mhurhangee/patent-ind-claim-en huggingface dataset:
A suture anchoring system, comprising: a suture anchor comprising a fibrous construct having a longitudinal axis extending therethrough and having a filament disposed in a loop configuration with a first loop formed through a first hole on a first side of a fibrous construct and extending through a second loop formed through a second hole on the first side of the fibrous construct and a third loop formed through a third hole on the first side of the fibrous construct and extending through a fourth loop formed through a fourth hole on the first side of the fibrous construct , the suture anchor having an un-deployed state and a deployed state in which an effective area of the suture anchor is different than the effective area of the suture anchor in the un-deployed state; and insertion tooling coupled with the suture anchor , and wherein the first hole , the second hole , the third hole and the fourth hole are each substantially positioned in spaced apart relation on the longitudinal axis .
A method for processing a medium access control entity, comprising: establishing, by a UE, a corresponding medium access control entity for a second connectivity, so that there exists dual connectivity between the UE and a network side comprising a first connectivity and the second connectivity; wherein a radio resource control function exists in the first connectivity and signaling radio bearers are carried by the first connectivity, and characterized in that the medium access control entity of the second connectivity comprises a multiplexing or de-multiplexing module, a logic channel prioritization module, a control module, a random access control module and a hybrid automatic repeat request module; and releasing, by the UE, the medium access control entity of the second connectivity, releasing all radio resources related to the second connectivity and stopping timers related to the second connectivity when the UE receives an instruction for releasing the second connectivity. establishing, by a UE, a corresponding medium access control entity for a second connectivity, so that there exists dual connectivity between the UE and a network side comprising a first connectivity and the second connectivity; wherein a radio resource control function exists in the first connectivity and signaling radio bearers are carried by the first connectivity, and characterized in that the medium access control entity of the second connectivity comprises a multiplexing or de-multiplexing module, a logic channel prioritization module, a control module, a random access control module and a hybrid automatic repeat request module; and releasing, by the UE, the medium access control entity of the second connectivity, releasing all radio resources related to the second connectivity and stopping timers related to the second connectivity when the UE receives an instruction for releasing the second connectivity.
A plate used for a sole that forms a part of a shoe , the plate comprising: a reinforcement portion composed of a composite material containing a synthetic resin and a plurality of fibers, wherein the plurality of fibers in the reinforcement portion each have a weight average fiber length not shorter than 0.4 mm and not longer than 7.0 mm and have such an orientation property that orientations are aligned in a foot length direction, wherein the weight average fiber length is calculated in accordance with: average fiber length = ∑ Mi 2 × Ni / ∑ Mi × Ni Mi: fiber length (mm) Ni: the number of fibers having the fiber length Mi; and characterized in that a front reinforcement region (R10) extends from a front end portion located at a front end in the foot length direction of the shoe to a part superimposed in a direction of thickness of the sole , on a line that connects central portions of metatarsal bones (B10) of a wearer of the shoe to each other, wherein the reinforcement portion is provided over an entirety of the front reinforcement region (R10). a reinforcement portion composed of a composite material containing a synthetic resin and a plurality of fibers, wherein the plurality of fibers in the reinforcement portion each have a weight average fiber length not shorter than 0.4 mm and not longer than 7.0 mm and have such an orientation property that orientations are aligned in a foot length direction, wherein the weight average fiber length is calculated in accordance with: average fiber length = ∑ Mi 2 × Ni / ∑ Mi × Ni Mi: fiber length (mm) Ni: the number of fibers having the fiber length Mi; and Mi: fiber length (mm) Ni: the number of fibers having the fiber length Mi; and characterized in that a front reinforcement region (R10) extends from a front end portion located at a front end in the foot length direction of the shoe to a part superimposed in a direction of thickness of the sole , on a line that connects central portions of metatarsal bones (B10) of a wearer of the shoe to each other, wherein the reinforcement portion is provided over an entirety of the front reinforcement region (R10).
A turbine blade has a root portion , a platform and an aerofoil , the aerofoil is mounted on the platform and is formed by a pressure side wall and a suction side wall and has an outer surface , the pressure side wall and the suction side wall meet at a leading edge and a trailing edge , the aerofoil has an aerofoil tip and an axial chord length , the suction side wall defines part of the radially outward surface of the aerofoil, the suction side wall defines an overhang at the aerofoil tip, characterised in that the overhang has a maximum overhang length (B) that is between 5% and 20% of the axial chord length of the blade and is located between 15% and 40% of the suction surface length from the leading edge and reduces in overhang length to zero at a position between 50% and 100% of the suction surface length from the leading edge.
