mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a turboprop engine of an aircraft, the method comprising: obtaining at least one upper limit (402, 502, 606, 610) and at least one lower limit (404, 504, 608, 612) on a gas generator speed (Ng) of the turboprop engine, the at least one upper limit (402, 502, 606, 610) defined by a maximum Ng as a function of a power lever position of the aircraft and the at least one lower limit (404, 504, 608, 612) defined by a minimum Ng as a function of the power lever position; receiving a target power for the turboprop engine; and in response to receiving the target power: governing output power for the turboprop engine as a function of the target power when a resulting value for Ng is between the at least one upper limit (402, 502, 606, 610) and the at least one lower limit (404, 504, 608, 612); and governing output power for the turboprop engine as a function of the maximum Ng and the minimum Ng when the resulting value for Ng is on or outside of the at least one upper limit (402, 502, 606, 610) and the at least one lower limit (404, 504, 608, 612). obtaining at least one upper limit (402, 502, 606, 610) and at least one lower limit (404, 504, 608, 612) on a gas generator speed (Ng) of the turboprop engine, the at least one upper limit (402, 502, 606, 610) defined by a maximum Ng as a function of a power lever position of the aircraft and the at least one lower limit (404, 504, 608, 612) defined by a minimum Ng as a function of the power lever position; receiving a target power for the turboprop engine; and in response to receiving the target power: governing output power for the turboprop engine as a function of the target power when a resulting value for Ng is between the at least one upper limit (402, 502, 606, 610) and the at least one lower limit (404, 504, 608, 612); and governing output power for the turboprop engine as a function of the maximum Ng and the minimum Ng when the resulting value for Ng is on or outside of the at least one upper limit (402, 502, 606, 610) and the at least one lower limit (404, 504, 608, 612). governing output power for the turboprop engine as a function of the target power when a resulting value for Ng is between the at least one upper limit (402, 502, 606, 610) and the at least one lower limit (404, 504, 608, 612); and governing output power for the turboprop engine as a function of the maximum Ng and the minimum Ng when the resulting value for Ng is on or outside of the at least one upper limit (402, 502, 606, 610) and the at least one lower limit (404, 504, 608, 612).
Apparatus for inserting inserts into dies of a tablet press, said apparatus having a feed device with a transfer wheel which is provided with pockets for receiving singled-out inserts, having an insert unit for taking over inserts from the transfer wheel and transferring the taken-over inserts into the dies of the tablet press, as well as having means for transferring inserts to the pockets of the transfer wheel, characterized by at least one strip-shaped supply ribbon for supplying the inserts to the apparatus, with the means for transferring inserts to the transfer wheel comprise at least two grippers which are movable by pivoting their gripper arms back and forth between a take-over position at the supply ribbon and a transfer position at a pocket of the transfer wheel, and with which, in a synchronous or alternating manner, the inserts are takeable over from the supply ribbon and transferable by pivoting their gripper arms into different pockets on the transfer wheel.
A dampening unit for discontinuously dampening a rotary movement of an access barrier, wherein the rotary movement is introduced by actuating the access barrier and is transferred onto a drive wheel of the dampening unit connected to the access barrier and thereby introduces said rotary movement into a drive axis of the dampening unit, comprising the drive wheel rotatable around the drive axis, a discontinuous gear, which is configured from two unround toothed wheels (11, 12) meshing with each other, eccentrically supported, and connects said drive wheel to a dampening member, which is associated to an output axis, of the dampening unit such that the continuous rotary movement of the access barrier is transformed into a discontinuous rotary movement of the output axis, wherein the two toothed wheels (11, 12) of the discontinuous gear respectively include one extremity, however unlike rolling curves, wherein one toothed wheel preferably supported on the drive axis includes an essentially ovoid rolling curve, and a second toothed wheel preferably supported on the output axis includes a shorter extremity compared to the first toothed wheel, and is broadened in transverse direction to the direction of the extremity thereof compared to the first toothed wheel, wherein the toothed wheels (11, 12) include the same number of teeth, and the dampening member has two extreme positions, among one terminal position, wherein the toothed wheels (11, 12) in said extreme positions of the dampening member are oriented in the same direction and include one common symmetry axis.
A heating, ventilation and air conditioning (HVAC) system comprising: a condenser to condense a flow of refrigerant into a liquid state; an economizer assembly including at least one separator chamber to separate liquid refrigerant from vapor refrigerant; and a falling film evaporator to exchange thermal energy between the liquid refrigerant and a medium flowed through a plurality of evaporator tubes in the evaporator; characterized in that the economizer assembly shares an upper common wall with at least a portion of the condenser and the flow of refrigerant from the condenser into the economizer assembly proceeding through a flow opening in the upper common wall. a condenser to condense a flow of refrigerant into a liquid state; an economizer assembly including at least one separator chamber to separate liquid refrigerant from vapor refrigerant; and a falling film evaporator to exchange thermal energy between the liquid refrigerant and a medium flowed through a plurality of evaporator tubes in the evaporator; characterized in that the economizer assembly shares an upper common wall with at least a portion of the condenser and the flow of refrigerant from the condenser into the economizer assembly proceeding through a flow opening in the upper common wall.
