mhurhangee/ep-ind-claims huggingface dataset:
A method of encoding a signal comprising: receiving, over time, a sequence of input frames that comprise the signal; encoding a first frame of the sequence of input frames as an independently decodable frame and assigning the first frame as a current reference frame; encoding subsequently received input frames, in the sequence of input frames, each as a difference frame that represents a difference between the input frame and the current reference frame; transmitting the independently decodable frame and each of the difference frames, after each is encoded, to a receiver; receiving one or more acknowledgements from the receiver; switching to a safe operating mode when one or more acknowledgements indicate that one of the independently decodable frame or the difference frames was unsuccessfully decoded, and, when in the safe operating mode, assigning an input frame corresponding to a difference frame associated with a received acknowledgment, of the one or more acknowledgements, that includes a positive indication of successful decoding of said input frame as the current reference frame; and switching to a normal operating mode when an abatement criterion is met, and, when in the normal mode, assigning an input frame as the current reference frame regardless of receiving an acknowledgement associated with a difference frame corresponding to the input frame; wherein the one or more acknowledgements are received through an in-band or an out-of-band signaling. receiving, over time, a sequence of input frames that comprise the signal; encoding a first frame of the sequence of input frames as an independently decodable frame and assigning the first frame as a current reference frame; encoding subsequently received input frames, in the sequence of input frames, each as a difference frame that represents a difference between the input frame and the current reference frame; transmitting the independently decodable frame and each of the difference frames, after each is encoded, to a receiver; receiving one or more acknowledgements from the receiver; switching to a safe operating mode when one or more acknowledgements indicate that one of the independently decodable frame or the difference frames was unsuccessfully decoded, and, when in the safe operating mode, assigning an input frame corresponding to a difference frame associated with a received acknowledgment, of the one or more acknowledgements, that includes a positive indication of successful decoding of said input frame as the current reference frame; and switching to a normal operating mode when an abatement criterion is met, and, when in the normal mode, assigning an input frame as the current reference frame regardless of receiving an acknowledgement associated with a difference frame corresponding to the input frame; wherein the one or more acknowledgements are received through an in-band or an out-of-band signaling.
A method for producing a compound oxide powder made of at least two kinds of metals, characterized in that: a first solution, in which a first metal compound for producing, when hydrolyzed, a hydroxide or oxide is dissolved in an organic solvent, and an emulsion, which contains another metal in the form of ions in an aqueous phase inside of the inverse micelles formed by an surfactant in an organic solvent, are continuously mixed while simultaneously performing pH-adjustment in flowing states; the mixed liquid is stirred while being continuously caused to flow to the downstream side of a mixing portion of the first solution and the emulsion; and primary particles are formed by the hydrolysis of said first metal compound caused by the pH-adjustment inside or in the interface of said inverse micelles whereas secondary particles are formed by the agglomeration of the primary particles. a first solution, in which a first metal compound for producing, when hydrolyzed, a hydroxide or oxide is dissolved in an organic solvent, and an emulsion, which contains another metal in the form of ions in an aqueous phase inside of the inverse micelles formed by an surfactant in an organic solvent, are continuously mixed while simultaneously performing pH-adjustment in flowing states; the mixed liquid is stirred while being continuously caused to flow to the downstream side of a mixing portion of the first solution and the emulsion; and primary particles are formed by the hydrolysis of said first metal compound caused by the pH-adjustment inside or in the interface of said inverse micelles whereas secondary particles are formed by the agglomeration of the primary particles.
A portable blower-vacuum device comprising: a main body defining an axis Z1; a motor operated by a switch which is housed in the main body; a motor-driven fan capable of generating an air flow; a vacuum nozzle associated with the main body upstream of the motor-driven fan and a blower nozzle associated with the main body downstream of the motor-driven fan; wherein the vacuum nozzle is positioned superior to the blower nozzle when seen in the normal operating conditions of the blower-vacuum device and wherein the vacuum nozzle is curved or comprises an elongate main portion extending substantially coaxially with the axis Z1 and a terminal portion extending along an axis Z2 angularly with respect to the axis Z1, the vacuum nozzle having a deflection point, characterised in that the blower nozzle has a blower port at its distal end substantially adjacent to the deflection point of the vacuum nozzle, wherein the curved vacuum nozzle or the terminal portion of the vacuum nozzle extends upwardly away from the blower nozzle when seen in the blower mode of the device. a main body defining an axis Z1; a motor operated by a switch which is housed in the main body; a motor-driven fan capable of generating an air flow; a vacuum nozzle associated with the main body upstream of the motor-driven fan and a blower nozzle associated with the main body downstream of the motor-driven fan; wherein the vacuum nozzle is positioned superior to the blower nozzle when seen in the normal operating conditions of the blower-vacuum device and wherein the vacuum nozzle is curved or comprises an elongate main portion extending substantially coaxially with the axis Z1 and a terminal portion extending along an axis Z2 angularly with respect to the axis Z1, the vacuum nozzle having a deflection point, characterised in that the blower nozzle has a blower port at its distal end substantially adjacent to the deflection point of the vacuum nozzle, wherein the curved vacuum nozzle or the terminal portion of the vacuum nozzle extends upwardly away from the blower nozzle when seen in the blower mode of the device.
