mhurhangee/patent-ind-claim-en huggingface dataset:
An image pickup apparatus capable of generating a restored image from an original image for improving image sharpness, the image pickup apparatus comprising: an image pickup element configured to photoelectrically convert an object image formed via an image pickup optical system to obtain the original image, characterized by an image processing unit configured to generate the restored image from the original image by using an image restoration filter common to a first image height and a second image height, the first image height indicating a first position in the original image and the second image height indicating a second position in the original image different from the first position, when the F number is not less than the predetermined value, and configured not to perform image restoration processing when the F number is less than the predetermined value. an image pickup element configured to photoelectrically convert an object image formed via an image pickup optical system to obtain the original image, characterized by an image processing unit configured to generate the restored image from the original image by using an image restoration filter common to a first image height and a second image height, the first image height indicating a first position in the original image and the second image height indicating a second position in the original image different from the first position, when the F number is not less than the predetermined value, and configured not to perform image restoration processing when the F number is less than the predetermined value.
A method of preparing an acrylonitrile dimer, the method comprising: supplying an acrylonitrile monomer, a phosphorus-based catalyst, and an alcohol solvent to a reactor to perform a dimerization reaction to produce dimerized reactants (S10); cooling the dimerized reactants to crystallize the phosphorus-based catalyst (S20); separating the crystallized phosphorus-based catalyst (S30); and supplying the dimerized reactants from which the phosphorus-based catalyst is separated to a distillation column to separate the acrylonitrile dimer (S40), wherein the phosphorus-based catalyst is represented by the following Chemical Formula 1: wherein R 1 to R 3 are, independently from one another, hydrogen, an alkyl group having 1 to 5 carbon atoms, an amino group, or an alkoxy group, and n is an integer of 1 to 3. supplying an acrylonitrile monomer, a phosphorus-based catalyst, and an alcohol solvent to a reactor to perform a dimerization reaction to produce dimerized reactants (S10); cooling the dimerized reactants to crystallize the phosphorus-based catalyst (S20); separating the crystallized phosphorus-based catalyst (S30); and supplying the dimerized reactants from which the phosphorus-based catalyst is separated to a distillation column to separate the acrylonitrile dimer (S40), wherein the phosphorus-based catalyst is represented by the following Chemical Formula 1: wherein R 1 to R 3 are, independently from one another, hydrogen, an alkyl group having 1 to 5 carbon atoms, an amino group, or an alkoxy group, and n is an integer of 1 to 3.
An injectable composition for use in a method of repairing or augmenting a tissue in a subject, said composition comprising a plurality of porous silk fibroin particles, wherein the porous silk fibroin particles are not a hydrogel, wherein the silk fibroin particles retain at least 50% of their original volume within the tissue for at least 6 weeks, wherein the porous silk fibroin particles have a porosity of at least 1% and a size of 500 nm to 5000 μm.
A cylinder lock comprising a rotatable lock barrel and a cam for actuating the bolting means of a door; the cylinder lock further comprising two ends, a first end positioned on a first side of the cam and a second end positioned on a second side of the cam, substantially opposite said first end; wherein at least said first end comprises a keyhole which, when a key is inserted, actuates the cam to lock or unlock the bolting means of the door; wherein the lock further comprises a drive assembly for displacing said cam when a key is inserted and having a spool , and a securing means comprising a spring and a pin which is displaceable, by said drive assembly, between a first position in which the pin is held down against the spring by the spool so that it is engaged in a hole of the lock barrel to prevent movement of the cam, and a second position wherein the pin disengages the hole of the lock barrel to allow movement of the cam; whereby, in use, when a key is not present in the lock, the securing means is in the first position to prevent movement of the cam and thus the bolting means of the door.
A method for wireless communication channel management, comprising: detecting , at a first device, a trigger condition for changing an operating frequency band of a wireless communication link between the first device and a second device; obtaining, at the first device, a target operating frequency band for the wireless communication link based on detecting the trigger condition; and generating , at the first device, a request to change the operating frequency band to the target operating frequency band based on detecting the trigger condition, wherein the request indicates the target operating frequency band; transmitting the request from the first device to the second device over each of a plurality of available operating frequency bands; and tuning , at the first device, a transceiver to the target operating frequency band. detecting , at a first device, a trigger condition for changing an operating frequency band of a wireless communication link between the first device and a second device; obtaining, at the first device, a target operating frequency band for the wireless communication link based on detecting the trigger condition; and generating , at the first device, a request to change the operating frequency band to the target operating frequency band based on detecting the trigger condition, wherein the request indicates the target operating frequency band; transmitting the request from the first device to the second device over each of a plurality of available operating frequency bands; and tuning , at the first device, a transceiver to the target operating frequency band.
