mhurhangee/ep-ind-claims huggingface dataset:
A quantum system (10, 50, 100) comprising: a qubit (20, 30, 70, 80, 104); a transmission line resonator (12, 60, 102) having an associated resonant wavelength; a coupling capacitor (22, 32, 72, 82) configured to capacitively couple the qubit (20, 30, 70, 80) to the transmission line resonator (12, 60, 102); and a transformer (24, 34, 74, 84)configured to inductively couple the qubit (20, 30, 70, 80, 104) to the transmission line resonator (12, 60, 102); wherein a selected one of an associated capacitance of the coupling capacitor (22, 32, 72, 82) and an associated mutual inductance of the transformer (24, 34, 74, 84) is a function of a location of the qubit (20, 30, 70, 80, 104), wherein the qubit (20, 30, 70, 80, 104) is remote from any node or antinode of the transmission line resonator (12, 60, 102) and the location is defined as a distance in radians along the transmission line resonator (12, 60, 102) from an end of the transmission line resonator (12, 60, 102), to provide a total coupling strength for the qubit (20, 30, 70, 80, 104), equal to a sum of a capacitive couple strength associated with the coupling capacitor (22, 32, 72, 82) and an inductive coupling strength associated with the transformer (24, 34, 74, 84), that can be made independent of the location of the qubit (20, 30, 70, 80, 104) along the transmission line resonator (12, 60, 102), such that the total coupling strength is constant across the length of the transmission line resonator (12, 60, 102). a qubit (20, 30, 70, 80, 104); a transmission line resonator (12, 60, 102) having an associated resonant wavelength; a coupling capacitor (22, 32, 72, 82) configured to capacitively couple the qubit (20, 30, 70, 80) to the transmission line resonator (12, 60, 102); and
A rotary encoder comprising: a rotatable shaft; a planar magnetic encoder disc comprising a plurality of linear, areal, and/or other geometric magnetic features (16,16A,16B,16C,34,34A) distributed over a surface of the planar encoder disc attached to an end of the rotatable shaft, wherein the linear, areal, and/or other geometric magnetic features (16...34A) are interrupted by blank spaces which are spaced in such a manner to provide additional information; a cylindrical magnetic encoder feature comprising a plurality of linear, areal, and/or other geometric magnetic features (18,18A,36,36A) distributed over a surface of the cylindrical magnetic encoder feature attached to an outer diameter surface of the rotatable shaft, wherein the linear, areal, and/or other geometric magnetic features (18...36A) are interrupted by blank spaces which are spaced in such a manner to provide additional information; and a first magnetic sensor (20,38) positioned adjacent to the end of the rotatable shaft to detect magnetic signals from the magnetic features (16...34A) on the planar encoder disc, and a second magnetic sensor (22,42) positioned adjacent to the outer diameter surface of the rotatable shaft to detect magnetic signals from the magnetic features (18...36A) on the cylindrical magnetic encoding feature. a rotatable shaft; a planar magnetic encoder disc comprising a plurality of linear, areal, and/or other geometric magnetic features (16,16A,16B,16C,34,34A) distributed over a surface of the planar encoder disc attached to an end of the rotatable shaft, wherein the linear, areal, and/or other geometric magnetic features (16...34A) are interrupted by blank spaces which are spaced in such a manner to provide additional information; a cylindrical magnetic encoder feature comprising a plurality of linear, areal, and/or other geometric magnetic features (18,18A,36,36A) distributed over a surface of the cylindrical magnetic encoder feature attached to an outer diameter surface of the rotatable shaft, wherein the linear, areal, and/or other geometric magnetic features (18...36A) are interrupted by blank spaces which are spaced in such a manner to provide additional information; and a first magnetic sensor (20,38) positioned adjacent to the end of the rotatable shaft to detect magnetic signals from the magnetic features (16...34A) on the planar encoder disc, and a second magnetic sensor (22,42) positioned adjacent to the outer diameter surface of the rotatable shaft to detect magnetic signals from the magnetic features (18...36A) on the cylindrical magnetic encoding feature.
A method for vaporizing liquid propane which is to be injected as a raw material into a naphatha cracking reactor, the method for vaporizing liquid propane comprising: S1) decompressing liquid propane to lower a vaporization point to vaporize at least a portion of the liquid propane; S2) utilizing vaporization heat based on vaporization of the liquid propane, as a refrigerant; S3) compressing the vaporized propane gas to increase pressure of a gas; and S4) preheating the compressed propane gas; wherein, in the decompression step S1), the pressure of the liquid propane is reduced to 1 kg/cm 2 G or less, and in step S2), the vaporization heat based on the liquid propane is used as a refrigerant having a temperature a temperature ranging from -20°C to -30°C. S1) decompressing liquid propane to lower a vaporization point to vaporize at least a portion of the liquid propane; S2) utilizing vaporization heat based on vaporization of the liquid propane, as a refrigerant; S3) compressing the vaporized propane gas to increase pressure of a gas; and S4) preheating the compressed propane gas; wherein, in the decompression step S1), the pressure of the liquid propane is reduced to 1 kg/cm 2 G or less, and in step S2), the vaporization heat based on the liquid propane is used as a refrigerant having a temperature a temperature ranging from -20°C to -30°C.
