mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus, comprising: a rotary position sensor housing having an annular center portion defining a bore adapted to receive a shaft, wherein the annular center portion is a part of the rotatory position sensor housing; a first rotor disposed in the rotary position sensor housing , the first rotor individually rotatable in the rotary position sensor housing on a first side of, and coaxial with, the center portion ; and a second rotor disposed in the rotary position sensor housing on a second side of, and coaxial with, the center portion , the second rotor individually rotatable in the rotary position sensor housing ; and a ring element disposed within the rotary position sensor housing between the first rotor and the second rotor , an inner circumference of the ring element engaging the center portion , and an outer circumference of the ring element engaging an interior of the rotary position sensor housing , so that the ring element is held fixedly in place by the center portion and the interior of the housing, wherein the ring element provides a dividing barrier between the first rotor and the second rotor to minimize friction between the first rotor and the second rotor, wherein the ring element comprises a ferromagnetic material. a rotary position sensor housing having an annular center portion defining a bore adapted to receive a shaft, wherein the annular center portion is a part of the rotatory position sensor housing; a first rotor disposed in the rotary position sensor housing , the first rotor individually rotatable in the rotary position sensor housing on a first side of, and coaxial with, the center portion ; and a second rotor disposed in the rotary position sensor housing on a second side of, and coaxial with, the center portion , the second rotor individually rotatable in the rotary position sensor housing ; and a ring element disposed within the rotary position sensor housing between the first rotor and the second rotor , an inner circumference of the ring element engaging the center portion , and an outer circumference of the ring element engaging an interior of the rotary position sensor housing , so that the ring element is held fixedly in place by the center portion and the interior of the housing, wherein the ring element provides a dividing barrier between the first rotor and the second rotor to minimize friction between the first rotor and the second rotor, wherein the ring element comprises a ferromagnetic material.
An electronic device for the control and readout of the electron or hole spin of a single dopant atom in silicon, comprising: a silicon substrate in which there are one or more ohmic contact regions; an insulating region on top of the substrate; first and second barrier gates spaced apart to isolate a small region of charges to form an island of a Single Electron Transistor (SET); a third gate overlying both the first and second barrier gates, but insulated from them, the third gate being able to generate a gate-induced charge layer (GICL) in the substrate beneath it; a fourth gate in close proximity to a single dopant atom, the dopant atom being encapsulated in the substrate outside the region of the GICL but close enough to allow readout of the electron or hole spin by detecting spin-dependent charge tunnelling between the dopant atom and the SET island under the control of gate potentials, mainly the fourth gate; wherein, either the third or fourth gate also serve as an Electron Spin Resonance (ESR) line to control the spin of the single electron or hole of the dopant atom. a silicon substrate in which there are one or more ohmic contact regions; an insulating region on top of the substrate; first and second barrier gates spaced apart to isolate a small region of charges to form an island of a Single Electron Transistor (SET); a third gate overlying both the first and second barrier gates, but insulated from them, the third gate being able to generate a gate-induced charge layer (GICL) in the substrate beneath it; a fourth gate in close proximity to a single dopant atom, the dopant atom being encapsulated in the substrate outside the region of the GICL but close enough to allow readout of the electron or hole spin by detecting spin-dependent charge tunnelling between the dopant atom and the SET island under the control of gate potentials, mainly the fourth gate; wherein, either the third or fourth gate also serve as an Electron Spin Resonance (ESR) line to control the spin of the single electron or hole of the dopant atom.
Facility comprising a movable part which is movable on a movement plane and which has a measuring unit in the form of a laser distance measuring device that emits a light beam and determines the distance to the measurement body by evaluating the reflected light, and comprising a measurement body which is located at a distance from the movement plane and from the plane situated parallel to the movement plane and containing the measuring unit , and which in particular is arranged as far from the movement plane as possible, wherein the measuring unit is designed such that it determines the distance between the measurement body and the measuring unit in a direction normal to the movement plane, wherein the measurement body is shaped such that, in the projection, in particular projection area, of the measurement body perpendicular to the plane, a distance value is bijectively associated with each of a plurality of in particular nonoverlapping partial surface regions of the projection area, characterized in that the movable part has a memory which is suitable for associating a circumferential angle and a radial distance with distance values relating to the measurement body , as deviation values, wherein a controller is designed to be suitable for determining a set value for the drive of the movable part such that the deviation values read from the memory and associated with the determined distance value are adjusted to a setpoint value. wherein the measuring unit is designed such that it determines the distance between the measurement body and the measuring unit in a direction normal to the movement plane, wherein the measurement body is shaped such that, in the projection, in particular projection area, of the measurement body perpendicular to the plane, a distance value is bijectively associated with each of a plurality of in particular nonoverlapping partial surface regions of the projection area, characterized in that the movable part has a memory which is suitable for associating a circumferential angle and a radial distance with distance values relating to the measurement body , as deviation values, wherein a controller is designed to be suitable for determining a set value for the drive of the movable part such that the deviation values read from the memory and associated with the determined distance value are adjusted to a setpoint value.
