mhurhangee/patent-ind-claim-en huggingface dataset:
A quantum memory device operable at temperatures in the range of about 0°C to about 100°C, comprising: an inner structural frame; an outer shell surrounding the inner structural frame; a probe input configured to receive a probe-field photon beam including quantum information encoded in polarization states of one or more photons of the probe-field photon beam; a control input configured to receive a control-field photon beam; a quantum memory module optically coupled to the probe input and the control input and comprising at least one vapor cell configured to store the quantum information as photons of two independent photon beams, each of the two independent photon beams being a merged beam formed via a split beam of the quantum information and a split beam of the control-field photon beam; a filtering module optically coupled to the quantum memory module and configured to retrieve the quantum information therefrom; and an output configured to output the quantum information from the filtering module wherein the quantum memory module and filtering module are disposed within the outer shell and supported by the inner structural frame which attaches the filtering module to the quantum memory module such that the quantum memory device is portable. an inner structural frame; an outer shell surrounding the inner structural frame; a probe input configured to receive a probe-field photon beam including quantum information encoded in polarization states of one or more photons of the probe-field photon beam; a control input configured to receive a control-field photon beam; a quantum memory module optically coupled to the probe input and the control input and comprising at least one vapor cell configured to store the quantum information as photons of two independent photon beams, each of the two independent photon beams being a merged beam formed via a split beam of the quantum information and a split beam of the control-field photon beam; a filtering module optically coupled to the quantum memory module and configured to retrieve the quantum information therefrom; and an output configured to output the quantum information from the filtering module wherein the quantum memory module and filtering module are disposed within the outer shell and supported by the inner structural frame which attaches the filtering module to the quantum memory module such that the quantum memory device is portable.
An electric power steering apparatus comprising a vector control system that is configured to calculate steering assist command values of dq axes based on at least a steering torque, to calculate dq-axes current command values from said steering assist command values, to convert said dq-axes current command values into dq-axes voltage command values, to convert said dq-axes voltage command values into 3-phase voltage command values, to convert said 3-phase voltage command values unto 3-phase duty command values, to driving-control a 3-phase brushless motor by an inverter of a pulse width modulation (PWM) control, and to apply an assist torque to a steering system of a vehicle, characterized in that said electric power steering apparatus has two dead time compensating functions A and B of which efficiencies to respectively perform a dead time compensation of said inverter are different each other, and comprises a dead time compensating section A that is configured to input said q-axis steering assist command value (iqref), the inverter-applying voltage (Vr) applied to the inverter, the motor rotational angle (θ) and the motor rotational number (ω), and is configured to calculate first dq-axes compensation values (VdA, VqA), a dead time compensating section B that is configured to input said dq-axes current command values (id*, iq*), said inverter-applying voltage, said motor rotational angle and said motor rotational number, and is configured to calculate second dq-axes compensation values (VdB, VqB); and a compensation value switching section that is configured to output said second dq-axes compensation values (VdB, VqB) as dq-axes dead time compensation values (Vd*, Vq*) when said d-axis current command value is near zero, the absolute value of said q-axis current command value is equal to or more than a first threshold value and the absolute value of said motor rotational number is equal to or more than a second threshold value, and to output said first dq-axes compensation values (VdA, VqA) as dq-axes dead time compensation values otherwise.
