mhurhangee/patent-ind-claim-en huggingface dataset:
A method of simulating on a quantum computer device comprising a plurality of qubits, including at least one ancilla qubit, a real time evolution unitary of a Hamiltonian H on a lattice of qubits Λ modelling a physical quantum system, the method comprising: decomposing in a classical computer a unit time evolution unitary operator, e -itH , of the Hamiltonian H into smaller unitary operators of the form e -itH □ and e + itH □ , implemented on overlapping smaller blocks □ of qubits within the lattice of qubits Λ, wherein H = ∑ X ⊂Λ h X h X such that ∥ h X ∥ ≤ 1 for every X, h X is supported on region X of the lattice Λ, and: h X = 0 whenever diam( X ) > 1, or ‖ h X ‖ ≤ e − diam X and H □ is the sum of local terms in the Hamiltonian H supported on block □; and simulating the unit time evolution unitary operator of the Hamiltonian, e -itH , on the lattice of qubits Λ, using a quantum signal processing algorithm to implement each smaller unitary operator of the form e -itH □ and e + itH □ on the quantum computer device, wherein each block □ has a size O l D where D is the number of spatial dimensions of the lattice Λ, and each smaller unitary operator is implemented using only O log l ancilla qubits of the quantum computer device, wherein l is the width of the overlap between the smaller overlapping blocks □ within the lattice Λ of qubits, and is proportional to the logarithm of the number of qubits in the lattice Λ. decomposing in a classical computer a unit time evolution unitary operator, e -itH , of the Hamiltonian H into smaller unitary operators of the form e -itH □ and e + itH □ , implemented on overlapping smaller blocks □ of qubits within the lattice of qubits Λ, wherein H = ∑ X ⊂Λ h X h X such that ∥ h X ∥ ≤ 1 for every X, h X is supported on region X of the lattice Λ, and: h X = 0 whenever diam( X ) > 1, or ‖ h X ‖ ≤ e − diam X and H □ is the sum of local terms in the Hamiltonian H supported on block □; and simulating the unit time evolution unitary operator of the Hamiltonian, e -itH , on the lattice of qubits Λ, using a quantum signal processing algorithm to implement each smaller unitary operator of the form e -itH □ and e + itH □ on the quantum computer device, wherein each block □ has a size O l D where D is the number of spatial dimensions of the lattice Λ, and each smaller unitary operator is implemented using only O log l ancilla qubits of the quantum computer device, wherein l is the width of the overlap between the smaller overlapping blocks □ within the lattice Λ of qubits, and is proportional to the logarithm of the number of qubits in the lattice Λ.
An information processing device comprising: an acquisition unit configured to obtain measurement data; an operation acceptance unit configured to accept specification of time in the measurement data as a specified time; a removal unit configured to reduce noise from the measurement data using each one of a plurality of methods; an evaluation unit configured to evaluate a result of noise reduction at the specified time accepted through the operation acceptance unit , the noise reduction being performed for the measurement data by the removal unit using each one of the plurality of methods; and characterized by a selection unit configured to select one of the plurality of methods based on evaluation made by the evaluation unit ; wherein the evaluation unit is configured to calculate a degree of approximation between a prescribed magnetic field and a magnetic field caused by a dipole estimated from the measurement data, from which noise has been removed by the removal unit using each one of the plurality of methods, at the specified time accepted through the operation acceptance unit , and is configured to evaluate the result of noise reduction using the calculated degree of approximation. an acquisition unit configured to obtain measurement data; an operation acceptance unit configured to accept specification of time in the measurement data as a specified time; a removal unit configured to reduce noise from the measurement data using each one of a plurality of methods; an evaluation unit configured to evaluate a result of noise reduction at the specified time accepted through the operation acceptance unit , the noise reduction being performed for the measurement data by the removal unit using each one of the plurality of methods; and characterized by a selection unit configured to select one of the plurality of methods based on evaluation made by the evaluation unit ; wherein the evaluation unit is configured to calculate a degree of approximation between a prescribed magnetic field and a magnetic field caused by a dipole estimated from the measurement data, from which noise has been removed by the removal unit using each one of the plurality of methods, at the specified time accepted through the operation acceptance unit , and is configured to evaluate the result of noise reduction using the calculated degree of approximation.