A torque limiting driver system, comprising: a torque limiting driver including: a handle with a locking cap engagement protrusion ; a shaft with a cam portion including a cam mating feature ; and a locking cap including: a mating recess including a plurality of scallops along the outer edge of the mating recess and wherein the plurality of scallops are configured to interface with the locking cap engagement protrusion; a through-hole with through-hole mating feature configured to interface with the cam mating feature, wherein the locking cap is configured to engage the torque limiting driver to lock the rotation of the shaft with respect to the handle, and wherein the shaft includes a shaft recess , and the locking cap includes a snap arm configured to engage the shaft recess such that the locking cap is fixed to the torque limiting driver. a handle with a locking cap engagement protrusion ; a shaft with a cam portion including a cam mating feature ; and a locking cap including: a mating recess including a plurality of scallops along the outer edge of the mating recess and wherein the plurality of scallops are configured to interface with the locking cap engagement protrusion; a through-hole with through-hole mating feature configured to interface with the cam mating feature, a mating recess including a plurality of scallops along the outer edge of the mating recess and wherein the plurality of scallops are configured to interface with the locking cap engagement protrusion; a through-hole with through-hole mating feature configured to interface with the cam mating feature, wherein the locking cap is configured to engage the torque limiting driver to lock the rotation of the shaft with respect to the handle, and wherein the shaft includes a shaft recess , and the locking cap includes a snap arm configured to engage the shaft recess such that the locking cap is fixed to the torque limiting driver.
A recombinant E. coli, comprising the modifications of: inhibited expression of the gene(s) involved in phosphoenolpyruvate: sugar phosphotransferase system (PTS), and/or inhibited activities of the protein(s) encoded by the gene(s) involved in phosphoenolpyruvate:sugar phosphotransferase system (PTS), inhibited expression of pflB and/or adhE genes, and/or inhibited activities of the proteins encoded by pflB and/or adhE genes, inhibited expression of ldhA gene, and/or inhibited activity of the protein encoded by ldhA gene, and enhanced expression of galP gene and/or exogenous glf gene, and/or enhanced activities of the proteins encoded by galP gene and/or exogenous glf gene; wherein said E. coli further comprises one or more of the modifications of (a) enhanced expression of one or more of the genes tktA, talB and pgl, and/or enhanced activities of one or more of the proteins encoded by the genes tktA, talB and pgl; and (b) enhanced expression of sthA gene, and/or enhanced activity of the protein encoded by sthA gene, wherein pflB gene encodes pyruvate formate lyase (EC No: 2.3.1.54); adhE gene encodes ethanol/acetaldehyde dehydrogenase (EC No: 1.1.1.1, EC No: 1.2.1.10); ldhA gene encodes lactate dehydrogenase A (EC No: 1.1.1.28); galP gene encodes galactose MFS transporter; glf gene encodes glucose transporter Glf; tktA gene encodes transketolase (EC No: 2.2.1.1), talB gene encoding transaldolase (EC No: 2.2.1.2); pgl gene encoding 6-Phosphogluconolactonase (EC No: 3.1.1.31); and sthA gene encodes a soluble transhydrogenase (EC No: 1.6.1.1). inhibited expression of the gene(s) involved in phosphoenolpyruvate: sugar phosphotransferase system (PTS), and/or inhibited activities of the protein(s) encoded by the gene(s) involved in phosphoenolpyruvate:sugar phosphotransferase system (PTS), inhibited expression of pflB and/or adhE genes, and/or inhibited activities of the proteins encoded by pflB and/or adhE genes, inhibited expression of ldhA gene, and/or inhibited activity of the protein encoded by ldhA gene, and enhanced expression of galP gene and/or exogenous glf gene, and/or enhanced activities of the proteins encoded by galP gene and/or exogenous glf gene; (a) enhanced expression of one or more of the genes tktA, talB and pgl, and/or enhanced activities of one or more of the proteins encoded by the genes tktA, talB and pgl; and (b) enhanced expression of sthA gene, and/or enhanced activity of the protein encoded by sthA gene,
An RFeB-based sintered magnet having a composition consisting of: 24-31% by mass of at least one element selected from the group consisting of Nd, Pr, La and Ce; 0.1-6.5% by mass of at least one element selected from the group consisting of Dy and Tb; 0.8-1.4% by mass of B; 0.03-0.2% by mass of at least one element selected from the group consisting of Zr, Ti, Hf and Nb; 0.8-5.5% by mass of Co; 0.1-1.0% by mass of Cu; 0.1-1.0% by mass of Al; and up to 1.0% by mass of Ga, with a remainder being Fe and unavoidable impurities, wherein the composition has a total content of Cu and Al being higher than 0.5% by mass, and having a distribution in which the content of Cu and the content of Al gradually decrease from the surface of the sintered magnet toward the inner part thereof. 24-31% by mass of at least one element selected from the group consisting of Nd, Pr, La and Ce; 0.1-6.5% by mass of at least one element selected from the group consisting of Dy and Tb; 0.8-1.4% by mass of B; 0.03-0.2% by mass of at least one element selected from the group consisting of Zr, Ti, Hf and Nb; 0.8-5.5% by mass of Co; 0.1-1.0% by mass of Cu; 0.1-1.0% by mass of Al; and up to 1.0% by mass of Ga, with a remainder being Fe and unavoidable impurities, wherein the composition has a total content of Cu and Al being higher than 0.5% by mass, and having a distribution in which the content of Cu and the content of Al gradually decrease from the surface of the sintered magnet toward the inner part thereof.