A method of operating a motor vehicle , comprising the steps of: receiving a vehicle speed, a vehicle location and braking information ; estimating a first distance between the motor vehicle and an intersection using the vehicle speed and the braking information ; and determining a second distance between the motor vehicle and a remote vehicle ; estimating a third distance between the remote vehicle and the intersection by calculating a difference between the first distance and the second distance ; and controlling a vehicle safety system of the motor vehicle according to the first distance and the third distance, wherein the vehicle safety system of the motor vehicle is a collision warning system, characterized in that the step of estimating the third distance is followed by a step of determining a threat level based on the first distance and the third distance, and wherein the collision warning system is controlled according to the threat level. receiving a vehicle speed, a vehicle location and braking information ; estimating a first distance between the motor vehicle and an intersection using the vehicle speed and the braking information ; and determining a second distance between the motor vehicle and a remote vehicle ; estimating a third distance between the remote vehicle and the intersection by calculating a difference between the first distance and the second distance ; and controlling a vehicle safety system of the motor vehicle according to the first distance and the third distance, wherein the vehicle safety system of the motor vehicle is a collision warning system, characterized in that the step of estimating the third distance is followed by a step of determining a threat level based on the first distance and the third distance, and wherein the collision warning system is controlled according to the threat level.
A phillygenin sulphate as represented by the following chemical structural formula, wherein R is H, Na + , K + , NH 4 + , tetramethyl ammonium, tetraethyl ammonium, methyl amino, dimethylamino, trimethylamino, triethylamino, diethylamino, ethylamino, ethanolamino, diethanolamino, piperidyl, piperazinyl or pyrazinyl.
A method for wireless communication, comprising: encoding N bits comprising K input bits using a Polar coding scheme to obtain a plurality of encoded bits, wherein the K input bits include a first subset of bits assigned to a first field and a second subset of bits assigned to a second field that is associated with the first field, and the second subset of bits are positioned based on an index set including n indices; and transmitting the plurality of encoded bits to a communication device, wherein all of N, K, and n are positive integers, N being equal to or greater than n, and K being equal to or smaller than N; wherein the K input bits encode information; and wherein the second field includes information indicative of a length of the first field; and the method comprising positioning the second subset of bits at a plurality of indices determined by a communication device based on the index set, wherein the index set includes following indices: ⌊ N n ⌋ − 1 , ⌊ 2 N n ⌋ − 1 , ... , N − 1 , or N − n , N − n + 1 , ... , N − 1 . encoding N bits comprising K input bits using a Polar coding scheme to obtain a plurality of encoded bits, wherein the K input bits include a first subset of bits assigned to a first field and a second subset of bits assigned to a second field that is associated with the first field, and the second subset of bits are positioned based on an index set including n indices; and transmitting the plurality of encoded bits to a communication device, wherein all of N, K, and n are positive integers, N being equal to or greater than n, and K being equal to or smaller than N; wherein the K input bits encode information; and wherein the second field includes information indicative of a length of the first field; and the method comprising positioning the second subset of bits at a plurality of indices determined by a communication device based on the index set, wherein the index set includes following indices: ⌊ N n ⌋ − 1 , ⌊ 2 N n ⌋ − 1 , ... , N − 1 , or N − n , N − n + 1 , ... , N − 1 .
An electrode module comprising a plurality of electrode plates spaced from one another by means of spacing means and alternately form an anode and a cathode, a plurality of support members each extending through each electrode plate and at least one spacing means between two adjacent electrode plates for releasable securing said plurality of electrode plates together, wherein each electrode plate comprise a plate portion , and wherein each electrode plate have a first plate face and a second plate face that is parallel with the first plate face , a bottom plate face , a first plate side face , and a second plate side face that is parallel with the first plate side face , and a top plate face , characterized by each electrode plate comprise one supporting and connection lug portion configured to support each electrode plate of the electrode module at one of a first busbar and a second busbar in an electrochemical reactor for electrically connecting each electrode plate of the electrode module with one of the first busbar and the second busbar for supplying electrical current between one of the first busbar and the second busbar and each electrode plate of the electrode module , by the supporting and connection lug portion of each electrode plate being seamlessly connected to the plate portion of the electrode plate , by the supporting and connection lug portion of each electrode plate extend from a corner between the first plate side face and the top plate face beyond the first plate side face and the top plate face , by said plurality of electrode plates of the electrode module being electrically insulated from each other within the electrode module , and by the electrode plates of the electrode module being in contact with fluid surrounding the electrode module .