A needle valve comprising: a. at least one needle comprised of a shaft having a smooth outer surface, a pointed tip, a hollow interior, and a port located in the side of said shaft of said needle at the distal end close to said tip, said port adapted to allow fluid communication between the hollow interior and the exterior of said needle ; b. a housing ; c. a sleeve housed in the interior of said housing, made of resilient material wherein said sleeve comprises at least one channel that passes through said resilient material, said at least one channel configured to allow one of said at least one needle to be moved back and forth through said channel ; and d. a resilient elastic membrane ; wherein: the outer diameter of said shaft of said at least one needle is greater than the inner diameter of said at least one channel , such that when said port is located in said channel , said resilient material blocks said port preventing the passage of fluid into or out of said hollow interior of said needle ; and said resilient elastic membrane prevents contaminants from contaminating said channel and said tip of said needle retained in it, thereby maintaining sterility; characterized in that : i. said resilient elastic membrane is located in a recess at the bottom of said housing ; and ii. said sleeve is held in place within housing by membrane on one side and by a shoulder or protrusion on the wall of said housing . a. at least one needle comprised of a shaft having a smooth outer surface, a pointed tip, a hollow interior, and a port located in the side of said shaft of said needle at the distal end close to said tip, said port adapted to allow fluid communication between the hollow interior and the exterior of said needle ; b. a housing ; c. a sleeve housed in the interior of said housing, made of resilient material wherein said sleeve comprises at least one channel that passes through said resilient material, said at least one channel configured to allow one of said at least one needle to be moved back and forth through said channel ; and d. a resilient elastic membrane ; the outer diameter of said shaft of said at least one needle is greater than the inner diameter of said at least one channel , such that when said port is located in said channel , said resilient material blocks said port preventing the passage of fluid into or out of said hollow interior of said needle ; and said resilient elastic membrane prevents contaminants from contaminating said channel and said tip of said needle retained in it, thereby maintaining sterility; i. said resilient elastic membrane is located in a recess at the bottom of said housing ; and ii. said sleeve is held in place within housing by membrane on one side and by a shoulder or protrusion on the wall of said housing .
A tooling machine comprising a dust-resistant structure, wherein the tooling machine includes a dynamic module with a power shaft, a front plate mounted to the dynamic module and facing a tool , and a shaft supporter to support the power shaft, wherein the front plate includes an accommodation member to accommodate the shaft supporter , and wherein the dust-resistant structure comprises: - a bridging ring disposed on the front plate and surrounding the accommodation member of the front plate , the bridging ring including a ring body , an inside-ring region defined by the ring body , and at least one pressure release member formed in the ring body , - a dust-resistant rubber ring assembled to the ring body and disposed in the inside-region region of the ring body , wherein an inner rim of the dust-resistant rubber ring contacts the accommodation member to protect against dust ; and - a dust-resistant sealing cover including a cover body and an assembling hole , wherein the cover body is assembled to the accommodation member of the front plate of the dynamic module , shielding the accommodation member and protecting the shaft supporter against the dust , and wherein the assembling hole is formed in the cover body and penetrated by the power shaft of the dynamic module so as to rotate with the power shaft, characterized in that, the pressure release member is a cut groove formed in the ring body and penetrating the ring body and the pressure release member interconnects with the inside-ring region for releasing pressure generated by the operating dynamic module to pass through the accommodation member to the inside-ring region and then being released outwardly of the tooling machine, wherein the tooling machine comprises at least one filtering element respectively disposed in the cut groove of the pressure release member for blocking the dust from entering the inside-ring region . - a bridging ring disposed on the front plate and surrounding the accommodation member of the front plate , the bridging ring including a ring body , an inside-ring region defined by the ring body , and at least one pressure release member formed in the ring body , - a dust-resistant rubber ring assembled to the ring body and disposed in the inside-region region of the ring body , wherein an inner rim of the dust-resistant rubber ring contacts the accommodation member to protect against dust ; and - a dust-resistant sealing cover including a cover body and an assembling hole , wherein the cover body is assembled to the accommodation member of the front plate of the dynamic module , shielding the accommodation member and protecting the shaft supporter against the dust , and