A vehicle front body structure comprising: a radiator support upper part disposed in a front portion of a vehicle, extending in a vehicle width direction, and supporting an upper portion of a radiator body; a bumper reinforcement disposed forward and downward of the radiator support upper part in the vehicle, and extending in the vehicle width direction; a pair of brackets each coupling the radiator support upper part with the bumper reinforcement ; and characterized by a hood lock configured to lock a striker attached to a front hood which covers a region above the front portion of the vehicle, wherein the hood lock has each end in the vehicle width direction coupled with both one of the pair of brackets and the radiator support upper part . a radiator support upper part disposed in a front portion of a vehicle, extending in a vehicle width direction, and supporting an upper portion of a radiator body; a bumper reinforcement disposed forward and downward of the radiator support upper part in the vehicle, and extending in the vehicle width direction; a pair of brackets each coupling the radiator support upper part with the bumper reinforcement ; and characterized by a hood lock configured to lock a striker attached to a front hood which covers a region above the front portion of the vehicle, wherein the hood lock has each end in the vehicle width direction coupled with both one of the pair of brackets and the radiator support upper part .
An operating device for a robot-assisted surgery system, with a manually actuatable operating element comprising two straps for receiving one finger of a user each, and with an interface for attaching the operating device to a holding unit , wherein the operating element , when the operating device is attached to the holding unit , is rotatable relative to the interface about a first axis of rotation , a second axis of rotation and a third axis of rotation , the three axes of rotation each being orthogonal to each other, wherein the three axes of rotation intersect in a common point of intersection , characterized in that the operating element comprises a disk-like basic body, and that the two straps are arranged on both sides of the basic body.
Sealing plug for closing holes in walls and the like suitable for holding a fluid , comprising an elastic body and a stem assembled coaxially with respect to one another, wherein said elastic body is suitable for being expanded radially by pulling on the free end of the stem , which projects out of the elastic body , once it is inserted into a hole , said elastic body applying a closing pressure (P1) against the hole for closing it, the stem being arranged inside a rivet sleeve of the sealing plug , a head (3") of the stem being supported on one end of the rivet sleeve , characterized in that the plug comprises an empty space arranged between the elastic body and the rivet sleeve and communicated with the outside, such that the entrance of fluid into the elastic body is allowed so that said fluid applies pressure (P2) against the elastic body , the closing pressure (P1) applied by said elastic body against the hole thereby increasing.
A drive train for an agricultural vehicle with a steerable front axle and at least one further vehicle axle , wherein the drive train comprises a main drive element for the provision of a torque which can be transmitted to a main transmission by means of a drive shaft , as well as a selectable clutch for electively driving the front axle in conjunction with the further vehicle axis , wherein the main transmission can be operatively connected to the front axle and/or the further vehicle axle and the torque can be distributed thereto in order to drive the front axle and/or the further vehicle axle , characterized in that a secondary drive train is provided on which only an electric motor is disposed, and the electric motor can be operatively connected to the drive train by means of exactly one controllable torque transmission device , wherein at least one control device is associated with the drive train and is configured to control at least the torque transmission device as a function of an operational mode of the drive train and in one operational mode, the electric motor enables operation of at least the front axle , which operation being independent of the operational state of the main drive element , wherein the independent operation of the front axle is configured in the form of steering assistance which enables the speed of the front axle to be increased by connecting up the electric motor .
