node forming an intersection of the first inner passage and the second inner passage; wherein each of the first inner passage, the second inner passage, and the inner node are nested within the respective first outer passage, the second outer passage, and the outer node.
The compound -Pyrrolidine-1,2-dicarboxylic acid 2-amide 1-({4-methyl-5-[2-(2,2,2-trifluoro-1,1-dimethyl-ethyl)-pyridin-4-yl]-thiazol-2-yl}-amide), of structure: in free form or in pharmaceutically acceptable salt form.
An aqueous composition comprising: (i) basic aluminium chloride salt of formula Al 2 OH 4.4 Cl 1.6 to A120H4.9CI1.1, (ii) calcium chloride at a molar level of 0.020 or greater relative to the aluminium present in the BAC salt, and (iii) glycine at a molar level of 0.050 or greater relative to the aluminium present in the BAC salt, characterised in that the molar ratio of aluminium to the sum of the molar amounts of the calcium chloride and glycine is from 3.9:1 to 6.1:1 and in that: (a) the molar ratio of glycine to Al is at least 1.7:10 and the molar ratio of Ca to Al is no more than 0.35:10 or (b) the molar ratio of Ca to Al is at least 0.35:10 and the molar ratio of glycine to Al is no more than 1.7:10. (i) basic aluminium chloride salt of formula Al 2 OH 4.4 Cl 1.6 to A120H4.9CI1.1, (ii) calcium chloride at a molar level of 0.020 or greater relative to the aluminium present in the BAC salt, and (iii) glycine at a molar level of 0.050 or greater relative to the aluminium present in the BAC salt, (a) the molar ratio of glycine to Al is at least 1.7:10 and the molar ratio of Ca to Al is no more than 0.35:10 or (b) the molar ratio of Ca to Al is at least 0.35:10 and the molar ratio of glycine to Al is no more than 1.7:10.
A debranching stent graft comprising: a main body stent graft with a first bifurcation defining a first leg and a second leg, wherein the main body stent graft has a distal end and a proximal end; wherein the main body stent graft has a diameter at the proximal end in the range from about 18 mm to about 22 mm; wherein the first leg and the second leg each have a diameter in the range from about 14 mm to about 16 mm; wherein the distance from the proximal end of the main body stent graft to the distal end of the first leg is in the range from about 70 mm to about 90 mm; and wherein the distance from the proximal end of the main body stent graft to the distal end of the second leg is in the range from about 80 mm to about 100 mm, and wherein the second leg is at least about 10 mm longer than the first leg; and a first visceral limb joined with one of the first leg or the second leg at the distal end of the main body stent graft in a unitary configuration, wherein the first visceral limb has a second bifurcation defining a third leg and a fourth leg. a main body stent graft with a first bifurcation defining a first leg and a second leg, wherein the main body stent graft has a distal end and a proximal end; wherein the main body stent graft has a diameter at the proximal end in the range from about 18 mm to about 22 mm; wherein the first leg and the second leg each have a diameter in the range from about 14 mm to about 16 mm; wherein the distance from the proximal end of the main body stent graft to the distal end of the first leg is in the range from about 70 mm to about 90 mm; and wherein the distance from the proximal end of the main body stent graft to the distal end of the second leg is in the range from about 80 mm to about 100 mm, and wherein the second leg is at least about 10 mm longer than the first leg; and a first visceral limb joined with one of the first leg or the second leg at the distal end of the main body stent graft in a unitary configuration, wherein the first visceral limb has a second bifurcation defining a third leg and a fourth leg.