A replication defective virus like particle (VLP) comprising: a. an alphavirus replicon derived from Sindbis virus or Venezuelan equine encephalitis (VEE) virus comprising: (i) one or more subgenomic mRNA promoters for Sindbis-encoded or VEE-encoded RNA-dependent RNA polymerase operably linked to a recombinant polynucleotide; (ii) a nucleotide sequence encoding Sindbis virus or VEE virus nonstructural proteins NSP1, NSP2, NSP3, and NSP4; and (iii) a retroviral packaging signal, b. a retroviral gag protein, and c. a fusogenic envelope protein, wherein the VLP does not contain an alphavirus structural protein gene, and wherein the VLP is not cytopathic to a eukaryotic cell. a. an alphavirus replicon derived from Sindbis virus or Venezuelan equine encephalitis (VEE) virus comprising: (i) one or more subgenomic mRNA promoters for Sindbis-encoded or VEE-encoded RNA-dependent RNA polymerase operably linked to a recombinant polynucleotide; (ii) a nucleotide sequence encoding Sindbis virus or VEE virus nonstructural proteins NSP1, NSP2, NSP3, and NSP4; and (iii) a retroviral packaging signal, (i) one or more subgenomic mRNA promoters for Sindbis-encoded or VEE-encoded RNA-dependent RNA polymerase operably linked to a recombinant polynucleotide; (ii) a nucleotide sequence encoding Sindbis virus or VEE virus nonstructural proteins NSP1, NSP2, NSP3, and NSP4; and (iii) a retroviral packaging signal, b. a retroviral gag protein, and c. a fusogenic envelope protein,
An an oil-in-water emulsion comprising i) water in an amount of 25 to 70% (by weight of the composition) ii) oil in an amount of 15 to 55% (by weight of the composition); iii) a modified waxy corn starch in an amount of 1.5 to 5.5% (by weight of the composition), wherein the term modified waxy corn starch refers to a physically modified or chemically modified starch having an amylopectin content of 95 to 98% (by dry weight of the starch) and has an amylose content of 5 to 2% (by dry weight of the starch); iv) a waxy rice starch in an amount of 0.15 to 3.5% (by weight of the composition), wherein the term waxy rice starch refers to an amylopectin content of 95 to 98% (by dry weight of the starch ) and has an amylose content of 5 to 2% (by dry weight of the starch); v) an emulsifier in an amount of 2 to 9% (by weight of the composition); vi) acid in an amount of 0.1 to 10% (by weight of the composition); and wherein the total amount of starch is in an amount of 2 to 6% (by weight of the composition) and wherein the oil-in-water emulsion has a viscosity in the range of 8 to 30 Pa.s at a shear rate of 10s-1 at 20°C. i) water in an amount of 25 to 70% (by weight of the composition) ii) oil in an amount of 15 to 55% (by weight of the composition); iii) a modified waxy corn starch in an amount of 1.5 to 5.5% (by weight of the composition), wherein the term modified waxy corn starch refers to a physically modified or chemically modified starch having an amylopectin content of 95 to 98% (by dry weight of the starch) and has an amylose content of 5 to 2% (by dry weight of the starch); iv) a waxy rice starch in an amount of 0.15 to 3.5% (by weight of the composition), wherein the term waxy rice starch refers to an amylopectin content of 95 to 98% (by dry weight of the starch ) and has an amylose content of 5 to 2% (by dry weight of the starch); v) an emulsifier in an amount of 2 to 9% (by weight of the composition); vi) acid in an amount of 0.1 to 10% (by weight of the composition);
A method for transferring an embossed structure using an embossing tool (P1), which comprises at least the steps 1-i and 2-i or 1-ii and 2-ii, specifically 1-i applying a coating composition (B1a) to at least a part of a surface of a substrate (F1), to give a composition (B1aF1), and 2-i at least partially embossing the coating composition (B1a), applied at least partially to the surface of the substrate (F1), by means of at least one embossing tool (P1) comprising at least one embossing die (p1), or 1-ii applying a coating composition (B1a) to at least a part of an at least partially embossed surface of an embossing die (p1) of an embossing tool (P1) and 2-ii applying a substrate (F1) to at least a part of the surface of the coating composition (B1a), applied to the embossing die (p1), to give a composite (B1aF1) on (p1), which comprises pretreating the at least one embossing die (p1) of the embossing tool (P1), before the implementation of step 2-i and before the implementation of step 1-ii, with at least one organic solvent and/or at least one reactive diluent, and, through step 2-i and step 1-ii, transferring microstructures having a structure depth > 30 μm as embossed structure onto the coating composition (B1a). 1-i applying a coating composition (B1a) to at least a part of a surface of a substrate (F1), to give a composition (B1aF1), and 2-i at least partially embossing the coating composition (B1a), applied at least partially to the surface of the substrate (F1), by means of at least one embossing tool (P1) comprising at least one embossing die (p1), or 1-ii applying a coating composition (B1a) to at least a part of an at least partially embossed surface of an embossing die (p1) of an embossing tool (P1) and 2-ii applying a substrate (F1) to at least a part of the surface of the coating composition (B1a), applied to the embossing die (p1), to give a composite (B1aF1) on (p1), which comprises pretreating the at least one embossing die (p1) of the embossing tool (P1), before the implementation of step 2-i and before the implementation of step 1-ii, with at least one organic solvent and/or at least one reactive diluent, and, through step 2-i and step 1-ii, transferring microstructures having a structure depth > 30 μm as embossed structure onto the coating composition (B1a).