A vehicle control device for hybrid vehicles comprising: a power source including an engine and a motor; a high power battery that supplies power to the motor; and an electric leakage detection means that detects an occurrence of an electric leakage of a strong current system that is routed from the high power battery to the motor, characterized by a mode controller that prohibits a mode switch between an HEV mode for traveling by a drive force of the engine and the motor, and an EV mode for traveling by the drive force of only the motor, during a period in which a presence /absence of an electric leakage is being detected by the electric leakage detection means. a power source including an engine and a motor; a high power battery that supplies power to the motor; and an electric leakage detection means that detects an occurrence of an electric leakage of a strong current system that is routed from the high power battery to the motor, characterized by a mode controller that prohibits a mode switch between an HEV mode for traveling by a drive force of the engine and the motor, and an EV mode for traveling by the drive force of only the motor, during a period in which a presence /absence of an electric leakage is being detected by the electric leakage detection means.
A system for displaying items, which system comprises a panel and one or more display accessories (3, 4, 5, 32, 35), wherein said panel comprises at least one magnetic surface and said one or more display accessories (3, 4, 5, 32, 35) are adapted to magnetically attach to said panel, a display accessory (3, 4, 5, 32, 35) comprises one or more support elements (31, 33, 34, 36) attached or integrated underneath said display accessory (3, 4, 5, 32, 35), wherein said one or more support elements (31, 33, 34, 36) are formed so as to absorb the pressure due to the weight of said display accessory (3, 4, 5, 32, 35) and the items displayed by said display accessory (3, 4, 5, 32, 35), wherein the panel is plane and the support elements (31, 33, 34, 36) comprise a plane contact surface adapted to bear against the panel, said one or more support elements (31, 33, 34, 36) having a triangular, squared, half-arched or half-circular profile, characterised in that the one or more support elements (31, 33, 34, 36) is/are extending along a whole width and underneath of said display accessory, or is/are placed underneath a middle of said display accessory and extending for a portion of the width, or a plurality support elements (31, 33, 34, 36) is displaced underneath said display accessory along portions of the width of said display accessory.
An immunostimulatory oligonucleotide having the structure 5'-TCG 1 AACG 1 TTCG 1 -X-G 1 CTTG 1 CAAG 1 CT-5'; wherein X is a glycerol linker and G 1 is 2'-deoxy-7-deazaguanosine.
A rotary movement converting mechanism for converting a rotary movement into a linear movement, comprising: a rotary body having a spiral groove on the inner circumference thereof; a movable body; a body frame; an approximately cylindrical support body fixed to the body frame and provided with a slit along an axial direction of the rotary body; a top member provided to the movable body, an engaging member of the top member being inserted through the slit so that a tip end of the engaging member is engaged with the spiral groove; and a clamp screw that stops a linear movement of the movable body when a load is applied on the linear movement of the movable body; characterized in that the top member is configured to be rotatable around an axis extending in a direction orthogonal to the axial direction of the rotary body, and the clamp screw (41 C) is configured to advance toward the inner circumference of the support body in accordance with a rotation of the top member when the load is applied to the linear movement of the movable body, and is in contact with the inner circumference of the support body. a rotary body having a spiral groove on the inner circumference thereof; a movable body; a body frame; an approximately cylindrical support body fixed to the body frame and provided with a slit along an axial direction of the rotary body; a top member provided to the movable body, an engaging member of the top member being inserted through the slit so that a tip end of the engaging member is engaged with the spiral groove; and a clamp screw that stops a linear movement of the movable body when a load is applied on the linear movement of the movable body; characterized in that the top member is configured to be rotatable around an axis extending in a direction orthogonal to the axial direction of the rotary body, and the clamp screw (41 C) is configured to advance toward the inner circumference of the support body in accordance with a rotation of the top member when the load is applied to the linear movement of the movable body, and is in contact with the inner circumference of the support body.