A lighting arrangement comprising: a light panel including a frame and a plurality of light emitting units mounted on said frame ; a bracket mountable on at least one of a wall and a ceiling, said frame of said light panel and said bracket selectively engageable with one another through one of rectilinear movement and rotational movement of said light panel relative to said bracket along a first path of movement in a first direction between a first position and a second position; and a connecting member fixedly engaged with at least one of said light panel and said bracket , said connecting member configured to interconnect said light panel and said bracket , said connecting member configured to accumulate energy during movement of said frame along said first path of movement wherein the accumulated energy is at least partially released upon said light panel reaching said second position; characterized in that said light panel moves along a second path different than said first path in response to release of at least a portion of the energy accumulated by the connecting member at said second position along said first path. a light panel including a frame and a plurality of light emitting units mounted on said frame ; a bracket mountable on at least one of a wall and a ceiling, said frame of said light panel and said bracket selectively engageable with one another through one of rectilinear movement and rotational movement of said light panel relative to said bracket along a first path of movement in a first direction between a first position and a second position; and a connecting member fixedly engaged with at least one of said light panel and said bracket , said connecting member configured to interconnect said light panel and said bracket , said connecting member configured to accumulate energy during movement of said frame along said first path of movement wherein the accumulated energy is at least partially released upon said light panel reaching said second position; characterized in that said light panel moves along a second path different than said first path in response to release of at least a portion of the energy accumulated by the connecting member at said second position along said first path.
A resin composition for a fiber-reinforced composite material, comprising, as essential components: an epoxy resin (A); an acid anhydride-based curing agent (B); and an imidazole-based curing accelerator (C), wherein the resin composition has a viscosity at 25°C measured with an E-type viscometer in a range of from 50 mPa·s to 800 mPa·s, and shows a viscosity increase ratio after a lapse of 8 hr at 25°C of 200% or less, wherein 50 mass% or more of the epoxy resin (A) comprises a phenol novolac-type epoxy resin containing a compound represented by the following general formula and a compound represented by the following general formula , and wherein, in gel permeation chromatography measurement, the phenol novolac-type epoxy resin contains a body corresponding to m=0 of the compound represented by the following general formula at a ratio of 75% by area or more and a body corresponding to m=1 thereof at a ratio of 6% by area or less: where m represents an integer of 0 or more, and represents from 0 to 5; where n represents an integer of 0 or more, and represents from 0 to 2. an epoxy resin (A); an acid anhydride-based curing agent (B); and an imidazole-based curing accelerator (C), wherein the resin composition has a viscosity at 25°C measured with an E-type viscometer in a range of from 50 mPa·s to 800 mPa·s, and shows a viscosity increase ratio after a lapse of 8 hr at 25°C of 200% or less, wherein 50 mass% or more of the epoxy resin (A) comprises a phenol novolac-type epoxy resin containing a compound represented by the following general formula and a compound represented by the following general formula , and wherein, in gel permeation chromatography measurement, the phenol novolac-type epoxy resin contains a body corresponding to m=0 of the compound represented by the following general formula at a ratio of 75% by area or more and a body corresponding to m=1 thereof at a ratio of 6% by area or less: where m represents an integer of 0 or more, and represents from 0 to 5; where n represents an integer of 0 or more, and represents from 0 to 2.
A method of fault detection in an electromechanical device , the electromechanical device including a rotor assembly , a main bearing , a main shaft , a drive train and a generator generating output power, wherein the rotor assembly is coupled to the generator via the drive train , the method comprising: receiving a measured electrical signal from the generator of the electromechanical device ; receiving a measured vibration signal from a drive train of the electromechanical device , coupled to the generator ; determining a first signal signature based on the measured electrical signal, comprising determining a spectrum of the electrical signal; determining a second signal signature based on the measured vibration signal, comprising determining a spectrum of the vibration signal; determining a plurality of diagnostic parameters, wherein at least one diagnostic parameter is based on the first signal signature and at least one other diagnostic parameter is based on the second signal signature; and determining a fault in the drive train based on the plurality of diagnostic parameters, and determining the severity of the fault by comparing the plurality of diagnostic parameters with two thresholds for classifying the severity. receiving a measured electrical signal from the generator of the electromechanical device ; receiving a measured vibration signal from a drive train of the electromechanical device , coupled to the generator ; determining a first signal signature based on the measured electrical signal, comprising determining a spectrum of the electrical signal; determining a second signal signature based on the measured vibration signal, comprising determining a spectrum of the vibration signal; determining a plurality of diagnostic parameters, wherein at least one diagnostic parameter is based on the first signal signature and at least one other diagnostic parameter is based on the second signal signature; and determining a fault in the drive train based on the plurality of diagnostic parameters, and determining the severity of the fault by comparing the plurality of diagnostic parameters with two thresholds for classifying the severity.