Driver arrangement, comprising: - a digital controller that is configured to receive a digital input signal (SDI), - a driver that comprises a driver input and a driver output and is configured to provide an analog output signal (SANO) at the driver output and - a coupling circuit that comprises a digital-to-analog converter , a feedback circuit and a change-over switch , wherein the digital-to-analog converter comprises a converter input coupled to the digital controller and a converter output and the feedback circuit is coupled to the driver output and to a feedback input of the digital controller , characterized in that in a driving phase (D), the converter output is coupled to the driver input via the change-over switch and in a sense phase (S), the converter output is connected to an input of the feedback circuit via the change-over switch , wherein the driving phase (D) follows the sense phase (S) that in turn follows a previous driving phase. - a digital controller that is configured to receive a digital input signal (SDI), - a driver that comprises a driver input and a driver output and is configured to provide an analog output signal (SANO) at the driver output and - a coupling circuit that comprises a digital-to-analog converter , a feedback circuit and a change-over switch ,
A dye composition comprising a) at least one anionic azo dye being C.I. acid brown 161 alone or in combination with C.I. acid black 210; b) at least one anionic metal-complex azo dye being C.I. acid brown 365 alone or in combination with C.I. acid black 194; c) ≥ 5.0 to ≤ 60.0 % by weight of at least one water-miscible organic solvent; d) ≥ 30.0 to ≤ 95.0 % by weight of water wherein the weight ratio of anionic azo dye to anionic metal-complex azo dye is in the range of ≥0.1:1 to ≤ 1:1. a) at least one anionic azo dye being C.I. acid brown 161 alone or in combination with C.I. acid black 210; b) at least one anionic metal-complex azo dye being C.I. acid brown 365 alone or in combination with C.I. acid black 194; c) ≥ 5.0 to ≤ 60.0 % by weight of at least one water-miscible organic solvent; d) ≥ 30.0 to ≤ 95.0 % by weight of water
A power conversion assembly comprising: a housing comprising a frame and a roof , the roof comprises a fixed roof portion which is fixedly fastened to the frame ; a power conversion system accommodated in the housing , the power conversion system comprising a transformer adapted to increase alternating voltage, the transformer has a terminal system for connecting the transformer to other components of the power conversion assembly, the terminal system comprising at least one high voltage terminal located in an upper part of the transformer , the upper part of the transformer being located closer to the roof of the housing than an lower part of the transformer , wherein the housing comprises an extension element , and the roof comprises an extension roof portion attached to the extension element , characterized in that the extension element is adapted to be fastened to the frame in a lower position with a plurality of bolt joints , and in an upper position with a plurality of bolt joints , the lower position and the upper position being spaced apart in a height direction of the housing such that in the lower position of the extension element the extension roof portion forms a substantially uniform roof surface with the fixed roof portion . a housing comprising a frame and a roof , the roof comprises a fixed roof portion which is fixedly fastened to the frame ; a power conversion system accommodated in the housing , the power conversion system comprising a transformer adapted to increase alternating voltage, the transformer has a terminal system for connecting the transformer to other components of the power conversion assembly, the terminal system comprising at least one high voltage terminal located in an upper part of the transformer , the upper part of the transformer being located closer to the roof of the housing than an lower part of the transformer , wherein the housing comprises an extension element , and the roof comprises an extension roof portion attached to the extension element , characterized in that the extension element is adapted to be fastened to the frame in a lower position with a plurality of bolt joints , and in an upper position with a plurality of bolt joints , the lower position and the upper position being spaced apart in a height direction of the housing such that in the lower position of the extension element the extension roof portion forms a substantially uniform roof surface with the fixed roof portion .
A printing device, comprising: a printhead comprising a plurality of nozzles configured to eject printing material drops; at least one first emission device positioned proximate the printhead and configured to emit a first type of energy; a second emission device configured to emit a second type of energy different to the first type; a print engine configured to: control ejection of printing material drops from the plurality of nozzles ; and control emission of energy by the at least one first emission device to thereby expose ejected printing material drops to emitted energy of the first type to change at least one material property of ejected printing material drops before ejected printing material drops contact a surface of a physical medium, wherein the physical medium is exposed to the second type of energy, emitted by the second emission device, to change at least one material property of the physical medium a printhead comprising a plurality of nozzles configured to eject printing material drops; at least one first emission device positioned proximate the printhead and configured to emit a first type of energy; a second emission device configured to emit a second type of energy different to the first type; a print engine configured to: control ejection of printing material drops from the plurality of nozzles ; and control emission of energy by the at least one first emission device to thereby expose ejected printing material drops to emitted energy of the first type to change at least one material property of ejected printing material drops before ejected printing material drops contact a surface of a physical medium, wherein the physical medium is exposed to the second type of energy, emitted by the second emission device, to change at least one material property of the physical medium control ejection of printing material drops from the plurality of nozzles ; and control emission of energy by the at least one first emission device to thereby expose ejected printing material drops to emitted energy of the first type to change at least one material property of ejected printing material drops before ejected printing material drops contact a surface of a physical medium, wherein the physical medium is exposed to the second type of energy, emitted by the second emission device, to change at least one material property of the physical medium
A method of steam cracking using a steam cracking arrangement (2100-2800) including an electric cracking furnace without a convection zone and further including a quench cooling train , wherein a process gas stream is passed at least through the electric cracking furnace and the quench cooling train , characterized in that the quench cooling train is operated to comprise at least two distinct cooling steps arranged in either order, wherein in a first one of the cooling steps at least a part of the process gas stream withdrawn from the electric cracking furnace is cooled against vaporizing boiler feed water at an absolute pressure level between 30 and 175 bar and wherein in a second one of the cooling steps at least a part of the process gas stream withdrawn from the electric cracking furnace is cooled against a superheated mixture of feed hydrocarbons and process steam used in forming the process gas stream which is thereby heated to a temperature level between 350 and 750°C.