A rotary phase separator for a space environment, comprising: a housing defining a separator chamber therein; a shaft disposed along a longitudinal axis of the rotary phase separator inside of the housing, relative motion between the housing and the shaft about the longitudinal axis urging separation of gas and liquid from a two-phase liquid and gas fluid in the separator chamber; and one or more magnetic bearing assemblies supportive of the shaft relative to the housing; and characterized by further comprising a plurality of discs positioned along the shaft and rotatable about the longitudinal axis with the shaft, the plurality of discs configured to urge separation of the gas and liquid from the two-phase liquid and gas fluid in the separator chamber; wherein each of the magnetic bearing assemblies includes: a radial bearing rotor disposed inside of the housing at the shaft; and a radial bearing stator disposed outside of the housing. a housing defining a separator chamber therein; a shaft disposed along a longitudinal axis of the rotary phase separator inside of the housing, relative motion between the housing and the shaft about the longitudinal axis urging separation of gas and liquid from a two-phase liquid and gas fluid in the separator chamber; and one or more magnetic bearing assemblies supportive of the shaft relative to the housing; and characterized by further comprising a plurality of discs positioned along the shaft and rotatable about the longitudinal axis with the shaft, the plurality of discs configured to urge separation of the gas and liquid from the two-phase liquid and gas fluid in the separator chamber; wherein each of the magnetic bearing assemblies includes: a radial bearing rotor disposed inside of the housing at the shaft; and a radial bearing stator disposed outside of the housing. a radial bearing rotor disposed inside of the housing at the shaft; and a radial bearing stator disposed outside of the housing.
A method of analyzing particle size distribution of particles in metal, comprising: isolating particles contained in a metal material to be analyzed, by electrolytic extraction in a solution containing a surfactant whose concentration is 0.0001% by mass to 10% by mass, using a particle extractor; further dispersing the particles isolated by extraction into an organic solvent containing a surfactant to prepare a dispersion, and fractionating the dispersion into a plurality of particle dispersions based on particle sizes, using a field flow fractionator; and irradiating laser light on each of the particle dispersions separated based on predetermined particle sizes, to thereby measure absolute values of the particle size based on angular dependence of reflection intensity, and also to thereby measure the number density based on magnitude of reflection intensity. isolating particles contained in a metal material to be analyzed, by electrolytic extraction in a solution containing a surfactant whose concentration is 0.0001% by mass to 10% by mass, using a particle extractor; further dispersing the particles isolated by extraction into an organic solvent containing a surfactant to prepare a dispersion, and fractionating the dispersion into a plurality of particle dispersions based on particle sizes, using a field flow fractionator; and irradiating laser light on each of the particle dispersions separated based on predetermined particle sizes, to thereby measure absolute values of the particle size based on angular dependence of reflection intensity, and also to thereby measure the number density based on magnitude of reflection intensity.
A cannulation assembly comprising a housing (14a, 14b); a needle selectively extendable from a proximal end of said housing; a tube arranged to pass through the housing and through a bore of said needle such that an insertion end of said tube is arranged to selectively project from an insertion end of said needle; a slide mounted to the needle in sliding engagement with the housing and arranged to move the needle from a retracted position to an insertion position such that the needle projects from said housing; wherein said slide is further arranged to move the needle from the insertion position to a locked position such that the needle is fully retracted; characterised in that the insertion end of the tube is spherical in shape, said spherical insertion end arranged to form an annular seal against an inside diameter of the needle.
Aqueous solution containing aluminum ions, characterized in that the solution comprises aluminum ions in a proportion of 1.5 % - 15 % by weight (converted, if necessary, to Al 3+) based on the total mass of the solution, as well as anions of lactic acid (lactate ions) and of phosphoric acid (phosphate ions), wherein the molar proportion of the lactate ions is in the range of 0.01 - 2.99 times the molar proportion of Al 3+, and the molar proportion of phosphate ions is in the range of 0.01 - 2.99 times the molar proportion of Al 3+.
A studless winter tire, comprising a tread formed from a rubber composition, the rubber composition comprising, per 100 parts by mass of a rubber component, 1 to 50 parts by mass of a farnesene resin obtained by polymerizing farnesene, wherein, based on 100% by mass of the rubber component, an amount of natural rubber is 35 to 70% by mass and an amount of butadiene rubber is 30 to 65% by mass.
Composite profile for windows, fixed glazing, facades, doors or glass roofs, comprising a metal profile that is produced from a sheet metal material by forming, in particular by roll forming, which has a profile cross-section forming a groove and a web, the web being formed from profile portions (3.1, 3.2) which are one on top of the other at least in portions and transition into profile portions (2.1, 2.2), which delimit the groove, further comprising an insulator profile of integral or multi-piece design, which is accommodated in the groove of the metal profile in portions and is connected to the metal profile in a non-positive and/or positive-locking manner, the insulator profile and/or a further profile accommodated in the groove of the metal profile engaging in pockets of the metal profile which are open towards the groove and which are arranged on both sides of the web, characterized in that the pockets have lateral boundaries which, at least in portions, extend parallel to one another and parallel with respect to the profile portions (3.1, 3.2) forming the web.
