mhurhangee/patent-ind-claim-en huggingface dataset:
An axial gap-type permanent magnetic rotating machine, the machine comprising a rotor comprising a rotating shaft having an axis of rotation, a rotor yoke of disc shape radially extending from the shaft, and a plurality of permanent magnet segments arranged on a surface of the rotor yoke and circumferentially about the axis of rotation such that each permanent magnet segment may have a magnetization direction parallel to the axis of rotation, and a stator having a plurality of coils arranged circumferentially about the axis of rotation, the rotor and the stator being disposed to define an axial gap therebetween, wherein each of said permanent magnet segments is an assembly of two or more divided permanent magnet pieces of a sintered Nd base rare earth magnet, characterised in that each of the divided permanent magnet pieces has (i) a coercive force in a subsurface region which extends to 6 mm from the surface of the magnet piece and in an interior which is greater than 6 mm from the surface of the magnet piece, and the coercive force in the subsurface region of the magnet piece is higher than that in the interior of the magnet piece; or (ii) a heat resistance in a subsurface region which extends to 6 mm from the surface of the magnet piece and in an interior which is greater than 6 mm from the surface of the magnet piece, and the heat resistance in the subsurface region of the magnet piece is higher than that in the interior of the magnet piece. (i) a coercive force in a subsurface region which extends to 6 mm from the surface of the magnet piece and in an interior which is greater than 6 mm from the surface of the magnet piece, and the coercive force in the subsurface region of the magnet piece is higher than that in the interior of the magnet piece; or (ii) a heat resistance in a subsurface region which extends to 6 mm from the surface of the magnet piece and in an interior which is greater than 6 mm from the surface of the magnet piece, and the heat resistance in the subsurface region of the magnet piece is higher than that in the interior of the magnet piece.
A device for remote oil detection comprising the following components: (a) an external housing comprising an outlet window through which air can exhaust when the outlet window is open; (b) an internal housing ; (c) a laser emitter module to sense water and induce oil fluorescence; (d) a receiving module comprising an optical telescope and spectral detection block to detect a laser induced fluorescence spectrum of an echo-signal; (e) a microcontroller module to control device operation and digitize received spectral data; and (f) a data processing, storage and communication module for data analysis and reporting, characterized in that the internal housing is disposed within the external housing , and is hermetically sealed and has an optical window , and wherein the laser module , receiving module and microcontroller module are disposed in the hermetically sealed internal housing , wherein the external housing has an ambient air intake , mist removal system , and heater with temperature sensor to keep the operational temperature of the device at a preset level, wherein the components (a)-(e) are disposed with respect to one another such that a laser beam emitted by the laser module and a fluorescence signal received by the receiving module can pass through both the optical window and outlet window and such that, when air is pumped through the ambient air intake at higher than atmosphere pressure, the air circulates through the external housing and exhausts through the outlet window , and wherein the data processing, storage and communication module is physically separated from the components (a)-(e) of the device and is connected with the microcontroller module via a cable for digital data transmission. (a) an external housing comprising an outlet window through which air can exhaust when the outlet window is open; (b) an internal housing ; (c) a laser emitter module to sense water and induce oil fluorescence; (d) a receiving module comprising an optical telescope and spectral detection block to detect a laser induced fluorescence spectrum of an echo-signal; (e) a microcontroller module to control device operation and digitize received spectral data; and (f) a data processing, storage and communication module for data analysis and reporting,
A LED filament device comprising an elongated LED filament unit , wherein the elongated LED filament unit is configured to generate filament unit light ; wherein: - the elongated LED filament unit comprises n1 sets of LED filaments , wherein the n1 sets of LED filaments are electrically coupled, wherein the n1 sets of LED filaments are configured in a linear array, wherein n1 ≥ 2; wherein each set of LED filaments comprises at least two electrically antiparallel configured LED filaments ; - the LED filaments are configured to generate filament light ; wherein each LED filament comprises n2 solid state-based light generating devices , wherein the solid state-based light generating devices are electrically coupled, wherein the solid state-based light generating devices are configured to generate device light ; wherein n2 for the LED filaments are selected from the range of ≥ 4; - one or more of the coupled solid state-based light generating devices are at least partly encapsulated with an encapsulant comprising a light transmissive material; and characterized in that - two or more of the n1 sets of LED filaments are configured electrically antiparallel. - the elongated LED filament unit comprises n1 sets of LED filaments , wherein the n1 sets of LED filaments are electrically coupled, wherein the n1 sets of LED filaments are configured in a linear array, wherein n1 ≥ 2; wherein each set of LED filaments comprises at least two electrically antiparallel configured LED filaments ; - the LED filaments are configured to generate filament light ; wherein each LED filament comprises n2 solid state-based light generating devices , wherein the solid state-based light generating devices are electrically coupled, wherein the solid state-based light generating devices are configured to generate device light ; wherein n2 for the LED filaments are selected from the range of ≥ 4; - one or more of the coupled solid state-based light generating devices are at least partly encapsulated with an encapsulant comprising a light transmissive material; and characterized in that - two or more of the n1 sets of LED filaments are configured electrically antiparallel.