A laser parameter system for optimization of spherical aberration parameters for corneal laser treatments, the system comprising: a processor having access to memory media storing instructions executable by the processor to: receive pupillometry data for a patient subject to a corneal laser treatment, the pupillometry data comprising respective pupil diameters including: a mesopic diameter and a photopic diameter ; calculate an outer diameter for the spherical aberration that is greater than the mesopic diameter ; calculate an inner diameter for the spherical aberration associated with an amplitude of the spherical aberration that corresponds to the photopic diameter ; and use the spherical aberration calculated, including the outer diameter and the inner diameter, to cause the corneal laser treatment to be performed on the patient, characterized in that the pupil diameters further include a normal light diameter and an accommodative reading diameter ; and that the instructions are executable by the processor to: calculate the amplitude of the spherical aberration according to a refraction that induces myopia; calculate a slope of the spherical aberration extending from the photopic diameter to the normal light diameter ; and use the spherical aberration calculated, including the amplitude and the slope, to cause the corneal laser treatment to be performed on the patient. receive pupillometry data for a patient subject to a corneal laser treatment, the pupillometry data comprising respective pupil diameters including: a mesopic diameter and a photopic diameter ; calculate an outer diameter for the spherical aberration that is greater than the mesopic diameter ; calculate an inner diameter for the spherical aberration associated with an amplitude of the spherical aberration that corresponds to the photopic diameter ; and use the spherical aberration calculated, including the outer diameter and the inner diameter, to cause the corneal laser treatment to be performed on the patient, the pupil diameters further include a normal light diameter and an accommodative reading diameter ; and that the instructions are executable by the processor to: calculate the amplitude of the spherical aberration according to a refraction that induces myopia; calculate a slope of the spherical aberration extending from the photopic diameter to the normal light diameter ; and use the spherical aberration calculated, including the amplitude and the slope, to cause the corneal laser treatment to be performed on the patient. calculate the amplitude of the spherical aberration according to a refraction that induces myopia; calculate a slope of the spherical aberration extending from the photopic diameter to the normal light diameter ; and use the spherical aberration calculated, including the amplitude and the slope, to cause the corneal laser treatment to be performed on the patient.
A method for producing a basic amino acid by fermentation comprising culturing a microorganism having an ability to produce the basic amino acid in a liquid medium contained in a fermentation tank to produce and accumulate the basic amino acid in the medium; wherein the amount of sulfate and/or chloride ions used as counter ions of the basic amino acid is reduced by adjusting the total ammonia concentration in the medium to be within a specific concentration range during at least a part of the total period of the culture process including the period where the pH of the medium increases due to shortage of the counter ions caused with accumulation of the basic amino acid; wherein the total ammonia concentration in the medium is adjusted by using such a total ammonia concentration that the total ammonia is secured in an amount required for growth of the microorganism or the production of the basic amino acid, and at a concentration not inhibiting the production of the basic amino acid by the microorganism; and wherein the microorganism is an Escherichia coli bacterium or a coryneform bacterium. wherein the amount of sulfate and/or chloride ions used as counter ions of the basic amino acid is reduced by adjusting the total ammonia concentration in the medium to be within a specific concentration range during at least a part of the total period of the culture process including the period where the pH of the medium increases due to shortage of the counter ions caused with accumulation of the basic amino acid; wherein the total ammonia concentration in the medium is adjusted by using such a total ammonia concentration that the total ammonia is secured in an amount required for growth of the microorganism or the production of the basic amino acid, and at a concentration not inhibiting the production of the basic amino acid by the microorganism; and wherein the microorganism is an Escherichia coli bacterium or a coryneform bacterium.
