mhurhangee/ep-ind-claims huggingface dataset:
Method for distributing communication keys (6; 6a, 6b, 6c; 11) for the encryption of traffic management messages of a rail vehicle safety system, having the steps of: generation of a communication key (6; 6a, 6b, 6c; 11) in a first key allocation centre of a first section operator on the basis of a planned journey route for a rail vehicle; provision of the communication key (6; 6a, 6b, 6c; 11) to the rail vehicle by the first key allocation centre; and encryption of traffic management messages of the rail vehicle using the communication key (6; 6a, 6b, 6c; 11) for the purpose of manipulation-proof communication by the rail vehicle with section control centres of the first section operator and with section control centres of a second section operator, characterized by the step of provision of the communication key (6; 6a, 6b, 6c; 11) to a second key allocation centre of the second section operator, wherein communication keys are generated and distributed under the control of the first key allocation centre. generation of a communication key (6; 6a, 6b, 6c; 11) in a first key allocation centre of a first section operator on the basis of a planned journey route for a rail vehicle; provision of the communication key (6; 6a, 6b, 6c; 11) to the rail vehicle by the first key allocation centre; and encryption of traffic management messages of the rail vehicle using the communication key (6; 6a, 6b, 6c; 11) for the purpose of manipulation-proof communication by the rail vehicle with section control centres of the first section operator and with section control centres of a second section operator, characterized by the step of provision of the communication key (6; 6a, 6b, 6c; 11) to a second key allocation centre of the second section operator, wherein communication keys are generated and distributed under the control of the first key allocation centre.
A method for a server to process an access request, comprising steps of: obtaining (101,202, 302,401, 501, 601) a response content corresponding to the access request from a source station according to a URL of the access request, when receiving the access request sent by a client terminal; characterized by: adjusting (102, 203, 303, 402) domain names of at least two sub-resource requests in the response content to be a same domain name of a preset protocol type, and returning the adjusted response content to the client terminal, wherein, the domain name of the preset protocol type is a domain name supporting multiplexing; restoring (103, 204, 304, 403, 503, 603), when receiving a sub-resource request having the same domain name sent by the client terminal, the domain name of the sub-resource request to an original domain name of the sub-resource request; and obtaining (104, 205, 305, 405, 504, 604) a sub-resource content corresponding to the sub-resource request from the source station according to the original domain name of the sub-resource request, and returning the sub-resource content to the client terminal. obtaining (101,202, 302,401, 501, 601) a response content corresponding to the access request from a source station according to a URL of the access request, when receiving the access request sent by a client terminal; characterized by: adjusting (102, 203, 303, 402) domain names of at least two sub-resource requests in the response content to be a same domain name of a preset protocol type, and returning the adjusted response content to the client terminal, wherein, the domain name of the preset protocol type is a domain name supporting multiplexing; restoring (103, 204, 304, 403, 503, 603), when receiving a sub-resource request having the same domain name sent by the client terminal, the domain name of the sub-resource request to an original domain name of the sub-resource request; and obtaining (104, 205, 305, 405, 504, 604) a sub-resource content corresponding to the sub-resource request from the source station according to the original domain name of the sub-resource request, and returning the sub-resource content to the client terminal. adjusting (102, 203, 303, 402) domain names of at least two sub-resource requests in the response content to be a same domain name of a preset protocol type, and returning the adjusted response content to the client terminal, wherein, the domain name of the preset protocol type is a domain name supporting multiplexing; restoring (103, 204, 304, 403, 503, 603), when receiving a sub-resource request having the same domain name sent by the client terminal, the domain name of the sub-resource request to an original domain name of the sub-resource request; and obtaining (104, 205, 305, 405, 504, 604) a sub-resource content corresponding to the sub-resource request from the source station according to the original domain name of the sub-resource request, and returning the sub-resource content to the client terminal.
A boiler, comprising a filling chamber having a filling opening for heating material, a filling chamber door which can close the filling opening, and an air inlet having a distribution device and primary and secondary air ducts (8, 9) connected to the distribution device, wherein the distribution device comprises a movably mounted actuating member for the common setting of the air quantities for the secondary air duct and for the primary air duct opening into the filling chamber, characterized in that the air inlet additionally comprises a heat-up air duct opening into the filling chamber and connected to the distribution device, said heat-up air duct being connected to the movable actuating member of the distribution device for the common setting of the air quantities for the heat-up, primary and secondary air duct (14, 8, 9).