Use of a curable resin composition for forming a hard coat, the curable resin composition comprising: urethane (meth)acrylate (A) which is a reaction product between norbornane diisocyanate (a1) and a compound (a2) having one hydroxyl group and at least one or more (meth)acryloyl groups in a single molecule; and a (meth)acrylate monomer (B) which is a reaction product between a polyol having a fused polycyclic structure (b1) and (meth)acrylic acid (b2), wherein the polyol having a fused polycyclic structure (b1) comprises at least tricyclodecane dimethanol, and wherein the curable resin composition comprises 20 to 90 parts by mass of the urethane (meth)acrylate (A) and 10 to 35 parts by mass of the (meth)acrylate monomer (B), relative to 100 parts by mass of the curable resin composition. urethane (meth)acrylate (A) which is a reaction product between norbornane diisocyanate (a1) and a compound (a2) having one hydroxyl group and at least one or more (meth)acryloyl groups in a single molecule; and a (meth)acrylate monomer (B) which is a reaction product between a polyol having a fused polycyclic structure (b1) and (meth)acrylic acid (b2), wherein the polyol having a fused polycyclic structure (b1) comprises at least tricyclodecane dimethanol, and wherein the curable resin composition comprises 20 to 90 parts by mass of the urethane (meth)acrylate (A) and 10 to 35 parts by mass of the (meth)acrylate monomer (B), relative to 100 parts by mass of the curable resin composition.
A catheter assembly comprising: a catheter comprising a flexible elongated member comprising a distal portion , the distal portion comprising: a tubular body defining an inner lumen , the tubular body defining a plurality of body apertures that extend through a sidewall of the tubular body into the inner lumen ; and a plurality of primary electrodes positioned along the tubular body ; and a wire defining at least one secondary electrode , the wire being configured to be slidably moved through the inner lumen of the tubular body , wherein the wire and the plurality of primary electrodes are configured to electrically couple to an energy source that delivers an electrical pulse to a fluid in contact with the plurality of primary electrodes and the at least one secondary electrode to cause the fluid to undergo cavitation to generate a pressure pulse wave within the fluid. a catheter comprising a flexible elongated member comprising a distal portion , the distal portion comprising: a tubular body defining an inner lumen , the tubular body defining a plurality of body apertures that extend through a sidewall of the tubular body into the inner lumen ; and a plurality of primary electrodes positioned along the tubular body ; and a tubular body defining an inner lumen , the tubular body defining a plurality of body apertures that extend through a sidewall of the tubular body into the inner lumen ; and a plurality of primary electrodes positioned along the tubular body ; and a wire defining at least one secondary electrode , the wire being configured to be slidably moved through the inner lumen of the tubular body , wherein the wire and the plurality of primary electrodes are configured to electrically couple to an energy source that delivers an electrical pulse to a fluid in contact with the plurality of primary electrodes and the at least one secondary electrode to cause the fluid to undergo cavitation to generate a pressure pulse wave within the fluid.
A method for creating a map by a moving robot , the method comprising: collecting (S100) sensor data by a sensor of the moving robot ; creating (S200) a map based on the sensor data; performing (S300) image processing of the map: - to distinguish between regions in the map, wherein the regions that are distinguished include a first region which is an empty space, a second region in which an obstacle is detected by the sensor, and a third region that has not been sensed by the sensor, and - to identify at least one boundary line (F1, F2, F3) between the first and the third regions ; selecting (S500) an optimal boundary line (F1) of the at least one boundary line (F1, F2, F3), wherein selecting (S500) the optimal boundary line includes determining respective cost values for the at least one boundary line based on first information which is sensed when traveling to one of the least one boundary line and second information which is regarding a distance to the one of the at least one boundary line, and selecting, as the optimal boundary line, one of the at least one boundary line having a highest cost value of the cost values; determining (S600) a path toward the optimal boundary line (F1) and moving along the path; and updating (S700) the map based on additional sensor data collected while moving along the path. collecting (S100) sensor data by a sensor of the moving robot ; creating (S200) a map based on the sensor data; performing (S300) image processing of the map: - to distinguish between regions in the map, wherein the regions that are distinguished include a first region which is an empty space, a second region in which an obstacle is detected by the sensor, and a third region that has not been sensed by the sensor, and - to identify at least one boundary line (F1, F2, F3) between the first and the third regions ; - to distinguish between regions in the map, wherein the regions that are distinguished include a first region which is an empty space, a second region in which an obstacle is detected by the sensor, and a third region that has not been sensed by the sensor, and - to identify at least one boundary line (F1, F2, F3) between the first and the third regions ; selecting (S500) an optimal boundary line (F1) of the at least one boundary line (F1, F2, F3), wherein selecting (S500) the optimal boundary line includes determining respective cost values for the at least one boundary line based on first information which is sensed when traveling to one of the least one boundary line and second information which is regarding a distance to the one of the at least one boundary line, and selecting, as the optimal boundary line, one of the at least one boundary line having a highest cost value of the cost values; determining (S600) a path toward the optimal boundary line (F1) and moving along the path; and updating (S700) the map based on additional sensor data collected while moving along the path.