A plant for producing mechanical energy from a carrier fluid under cryogenic conditions, comprising: - a cryogenic tank configured for storing said carrier fluid under said cryogenic conditions; - a capacitive tank ; - a supply circuit , connecting said cryogenic tank to said capacitive tank and comprising a pump , configured to increase the pressure of said carrier fluid, and a main heat exchanger , arranged downstream of said pump and configured to promote a thermal exchange between a thermal source and said carrier fluid so as to increase the temperature of said carrier fluid and evaporate said carrier fluid; - an engine body , configured for producing said mechanical energy and comprising at least one work chamber having an inlet port , arranged in fluid communication with said capacitive tank , and an outlet port connected to a discharge circuit for the spent carrier fluid; characterised in that it comprises a recirculation circuit designed to convey a portion of said spent carrier fluid into said capacitive tank . - a cryogenic tank configured for storing said carrier fluid under said cryogenic conditions; - a capacitive tank ; - a supply circuit , connecting said cryogenic tank to said capacitive tank and comprising a pump , configured to increase the pressure of said carrier fluid, and a main heat exchanger , arranged downstream of said pump and configured to promote a thermal exchange between a thermal source and said carrier fluid so as to increase the temperature of said carrier fluid and evaporate said carrier fluid; - an engine body , configured for producing said mechanical energy and comprising at least one work chamber having an inlet port , arranged in fluid communication with said capacitive tank , and an outlet port connected to a discharge circuit for the spent carrier fluid;
A welding method comprising: generating a control waveform for welding power output, the waveform comprising at least one peak phase followed by at least one knee phase , having a different current level than the preceding and the subsequent phase, and dabbing phase providing a brief short circuit, followed by at least one background phase ; and converting incoming power to welding power based upon the control waveform , characterized in that the peak phase is followed by an elevated current knee phase and a subsequent dabbing phase , or the peak phase is followed by the dabbing phase and a subsequent knee phase . generating a control waveform for welding power output, the waveform comprising at least one peak phase followed by at least one knee phase , having a different current level than the preceding and the subsequent phase, and dabbing phase providing a brief short circuit, followed by at least one background phase ; and converting incoming power to welding power based upon the control waveform , characterized in that the peak phase is followed by an elevated current knee phase and a subsequent dabbing phase , or the peak phase is followed by the dabbing phase and a subsequent knee phase .
An apparatus comprising: a housing, wherein the housing includes a first port for coupling to a communications medium and an externally accessible second port for coupling to a different local medium; an ambient condition sensor carried by the housing; and control circuits in the housing coupled to the ambient condition sensor, wherein the control circuits include modulation circuits that, responsive to detection of a predetermined condition by the ambient condition sensor, generate one of a frequency modulated power signal or an amplitude modulated power signal at the externally accessible second port for driving an electrical load of at least one output device coupled to the local medium, wherein the signal specifies at least one of a tone of an output device, a volume of an output device, or a flash mode of an output device. a housing, wherein the housing includes a first port for coupling to a communications medium and an externally accessible second port for coupling to a different local medium; an ambient condition sensor carried by the housing; and control circuits in the housing coupled to the ambient condition sensor, wherein the control circuits include modulation circuits that, responsive to detection of a predetermined condition by the ambient condition sensor, generate one of a frequency modulated power signal or an amplitude modulated power signal at the externally accessible second port for driving an electrical load of at least one output device coupled to the local medium, wherein the signal specifies at least one of a tone of an output device, a volume of an output device, or a flash mode of an output device.
A pneumatic tire comprising a noise damper fixed to a tire inner cavity surface of a tread portion and formed of a porous material, wherein the noise damper includes a first part arranged on an outer side in a tire radial direction and fixed to the tire inner cavity surface, and a second part arranged on an inner side in the tire radial direction of the first part and exposed in a tire inner cavity, a water absorption rate of the first part is in a range of from 5% to 25%, the water absorption rate being calculated by a following formula : water absortpion rate % = weight change before and after immersion g / volume at 50 ⁢ % compression cm 3 × 100 and air permeability of the second part measured in accordance with Japanese Industrial Standard JIS-L1096 is in a range of from 1 to 7 cm3/cm2/s.
A DNA construct comprising a polynucleotide fragment, said polynucleotide fragment comprising a first, and a second sequence, wherein said first sequence encodes a mitochondrial transit peptide, said second sequence encodes a polypeptide having amino acid sequence as set forth in SEQ ID NO: 1, and said polynucleotide fragment is operably linked to a flower specific promoter.