A method comprising: establishing, at a user equipment, a first wireless data link with a femto base station using a first wireless communication protocol; determining that the femto base station supports a simultaneous data link utilizing a second wireless communication protocol; responsive to determining that the femto base station supports a simultaneous data link: establishing, at the UE, a second wireless data connection with the femto base station utilizing the second wireless communication protocol while maintaining the first wireless data link; demultiplexing a plurality of outbound packets received at a virtual network interface across both the first and second data connections; and multiplexing a plurality of inbound packets received over both the first and second data connections across the virtual network interface. establishing, at a user equipment, a first wireless data link with a femto base station using a first wireless communication protocol; determining that the femto base station supports a simultaneous data link utilizing a second wireless communication protocol; responsive to determining that the femto base station supports a simultaneous data link: establishing, at the UE, a second wireless data connection with the femto base station utilizing the second wireless communication protocol while maintaining the first wireless data link; demultiplexing a plurality of outbound packets received at a virtual network interface across both the first and second data connections; and multiplexing a plurality of inbound packets received over both the first and second data connections across the virtual network interface. establishing, at the UE, a second wireless data connection with the femto base station utilizing the second wireless communication protocol while maintaining the first wireless data link; demultiplexing a plurality of outbound packets received at a virtual network interface across both the first and second data connections; and multiplexing a plurality of inbound packets received over both the first and second data connections across the virtual network interface.
A data transmission method, comprising: fragmenting, by a first base station, Internet Protocol, IP, data to be sent into fragments that are suitable for transmission through an E1 or T1 transmission line so as to generate fragmented IP data; obtaining, by the first base station, a first phase difference between two consecutive phase discriminations by performing a phase discrimination on a first local clock by using a first high-frequency phase discrimination clock and under a first phase sampling frequency, wherein a frequency of the first high-frequency phase discrimination clock, the first phase sampling frequency, and the obtained first phase difference are included in first clock information; encapsulating (101, 304), by the first base station, the fragmented IP data and the first clock information into an IP packet; and sending (102, 305), by the first base station, the IP packet to a second base station through an IP transmission line, wherein the fragmented IP data and the first clock information in the IP packet are used for the second base station to restore the IP packet to E1 or T1 data. fragmenting, by a first base station, Internet Protocol, IP, data to be sent into fragments that are suitable for transmission through an E1 or T1 transmission line so as to generate fragmented IP data; obtaining, by the first base station, a first phase difference between two consecutive phase discriminations by performing a phase discrimination on a first local clock by using a first high-frequency phase discrimination clock and under a first phase sampling frequency, wherein a frequency of the first high-frequency phase discrimination clock, the first phase sampling frequency, and the obtained first phase difference are included in first clock information; encapsulating (101, 304), by the first base station, the fragmented IP data and the first clock information into an IP packet; and sending (102, 305), by the first base station, the IP packet to a second base station through an IP transmission line, wherein the fragmented IP data and the first clock information in the IP packet are used for the second base station to restore the IP packet to E1 or T1 data.
A method performed by a network node, the method comprising: signaling at least one user equipment to start performing and logging quality of experience, QoE, related measurements; transmitting a request for a report on handover performance to the at least one user equipment; and receiving the handover performance report from the at least one user equipment, wherein the handover performance report comprises at least one service identifier of a service running on the at least one user equipment and the quality of experience, QoE related measurements; wherein the signaling to start performing and logging QoE related measurements comprises configuring the at least one user equipment to collect handover data for use to train the quality of experience, QoE, model (110, 210, 310, 410); and further comprising signaling the at least one user equipment to receive a trained QoE model (110, 210, 310, 410) through at least one of a control channel or traffic channel. signaling at least one user equipment to start performing and logging quality of experience, QoE, related measurements; transmitting a request for a report on handover performance to the at least one user equipment; and receiving the handover performance report from the at least one user equipment, wherein the handover performance report comprises at least one service identifier of a service running on the at least one user equipment and the quality of experience, QoE related measurements; wherein the signaling to start performing and logging QoE related measurements comprises configuring the at least one user equipment to collect handover data for use to train the quality of experience, QoE, model (110, 210, 310, 410); and further comprising signaling the at least one user equipment to receive a trained QoE model (110, 210, 310, 410) through at least one of a control channel or traffic channel.