An artificial tissue obtained or obtainable by a method which comprises: a) adding a composition comprising fibrinogen to a sample of isolated cells, b) adding an anti-fibrinolytic agent to the product resulting from step (a), c) adding at least a coagulation factor, a source of calcium, thrombin, or any combination of the above to the product resulting from step (b), d) adding a multiple magnetic domain particle with a mean diameter greater than 25 nm, preferably coated with a polymeric material, wherein the polymeric material is preferably a polymer matrix of methyl methacrylate-co.hydroxylethyl methacrylate-co-ethylene glycol dimethacrylate (MMA-co-HEMA-co-EGDMA) to the product resulting from step (c), e) adding a composition of a polysaccharide to the product resulting from step (d), f) culturing isolated cells in or on the product resulting from step (e), and g) inducing the nanostructuring of the product resulting from step (f), by inducing a structural modification consisting of generating bonds having a size of less than one micron between the fibrin fibers and between fibrin fibers and the polysaccharide molecules, wherein a magnetic field is applied at least between steps (e) and (f). a) adding a composition comprising fibrinogen to a sample of isolated cells, b) adding an anti-fibrinolytic agent to the product resulting from step (a), c) adding at least a coagulation factor, a source of calcium, thrombin, or any combination of the above to the product resulting from step (b), d) adding a multiple magnetic domain particle with a mean diameter greater than 25 nm, preferably coated with a polymeric material, wherein the polymeric material is preferably a polymer matrix of methyl methacrylate-co.hydroxylethyl methacrylate-co-ethylene glycol dimethacrylate (MMA-co-HEMA-co-EGDMA) to the product resulting from step (c), e) adding a composition of a polysaccharide to the product resulting from step (d), f) culturing isolated cells in or on the product resulting from step (e), and g) inducing the nanostructuring of the product resulting from step (f), by inducing a structural modification consisting of generating bonds having a size of less than one micron between the fibrin fibers and between fibrin fibers and the polysaccharide molecules, wherein a magnetic field is applied at least between steps (e) and (f).
Apparatus for radioelectric communication comprising an electronic circuit , an antenna for the emission and/or the reception of radioelectric signals for wireless communication with an access network, and a strap serving as a fastener of the apparatus, characterised in that the antenna comprises an antenna loop , the antenna loop including a conductive plate and a case containing the electronic circuit and having at least one conductive face , the conductive plate of the antenna loop extends in parallel to and facing the conductive face of the case, the conductive plate and the conductive face of the case are electrically connected together on one side of the conductive face of the case and on the other side of the conductive face are electrically connected to the electronic circuit , and the strap comprises a conductive portion forming an antenna ground of the antenna, said conductive portion extends in parallel to and facing the conductive plate and electrically insulated from said conductive plate , in such a way that said conductive portion is capacitively coupled to said conductive plate .
A money processing machine used for settlement of a transaction performed in a store, the machine comprising: a banknote processing unit configured to perform depositing and dispensing of banknotes; a coin processing unit configured to perform depositing and dispensing of coins; and an accommodation unit configured to accommodate components to be connected to at least one of the banknote processing unit and the coin processing unit , wherein the components accommodated in the accommodation unit include a power supply unit for supplying power to the banknote processing unit and to the coin processing unit , the banknote processing unit , the coin processing unit , and the accommodation unit are disposed in a housing so as to be vertically aligned, and the accommodation unit is disposed between the banknote processing unit and the coin processing unit , and the banknote processing unit , the coin processing unit , and the accommodation unit are movable from a front surface side of the money processing machine , independently from each other. a banknote processing unit configured to perform depositing and dispensing of banknotes; a coin processing unit configured to perform depositing and dispensing of coins; and an accommodation unit configured to accommodate components to be connected to at least one of the banknote processing unit and the coin processing unit , wherein the components accommodated in the accommodation unit include a power supply unit for supplying power to the banknote processing unit and to the coin processing unit , the banknote processing unit , the coin processing unit , and the accommodation unit are disposed in a housing so as to be vertically aligned, and the accommodation unit is disposed between the banknote processing unit and the coin processing unit , and the banknote processing unit , the coin processing unit , and the accommodation unit are movable from a front surface side of the money processing machine , independently from each other.
