mhurhangee/ep-ind-claims huggingface dataset:
A circuit, comprising: a first PMOS high-side transistor device; a first NMOS low-side transistor device; wherein the first PMOS-high side transistor device is connectable between a high-side voltage and a first node of a load and the first NMOS low-side transistor device is connectable between a second node of the load and a low-side voltage; and turn-on circuitry configured to turn on the first PMOS high-side transistor device while simultaneously turning on the first NMOS low-side transistor device, by routing charge stored in a gate of the first PMOS high-side transistor device to a gate of the first NMOS low-side transistor device, to charge the gate of the first NMOS low-side transistor device, characterized in that the gate of the first PMOS high-side transistor device has a gate capacitance higher than a gate capacitance of the first NMOS low-side transistor device, and in that the circuit further comprises a capacitor coupled to the turn-on circuitry and configured to receive an excess of charge stored in the gate of the first PMOS high-side transistor device over that used to charge the gate of the first NMOS low-side transistor device, each time the first PMOS high-side transistor device and first NMOS low-side transistor device are turned on. a first PMOS high-side transistor device; a first NMOS low-side transistor device; wherein the first PMOS-high side transistor device is connectable between a high-side voltage and a first node of a load and the first NMOS low-side transistor device is connectable between a second node of the load and a low-side voltage; and turn-on circuitry configured to turn on the first PMOS high-side transistor device while simultaneously turning on the first NMOS low-side transistor device, by routing charge stored in a gate of the first PMOS high-side transistor device to a gate of the first NMOS low-side transistor device, to charge the gate of the first NMOS low-side transistor device,
A tire, comprising: a pair of bead cores; a pair of first bead fillers arranged at an outer side in a tire radial direction of the bead cores; a first carcass extending between the pair of bead cores and the pair of first bead fillers, and curved to an outer side in a tread width direction to roll up the bead cores and the first bead fillers, the first carcass having, at each side in the tread width direction, an inner carcass positioned at an inner side in the tread width direction and an outer carcass curved to the outer side in the tread width direction; a second bead filler arranged at the outer side in the tread width direction from an outer carcass of the first carcass; and a rubber chafer arranged at the outer side in the tread width direction of the second bead filler, and in that the second bead filler covers an end portion of the outer side in the tire radial direction of a first bead filler in the tread width direction, an end portion of the inner side in the tire radial direction of the second bead filler is arranged at the outer side in the tire radial direction from a bead core; the rubber chafer covers the second bead filler in the tread width direction, characterized in that a loss tangent (δ) of the second bead filler is smaller than a loss tangent (δ) of the rubber chafer, and a radially outer end portion of the rubber chafer is positioned at the outer side in the tread width direction from an outermost end of the second bead filler. a pair of bead cores; a pair of first bead fillers arranged at an outer side in a tire radial direction of the bead cores; a first carcass extending between the pair of bead cores and the pair of first bead fillers, and curved to an outer side in a tread width direction to roll up the bead cores and the first bead fillers, the first carcass having, at each side in the tread width direction, an inner carcass positioned at an inner side in the tread width direction and an outer carcass curved to the outer side in the tread width direction; a second bead filler arranged at the outer side in the tread width direction from an outer carcass of the first carcass; and a rubber chafer arranged at the outer side in the tread width direction of the second bead filler, and in that the second bead filler covers an end portion of the outer side in the tire radial direction of a first bead filler in the tread width direction, an end portion of the inner side in the tire radial direction of the second bead filler is arranged at the outer side in the tire radial direction from a bead core; the rubber chafer covers the second bead filler in the tread width direction, characterized in that a loss tangent (δ) of the second bead filler is smaller than a loss tangent (δ) of the rubber chafer, and a radially outer end portion of the rubber chafer is positioned at the outer side in the tread width direction from an outermost end of the second bead filler.