A non-aqueous electrolyte for a rechargeable lithium battery including a negative active material which includes a carbon material, wherein said electrolyte consists of: a lithium salt including at least one element chosen from LiPF 6, LiBF 4, LiSbF 6, LiAsF 6, LiC 4 F 9 SO 3, LiClO 4, LiAlO 2, LiAlCl 4, LiN(C x F 2x+1 SO 2)(C y F 2y+1 SO 2) wherein, x and y are natural numbers, LiCl, LiI, LiB(C 2 O 4) 2, or a mixture thereof; a non-aqueous organic solvent; and tris(trialkylsilyl) borate, wherein the non-aqueous organic solvent includes a solvent having a low melting point of less than or equal to -50°C and an ionic conductivity of greater than or equal to 6mS/cm at 25°C, wherein the solvent having a low melting point is selected from an alkylacetate, an alkylpropionate, and a mixture thereof, wherein the non-aqueous organic solvent further includes a carbonate-based, ester-based, ether-based, ketone-based, alcohol-based, non-protonic solvent or a mixture thereof, and wherein the tris(trialkylsilyl) borate is included in an amount of 0.1 wt% to 5 wt%, based on the total weight of the non-aqueous electrolyte characterized in that the solvent having a low melting point is included in an amount of 10 wt% to 50 wt%, based on the total weight of the non-aqueous organic solvent. a lithium salt including at least one element chosen from LiPF 6, LiBF 4, LiSbF 6, LiAsF 6, LiC 4 F 9 SO 3, LiClO 4, LiAlO 2, LiAlCl 4, LiN(C x F 2x+1 SO 2)(C y F 2y+1 SO 2) wherein, x and y are natural numbers, LiCl, LiI, LiB(C 2 O 4) 2, or a mixture thereof; a non-aqueous organic solvent; and tris(trialkylsilyl) borate, wherein the non-aqueous organic solvent includes a solvent having a low melting point of less than or equal to -50°C and an ionic conductivity of greater than or equal to 6mS/cm at 25°C, wherein the solvent having a low melting point is selected from an alkylacetate, an alkylpropionate, and a mixture thereof, wherein the non-aqueous organic solvent further includes a carbonate-based, ester-based, ether-based, ketone-based, alcohol-based, non-protonic solvent or a mixture thereof, and wherein the tris(trialkylsilyl) borate is included in an amount of 0.1 wt% to 5 wt%, based on the total weight of the non-aqueous electrolyte characterized in that the solvent having a low melting point is included in an amount of 10 wt% to 50 wt%, based on the total weight of the non-aqueous organic solvent.
A nanoparticle comprising (i) a lipid component comprising a compound having the structure, and (ii) a modified RNA comprising any one of SEQ ID NOs: 1 and 3-5, encoding a VEGF-A polypeptide of SEQ ID NO: 2. (i) a lipid component comprising a compound having the structure, and (ii) a modified RNA comprising any one of SEQ ID NOs: 1 and 3-5, encoding a VEGF-A polypeptide of SEQ ID NO: 2.
A method for multi-user, MU, multiple-input multiple output, MIMO, channel sounding by an access point, AP, the method comprising: transmitting a frame to a group of stations, STAs, wherein the frame includes a physical layer, PHY, preamble including group identification information identifying the group of STAs and the frame further including sounding information including an order of each STA in the group of STAs; and receiving a first sounding response frame from a first STA in the order of the group of STAs. transmitting a frame to a group of stations, STAs, wherein the frame includes a physical layer, PHY, preamble including group identification information identifying the group of STAs and the frame further including sounding information including an order of each STA in the group of STAs; and receiving a first sounding response frame from a first STA in the order of the group of STAs.
Breech for a straight-pull repeater, which comprises a breech box and a locking sleeve guided therein as well as a locking bar guided in the breech box and connected in one piece to the locking sleeve, which locking bar connects a bolt head facing a cartridge chamber to a bolt handle with the interposition of a chain link, wherein the chain link is linked in an articulated manner to the locking bar and the bolt handle and the bolt handle can be swivelled between an open position and a closed position of the breech and interacts with a firing pin nut connected to a firing pin, and furthermore a bolt head which can be inserted into a breech sleeve at an end of the breech facing away from the bolt handle is provided, characterised in that the locking sleeve and the locking bar are constituted as a one-part locking sleeve-bar and that a locking spring surrounding the locking sleeve-bar and pushing the chain link in the direction of its closed position is provided.