A wireless communication method, comprising: in a case that duplication transmission of a first bearer is deactivated, determining, by a terminal device, a Radio Link Control, RLC, entity for transmitting a Packet Data Convergence Protocol, PDCP, Protocol Data Units, PDU, according to cell groups corresponding to a primary RLC entity and a secondary RLC entity among at least three RLC entities configured for the first bearer (S210), wherein the determining, by the terminal device, the RLC entity for transmitting the PDCP PDU according to the cell groups corresponding to the primary RLC entity and the secondary RLC entity among the at least three RLC entities configured for the first bearer (S210), comprises: based on there being a plurality of RLC entities in a Media Access Control, MAC, entity where the primary RLC entity is located, and there being an RLC entity in a MAC entity different from the MAC entity where the primary RLC entity is located, determining, by the terminal device, that an RLC entity corresponding to a cell group different from a cell group corresponding to the primary RLC entity is the secondary RLC entity, and determining, by the terminal device, to use the primary RLC entity and the secondary RLC entity to transmit a PDCP PDU through split transmission, or transmitting, by the terminal device, a PDCP PDU to the primary RLC entity and the secondary RLC entity. in a case that duplication transmission of a first bearer is deactivated, determining, by a terminal device, a Radio Link Control, RLC, entity for transmitting a Packet Data Convergence Protocol, PDCP, Protocol Data Units, PDU, according to cell groups corresponding to a primary RLC entity and a secondary RLC entity among at least three RLC entities configured for the first bearer (S210), wherein the determining, by the terminal device, the RLC entity for transmitting the PDCP PDU according to the cell groups corresponding to the primary RLC entity and the secondary RLC entity among the at least three RLC entities configured for the first bearer (S210), comprises: based on there being a plurality of RLC entities in a Media Access Control, MAC, entity where the primary RLC entity is located, and there being an RLC entity in a MAC entity different from the MAC entity where the primary RLC entity is located, determining, by the terminal device, that an RLC entity corresponding to a cell group different from a cell group corresponding to the primary RLC entity is the secondary RLC entity, and determining, by the terminal device, to use the primary RLC entity and the secondary RLC entity to transmit a PDCP PDU through split transmission, or transmitting, by the terminal device, a PDCP PDU to the primary RLC entity and the secondary RLC entity.
A sample analyzer comprising: a suction unit configured to suction a sample in a sample container through a stopper installed in an opening of the sample container ; a rack transport unit configured to transport a sample rack holding a sample container along a transport path , and position the sample container held by the sample rack at a suction position by the suction unit ; a sample transport unit in which a sample container other than the sample container transported by the rack transport unit is installed and which is configured to transport the installed sample container to the suction position provided on the transport path ; a measurement unit configured to measure a sample suctioned by the suction unit from the sample container positioned at the suction position ; and an analysis unit configured to analyze the sample based on the measurement result of the measurement unit , wherein the rack transport unit is configured to retract the rack from the suction position when a sample container other than the sample container transported by the rack transport unit is installed in the sample transport unit . a suction unit configured to suction a sample in a sample container through a stopper installed in an opening of the sample container ; a rack transport unit configured to transport a sample rack holding a sample container along a transport path , and position the sample container held by the sample rack at a suction position by the suction unit ; a sample transport unit in which a sample container other than the sample container transported by the rack transport unit is installed and which is configured to transport the installed sample container to the suction position provided on the transport path ; a measurement unit configured to measure a sample suctioned by the suction unit from the sample container positioned at the suction position ; and an analysis unit configured to analyze the sample based on the measurement result of the measurement unit , wherein the rack transport unit is configured to retract the rack from the suction position when a sample container other than the sample container transported by the rack transport unit is installed in the sample transport unit .