Submarine with at least one first opening between the interior of the submarine and the surrounding water area, wherein the first opening is connected to a first cover , wherein the first opening can be closed with the first cover , wherein the first cover is mounted rotatably about a first axis of rotation , wherein the submarine has a first first rotational drive wherein the first first rotary drive is arranged on the first axis of rotation , wherein the first first rotary drive is designed to rotate the first cover about the first axis of rotation and is connected to the first opening and the first cover for this purpose, wherein the first first rotary drive is driven hydraulically, pneumatically or electrically, pneumatically or electrically driven, characterised in that the submarine has a second first rotary drive , the second first rotary drive being arranged on the first axis of rotation , the first first rotary drive and the second first rotary drive being arranged on opposite sides of the first cover of the first axis of rotation , wherein the second first rotary drive is designed to rotate the first lid about the first axis of rotation and is connected to the first opening and the first lid for this purpose, wherein the second first rotary drive is driven hydraulically, pneumatically or electrically.
A method comprising, at a base station : allocating a resource pool of physical resource blocks, PRBs, and sub-frames for vehicle-to-vehicle, V2V, sidelink transmissions; decoding, from a User Equipment, UE, an uplink control message that indicates that the UE requests a V2V sidelink transmission of a prioritized message; selecting, for the V2V sidelink transmission of the prioritized message, one or more PRBs of the resource pool and one or more sub-frames of the resource pool; and encoding, for transmission to the UE and to other UEs, a downlink control message that indicates: the selected PRBs, the selected sub-frames, and that the other UEs are to mute sidelink transmissions in the selected PRBs in the selected sub-frames to enable the V2V sidelink transmission of the prioritized message; storing in a memory information identifying the selected PRBs and the selected sub-frames. allocating a resource pool of physical resource blocks, PRBs, and sub-frames for vehicle-to-vehicle, V2V, sidelink transmissions; decoding, from a User Equipment, UE, an uplink control message that indicates that the UE requests a V2V sidelink transmission of a prioritized message; selecting, for the V2V sidelink transmission of the prioritized message, one or more PRBs of the resource pool and one or more sub-frames of the resource pool; and encoding, for transmission to the UE and to other UEs, a downlink control message that indicates: the selected PRBs, the selected sub-frames, and that the other UEs are to mute sidelink transmissions in the selected PRBs in the selected sub-frames to enable the V2V sidelink transmission of the prioritized message; the selected PRBs, the selected sub-frames, and that the other UEs are to mute sidelink transmissions in the selected PRBs in the selected sub-frames to enable the V2V sidelink transmission of the prioritized message; storing in a memory information identifying the selected PRBs and the selected sub-frames.
A combination comprising zidovudine and a polymyxin selected from colistin and polymyxin B, or a pharmaceutically acceptable salt thereof, for use in treating a gram-negative bacterial infection, wherein the combination exhibits synergistic antibacterial activity against the gram-negative bacteria as compared to the administration of the combination components taken alone.
A method for preparing a rare earth permanent magnet, comprising the steps of: immersing a portion of a sintered magnet body in an electrodepositing bath of a powder dispersed in a solvent, said magnet body having a R 1 -Fe-B base composition wherein R 1 is at least one element selected from rare earth elements inclusive of Y and Sc, said powder comprising at least one member selected from the group consisting of an oxide of R 2 , a fluoride of R 3 , an oxyfluoride of R 4 , a hydride of R 5 , and a rare earth alloy of R 6 wherein R 2 , R 3 , R 4 , R 5 and R 6 each are at least one element selected from rare earth elements inclusive of Y and Sc, effecting electrodeposition for letting the powder deposit on the preselected region of the surface of the magnet body, and heat treating the magnet body with the powder deposited on the preselected region of its surface at a temperature equal to or less than the sintering temperature of the magnet body in vacuum or in an inert gas; characterized in that the method comprises partially immersing the sintered magnet body in the magnetic anisotropic direction in the electrodepositing bath of a powder dispersed in a solvent rather than immersing the magnet body entirely. immersing a portion of a sintered magnet body in an electrodepositing bath of a powder dispersed in a solvent, said magnet body having a R 1 -Fe-B base composition wherein R 1 is at least one element selected from rare earth elements inclusive of Y and Sc, said powder comprising at least one member selected from the group consisting of an oxide of R 2 , a fluoride of R 3 , an oxyfluoride of R 4 , a hydride of R 5 , and a rare earth alloy of R 6 wherein R 2 , R 3 , R 4 , R 5 and R 6 each are at least one element selected from rare earth elements inclusive of Y and Sc, effecting electrodeposition for letting the powder deposit on the preselected region of the surface of the magnet body, and heat treating the magnet body with the powder deposited on the preselected region of its surface at a temperature equal to or less than the sintering temperature of the magnet body in vacuum or in an inert gas; characterized in that the method comprises partially immersing the sintered magnet body in the magnetic anisotropic direction in the electrodepositing bath of a powder dispersed in a solvent rather than immersing the magnet body entirely.