A pet food composition, comprising: greater than 33 wt% fat; a protein source; less than 7 wt% carbohydrates; and greater than 10 wt% fiber; wherein (0.9 F + 0.46 P) / (0.1 F + 0.58 P + C) is 1.5 or greater, wherein F, P, and C, are wt% of fat, protein, and carbohydrates, respectively. greater than 33 wt% fat; a protein source; less than 7 wt% carbohydrates; and greater than 10 wt% fiber; wherein (0.9 F + 0.46 P) / (0.1 F + 0.58 P + C) is 1.5 or greater, wherein F, P, and C, are wt% of fat, protein, and carbohydrates, respectively.
A crosspoint switch comprising: a plurality of optical-to-electrical converting means for converting received optical signals into input electrical signals; a plurality of electrical-to-optical converting means for converting input electrical signals into optical signals; and micro-electromechanical systems, MEMS, switching elements array means for selectively directing the input electrical signals from any one of the plurality of optical-to-electrical converting means to any one of the plurality of electrical-to-optical converting means for converting the input electrical signals directed by the switching means into optical signals, wherein the optical signals received from input optical fibers are first converted into the input electrical signals and routed electrically by the MEMS switching elements array means. a plurality of optical-to-electrical converting means for converting received optical signals into input electrical signals; a plurality of electrical-to-optical converting means for converting input electrical signals into optical signals; and micro-electromechanical systems, MEMS, switching elements array means for selectively directing the input electrical signals from any one of the plurality of optical-to-electrical converting means to any one of the plurality of electrical-to-optical converting means for converting the input electrical signals directed by the switching means into optical signals, wherein the optical signals received from input optical fibers are first converted into the input electrical signals and routed electrically by the MEMS switching elements array means.
A method for producing a polyvalent glycidyl compound comprising: oxidizing a 2-alkenyl ether compound having two or more substituted or unsubstituted 2-alkenyl groups and one or more substituted or unsubstituted 2-alkenyl ether groups in a molecule thereof by using a hydrogen peroxide aqueous solution as an oxidizing agent in the presence of catalysts in the form of a tungsten compound and a quaternary ammonium salt and in the presence of a co-catalyst in the form of phosphoric acid while controlling the pH of the reaction solution to 1.0 to 4.0 by using an acid other than phosphoric acid, the method further comprising a step of alternately repeating a step of adding the hydrogen peroxide aqueous solution to the reaction solution and a step of adding the acid other than phosphoric acid multiple times at a certain interval.
A method for an unaddressed inline device to send a packet (216, 218, 220) to an upstream device (204, 206) in a Multiprotocol Label Switching (MPLS) network, the method comprising: identifying, at the IUD, the upstream device's address information; identifying, at the IUD, a downstream MPLS labeling; preparing, at the IUD, an outgoing packet (216, 218, 220) having destination address information corresponding to the upstream device's address information and MPLS labeling corresponding to the downstream MPLS labeling; and sending, at the IUD, the prepared outgoing packet (216, 218, 220) downstream from the IUD; whereby, downstream of the IUD, the MPLS network re-labels the outgoing packet (216, 218, 220) in accordance with the outgoing packet's destination address information and sends the re-labeled outgoing packet upstream to the upstream device (204, 206). identifying, at the IUD, the upstream device's address information; identifying, at the IUD, a downstream MPLS labeling; preparing, at the IUD, an outgoing packet (216, 218, 220) having destination address information corresponding to the upstream device's address information and MPLS labeling corresponding to the downstream MPLS labeling; and sending, at the IUD, the prepared outgoing packet (216, 218, 220) downstream from the IUD; whereby, downstream of the IUD, the MPLS network re-labels the outgoing packet (216, 218, 220) in accordance with the outgoing packet's destination address information and sends the re-labeled outgoing packet upstream to the upstream device (204, 206).
A fan (12, 112) for a gas turbine engine, the fan (12, 112) comprising a fan disk (28, 128) adapted for rotation about a central axis, and a plurality of fan blades (36, 38, 56, 58, 130, 136, 138, 164, 166) coupled to the fan disk (28, 128) for rotation therewith about the central axis, the plurality of fan blades (36, 38, 56, 58, 130, 136, 138, 164, 166) including first-stage fan blades (36, 136) and second-stage fan blades (38, 138) spaced axially aft of the first-stage fan blades (36, 136) along the central axis, wherein the first-stage and second-stage fan blades (36, 38, 136, 138) are coupled to the fan disk (28, 128) for movement relative to the fan disk (28, 128) from forward pitch angles associated with air directed aftward along the central axis through flat pitch angles associated with a lack of air being directed aftward along the central axis to reverse pitch angles associated with air directed forward along the central axis, and each of the first-stage and second-stage fan blades (26, 38, 136, 138) have preferably a solidity of less than 1.0, wherein the first-stage and second-stage fan blades (36, 38, 136, 138) are coupled together for movement relative to the fan disk (28, 128) from the forward pitch angles to the reverse pitch angles at substantially the same time, characterized in further comprising an idler gear (42, 142) coupled between the first-stage and second-stage fan blades (36, 38, 136, 138), the idler gear (42, 142) coupling the first-stage and second-stage fan blades (36, 38, 136, 138) to cause movement of the first-stage and second-stage fan blades (36, 38, 136, 138) relative to the fan disk (28, 128) preferably from the forward pitch angles through flat pitch angles to the reverse pitch angles at substantially the same time.