Apparatus for delivering filamentary material into a patient, including a tubular delivery element having a proximal end, a distal end and a lumen extending within the tubular delivery element from the proximal to the distal ends; a receptacle provided with an internal chamber holding filamentary material, an inlet for receiving driving fluid into the chamber, an outlet through which the filamentary material can pass from the chamber, the outlet being coupled to the proximal end of the tubular delivery element; and a pressure sensitive valve disposed at the inlet or the outlet of the receptacle, the pressure sensitive valve being closed when pressure of the driving fluid is below a threshold and open when the pressure of the driving fluid is above the threshold, the pressure sensitive valve when open allowing fluid flow through the chamber and dispensation of the filamentary material from the outlet.
A pharmaceutical composition for application to the oral mucosa comprising: a water soluble matrix comprising an effective amount of a pharmaceutically active agent selected from triptan and its pharmaceutically acceptable salts and an absorption enhancer wherein the absorption enhancer is one or more sucrose fatty acid esters having a combined HLB of 8-16, further comprising a nonionic surfactant wherein the combined nonionic surfactant and sucrose fatty acid ester have a combined HLB of about 8 to about 17, wherein the nonionic surfactant is at least one or more of polysorbate and sorbitan fatty acid ester and wherein the water soluble matrix is a film. a water soluble matrix comprising an effective amount of a pharmaceutically active agent selected from triptan and its pharmaceutically acceptable salts and an absorption enhancer wherein the absorption enhancer is one or more sucrose fatty acid esters having a combined HLB of 8-16, further comprising a nonionic surfactant wherein the combined nonionic surfactant and sucrose fatty acid ester have a combined HLB of about 8 to about 17, wherein the nonionic surfactant is at least one or more of polysorbate and sorbitan fatty acid ester and wherein the water soluble matrix is a film.
A method for secure and unambiguous encoding of a security module, in particular a chip card, comprising the following method steps: a secret first communication key and a unique identifier (ID SM1) are stored in a security module in a secure environment; the unique identifier (ID SM1) of the security module and a second communication key that is related in a specific way to the secret first communication key stored in the security module are stored in a first secure device; an information intended for the security module is generated in the first secure device; the information is encrypted using the second communication key and the unique identifier (ID SM1) of the security module, and is stored in a storage device together with the unique identifier (ID SM1) of the security module; a communication connection is established between the security module and the first or a second secure device; the unique identifier (ID SM1) is transmitted from the security module to the first or second secure device via the communication connection; in response to the received identifier (ID SM1), the associated encrypted information is read out from the storage device and is transmitted to the security module; using the secret first communication key and the unique identifier (ID SM1), the encrypted information is decrypted in the security module and stored therein. a secret first communication key and a unique identifier (ID SM1) are stored in a security module in a secure environment; the unique identifier (ID SM1) of the security module and a second communication key that is related in a specific way to the secret first communication key stored in the security module are stored in a first secure device; an information intended for the security module is generated in the first secure device; the information is encrypted using the second communication key and the unique identifier (ID SM1) of the security module, and is stored in a storage device together with the unique identifier (ID SM1) of the security module; a communication connection is established between the security module and the first or a second secure device; the unique identifier (ID SM1) is transmitted from the security module to the first or second secure device via the communication connection; in response to the received identifier (ID SM1), the associated encrypted information is read out from the storage device and is transmitted to the security module; using the secret first communication key and the unique identifier (ID SM1), the encrypted information is decrypted in the security module and stored therein.
