mhurhangee/patent-ind-claim-en huggingface dataset:
Electromechanical protective switching device , in particular residual-current circuit breaker, having - an insulating-material housing , - an electromechanical tripping relay which is received and held in the insulating-material housing and has a plunger which is mounted moveably between a ready-to-trip inoperative position and a tripped position, - a resetting device for returning the plunger to the ready-to-trip position, wherein the resetting device has a main body mounted moveably in the insulating-material housing and to which a damping element is fastened, the damping element being designed to act on the plunger in the event of a movement of the main body in order to return the plunger to the ready-to-trip position, wherein the damping element is formed elastically in such a way that the pulse of the main body acting on the plunger is damped as a result, - and wherein the main body is movable between a ready-to-reset first position and a second position, characterized - in that the damping element is not fixedly clamped to the main body but rather has a degree of freedom counter to the movement to the second position, so that a free end of the damping element , which serves for returning the plunger , can lift off relative to the main body counter to a movement of the main body to its second position. - an insulating-material housing , - an electromechanical tripping relay which is received and held in the insulating-material housing and has a plunger which is mounted moveably between a ready-to-trip inoperative position and a tripped position, - a resetting device for returning the plunger to the ready-to-trip position, wherein the resetting device has a main body mounted moveably in the insulating-material housing and to which a damping element is fastened, the damping element being designed to act on the plunger in the event of a movement of the main body in order to return the plunger to the ready-to-trip position, wherein the damping element is formed elastically in such a way that the pulse of the main body acting on the plunger is damped as a result, - and wherein the main body is movable between a ready-to-reset first position and a second position, characterized - in that the damping element is not fixedly clamped to the main body but rather has a degree of freedom counter to the movement to the second position, so that a free end of the damping element , which serves for returning the plunger , can lift off relative to the main body counter to a movement of the main body to its second position.
A water-soluble unit dose article comprising a water-soluble film and a laundry detergent composition, wherein the laundry detergent composition is preferably selected from a liquid, a solid or a mixture thereof , and wherein said detergent composition comprises; a. from 1% to 5%, most preferably from 2% to 4% by weight of the laundry detergent composition of a zwitterionic polyamine; and b. between 7% and 17% by weight of the laundry detergent composition of a first non-soap surfactant, wherein the first non-soap anionic surfactant is selected from an alkyl sulphate anionic surfactant, an alkoxylated alkyl sulphate anionic surfactant or a mixture thereof. a. from 1% to 5%, most preferably from 2% to 4% by weight of the laundry detergent composition of a zwitterionic polyamine; and b. between 7% and 17% by weight of the laundry detergent composition of a first non-soap surfactant, wherein the first non-soap anionic surfactant is selected from an alkyl sulphate anionic surfactant, an alkoxylated alkyl sulphate anionic surfactant or a mixture thereof.
A method for determining fluid content in a formation sample , the method comprising: disposing the formation sample with a standard sample of a known chemical composition and one or more nuclear magnetic resonance (NMR) attributes in a NMR coil or probe ; acquiring NMR signals for the formation sample and the standard sample simultaneously; and determining fluid content in the formation sample (V r ) using the formula: V r = V st M st M r where M st is the NMR signal of the standard sample with known fluid volume (V st ) and M r is the NMR signal of the formation sample, and where the NMR attributes of the standard sample are distinct but not too far from the NMR attributes of the formation sample. disposing the formation sample with a standard sample of a known chemical composition and one or more nuclear magnetic resonance (NMR) attributes in a NMR coil or probe ; acquiring NMR signals for the formation sample and the standard sample simultaneously; and determining fluid content in the formation sample (V r ) using the formula: V r = V st M st M r where M st is the NMR signal of the standard sample with known fluid volume (V st ) and M r is the NMR signal of the formation sample, and where the NMR attributes of the standard sample are distinct but not too far from the NMR attributes of the formation sample.
An elevator with a cabin having a cabin roof and a barrier arranged on at least one side of the cabin roof to provide anti-fall safety protection, wherein the barrier has at least one bar, in particular a handrail , an intermediate rail , and a toeboard, characterised in that , cables are routed within a bar of the barrier .