Guide carriage for use with an elongate guide rail, the guide carriage having at least one row of rolling bodies which are received in an associated circulating channel, the circulating channel having a load-bearing section and a return channel which are connected to one another at their opposite ends via in each case one curved deflection channel, the load-bearing section being delimited by a carriage raceway which extends in a longitudinal direction on the guide carriage and a rail raceway on the guide rail, at least one longitudinal sealing lip which extends in the longitudinal direction being provided, which longitudinal sealing lip is arranged in such a way that it is in sealing engagement with the guide rail when the guide carriage is mounted on the guide rail, characterized in that at least one separate rolling body guide part is provided which is composed in one piece of an elastomer, the rolling body guide part having two deflection sections, between which at least one guide section which extends in the longitudinal direction is provided in one piece on the rolling body guide part, an associated longitudinal sealing lip being arranged at least in sections on the guide section, in each case at least one radially inner deflection surface of a deflection channel being arranged on the two deflection sections, a separate main body made from metal being provided, the carriage raceway being arranged on a separate raceway insert, the raceway insert having two first longitudinal end faces which lie opposite one another and bear against an associated deflection section of the at least one rolling body guide part, the raceway insert being received with prestress between the deflection sections of the associated rolling body guide part.
A power supply regenerative converter (10, 10A) connected between an alternating current power supply and an inverter, comprising: an electric power conversion part configured to bidirectionally convert between an alternating current electric power and a direct current electric power; a direct current voltage detector configured to detect a direct current voltage of a capacitor between the inverter and the electric power conversion part; an alternating current control part (16, 16A) configured to output a control signal, which is produced based on a voltage difference (V DIFF) between a direct current voltage (V CRT) detected by the direct current voltage detector and a predetermined voltage (V CRG), to the electric power conversion part, and configured to control an alternating current flowing between the alternating current power supply and the electric power conversion part, characterized in that in a case where an electric power regenerated to the capacitor is greater than or equal to an electric power corresponding to a maximum allowable value (A MAX) of an alternating current flowing to the alternating current power supply, the power supply regenerative converter (10, 10A) sets an alternating current flowing from the electric power conversion part to the alternating current power supply to the maximum allowable value (A MAX), and stores an electric power corresponding to a difference between an electric power regenerated to the capacitor and an electric power regenerated from the electric power conversion part to the alternating current power supply in the capacitor. an electric power conversion part configured to bidirectionally convert between an alternating current electric power and a direct current electric power; a direct current voltage detector configured to detect a direct current voltage of a capacitor between the inverter and the electric power conversion part; an alternating current control part (16, 16A) configured to output a control signal, which is produced based on a voltage difference (V DIFF) between a direct current voltage (V CRT) detected by the direct current voltage detector and a predetermined voltage (V CRG), to the electric power conversion part, and configured to control an alternating current flowing between the alternating current power supply and the electric power conversion part, characterized in that in a case where an electric power regenerated to the capacitor is greater than or equal to an electric power corresponding to a maximum allowable value (A MAX) of an alternating current flowing to the alternating current power supply, the power supply regenerative converter (10, 10A) sets an alternating current flowing from the electric power conversion part to the alternating current power supply to the maximum allowable value (A MAX), and stores an electric power corresponding to a difference between an electric power regenerated to the capacitor and an electric power regenerated from the electric power conversion part to the alternating current power supply in the capacitor.
An aircraft component comprising: a first panel including a first channel; a second panel including a second channel, the second panel positioned such that the second channel is aligned with the first channel; a web section disposed adjacent the first panel and the second panel, the web section including a first engagement portion and a second engagement portion, the first engagement portion engaged with the first channel and the second engagement portion engaged with the second channel; and an adhesive disposed between the first engagement portion and the first channel and between the second engagement portion and the second channel, wherein the first panel and the second panel are joined together by cooperation of the web section and the adhesive; wherein the first engagement portion and the first channel are configured to snap-fit together and wherein the second engagement portion and the second channel are configured to snap-fit together. a first panel including a first channel; a second panel including a second channel, the second panel positioned such that the second channel is aligned with the first channel; a web section disposed adjacent the first panel and the second panel, the web section including a first engagement portion and a second engagement portion, the first engagement portion engaged with the first channel and the second engagement portion engaged with the second channel; and an adhesive disposed between the first engagement portion and the first channel and between the second engagement portion and the second channel, wherein the first panel and the second panel are joined together by cooperation of the web section and the adhesive; wherein the first engagement portion and the first channel are configured to snap-fit together and wherein the second engagement portion and the second channel are configured to snap-fit together.