A method for generating an activated product comprising: preparing a platelet-rich plasma sample for activation by adding calcium ions to the PRP sample at a respective concentration, wherein the respective calcium ion concentration is selected based upon clotting characteristics in the activated product generated using the PRP sample, the clotting characteristics comprising one or both of a time until formation of a clot or a mechanical strength of the clots; positioning the prepared PRP sample with respect to electrodes (14, 16) of an electromagnetic stimulation apparatus; specifying a set of electrical pulse parameters based, at least in part, upon the calcium ion concentration and the clotting characteristics; and exposing the prepared PRP sample to one or more electrical pulses generated in accordance with values of the electrical pulse parameters, wherein the PRP sample, when exposed to the one or more electrical pulses, yields the activated product comprising one or more growth factors and having the clotting characteristics. preparing a platelet-rich plasma sample for activation by adding calcium ions to the PRP sample at a respective concentration, wherein the respective calcium ion concentration is selected based upon clotting characteristics in the activated product generated using the PRP sample, the clotting characteristics comprising one or both of a time until formation of a clot or a mechanical strength of the clots; positioning the prepared PRP sample with respect to electrodes (14, 16) of an electromagnetic stimulation apparatus; specifying a set of electrical pulse parameters based, at least in part, upon the calcium ion concentration and the clotting characteristics; and exposing the prepared PRP sample to one or more electrical pulses generated in accordance with values of the electrical pulse parameters, wherein the PRP sample, when exposed to the one or more electrical pulses, yields the activated product comprising one or more growth factors and having the clotting characteristics.
An aircraft electronic device retention mechanism (20, 120, 220) that is adapted to removeably support an electronic device within a cockpit, the electronic device having a surface and an engaged portion, said electronic device retention mechanism comprising: a base (30, 130, 230) that is generally configured to the size and shape of the surface of the electronic device, wherein said retention mechanism comprises at least one lever (32, 132, 232) that is mounted by a pivot (34, 134, 234) to said base, said at least one lever having an engaging portion (36, 136, 236) that is adapted to apply a force to the engaged portion of the electronic device and an actuation portion (38, 138, 238) that is adapted to rotate said lever about said pivot between a first orientation in which said engaging portion retains said engaged portion and a second orientation in which said engaging portion does not retain said engaged portion; and a manual actuator (40, 140, 240) connected with said actuation portion of said pivot, said manual actuator being configured to move between a first position which rotates said at least one lever to said first orientation and a second position which rotates said at least one lever to said second orientation, wherein said manual actuator (40, 140, 240) is configured to linear motion between said first and second positions, characterized in that the electronic device retention mechanism further has a link (44, 144, 244) between said manual actuator (40, 140, 240) and said at least one lever, said link adapted to translate linear motion of said manual actuator to rotational motion of said at least one lever. a base (30, 130, 230) that is generally configured to the size and shape of the surface of the electronic device, wherein said retention mechanism comprises at least one lever (32, 132, 232) that is mounted by a pivot (34, 134, 234) to said base, said at least one lever having an engaging portion (36, 136, 236) that is adapted to apply a force to the engaged portion of the electronic device and an actuation portion (38, 138, 238) that is adapted to rotate said lever about said pivot between a first orientation in which said engaging portion retains said engaged portion and a second orientation in which said engaging portion does not retain said engaged portion; and a manual actuator (40, 140, 240) connected with said actuation portion of said pivot, said manual actuator being configured to move between a first position which rotates said at least one lever to said first orientation and a second position which rotates said at least one lever to said second orientation, wherein said manual actuator (40, 140, 240) is configured to linear motion between said first and second positions, characterized in that the electronic device retention mechanism further has a link (44, 144, 244) between said manual actuator (40, 140, 240) and said at least one lever, said link adapted to translate linear motion of said manual actuator to rotational motion of said at least one lever.
A magnetic field measurement apparatus, comprising: an optically detected magnetic resonance member arranged in a measurement target AC magnetic field; a coil that is configured to apply a magnetic field of a microwave to the optically detected magnetic resonance member; a high frequency power supply that is configured to cause the coil to conduct a current of the microwave; an irradiating device that is configured to irradiate the optically detected magnetic resonance member with light; a light receiving device that is configured to detect light that the optically detected magnetic resonance member emits; a measurement control unit that is configured to perform a predetermined DC magnetic field measurement Ramsey pulse sequence at a predetermined phase of the measurement target AC magnetic field, and in the DC magnetic field measurement sequence, to control the high frequency power supply and the irradiating device and thereby to determine a detection light intensity of the light detected by the light receiving device; and a magnetic field calculation unit that is configured to calculate an intensity of the measurement target AC magnetic field on the basis of the predetermined phase and the detection light intensity. an optically detected magnetic resonance member arranged in a measurement target AC magnetic field; a coil that is configured to apply a magnetic field of a microwave to the optically detected magnetic resonance member; a high frequency power supply that is configured to cause the coil to conduct a current of the microwave; an irradiating device that is configured to irradiate the optically detected magnetic resonance member with light; a light receiving device that is configured to detect light that the optically detected magnetic resonance member emits; a measurement control unit that is configured to perform a predetermined DC magnetic field measurement Ramsey pulse sequence at a predetermined phase of the measurement target AC magnetic field, and in the DC magnetic field measurement sequence, to control the high frequency power supply and the irradiating device and thereby to determine a detection light intensity of the light detected by the light receiving device; and a magnetic field calculation unit that is configured to calculate an intensity of the measurement target AC magnetic field on the basis of the predetermined phase and the detection light intensity.