Method for obtaining a leaktight electronic device, in which the following steps are provided: a) placing an electronic module inside a mold, b) keeping said electronic module away from the walls of said mold with the aid of holding lugs that each have an end which protrudes toward the inside of the mold, c) injecting into said mold a thermoplastic material designed to harden so as to form a leaktight shell, said holding lugs retracting toward the outside of the mold during the injection of said thermoplastic material, characterized in that at least one electronic subassembly of the electronic module placed inside the mold in step a) is encapsulated in a flexible shell. a) placing an electronic module inside a mold, b) keeping said electronic module away from the walls of said mold with the aid of holding lugs that each have an end which protrudes toward the inside of the mold, c) injecting into said mold a thermoplastic material designed to harden so as to form a leaktight shell, said holding lugs retracting toward the outside of the mold during the injection of said thermoplastic material,
A method for diagnosis and monitoring of cancer in a patient, the method comprising: using a cell-free nucleic acid sample obtained from the patient; using a selector set to enrich for cell-free DNA that corresponds to the regions of the genome that are most likely to contain tumor-specific somatic mutations; wherein enrichment is by hybridizing the nucleic acids to a plurality of oligonucleotides that selectively hybridize to such regions of the genome; amplifying and sequencing the selected cell-free DNA to determine which of the selected genomic regions are mutated in the tumor; optionally comparing the sequence of the selected cell-free DNA with the individual's germline DNA sequence to distinguish somatic mutations present in the tumor, and detecting the tumor-specific mutation in the cell-free nucleic acid sample, wherein the selector set comprises genomic regions comprising one or more mutations present in one or more subjects from a population of cancer subjects. using a cell-free nucleic acid sample obtained from the patient; using a selector set to enrich for cell-free DNA that corresponds to the regions of the genome that are most likely to contain tumor-specific somatic mutations; wherein enrichment is by hybridizing the nucleic acids to a plurality of oligonucleotides that selectively hybridize to such regions of the genome; amplifying and sequencing the selected cell-free DNA to determine which of the selected genomic regions are mutated in the tumor; optionally comparing the sequence of the selected cell-free DNA with the individual's germline DNA sequence to distinguish somatic mutations present in the tumor, and detecting the tumor-specific mutation in the cell-free nucleic acid sample, wherein the selector set comprises genomic regions comprising one or more mutations present in one or more subjects from a population of cancer subjects.
An electronic device comprising a microcircuit module, a near-field communication antenna electrically connected to the microcircuit of the module, delimiting an antenna surface, and a body incorporating the module, the antenna being arranged on a substrate of the module, the body incorporating means for amplifying the gain of the antenna comprising an electrically conductive element electrically insulated from the microcircuit and from the antenna, of generally annular shape arranged around an area of the body forming a volume generated by the projection of the antenna surface along a direction substantially orthogonal to the surface, said element being formed by an electrically conductive layer passed through by a cavity for receiving the module formed in the body.
Use of a composition comprising a PDK1 (phosphoinositide-dependent kinase-1) inhibitor for in vitro reversing a senescent cell, wherein the PDK1 inhibitor is an expression inhibitor of a PDK1 gene or an activity inhibitor of a PDK1 protein.
Chain lock for connecting two chain strands, having two U-shaped lock halves, which can be inserted into one another in a form-fitting manner, wherein a toothing is formed on the legs (5, 6) of the U shape, so that the lock halves are inserted into one another for locking perpendicular to the longitudinal direction of the chain lock, so that the legs (5, 6) of one lock half come into contact with the legs (5, 6) of the other lock half and a securing element is arranged between the inner sides of the inner legs (5, 6), wherein the securing element is formed by two securing blocks, wherein each securing block is inserted from one side of the chain lock and both securing blocks have a total length, which corresponds essentially to the width of the chain lock and securing pin arranged in the securing blocks connecting the latter in a form-fitting manner, characterised in that on the inside of the inner legs a flattened mounting surface for mounting the securing blocks is formed and in the mounting surface a projection is formed which extends in transverse direction of the chain lock, and in that each securing block has a flattened contact surface on two opposite sides, wherein in the contact surface a groove is formed which is recessed opposite the latter and the groove extends in transverse direction of the chain lock, wherein the projection engages in the manner of a guide rail in a form-fitting manner into the grooves of the securing blocks with an assembled and locked chain lock.
A sliding guide, for instance for an arm support, comprising at least a first and an at least second profile slidable relative thereto in a longitudinal direction, with bearing means and friction means included therebetween for providing a frictional resistance between the first profile and the second profile during sliding, wherein the profiles (2, 3) are provided with fastening means (6, 7) for fastening the profiles (2, 3) to respective surfaces (30a, 31a) situated opposite thereto, wherein the first and second profiles (2, 3) on both sides in the longitudinal direction are provided with respective connecting longitudinal edges (8, 9; 10, 11), which cooperate in order to allow sliding of the second profile relative to the first profile, characterized in that the bearing means and the friction means are provided between the profiles (2, 3) near the respective connecting longitudinal edges (8, 9; 10, 11) thereof in order to provide an internal space between the at least first and the at least second profile.