A method for producing a dermal layer for grafting wherein the dermal layer has an improved graft survival rate, the method comprising: a first step of preparing a DNA fragment mixture stock solution; a second step of preparing a chitosan stock solution; a third step of mixing the DNA fragment mixture stock solution and the chitosan stock solution and stirring the resulting mixture, followed by sterilization to afford a loading solution containing the DNA fragment mixture and chitosan; and a fourth step of loading the loading solution to an acellular dermal matrix, wherein the weight ratio between the DNA fragment mixture and the chitosan in the third step is 20:1-10, 000:1, and wherein the DNA fragment mixture is isolated from fish testis and sperm. a first step of preparing a DNA fragment mixture stock solution; a second step of preparing a chitosan stock solution; a third step of mixing the DNA fragment mixture stock solution and the chitosan stock solution and stirring the resulting mixture, followed by sterilization to afford a loading solution containing the DNA fragment mixture and chitosan; and a fourth step of loading the loading solution to an acellular dermal matrix, wherein the weight ratio between the DNA fragment mixture and the chitosan in the third step is 20:1-10, 000:1, and wherein the DNA fragment mixture is isolated from fish testis and sperm.
Method for scanning with an optical beam using a first acousto-optic deflector having an optical axis along a Z-axis and at least one acousto-optic crystal layer , directing the optical beam into the first acousto-optic deflector , and deflecting the optical beam along an X-axis being perpendicular to the Z-axis by means of the first acousto-optic deflector , during which a plurality of acoustic chirp signals are generated in the at least one acousto-optic crystal layer of the acousto-optic deflector characterised by using a single electro-acoustic wave generator connected to the crystal layer by applying a first voltage signal having duration of τ to the electro-acoustic wave generator thereby generating a first acoustic chirp signal , then applying a second voltage signal to the electro-acoustic wave generator within a duration τ following the start of the generation of the first acoustic chirp signal thereby generating a second acoustic chirp signal , wherein the acoustic chirp signals are either partially or entirely overlapping each other in the crystal layer .
A combustor of a gas turbine engine comprising: a first heat shield that includes a first edge with a first set of cantilevered members ; and a second heat shield that includes a second edge, the second edge with a second set of cantilevered members interleaved with said first set of cantilevered members ; wherein said first set of cantilevered members and said second set of cantilevered members are hooks that are J-shaped. a first heat shield that includes a first edge with a first set of cantilevered members ; and a second heat shield that includes a second edge, the second edge with a second set of cantilevered members interleaved with said first set of cantilevered members ; wherein said first set of cantilevered members and said second set of cantilevered members are hooks that are J-shaped.
A duct comprising a check valve (10; 110), the check valve (10; 110) comprising: a valve housing (14; 114) defining an opening (16; 116); a plurality of flapper elements (18; 118) each having a proximal end (26; 126) and a distal end (28; 128), the flapper elements (18; 118) being pivotally mounted to the valve housing (14; 114) at their proximal ends (26; 126) for pivotal movement between a closed position, in which they block the flow of fluid through the opening (16; 116) and an open position in which they permit the flow of fluid through the opening (16; 116), wherein each flapper element (18; 118) is generally triangular or trapezoidal in shape such that the flapper elements (18; 118) together create a generally conical or frustoconical surface (21; 121) when the valve (10; 110) is in the closed position; characterized in that the check valve (10; 110) further comprises a resilient band extending around a circumference of the conical or frustoconical surface (21; 121) defined by the plurality of flapper elements (18; 118) in the closed position for biasing the flapper elements (18; 118) towards the closed position wherein one or more of the flapper elements (18; 118) comprises a locator (38; 138) for locating the resilient band (36; 136); and wherein the resilient band (36; 136) projects above the locator (38; 138) in the open position of the valve (10; 110) so that in the open position of the check valve (10; 110), the resilient band (36; 136) contacts an inner wall of the duct . a valve housing (14; 114) defining an opening (16; 116); a plurality of flapper elements (18; 118) each having a proximal end (26; 126) and a distal end (28; 128), the flapper elements (18; 118) being pivotally mounted to the valve housing (14; 114) at their proximal ends (26; 126) for pivotal movement between a closed position, in which they block the flow of fluid through the opening (16; 116) and an open position in which they permit the flow of fluid through the opening (16; 116), wherein each flapper element (18; 118) is generally triangular or trapezoidal in shape such that the flapper elements (18; 118) together create a generally conical or frustoconical surface (21; 121) when the valve (10; 110) is in the closed position; characterized in that the check valve (10; 110) further comprises a resilient band extending around a circumference of the conical or frustoconical surface (21; 121) defined by the plurality of flapper elements (18; 118) in the closed position for biasing the flapper elements (18; 118) towards the closed position wherein one or more of the flapper elements (18; 118) comprises a locator (38; 138) for locating the resilient band (36; 136); and wherein the resilient band (36; 136) projects above the locator (38; 138) in the open position of the valve (10; 110) so that in the open position of the check valve (10; 110), the resilient band (36; 136) contacts an inner wall of the duct .