An agrochemical formulation comprising microencapsulated lambda-cyhalothrin suspended in water, characterized in that - the microcapsules are made of a polyurethane, - at least 90% of the microcapsules have a diameter of less than 13 μm, and it further comprises suspended particles of imidacloprid, wherein the concentration of lambda-cyhalothrin ranges between 9 and 15 g/l, and the concentration of imidacloprid ranges between 50 and 100 g/l. - the microcapsules are made of a polyurethane, - at least 90% of the microcapsules have a diameter of less than 13 μm, and it further comprises suspended particles of imidacloprid, wherein the concentration of lambda-cyhalothrin ranges between 9 and 15 g/l, and the concentration of imidacloprid ranges between 50 and 100 g/l.
A motorized linkage mechanism for an adjustable seating unit having forward and rearward ends (101, 103), and spaced apart first and second sides (120, 122), the linkage mechanism comprising: a pair of seat mounting plates, spaced from one another; a back crossbar coupled between the pair of seat mounting plates at the rearward end of the seating unit; an ottoman crossbar coupled between the pair of seat mounting plates at the forward end of the seating unit; an ottoman drive tube assembly coupled between the pair of seat mounting plates between the forward and rearward ends (101, 103), the drive tube assembly comprising: a pair of lock mounting plates coupled respectively to the pair of seat mounting plates, a pair of ottoman control links rotatably coupled respectively to the pair of lock mounting plates, a drive tube fixedly coupled to the pair of ottoman control links and extending at least partially between the first side and the second side of the seating unit; a pair of footrest drive links having first and second ends (140, 142), the pair of footrest drive links rotatably coupled respectively to the pair of ottoman control links at the first ends, a pair of rear pivot links, the pair of rear pivot links rotatably coupled respectively to the second ends of the pair of footrest drive links, the pair of rear pivot links being rotatably coupled respectively to the pair of seat mounting plates; a pair of base plates slidably coupled respectively to the pair of rear pivot links, and at least one lock bracket (64, 176, 180) fixedly coupled to the drive tube between the first side and the second side, and inwardly spaced from the pair of seat mounting plates, at least one lock link coupled to the at least one lock bracket (64, 176, 180), the at least one lock link rotatably coupled to the ottoman crossbar; and a motorized drive mechanism coupled to the back crossbar and to the drive tube.
A method of unlocking a device, comprising: displaying a first user interface indicating that a screen of the device changes from a disabled state to an enabled state; receiving a hovering input of a user; determining whether the hovering input is an input by an input tool or an input by a body part of the user; selecting a second user interface from among a plurality of user interfaces for unlocking the device, when the hovering input is inputted by the input tool of the user, wherein the plurality of user interfaces include a third user interface for receiving a touch input by the body part of the user and the second user interface for receiving a touch input by the input tool; selecting the third user interface when the hovering input is input by a body part of the user; and changing the first user interface to the second user interface or the third user interface on the screen of the device, wherein the device includes a first sensor for detecting an input by the input tool and a second sensor for detecting a touch input by the body part of the user and wherein determining whether the hovering input is an input by an input tool or an input by a body part of the user comprises determining which of the first sensor and the second sensor detects the hovering input, wherein the second user interface is a user interface for receiving a signature input of the user, and the third user interface comprises one of a user interface for receiving a pattern input of the user or a user interface for receiving a password input of the user. displaying a first user interface indicating that a screen of the device changes from a disabled state to an enabled state; receiving a hovering input of a user; determining whether the hovering input is an input by an input tool or an input by a body part of the user; selecting a second user interface from among a plurality of user interfaces for unlocking the device, when the hovering input is inputted by the input tool of the user, wherein the plurality of user interfaces include a third user interface for receiving a touch input by the body part of the user and the second user interface for receiving a touch input by the input tool; selecting the third user interface when the hovering input is input by a body part of the user; and changing the first user interface to the second user interface or the third user interface on the screen of the device, wherein the device includes a first sensor for detecting an input by the input tool and a second sensor for detecting a touch input by the body part of the user and wherein determining whether the hovering input is an input by an input tool or an input by a body part of the user comprises determining which of the first sensor and the second sensor detects the hovering input, wherein the second user interface is a user interface for receiving a signature input of the user, and the third user interface comprises one of a user interface for receiving a pattern input of the user or a user interface for receiving a password input of the user.