A crystalline form of N -(4-chloro-3-(5-oxo-1-(4-(trifluoromethyl)phenyl)-4,5-dihydro-1 H- 1,2,4-triazol-3-yl)benzyl)pivalamide, having a characteristic X-ray diffraction pattern comprising peaks at 5.66, 6.55, and 13.05 ± 0.2° 2θ.
An apparatus comprising: a controller to process a data-bearing power management event message, characterized in that the controller is adapted to be coupled by a link to a switch, the switch to be coupled by a bus to a device that originates a power management event signal, the message including an identification of the device that originates the power management event signal, wherein the data-bearing power management event message is received by the controller over the link from the switch, the message being generated by the switch, the switch being different from the device that originates the power management event signal; wherein the controller is to probe the device to obtain additional information regarding the power management event in accordance with the content of the data-bearing power management event message, and to take action based on the additional information regarding the power management event. a controller to process a data-bearing power management event message, characterized in that the controller is adapted to be coupled by a link to a switch, the switch to be coupled by a bus to a device that originates a power management event signal, the message including an identification of the device that originates the power management event signal, wherein the data-bearing power management event message is received by the controller over the link from the switch, the message being generated by the switch, the switch being different from the device that originates the power management event signal; wherein the controller is to probe the device to obtain additional information regarding the power management event in accordance with the content of the data-bearing power management event message, and to take action based on the additional information regarding the power management event.
A regulator valve assembly comprising: a valve pin having an engagement portion with a tapered surface; and a valve seat having a valve pin receiving aperture defining a tapered surface on the valve seat to sealingly mate with the engagement portion of the valve pin when the valve pin is seated against the valve seat in a seated configuration, and wherein at least one of the tapered surface of the valve pin and the tapered surface of the valve seat comprises an asymmetrical surface feature in the form of an indentation, a depression, a notch, a hole, an aperture, or a cavity, in the side of the valve pin, the asymmetrical surface feature sized and shaped such that, when the valve pin is displaced away from the seated configuration and fluid flows through an annular space created between the engagement portion of the valve pin and the valve seat, unbalanced hydrodynamic forces arise from an interaction of the fluid with the asymmetrical surface feature; and wherein the valve pin defines a central axis (A pin) and the asymmetrical surface feature is formed in the valve pin and is at most symmetric about only one plane of symmetry that includes the central axis of the valve pin. a valve pin having an engagement portion with a tapered surface; and a valve seat having a valve pin receiving aperture defining a tapered surface on the valve seat to sealingly mate with the engagement portion of the valve pin when the valve pin is seated against the valve seat in a seated configuration, and wherein at least one of the tapered surface of the valve pin and the tapered surface of the valve seat comprises an asymmetrical surface feature in the form of an indentation, a depression, a notch, a hole, an aperture, or a cavity, in the side of the valve pin, the asymmetrical surface feature sized and shaped such that, when the valve pin is displaced away from the seated configuration and fluid flows through an annular space created between the engagement portion of the valve pin and the valve seat, unbalanced hydrodynamic forces arise from an interaction of the fluid with the asymmetrical surface feature; and wherein the valve pin defines a central axis (A pin) and the asymmetrical surface feature is formed in the valve pin and is at most symmetric about only one plane of symmetry that includes the central axis of the valve pin.