Method for producing an aqueous solution of potassium carbonate (K 2 CO 3 ) by scrubbing carbon dioxide-containing exhaust gases, characterized in that during the gas scrubbing process, an aqueous solution comprising dump wastewater from potassium mining and containing sodium, potassium, potassium hydroxide, magnesium, chloride and sulphate in dissolved form is used.
A door lock fixture which comprises a faceplate and a fixture body and which is configured to be mounted with its fixture body through a slot in a wall portion of a tubular member , with the faceplate of the fixture being configured to engage an outer surface of said wall portion of the tubular member and to be fixed to said wall portion by means of at least one bolt which is applied through an opening in said faceplate , wherein the fixture comprises at least one clamping lever which is movably mounted onto the fixture body between a retracted position, wherein the fixture body can be inserted through said slot into the tubular member , and an extended position, wherein the clamping lever is arranged to engage an inner surface of said wall portion of the tubular member to clamp said wall portion between the faceplate and the clamping lever , the clamping lever being provided with a screw threaded hole which is axially aligned with said opening in the faceplate in the extended position of the clamping lever and which is arranged to receive said bolt , characterised in that the fixture further comprises a spring for urging the clamping lever towards its extended position.
A method for preparing thin films of titanium sulfide/amine type comprising at least the steps of: - synthesizing titanium sulfide, - intercalating an amine in the titanium sulfide, - adding a solvent selected from among N-methylformamide or N,N-dimethylformamide, - under controlled temperature, sonicating the assembly formed by the titanium sulfide, amine and solvent, - gelling the mixture derived from sonication, - first centrifuging of the at least partially gelled mixture at a speed of between 500 and 1500 rpm, - second centrifuging of the supernatant from the first centrifugation at a speed greater than the speed of the first centrifugation, - forming thin films on a substrate from the sediments of the second centrifugation, and - annealing the formed thin films. - synthesizing titanium sulfide, - intercalating an amine in the titanium sulfide, - adding a solvent selected from among N-methylformamide or N,N-dimethylformamide, - under controlled temperature, sonicating the assembly formed by the titanium sulfide, amine and solvent, - gelling the mixture derived from sonication, - first centrifuging of the at least partially gelled mixture at a speed of between 500 and 1500 rpm, - second centrifuging of the supernatant from the first centrifugation at a speed greater than the speed of the first centrifugation, - forming thin films on a substrate from the sediments of the second centrifugation, and - annealing the formed thin films.
Method for manufacturing a three-dimensional object by successive depositions of layers of a viscous material, comprising the following steps: - providing a working surface (S) on which layers are deposited; - providing a volume of viscous material in proximity to the working surface; - applying at least a portion of the volume of viscous material to the working surface by moving, substantially parallel to the working surface, at least one recoater blade linked to a proximity sensor , said recoater blade being held, during its movement, at a predetermined distance from said working surface (S), characterised in that the predetermined distance is calculated according to at least one calibration value defined during a prior calibration operation comprising the following steps: - positioning at least one calibration stop at a distance comprised between a first distance and a second distance from the working surface (S), the at least one calibration stop being configured to enable the triggering of a signal in the case of contact between the at least one calibration stop and the proximity sensor ; - moving the recoater blade linked to the proximity sensor towards one of the at least one calibration stop ; - stopping the movement of the recoater blade as soon as a signal indicates a contact between the calibration stop and the proximity sensor ; and - estimating the distance between the recoater blade and the working surface after the stopping of the movement, the at least one calibration value comprising the estimated distance. - providing a working surface (S) on which layers are deposited; - providing a volume of viscous material in proximity to the working surface; - applying at least a portion of the volume of viscous material to the working surface by moving, substantially parallel to the working surface, at least one recoater blade linked to a proximity sensor , said recoater blade being held, during its movement, at a predetermined distance from said working surface (S), - positioning at least one calibration stop at a distance comprised between a first distance and a second distance from the working surface (S), the at least one calibration stop being configured to enable the triggering of a signal in the case of contact between the at least one calibration stop and the proximity sensor ; - moving the recoater blade linked to the proximity sensor towards one of the at least one calibration stop ; - stopping the movement of the recoater blade as soon as a signal indicates a contact between the calibration stop and the proximity sensor ; and - estimating the distance between the recoater blade and the working surface after the stopping of the movement, the at least one calibration value comprising the estimated distance.