An array comprising: (a) a substrate; and (b) a plurality of recombinant herpesviridae virion microspots associated with a surface of the substrate, wherein the recombinant herpesviridae virion microspots comprise a plurality of recombinant herpesviridae virions, wherein the recombinant herpesviridae virions comprise envelopes comprising a plurality of heterologous membrane bound proteins that retain their native conformations, interactions or both, and wherein the heterologous membrane bound proteins are encoded by the genomes of the recombinant herpesviridae virions. (a) a substrate; and (b) a plurality of recombinant herpesviridae virion microspots associated with a surface of the substrate, wherein the recombinant herpesviridae virion microspots comprise a plurality of recombinant herpesviridae virions, wherein the recombinant herpesviridae virions comprise envelopes comprising a plurality of heterologous membrane bound proteins that retain their native conformations, interactions or both, and wherein the heterologous membrane bound proteins are encoded by the genomes of the recombinant herpesviridae virions.
A measurement method, comprising: after a terminal device receives a first measurement request from a device initiating a first measurement task, when the terminal device does not finish performing the first measurement task, receiving (S201), by the terminal device, a second measurement request from a device initiating a second measurement task; and performing (S202), by the terminal device, the first measurement task in a first measurement gap, and skipping performing the second measurement task; wherein the first measurement task is a positioning measurement task and the second measurement task is a non-positioning measurement task. after a terminal device receives a first measurement request from a device initiating a first measurement task, when the terminal device does not finish performing the first measurement task, receiving (S201), by the terminal device, a second measurement request from a device initiating a second measurement task; and performing (S202), by the terminal device, the first measurement task in a first measurement gap, and skipping performing the second measurement task; wherein the first measurement task is a positioning measurement task and the second measurement task is a non-positioning measurement task.
A solid tablet that is directly-compressed of powder, comprising meloxicam or a pharmaceutically acceptable salt thereof and excipients, characterized in that (i) the directly-compressed powder was not subjected to a granulation step, (ii) the solid tablet contains 1.0 mg meloxicam, (iii) the solid tablet has a tablet weight of 800 mg, (iv) meloxicam is homogenously dispersed within the solid tablet, (v) the solid tablet has one or two breaking notches/score lines that enable the solid tablet to be broken into two, three or four units with each unit containing equal amounts of the active ingredient, and (vi) the excipients comprise maize starch, microcrystalline cellulose, ferric oxide brown, ferric oxide yellow, sodium citrate dehydrate, anhydrous silicon dioxide, magnesium stearate and an artificial beef flavour. (i) the directly-compressed powder was not subjected to a granulation step, (ii) the solid tablet contains 1.0 mg meloxicam, (iii) the solid tablet has a tablet weight of 800 mg, (iv) meloxicam is homogenously dispersed within the solid tablet, (v) the solid tablet has one or two breaking notches/score lines that enable the solid tablet to be broken into two, three or four units with each unit containing equal amounts of the active ingredient, and (vi) the excipients comprise maize starch, microcrystalline cellulose, ferric oxide brown, ferric oxide yellow, sodium citrate dehydrate, anhydrous silicon dioxide, magnesium stearate and an artificial beef flavour.