Use of a Peltier element as a high-performance radiation sensor for electromagnetic radiation with wavelengths up to 100um with radiant power outputs greater than 100 watts, wherein an electrical voltage is measured at the Peltier element according to the radiation-induced heat flow in the transverse direction of the Peltier element, perpendicular to the longitudinal extension of the Peltier element, wherein the Peltier element has insulator layers (5, 5'), column bridges (4, 4'), column solder layers and a thermally active layer consisting of alternately arranged first thermopiles comprising a first material and second thermopiles comprising a second material and the thermopiles (1, 2) are formed without semiconductors, wherein the first and second material (A, B) is a metal or a metal alloy, and the first material has a Seebeck coefficient, measured relative to platinum at 273 K, of greater than 6 μV/K, and the second material has a Seebeck coefficient, measured relative to platinum at 273 K, of less than or equal to -15 μV/K, the absolute values of the Seebeck coefficients of the first and second materials (A, B), measured relative to platinum at 273 K, differ from each other by less than 50 % and the thermal conductivities of the first and second material (A, B) differ from each other by a maximum of 50 % and wherein the total thermal resistance of the Peltier element over the entire Peltier element measured in the transverse direction does not exceed 2 K/W. the Peltier element has insulator layers (5, 5'), column bridges (4, 4'), column solder layers and a thermally active layer consisting of alternately arranged first thermopiles comprising a first material and second thermopiles comprising a second material and the thermopiles (1, 2) are formed without semiconductors, wherein the first and second material (A, B) is a metal or a metal alloy, and the first material has a Seebeck coefficient, measured relative to platinum at 273 K, of greater than 6 μV/K, and the second material has a Seebeck coefficient, measured relative to platinum at 273 K, of less than or equal to -15 μV/K, the absolute values of the Seebeck coefficients of the first and second materials (A, B), measured relative to platinum at 273 K, differ from each other by less than 50 % and the thermal conductivities of the first and second material (A, B) differ from each other by a maximum of 50 % and wherein the total thermal resistance of the Peltier element over the entire Peltier element measured in the transverse direction does not exceed 2 K/W.
An aircraft landing gear control system configured to be operably connected to one or more landing gear systems (30, 40) of an aircraft, the aircraft landing gear control system comprising a controller that is configured, in use, to: send at least one output for initiating operation of the one or more landing gear systems; determine whether at least one landing gear system of the one or more landing gear systems has failed to operate correctly in response to the at least one output; and determine at least one remedial action to be taken, when the controller determines that the at least one landing gear system has failed to operate correctly; wherein the controller is configured, in use, to: determine, based on information obtained during an interrogating process or by a process comprising analysing outputs from one or more sensors of the aircraft, one or more reasons for the at least one landing gear system to have failed to operate correctly; and determine the at least one remedial action to be taken, on the basis of the one or more reasons. send at least one output for initiating operation of the one or more landing gear systems; determine whether at least one landing gear system of the one or more landing gear systems has failed to operate correctly in response to the at least one output; and determine at least one remedial action to be taken, when the controller determines that the at least one landing gear system has failed to operate correctly; wherein the controller is configured, in use, to: determine, based on information obtained during an interrogating process or by a process comprising analysing outputs from one or more sensors of the aircraft, one or more reasons for the at least one landing gear system to have failed to operate correctly; and determine the at least one remedial action to be taken, on the basis of the one or more reasons. determine, based on information obtained during an interrogating process or by a process comprising analysing outputs from one or more sensors of the aircraft, one or more reasons for the at least one landing gear system to have failed to operate correctly; and determine the at least one remedial action to be taken, on the basis of the one or more reasons.
A rotor coil for a revolving armature comprising a strand coil that includes a part arranged in a core slot of the rotor and is composed of a plurality of element wires; and a solid coil welded to an end of the strand coil wherein the end of the strand coil and an end of the solid coil are welded, characterized in that the end of the strand coil and the end of the solid coil are welded by friction stir welding, wherein the strand coil before the friction stir welding has the end thereof soldered to integrate the element wires at the end of the strand coil into one unit.