A method comprising: determining if a time elapsed since a last transmission of a scheduling request from a user equipment to a base station exceeds a first designated period, N T , or if a time elapsed since a last transmission of an uplink grant from a base station to a user equipment exceeds a second designated period, N G ; and suppressing transmission or triggering of scheduling requests if it is determined that the time elapsed since the last transmission of a scheduling request from the user equipment to the base station does not exceed said first designated period, N T , or if it is determined that the time elapsed since a last transmission of an uplink grant from the base station to the user equipment exceeds said second designated period, N G . determining if a time elapsed since a last transmission of a scheduling request from a user equipment to a base station exceeds a first designated period, N T , or if a time elapsed since a last transmission of an uplink grant from a base station to a user equipment exceeds a second designated period, N G ; and suppressing transmission or triggering of scheduling requests if it is determined that the time elapsed since the last transmission of a scheduling request from the user equipment to the base station does not exceed said first designated period, N T , or if it is determined that the time elapsed since a last transmission of an uplink grant from the base station to the user equipment exceeds said second designated period, N G .
A selective hydrogenation process comprising: dissolving acetylene and hydrogen in a solvent 120 to form a liquid feedstream 125, the solvent 120 comprising a mixture of a polar organic solvent and a non-polar organic solvent wherein the polar organic solvent comprises N-methyl-2-pyrrolidone and the non-polar organic solvent comprises p-diethylbenzene; and contacting the liquid feedstream 125 with a heterogeneous supported selective hydrogenation catalyst at selective hydrogenation conditions to convert at least a portion of the acetylene to ethylene forming a liquid reaction mixture 160 comprising the ethylene produced. dissolving acetylene and hydrogen in a solvent 120 to form a liquid feedstream 125, the solvent 120 comprising a mixture of a polar organic solvent and a non-polar organic solvent wherein the polar organic solvent comprises N-methyl-2-pyrrolidone and the non-polar organic solvent comprises p-diethylbenzene; and contacting the liquid feedstream 125 with a heterogeneous supported selective hydrogenation catalyst at selective hydrogenation conditions to convert at least a portion of the acetylene to ethylene forming a liquid reaction mixture 160 comprising the ethylene produced.
A system consisting of a smart label and a shielding element , wherein the shielding element comprises a first metal layer which can be detached from the smart label and the smart label comprises an RFID chip , an antenna electrically connected thereto and a second metal layer, wherein the RFID chip is combined with the antenna to form an inlay which is arranged parallel to the surface of the second metal layer for shielding against microwave radiation, characterized in that the RFID chip is applied directly to the second metal layer with only an adhesive layer interposed, wherein the second metal layer is produced from a plurality of adjacent foil sections , all of which enclose a distance of at most one millimetre between one another, and the antenna extends at least in sections between the foil sections or bridges the distance , wherein the metal layers arranged on both sides shield the RFID chip held in the inlay and its antenna from microwave radiation.
A lens structure , comprising: a bottom surface ; an inner surface caved in the bottom surface ; and an outer surface comprising a total reflection portion and a light outgoing portion surrounding the total reflection portion , wherein a central axis (C) of the lens structure 300 and an imaginary coplanar plane (P) coplanar with the bottom surface crosses at a crossover point (I), characterized in that the total reflection portion satisfies: ∠ Q 2 Q 1 Q 3 = arctan Δ R 1 R 1 • Δ θ 1 > arcsin 1 n , wherein Q1 is a first point on the total reflection portion , and Q2 is a second point immediately adjacent to the first point, and Q3 is a third point located on a connection line connecting the second point and the crossover point (I), and a connection line connecting the third point and the first point is perpendicular to a connection line connecting the crossover point (I) and the first point, R1 is a distance from the crossover point (I) to the first point, Δ R 1 is a distance from the second point to the third point, Δ θ 1 is an included angle defined by the connection line connecting the first point and the crossover point (I) and the connection line connecting the second point and the crossover point (I), and n is a refractive index of a material of the lens structure . a bottom surface ; an inner surface caved in the bottom surface ; and an outer surface comprising a total reflection portion and a light outgoing portion surrounding the total reflection portion , wherein a central axis (C) of the lens structure 300 and an imaginary coplanar plane (P) coplanar with the bottom surface crosses at a crossover point (I), characterized in that the total reflection portion satisfies: ∠ Q 2 Q 1 Q 3 = arctan Δ R 1 R 1 • Δ θ 1 > arcsin 1 n , wherein Q1 is a first point on the total reflection portion , and Q2 is a second point immediately adjacent to the first point, and Q3 is a third point located on a connection line connecting the second point and the crossover point (I), and a connection line connecting the third point and the first point is perpendicular to a connection line connecting the crossover point (I) and the first point, R1 is a distance from the crossover point (I) to the first point, Δ R 1 is a distance from the second point to the third point, Δ θ 1 is an included angle defined by the connection line connecting the first point and the crossover point (I) and the connection line connecting the second point and the crossover point (I), and n is a refractive index of a material of the lens structure .