A method for a Diffie Hellman key exchange, the method comprising: selecting a field size p in the form p = hq + 1, where q is a prime number that is one plus a factorial number b , such that q = ( b ! + 1), and h is a cofactor, such that p=hq + 1 is prime; selecting a generator integer g whose order modulo p is the prime q or is divisible by q; choosing a private key x ; computing a public key g x mod p by raising said generator g to the power of said private key x , using arithmetic modulo said prime field size p ; sending said public key g x mod p to a correspondent; receiving, from the correspondent, a second public key B comprising g raised to a second private key y selected by the correspondent, in the form g y ; and creating a key B x from the received second public key B , by raising said second public key B to the power of said private key x, using arithmetic modulo said prime field size p . selecting a field size p in the form p = hq + 1, where q is a prime number that is one plus a factorial number b , such that q = ( b ! + 1), and h is a cofactor, such that p=hq + 1 is prime; selecting a generator integer g whose order modulo p is the prime q or is divisible by q; choosing a private key x ; computing a public key g x mod p by raising said generator g to the power of said private key x , using arithmetic modulo said prime field size p ; sending said public key g x mod p to a correspondent; receiving, from the correspondent, a second public key B comprising g raised to a second private key y selected by the correspondent, in the form g y ; and creating a key B x from the received second public key B , by raising said second public key B to the power of said private key x, using arithmetic modulo said prime field size p .
A method of diagnosing a disease of a subject comprising: (a) sequencing DNA fragments of at least one bacterium in a microbiome sample of the subject to obtain a plurality of nucleic acid sequencing data; (b) aligning said plurality of nucleic acid sequence data to at least one reference sequence, said reference sequence being of a genome of the bacterium; and (c) analyzing the frequency of at least one nucleotide positioned at the origin of replication of said genome and the frequency of at least one nucleotide positioned at the replication terminus of said genome, wherein the ratio of said frequencies is indicative of the growth rate of the bacterium; (d) comparing said growth rate of said at least one bacterium in said microbiome sample of the subject to the growth rate of said at least one bacterium in a microbiome of a subject having said disease, wherein when said growth rate of said at least one bacterium in said microbiome sample is statistically significantly similar to said growth rate of said at least one bacterium in said microbiome of said subject having said disease, it is indicative that the subject has said disease. (a) sequencing DNA fragments of at least one bacterium in a microbiome sample of the subject to obtain a plurality of nucleic acid sequencing data; (b) aligning said plurality of nucleic acid sequence data to at least one reference sequence, said reference sequence being of a genome of the bacterium; and (c) analyzing the frequency of at least one nucleotide positioned at the origin of replication of said genome and the frequency of at least one nucleotide positioned at the replication terminus of said genome, wherein the ratio of said frequencies is indicative of the growth rate of the bacterium; (d) comparing said growth rate of said at least one bacterium in said microbiome sample of the subject to the growth rate of said at least one bacterium in a microbiome of a subject having said disease, wherein when said growth rate of said at least one bacterium in said microbiome sample is statistically significantly similar to said growth rate of said at least one bacterium in said microbiome of said subject having said disease, it is indicative that the subject has said disease.
A pharmaceutical composition for use in photochemical cross-linking of corneal collagen, comprising (a) 0.015% sodium iodide by weight, (b) 0.5% riboflavin by weight, and (c) a pharmaceutically-acceptable excipient, wherein the composition has a basic pH that permits iodide ion to catalytically break hydrogen peroxide into water and oxygen.
Curable composition for preparing a composite polymer electrolyte, the curable composition containing: (A) a Li-ion conducting solid electrolyte (B) a polymer; (C) a lithium salt; (D) an active plasticizer; and (E) a photoinitiator wherein the Li-ion conducting solid electrolyte (A) is lithium-lanthanum-zirconate (LLZO), wherein the polymer (B) is poly(ethylene oxide) (PEO) and/or poly(propylene oxide) (PPO), and wherein the active plasticizer (D) is one or more selected from the group consisting of: dimethoxytetraethylene glycol (TEGDME), diethylene glycol dimethyl ether, triethylene glycol dimethyl ether, poly(ethylene glycol) dimethyl ether. (A) a Li-ion conducting solid electrolyte (B) a polymer; (C) a lithium salt; (D) an active plasticizer; and (E) a photoinitiator wherein the Li-ion conducting solid electrolyte (A) is lithium-lanthanum-zirconate (LLZO), wherein the polymer (B) is poly(ethylene oxide) (PEO) and/or poly(propylene oxide) (PPO), and wherein the active plasticizer (D) is one or more selected from the group consisting of: dimethoxytetraethylene glycol (TEGDME), diethylene glycol dimethyl ether, triethylene glycol dimethyl ether, poly(ethylene glycol) dimethyl ether.