An antibody against CCR8 having ADCC activity, for use in a method of treating a cancer, wherein the antibody against CCR8 is optionally a CCR8-neutralizing antibody.
A production method that is used for manufacturing a flexible bellows that is suitable for use in a washing machine and that provides insulation between body and tub, the method comprising the steps of • providing an extrudable base material • obtaining an elastic strip by extruding the base material as a continuous strip by an extrusion method, and • after obtaining the elastic strip, cutting the elastic strip into pieces at a predetermined length • obtaining the bellows by joining the two ends of the elastic strip such that the elastic strip takes the form of a ring characterized by extruding the base material at a constant thickness such that the elastic strip has a constant wall thickness of less than 1.1 mm along its length. • providing an extrudable base material • obtaining an elastic strip by extruding the base material as a continuous strip by an extrusion method, and • after obtaining the elastic strip, cutting the elastic strip into pieces at a predetermined length • obtaining the bellows by joining the two ends of the elastic strip such that the elastic strip takes the form of a ring
Method for producing a heat exchanger, comprising the steps of: - making at least one channel within a plate having an upper face and a lower face, said channel extending inside the plate between the upper face and the lower face, - inserting a tube inside the channel and - generating interference between the tube and the channel so as to fix the tube inside the channel, whereby the channel is made according to the following steps: a) making a groove on the upper face of the plate, said groove extending between an open extremity facing on the upper face and a blind extremity placed inside the plate, b) machining the blind extremity of the groove to create a volume of a suitable size to house the tube, the method being characterized in that the channel is a microchannel. - making at least one channel within a plate having an upper face and a lower face, said channel extending inside the plate between the upper face and the lower face, - inserting a tube inside the channel and - generating interference between the tube and the channel so as to fix the tube inside the channel, whereby the channel is made according to the following steps: a) making a groove on the upper face of the plate, said groove extending between an open extremity facing on the upper face and a blind extremity placed inside the plate, b) machining the blind extremity of the groove to create a volume of a suitable size to house the tube, a) making a groove on the upper face of the plate, said groove extending between an open extremity facing on the upper face and a blind extremity placed inside the plate, b) machining the blind extremity of the groove to create a volume of a suitable size to house the tube,
A gas turbine exhaust assembly, comprising: an exhaust flow path configured to receive an exhaust flow from a gas turbine engine, the exhaust flow path defined by an inner hub and a radially outer wall; and a plurality of deswirler vanes circumferentially spaced from each other and operatively coupled to the radially outer wall of the exhaust flow path, each of the plurality of deswirler vanes extending only partially toward the inner hub and terminating at an inner end of the deswirler vanes, the inner end defining an open portion, wherein at least one of the plurality of deswirler vanes comprises a hollow airfoil and the plurality of deswirler vanes extend from the radially outer wall less than halfway into the exhaust flow path. an exhaust flow path configured to receive an exhaust flow from a gas turbine engine, the exhaust flow path defined by an inner hub and a radially outer wall; and a plurality of deswirler vanes circumferentially spaced from each other and operatively coupled to the radially outer wall of the exhaust flow path, each of the plurality of deswirler vanes extending only partially toward the inner hub and terminating at an inner end of the deswirler vanes, the inner end defining an open portion, wherein at least one of the plurality of deswirler vanes comprises a hollow airfoil and the plurality of deswirler vanes extend from the radially outer wall less than halfway into the exhaust flow path.
A method of operating a radio transmitter configured to transmit at least one sequence of logic values targeted to at least one radio receiver by transmitting transmission signals selected in a constellation diagram having a certain cardinality, the method comprising selecting said transmission signals out of a first subset of transmission signals in said constellation diagram, said first subset comprising a first number of transmission signals, and a second subset of transmission signals in said constellation diagram, said second subset comprising a second number of transmission signals, wherein: - the transmission signals in the second subset of transmission signals have an energy higher than the transmission signals in the first subset of transmission signals, and - the sum of said first number of transmission signals and said second number of transmission signals is less than said cardinality. - the transmission signals in the second subset of transmission signals have an energy higher than the transmission signals in the first subset of transmission signals, and - the sum of said first number of transmission signals and said second number of transmission signals is less than said cardinality.