A receiver for solar energy production installations, having a support structure bearing a plurality of absorber modules (20, 20a) at a front side, which modules comprise a front-side absorber and a hot air duct, wherein a hot air tube adjoins the hot air duct and recirculated return air exits from the front side to be drawn into the absorber modules, characterized in that selected absorber modules are offset in a forward direction with respect to adjacent absorber modules, thereby forming a step, and that outlet nozzles are provided at each step, which nozzles are oriented such that the expelled return air flows over the front sides of a plurality of adjacent absorber modules so that the return air flowing from an outlet nozzle flows over a plurality of successive absorber modules and is drawn into the same.
A compound represented by any one of General Formulas to below, a tautomer or geometric isomer thereof, or a salt thereof: where in the General Formulas to, X 1 represents a single bond or an alkylene group having 1 to 8 carbon atoms, Y 1 represents a single bond, -O-, -NHCO-, -NHCOO-, -S-, -SO-, or -SO 2 -, Z 1 represents a cyclic, linear, or branched alkyl group which has 8 to 30 carbon atoms and may have a halogen atom, X 2 represents a single bond, -CO-, -CONH-, or -COO-, Y 2 represents a hydrocarbon group which has 1 to 30 carbon atoms and may have -CN, -NO 2, an alkoxy group, a halogen atom, or any combination thereof; or a hydrogen atom, X 3 represents a single bond or -NH-, Z represents a hydrogen atom, a halogen atom, an alkoxy group having 1 to 6 carbon atoms, or a hydrocarbon group having 1 to 20 carbon atoms, and R 1 represents a hydrocarbon group which has 1 to 30 carbon atoms and may have an alkoxy group, -OH, -CN, -NO 2, a halogen atom, or any combination thereof. where in the General Formulas to, X 1 represents a single bond or an alkylene group having 1 to 8 carbon atoms, Y 1 represents a single bond, -O-, -NHCO-, -NHCOO-, -S-, -SO-, or -SO 2 -, Z 1 represents a cyclic, linear, or branched alkyl group which has 8 to 30 carbon atoms and may have a halogen atom, X 2 represents a single bond, -CO-, -CONH-, or -COO-, Y 2 represents a hydrocarbon group which has 1 to 30 carbon atoms and may have -CN, -NO 2, an alkoxy group, a halogen atom, or any combination thereof; or a hydrogen atom, X 3 represents a single bond or -NH-, Z represents a hydrogen atom, a halogen atom, an alkoxy group having 1 to 6 carbon atoms, or a hydrocarbon group having 1 to 20 carbon atoms, and R 1 represents a hydrocarbon group which has 1 to 30 carbon atoms and may have an alkoxy group, -OH, -CN, -NO 2, a halogen atom, or any combination thereof.
Masonry reinforced with at least one bed joint masonry reinforcement structure, said masonry comprising a number of layers of units or bricks and joints between two neighbouring layers of bricks, whereby at least one joint of said masonry is reinforced with a bed joint masonry reinforcement structure, said bed joint masonry reinforcement structure having a length direction, said masonry reinforcement structure comprising at least two cords, said cords comprising metal filaments that are twisted together, said cords being oriented parallel or substantially parallel in said length direction of said masonry reinforcement structure, characterized in that said cords are coupled to a substrate.
An optical fiber cable (10,20,30,40,50) comprising: a core in which a plurality of optical fibers is assembled; an inner sheath that accommodates the core therein; a pair of tension members that are embedded in the inner sheath so as to interpose the core therebetween in a radial direction; and an outer sheath that covers the inner sheath, wherein the inner sheath is formed with a pair of dividing portions that divide an inner peripheral surface and an outer peripheral surface of the inner sheath in a circumferential direction, and wherein the pair of dividing portions extend along a longitudinal direction in which the optical fiber extends, characterized in that each of the dividing portions and each of the tension members which configures the pair of tension members are alternately disposed in the circumferential direction. a core in which a plurality of optical fibers is assembled; an inner sheath that accommodates the core therein; a pair of tension members that are embedded in the inner sheath so as to interpose the core therebetween in a radial direction; and an outer sheath that covers the inner sheath, wherein the inner sheath is formed with a pair of dividing portions that divide an inner peripheral surface and an outer peripheral surface of the inner sheath in a circumferential direction, and wherein the pair of dividing portions extend along a longitudinal direction in which the optical fiber extends, characterized in that each of the dividing portions and each of the tension members which configures the pair of tension members are alternately disposed in the circumferential direction.