A method for producing molybdenum-99 comprising: i) providing an electron accelerator; ii) providing a molybdenum converter/target unit (Mo-CTU) comprising one or more metallic components, wherein each one of said metallic components is made of a material selected from the group consisting of natural molybdenum, molybdenum-100, molybdenum-98, and mixtures thereof; iii) directing an electron beam generated via said electron accelerator onto said Mo-CTU to produce a braking radiation (bremsstrahlung); iv) employing said bremsstrahlung onto said Mo-CTU to produce molybdenum-99 and neutrons via a photo-neutron reaction; v) slowing down the neutrons produced in step iv) with a low atomic liquid, e.g. distilled water; and optionally vi) employing the neutrons produced in step iv) to produce a complementary amount of molybdenum-99 via a neutron capture reaction on said Mo-CTU. i) providing an electron accelerator; ii) providing a molybdenum converter/target unit (Mo-CTU) comprising one or more metallic components, wherein each one of said metallic components is made of a material selected from the group consisting of natural molybdenum, molybdenum-100, molybdenum-98, and mixtures thereof; iii) directing an electron beam generated via said electron accelerator onto said Mo-CTU to produce a braking radiation (bremsstrahlung); iv) employing said bremsstrahlung onto said Mo-CTU to produce molybdenum-99 and neutrons via a photo-neutron reaction; v) slowing down the neutrons produced in step iv) with a low atomic liquid, e.g. distilled water; and optionally vi) employing the neutrons produced in step iv) to produce a complementary amount of molybdenum-99 via a neutron capture reaction on said Mo-CTU.
A method of detecting and/or assessing organ or tissue damage associated with the administration of a drug to a human or animal subject, the method comprising the steps of testing a serum sample obtained from said subject for the following serum biomarkers: (i) caspase-cleaved K18; (ii) full length K18 and/or the hypo-acetylated form of HMGB-1; and (iii) the acetylated form of HMGB-1; and correlating the presence of one or more of said serum biomarkers with an organ or tissue specific indicator of damage. (i) caspase-cleaved K18; (ii) full length K18 and/or the hypo-acetylated form of HMGB-1; and (iii) the acetylated form of HMGB-1; and
A method relating to handover in a communication system, the method comprising: - establishing that a communication device is involved in a handover process from a first cell to a second cell, and - increasing at least one of diversity and transmission power of a scheduling assignment related to the handover process and transmitted on physical downlink control channel resources, wherein the physical downlink control channel resources are multiplexed with data resources in one or more orthogonal frequency division multiplexing, OFDM, symbols and wherein the scheduling assignment is specific for the communication device, and the increasing is performed only for the scheduling assignment related to the handover process. - establishing that a communication device is involved in a handover process from a first cell to a second cell, and - increasing at least one of diversity and transmission power of a scheduling assignment related to the handover process and transmitted on physical downlink control channel resources, wherein the physical downlink control channel resources are multiplexed with data resources in one or more orthogonal frequency division multiplexing, OFDM, symbols and wherein the scheduling assignment is specific for the communication device, and the increasing is performed only for the scheduling assignment related to the handover process.
Composition comprising (i) a polyunsaturated fatty acid having at least 20 carbon atoms (LC-PUFA) and (ii) cells, wherein the composition has a moisture content between 1 and 20 wt%, and an oil content of at least 10 wt%, wherein the oil contains at least 40 wt% of PUFAs with at least three double bonds with respect to the total fatty acids in the oil, which composition has a thermal induction time (T.I.T.) of > 24 hours at 40 oC.
A battery block comprising: a metallic case including a plurality of pipe-shaped members; and cells respectively accommodated in the plurality of pipe-shaped members, wherein the pipe-shaped members are in direct contact with each other and joined together at their side surface to form a single unit, and wherein a length of a joint between adjacent ones of the pipe-shaped members is 70% to 95% of an entire length of the pipe-shaped members. a metallic case including a plurality of pipe-shaped members; and cells respectively accommodated in the plurality of pipe-shaped members,
A dampened snap-hinge (1,10), comprising: - a first articulated quadrilateral comprising a first plate and provided with a first and second lever (23,32) and an arm - a second articulated quadrilateral comprising a second plate and provided with a first and second lever (23,32) and an arm said first and second lever being in common between the first and the second articulated quadrilateral, the hinge (1,10) being movable between an open configuration and a closed configuration, in which the plates (4,5) are arranged differently with respect to each other, wherein the hinge (1,10) also comprises a damper for damping the transition between the open configuration and the closed configuration and viceversa, said damper being interposed between one of the first or second levers (23,32) and said arm (21,31) of one of the first and second quadrilaterals, said hinge further comprising at least a return spring (12, 120), characterized in that said spring and said damper are positioned offset with respect to a central symmetry plane of the quadrilaterals (2,3), said at least a return spring acting between said arm (21,31) of one of the first and second quadrilaterals (2,3) and the respective plate (4,5). - a first articulated quadrilateral comprising a first plate and provided with a first and second lever (23,32) and an arm - a second articulated quadrilateral comprising a second plate and provided with a first and second lever (23,32) and an arm
A method, performed by a user equipment, UE, in 5 th generation mobility management, 5GMM,-IDLE mode in a 5G system, 5GS, network, for initiating a service request procedure, the method comprising: determining that the UE is using control plane, CP, cellular internet of things, CloT, 5GS optimization; and in case that an emergency service is required, transmitting a control plane service request, CPSR, message including a control plane service type field set to "emergency services". determining that the UE is using control plane, CP, cellular internet of things, CloT, 5GS optimization; and in case that an emergency service is required, transmitting a control plane service request, CPSR, message including a control plane service type field set to "emergency services".