An impeller for a liquid ring pump comprising: a central hub that defines a central rotational axis about which the impeller rotates and a conical outer surface ; a plurality of angularly spaced apart main vanes extending radially outward from the conical outer surface , wherein the main vanes have a port side and a back side that are axially spaced apart along the central rotational axis , wherein the back side is opposite the port side and the central hub tapers radially outward relative to central rotational axis when moving axially along the central rotational axis from the port side to the back side ; and a reinforcing ring connecting distal end portions of adjacent main vanes , wherein the reinforcing ring is axially positioned between the port side of the main vanes and the back side of the main vanes . a central hub that defines a central rotational axis about which the impeller rotates and a conical outer surface ; a plurality of angularly spaced apart main vanes extending radially outward from the conical outer surface , wherein the main vanes have a port side and a back side that are axially spaced apart along the central rotational axis , wherein the back side is opposite the port side and the central hub tapers radially outward relative to central rotational axis when moving axially along the central rotational axis from the port side to the back side ; and a reinforcing ring connecting distal end portions of adjacent main vanes , wherein the reinforcing ring is axially positioned between the port side of the main vanes and the back side of the main vanes .
A curable hard-coat composition comprising a (meth)acryloyl polymer and inorganic oxide nanoparticles, wherein: the (meth)acryloyl polymer has a double bond equivalent of 150-800 g/eq and a weight average molecular weight of 5,000-200,000; and the average particle size of the inorganic oxide nanoparticles is 6 nm to less than 95 nm; wherein the weight average molecular weight is determined as defined in the description, and wherein the hard-coat composition comprises the (meth)acryloyl polymer in an amount of 30-70 wt% and the inorganic oxide nanoparticles in an amount of 70-30 wt% with respect to the total weight of the hard-coat composition. the (meth)acryloyl polymer has a double bond equivalent of 150-800 g/eq and a weight average molecular weight of 5,000-200,000; and the average particle size of the inorganic oxide nanoparticles is 6 nm to less than 95 nm; wherein the weight average molecular weight is determined as defined in the description, and wherein the hard-coat composition comprises the (meth)acryloyl polymer in an amount of 30-70 wt% and the inorganic oxide nanoparticles in an amount of 70-30 wt% with respect to the total weight of the hard-coat composition.
A single component polyester monofilament for a superfine high-mesh filter, the single component polyester monofilament satisfying conditions A to D shown below: A. as for nodes having a diameter larger by 2 μm or more than a fiber diameter, the nodes being present in 1 million m in a fiber longitudinal direction of the single component polyester monofilament, a total (%) of increase rates of the diameters from the fiber diameter satisfies formula : [Math. 1] ∑ n = 1 k x n − x ′ x ′ × 100 ≤ 10000 wherein X n is a node diameter, x' is the fiber diameter, and k is number of nodes included in 1 million m in the fiber longitudinal direction; B. the single component polyester monofilament has a fineness of 3.0 to 8.0 dtex; C. the single component polyester monofilament has a strength of 5.0 to 6.5 cN/dtex; D. the single component polyester monofilament has a strength at 5% elongation of 2.7 to 3.3 cN/dtex, the strength and the strength at 5% elongation being measured according to JIS L1013 , and E. a molar ratio of a divalent or monovalent metal element content M to a phosphorus element content P in the single component polyester monofilament satisfies a relationship represented by formulae (I) and (II): 0 .25 ≤ M/P ≤ 0 .85 and M = M 2 + M 1 / 2 wherein M 2 represents a divalent metal content, and M 1 represents a monovalent metal content, the metal element content and the phosphorus element content being measured as defined in the description. A. as for nodes having a diameter larger by 2 μm or more than a fiber diameter, the nodes being present in 1 million m in a fiber longitudinal direction of the single component polyester monofilament, a total (%) of increase rates of the diameters from the fiber diameter satisfies formula : [Math. 1] ∑ n = 1 k x n − x ′ x ′ × 100 ≤ 10000 wherein X n is a node diameter, x' is the fiber diameter, and k is number of nodes included in 1 million m in the fiber longitudinal direction; B. the single component polyester monofilament has a fineness of 3.0 to 8.0 dtex; C. the single component polyester monofilament has a strength of 5.0 to 6.5 cN/dtex; D. the single component polyester monofilament has a strength at 5% elongation of 2.7 to 3.3 cN/dtex, the strength and the strength at 5% elongation being measured according to JIS L1013 , and E. a molar ratio of a divalent or monovalent metal element content M to a phosphorus element content P in the single component polyester monofilament satisfies a relationship represented by formulae (I) and (II): 0 .25 ≤ M/P ≤ 0 .85 and M = M 2 + M 1 / 2 wherein M 2 represents a divalent metal content, and M 1 represents a monovalent metal content, the metal element content and the phosphorus element content being measured as defined in the description.