A network device for a satellite communication network, the network device being any of a satellite modem, satellite transceiver, or a satellite router, the network device comprising: a processor; and a memory having instructions, which when executed by the processor, causes the processor to: receive information pertaining to a type of an outdoor unit, ODU; determine the type of ODU based on the received information; and provide a plurality of configurable reference frequencies based on the type of the ODU such that the plurality of configurable reference frequencies are used with different combinations of low noise block converters, LNBs, and block-up converters, BUCs, associated with the ODU. a processor; and a memory having instructions, which when executed by the processor, causes the processor to: receive information pertaining to a type of an outdoor unit, ODU; determine the type of ODU based on the received information; and provide a plurality of configurable reference frequencies based on the type of the ODU such that the plurality of configurable reference frequencies are used with different combinations of low noise block converters, LNBs, and block-up converters, BUCs, associated with the ODU. receive information pertaining to a type of an outdoor unit, ODU; determine the type of ODU based on the received information; and provide a plurality of configurable reference frequencies based on the type of the ODU such that the plurality of configurable reference frequencies are used with different combinations of low noise block converters, LNBs, and block-up converters, BUCs, associated with the ODU.
A method of bot detection in a content delivery network, CDN comprising a distributed set of edge servers, comprising: as clients interact with the edge servers, collecting transaction data; mining transaction data against a set of compound features sets to generate a database, the database comprising one or more data structures, wherein a given data structure associates a feature value with its relative percentage occurrence across the collected transaction data; and upon receipt of a new transaction request, comparing the compound feature set data derived from the new transaction request against the database; and based on the comparison, characterizing an end user client associated with the new transaction request; characterized in that the compound feature set is a concatenation of two or more primitive feature sets, the primitive features set selected from one of a canvas fingerprint, one or more browser parameters, device size, user agent, TLS fingerprint and request headers. as clients interact with the edge servers, collecting transaction data; mining transaction data against a set of compound features sets to generate a database, the database comprising one or more data structures, wherein a given data structure associates a feature value with its relative percentage occurrence across the collected transaction data; and upon receipt of a new transaction request, comparing the compound feature set data derived from the new transaction request against the database; and based on the comparison, characterizing an end user client associated with the new transaction request; characterized in that the compound feature set is a concatenation of two or more primitive feature sets, the primitive features set selected from one of a canvas fingerprint, one or more browser parameters, device size, user agent, TLS fingerprint and request headers.
A computer-implemented method comprising: determining a representation of an environment of an autonomous vehicle based on sensor data of the environment; based on the representation, identifying a situation from a predetermined set of situations for which the autonomous vehicle will request remote assistance; sending a request for assistance to a remote assistor, the request comprising the representation of the environment and the identified situation; receiving a response from the remote assistor indicating an autonomous operation; and causing the autonomous vehicle to perform the autonomous operation. determining a representation of an environment of an autonomous vehicle based on sensor data of the environment; based on the representation, identifying a situation from a predetermined set of situations for which the autonomous vehicle will request remote assistance; sending a request for assistance to a remote assistor, the request comprising the representation of the environment and the identified situation; receiving a response from the remote assistor indicating an autonomous operation; and causing the autonomous vehicle to perform the autonomous operation.
Composition comprising at least: (a) from 40% to 70% by weight relative to the total weight of the composition of a thermoplastic polyamide resin; (b) from 5% to 40% by weight relative to the total weight of the composition of a thermoplastic polyester resin; (c) from 15% to 50% by weight relative to the total weight of the composition of a reinforcing or bulking filler; (d) from 1% to 20% by weight relative to the total weight of the composition of a fire retardant, and (e) from 0.1% to 30% by weight relative to the total weight of the composition of an impact modifier the composition not comprising any compatibilizer for the polyamide and the polyester. (a) from 40% to 70% by weight relative to the total weight of the composition of a thermoplastic polyamide resin; (b) from 5% to 40% by weight relative to the total weight of the composition of a thermoplastic polyester resin; (c) from 15% to 50% by weight relative to the total weight of the composition of a reinforcing or bulking filler; (d) from 1% to 20% by weight relative to the total weight of the composition of a fire retardant, and (e) from 0.1% to 30% by weight relative to the total weight of the composition of an impact modifier the composition not comprising any compatibilizer for the polyamide and the polyester.