A lined pipe for transporting water, comprising: an outer layer comprising an outer layer composition comprising, based on the total weight of the outer layer composition, 50 to 100 weight percent of a thermoplastic selected from the group consisting of crosslinked polyethylene, polypropylene, poly(1-butene), and poly(vinyl chloride), and 0 to 50 weight percent filler; and an inner layer comprising an inner layer composition comprising 20 to 70 parts by weight of a poly(phenylene ether), 30 to 80 parts by weight of a polystyrene, and 0 to 15 parts by weight of a hydrogenated block copolymer of an alkenyl aromatic monomer and a conjugated diene; wherein the parts by weight are based on 100 parts by weight total of the poly(phenylene ether), the polystyrene, and the hydrogenated block copolymer. an outer layer comprising an outer layer composition comprising, based on the total weight of the outer layer composition, 50 to 100 weight percent of a thermoplastic selected from the group consisting of crosslinked polyethylene, polypropylene, poly(1-butene), and poly(vinyl chloride), and 0 to 50 weight percent filler; and 50 to 100 weight percent of a thermoplastic selected from the group consisting of crosslinked polyethylene, polypropylene, poly(1-butene), and poly(vinyl chloride), and 0 to 50 weight percent filler; and an inner layer comprising an inner layer composition comprising 20 to 70 parts by weight of a poly(phenylene ether), 30 to 80 parts by weight of a polystyrene, and 0 to 15 parts by weight of a hydrogenated block copolymer of an alkenyl aromatic monomer and a conjugated diene; wherein the parts by weight are based on 100 parts by weight total of the poly(phenylene ether), the polystyrene, and the hydrogenated block copolymer. 20 to 70 parts by weight of a poly(phenylene ether), 30 to 80 parts by weight of a polystyrene, and 0 to 15 parts by weight of a hydrogenated block copolymer of an alkenyl aromatic monomer and a conjugated diene;
A power supply device configured to be mounted to a vehicle, the power supply device comprising: a first switching power supply configured to convert power to be supplied from an AC power supply outside the vehicle to a first converted power by switching, and supply the first converted power to a power storage device; a second switching power supply (104,202) configured to convert, by switching, the first converted power supplied from the first switching power supply or power supplied from the power storage device to a second converted power, and supply the second converted power to a load device; a noise filter configured to reduce noise generated in the first switching power supply and the second switching power supply; and a shield covering the first switching power supply, the second switching power supply (104,202), and the noise filter, wherein the noise filter is interposed on a current path between the first switching power supply and the power storage device, between the power storage device and the second switching power supply, and between the power storage device and a branch point at which a power line from the first switching power supply to the power storage device intersects a power line from the second switching power supply (104,202) to the power storage device; and wherein a current capacity of the noise filter is higher than any of a first maximum value of a current that flows from the first switching power supply and a second maximum value of a current that flows to the second switching power supply (104,202), and is lower than the total value of the first maximum value and the second maximum value. a first switching power supply configured to convert power to be supplied from an AC power supply outside the vehicle to a first converted power by switching, and supply the first converted power to a power storage device; a second switching power supply (104,202) configured to convert, by switching, the first converted power supplied from the first switching power supply or power supplied from the power storage device to a second converted power, and supply the second converted power to a load device; a noise filter configured to reduce noise generated in the first switching power supply and the second switching power supply; and a shield covering the first switching power supply, the second switching power supply (104,202), and the noise filter, wherein the noise filter is interposed on a current path between the first switching power supply and the power storage device, between the power storage device and the second switching power supply, and between the power storage device and a branch point at which a power line from the first switching power supply to the power storage device intersects a power line from the second switching power supply (104,202) to the power storage device; and wherein a current capacity of the noise filter is higher than any of a first maximum value of a current that flows from the first switching power supply and a second maximum value of a current that flows to the second switching power supply (104,202), and is lower than the total value of the first maximum value and the second maximum value.