Wiper blade of flat bar construction, having a wiper strip which is held by a band-like, resiliently elastic carrier element which is pre-curved in a concave manner with respect to a wiper lip of the wiper strip , wherein one or more spoiler parts are mounted, in particular by means of guide profiles , on that side of the carrier element which faces away from the wiper lip , which spoiler parts enclose the carrier element from the outer longitudinal sides and protrude to a small extent beyond the flow-off side of the spoiler part and form, with said flow-off side, a fillet , and wherein an attachment element for the articulated connection of a wiper arm is fastened in the central region of the wiper blade , wherein the guide profile on the flow-off side has, on its outwardly pointing longitudinal side, a guiding rib , characterized in that , in a region extending over the attachment element , a connecting piece forms, by way of a connecting strip , a guiding rib which, in the longitudinal direction to both sides of the attachment element , and by way of retention elements , is hooked onto the spoiler parts and adjoins the associated guide profiles or the guiding ribs of the guide profiles .
A computer implemented method, comprising: receiving a natural language utterance ; submitting the natural language utterance to a trained machine learning model comprising a sequence to sequence neural model , the sequence to sequence neural model comprising an encoder and a plurality of specialized decoders , each of the plurality of decoders coupled to the encoder and being trained to recognize one or more tokens output from the encoder and to map the one or more tokens to one or more items of an API frame; receiving from the trained machine learning model, a plurality of items , each item received from a different decoder ; assembling the plurality of items into the API frame , the API frame representing an intermediate format between the natural language utterance and a final API format ; mapping the API frame to the final API format ; and issuing a call to the API using the final API format . receiving a natural language utterance ; submitting the natural language utterance to a trained machine learning model comprising a sequence to sequence neural model , the sequence to sequence neural model comprising an encoder and a plurality of specialized decoders , each of the plurality of decoders coupled to the encoder and being trained to recognize one or more tokens output from the encoder and to map the one or more tokens to one or more items of an API frame; receiving from the trained machine learning model, a plurality of items , each item received from a different decoder ; assembling the plurality of items into the API frame , the API frame representing an intermediate format between the natural language utterance and a final API format ; mapping the API frame to the final API format ; and issuing a call to the API using the final API format .
A method of transferring data between a plurality of databases, comprising: acquiring (S201), by a read plug-in , data from a source database based on first configuration information that includes information related to a location of the data in the source database; loading a set of preset routing rules (S202), which enable data acquired from the source database to be routed to one or more destination databases; determining one or more target databases and a plurality of target tables based on the set of preset routing rules (S203); and writing, by a write plug-in comprising a buffer including a number of data blocks identical to a number of target tables, wherein each data block corresponds to a target table, the data acquired from the source database into the data blocks of the buffer, and writing (S204) the data in each of the data blocks to the corresponding target tables in the one or more target databases from the buffer, based on second configuration information that includes information related to a type of the target databases and an identification of the target databases, in dependence on a predetermined threshold condition being exceeded, wherein the predetermined threshold condition comprises any one of: a size of the data in the one or more data blocks comprised in the buffer, or a quantity of the items in the one or more data blocks comprised in the buffer. acquiring (S201), by a read plug-in , data from a source database based on first configuration information that includes information related to a location of the data in the source database; loading a set of preset routing rules (S202), which enable data acquired from the source database to be routed to one or more destination databases; determining one or more target databases and a plurality of target tables based on the set of preset routing rules (S203); and writing, by a write plug-in comprising a buffer including a number of data blocks identical to a number of target tables, wherein each data block corresponds to a target table, the data acquired from the source database into the data blocks of the buffer, and writing (S204) the data in each of the data blocks to the corresponding target tables in the one or more target databases from the buffer, based on second configuration information that includes information related to a type of the target databases and an identification of the target databases, in dependence on a predetermined threshold condition being exceeded, wherein the predetermined threshold condition comprises any one of: a size of the data in the one or more data blocks comprised in the buffer, or a quantity of the items in the one or more data blocks comprised in the buffer.
A method of producing an anti-fouling and/or anti-thrombotic medical device comprising a metallic substrate, the method comprising activating the metallic substrate by plasma treatment and coating the activated metallic substrate with a hyperbranched polyglycerol by exposing the activated metallic substrate to substantially pure glycidol or a solution comprising at least 90% glycidol, and thereby forming the coating on the metallic substrate by polymerisation of glycidol monomers.