A granular infill material for artificial grass surfaces, comprising a plurality of granules comprising a thermoplastic polymeric matrix and a load dispersed in the matrix, wherein the load includes at least a cellulose-based vegetable component, characterized in that the granules originate from offcuts and waste of wallpaper.
A turbocompressor in an axial-type design for a gas turbine, particularly for an aircraft engine, with a bladed stator and a bladed rotor, wherein the stator comprises a compressor housing and at least one guide vane ring with adjustable guide vanes whose guide vanes are mounted so as to swivel about radial or predominantly radial axes radially outside of their airfoil on and/or in the compressor housing as well as radially inside of its airfoil on and/or in an inner ring associated with the stator, wherein the inner ring is divided, i.e., segmented, in at least two places around its periphery and, for each airfoil, has at least one bearing bush that can be inserted radially from the inside into an opening, characterized in that the compressor housing is longitudinally divided on diametrically opposed sides and that a seal carrier with a rub or run-in coating is detachably fastened to the inner ring and secures the bearing bushes against falling out of the openings.
Laundry device for drying laundry having a condensate water tank for collecting the condensate water which is generated from the damp laundry during the drying process, wherein the laundry device has an underbody structure which is connected with the condensate water tank via a tank line for conducting the condensate water into the condensate water tank, and the condensate water tank can be removed from and reintroduced into a condensate water tank tray for the purpose of emptying the condensate water tank, wherein the condensate water tank tray has an additional buffer storage volume for receiving condensate water, wherein a fluid connection exists between the tank line and the condensate water tank tray, by way of which fluid connection condensate water flows out of the tank line into the condensate water tank tray directly or via the condensate water tank wherein the condensate water tank is connected to a cleaning line via a flap element, wherein the flap element has a spring element, characterised in that the spring element is released when the condensate water tank is removed, so that in order to empty the buffer storage volume, the condensate water drains off through the cleaning line via an opening in the released flap element.
A voltage source converter (30, 130) comprising first and second DC terminals (32, 34) for connection to a DC network, the voltage source converter further including at least one limb connected between the first and second DC terminals (32, 34), the or each limb including: a phase element including two parallel-connected sets of series-connected switching elements connected in an H-bridge to define first and second diagonal switching pairs, a respective junction between each set of series-connected switching elements defining an AC terminal for connection to an AC network, wherein DC side inductance is present on a DC side of the H-bridge and AC side inductance is present on an AC side of the H-bridge; and a sub-converter (38, 39) connected in series and/or parallel with the H-bridge at the DC side of the H-bridge and/or connected in parallel with an electrical block including the phase element at the DC side of the H-bridge, the sub-converter (38, 39) being configured to be controllable to act as a voltage waveform synthesiser; the voltage source converter being characterised in that it further includes a controller to operate the sub-converter (38, 39) to selectively synthesise a driving commutation voltage (66, 67) to modify a DC side current at the DC side of the H-bridge so as to minimise any differences in magnitude and direction between the DC side current and an AC side current at the AC side of the H-bridge when commutating current between the first and second diagonal switching pairs, and thereby enable safe current switching of the first and second diagonal switching pairs. a phase element including two parallel-connected sets of series-connected switching elements connected in an H-bridge to define first and second diagonal switching pairs, a respective junction between each set of series-connected switching elements defining an AC terminal for connection to an AC network, wherein DC side inductance is present on a DC side of the H-bridge and AC side inductance is present on an AC side of the H-bridge; and a sub-converter (38, 39) connected in series and/or parallel with the H-bridge at the DC side of the H-bridge and/or connected in parallel with an electrical block including the phase element at the DC side of the H-bridge, the sub-converter (38, 39) being configured to be controllable to act as a voltage waveform synthesiser; the voltage source converter being characterised in that it further includes a controller to operate the sub-converter (38, 39) to selectively synthesise a driving commutation voltage (66, 67) to modify a DC side current at the DC side of the H-bridge so as to minimise any differences in magnitude and direction between the DC side current and an AC side current at the AC side of the H-bridge when commutating current between the first and second diagonal switching pairs, and thereby enable safe current switching of the first and second diagonal switching pairs.