A flooding topology repair method performed by a network node, the method comprising the steps of: • detecting (step 402) a network failure, the network failure being a failed link; • determining (step 404) that the network failure is on the flooding topology; • determining (step 408) whether the flooding topology is split by the failed link, wherein the determining whether the flooding topology is split by the failed link comprises: ∘ determining a first number of nodes on the flooding topology by traversing the flooding topology; ∘ comparing the first number of nodes on the flooding topology to a second number of nodes on the flooding topology maintained in a link state database, LSDB, of the network node; and ∘ determining that the flooding topology is split when the first number of nodes on the flooding topology is less than the second number of nodes on the flooding topology; and • in case the flooding topology is split, repairing (step 414) the flooding topology. • detecting (step 402) a network failure, the network failure being a failed link; • determining (step 404) that the network failure is on the flooding topology; • determining (step 408) whether the flooding topology is split by the failed link, wherein the determining whether the flooding topology is split by the failed link comprises: ∘ determining a first number of nodes on the flooding topology by traversing the flooding topology; ∘ comparing the first number of nodes on the flooding topology to a second number of nodes on the flooding topology maintained in a link state database, LSDB, of the network node; and ∘ determining that the flooding topology is split when the first number of nodes on the flooding topology is less than the second number of nodes on the flooding topology; and ∘ determining a first number of nodes on the flooding topology by traversing the flooding topology; ∘ comparing the first number of nodes on the flooding topology to a second number of nodes on the flooding topology maintained in a link state database, LSDB, of the network node; and ∘ determining that the flooding topology is split when the first number of nodes on the flooding topology is less than the second number of nodes on the flooding topology; and • in case the flooding topology is split, repairing (step 414) the flooding topology.
An information processing device comprising: an action recognition unit configured to recognize an action of a user based on sensor information; a speed acquisition unit configured to acquire speed information indicating a movement speed of the user; and a correction unit configured to correct an action recognition result based on a comparison result between the speed information and a speed threshold set according to the action recognition result, wherein the speed acquisition unit is configured to: calculate the speed information based on positional information of the user, and exclude positional information of a point (F) other than an initial point (E) and a terminal point (G) of a still section when the point is determined to be still for a predetermined time or more within a predetermined range around the initial point (E), and acquire time information of the still section. an action recognition unit configured to recognize an action of a user based on sensor information; a speed acquisition unit configured to acquire speed information indicating a movement speed of the user; and a correction unit configured to correct an action recognition result based on a comparison result between the speed information and a speed threshold set according to the action recognition result, wherein the speed acquisition unit is configured to: calculate the speed information based on positional information of the user, and exclude positional information of a point (F) other than an initial point (E) and a terminal point (G) of a still section when the point is determined to be still for a predetermined time or more within a predetermined range around the initial point (E), and acquire time information of the still section. calculate the speed information based on positional information of the user, and exclude positional information of a point (F) other than an initial point (E) and a terminal point (G) of a still section when the point is determined to be still for a predetermined time or more within a predetermined range around the initial point (E), and acquire time information of the still section.
A liquid dispenser for animals, including: a tank including a bottom, and a wall extending upward from the bottom; a base provided below the bottom of the tank ; at least one first electronic device provided in the base and operated via electric power; an inner assembly that is removable from the tank , the inner assembly having an outlet for dispensing liquid from the tank ; and a power supply assembly configured to transmit and receive wireless power in both directions between the base and inner assembly , the power supply assembly including: a docking station configured to receive external power, the docking station being provided below the base , a battery (B) provided in the inner assembly , a first wireless power transfer device electrically connected to the battery (B) and the at least one first electronic device, and a controller (C) configured to control the battery (B) to supply power to the first electronic device via the first wireless power transfer device when the docking station is not connected to the base or not receiving external power. a tank including a bottom, and a wall extending upward from the bottom; a base provided below the bottom of the tank ; at least one first electronic device provided in the base and operated via electric power; an inner assembly that is removable from the tank , the inner assembly having an outlet for dispensing liquid from the tank ; and a power supply assembly configured to transmit and receive wireless power in both directions between the base and inner assembly , the power supply assembly including: a docking station configured to receive external power, the docking station being provided below the base , a battery (B) provided in the inner assembly , a first wireless power transfer device electrically connected to the battery (B) and the at least one first electronic device, and a controller (C) configured to control the battery (B) to supply power to the first electronic device via the first wireless power transfer device when the docking station is not connected to the base or not receiving external power. a docking station configured to receive external power, the docking station being provided below the base , a battery (B) provided in the inner assembly , a first wireless power transfer device electrically connected to the battery (B) and the at least one first electronic device, and a controller (C) configured to control the battery (B) to supply power to the first electronic device via the first wireless power transfer device when the docking station is not connected to the base or not receiving external power.