mhurhangee/patent-ind-claim-en huggingface dataset:
A method of providing a concatenated string for the purpose of improving the searchability of incident-specific social media content posted via communication devices , the method comprising: obtaining, at an electronic computing device , incident information identifying an incident location associated with an incident and time of occurrence of the incident; identifying, at the electronic computing device , at least one communication device located within a predetermined geographical area relative to the incident location during the time of occurrence of the incident; generating, at the electronic computing device , a concatenated string as a function of a first identifier associated with the incident and a second identifier associated with the at least one communication device ; and transmitting, at the electronic computing device , an electronic message including the concatenated string to the at least one communication device , the electronic message including a link to enable the concatenated string to be attached to one or more social media posts including incident-specific social media content posted via the at least one communication device on at least one of a plurality of social media networks . obtaining, at an electronic computing device , incident information identifying an incident location associated with an incident and time of occurrence of the incident; identifying, at the electronic computing device , at least one communication device located within a predetermined geographical area relative to the incident location during the time of occurrence of the incident; generating, at the electronic computing device , a concatenated string as a function of a first identifier associated with the incident and a second identifier associated with the at least one communication device ; and transmitting, at the electronic computing device , an electronic message including the concatenated string to the at least one communication device , the electronic message including a link to enable the concatenated string to be attached to one or more social media posts including incident-specific social media content posted via the at least one communication device on at least one of a plurality of social media networks .
Process for the aqueous suspension, micro-suspension, emulsion or micro-emulsion polymerization of at least one halogenated, in particular chlorinated, monomer, for example vinyl chloride, by itself or with one or more other vinyl monomers, preferably less than 50% by weight of one or more other vinyl monomers, in which at least one shortstopper and at least one perhalogenate, acting as a whitening agent, are added.
A method of mounting a stent on a balloon catheter , comprising: positioning a stent on a balloon catheter , the balloon catheter having an elongated shaft with an inflation lumen and a guidewire lumen and an inflatable balloon on a distal shaft section with an interior in fluid communication with the inflation lumen , and the stent having an open-walled body of stent struts with gaps between adjacent stent struts ; applying a first radially compressive force on an outer surface of the stent and thereby decreasing the outer diameter of the stent on the balloon catheter ; heating the balloon and introducing inflation media into the interior of the balloon to radially expand the balloon with the stent restrained from radially expanding, wherein the balloon expands into the stent gaps to embed the stent in an outer surface of the balloon ; removing the inflation media from the balloon interior; and applying a second radially compressive force on an outer surface of the stent , thereby decreasing the outer diameter of the stent on the balloon catheter . positioning a stent on a balloon catheter , the balloon catheter having an elongated shaft with an inflation lumen and a guidewire lumen and an inflatable balloon on a distal shaft section with an interior in fluid communication with the inflation lumen , and the stent having an open-walled body of stent struts with gaps between adjacent stent struts ; applying a first radially compressive force on an outer surface of the stent and thereby decreasing the outer diameter of the stent on the balloon catheter ; heating the balloon and introducing inflation media into the interior of the balloon to radially expand the balloon with the stent restrained from radially expanding, wherein the balloon expands into the stent gaps to embed the stent in an outer surface of the balloon ; removing the inflation media from the balloon interior; and applying a second radially compressive force on an outer surface of the stent , thereby decreasing the outer diameter of the stent on the balloon catheter .
A data transmission method, comprising: configuring , by a base station, first DCI for a terminal device, wherein the first DCI comprises scheduling information used for data transmission; sending , by the base station, the first DCI to the terminal device; configuring , by the base station, second DCI for the terminal device, wherein the second DCI comprises first information, and the first information comprises information used to indicate the terminal device to perform transmission of a first data packet with the base station according to the first DCI; sending , by the base station, a reference signal to the terminal device, wherein the base station selects the reference signal from multiple reference signals based on a determination of content of the second DCI, different reference signals indicating different content of the second DCI; and performing , by the base station, transmission of the first data packet with the terminal device. configuring , by a base station, first DCI for a terminal device, wherein the first DCI comprises scheduling information used for data transmission; sending , by the base station, the first DCI to the terminal device; configuring , by the base station, second DCI for the terminal device, wherein the second DCI comprises first information, and the first information comprises information used to indicate the terminal device to perform transmission of a first data packet with the base station according to the first DCI; sending , by the base station, a reference signal to the terminal device, wherein the base station selects the reference signal from multiple reference signals based on a determination of content of the second DCI, different reference signals indicating different content of the second DCI; and performing , by the base station, transmission of the first data packet with the terminal device.
A vehicle (A) comprising a physical storage area and a computer-implemented system for monitoring loading status of the physical storage area, the computer-implemented system comprising: a camera system comprising one or more camera wherein each camera is configured to capture video or images, or both video and images, of the storage area; and one or more processing module in communication with the camera system, the one or more processing module comprising one or more processor and the processing module configured to: receive image or video data from the one or more camera of the camera system; determine unoccupied volume of the storage area based on the received image or video data; and use the determined unoccupied volume of the storage area to provide output data that can be displayed to indicate loading status of the storage area; wherein the processing module is configured to determine the unoccupied volume by: identifying, labeling, and categorizing objects stored in the storage area; calculating a volume of each object in the storage area; and calculating the unoccupied volume in the storage area. a camera system comprising one or more camera wherein each camera is configured to capture video or images, or both video and images, of the storage area; and one or more processing module in communication with the camera system, the one or more processing module comprising one or more processor and the processing module configured to: receive image or video data from the one or more camera of the camera system; determine unoccupied volume of the storage area based on the received image or video data; and use the determined unoccupied volume of the storage area to provide output data that can be displayed to indicate loading status of the storage area; receive image or video data from the one or more camera of the camera system; determine unoccupied volume of the storage area based on the received image or video data; and use the determined unoccupied volume of the storage area to provide output data that can be displayed to indicate loading status of the storage area; wherein the processing module is configured to determine the unoccupied volume by: identifying, labeling, and categorizing objects stored in the storage area; calculating a volume of each object in the storage area; and calculating the unoccupied volume in the storage area. identifying, labeling, and categorizing objects stored in the storage area; calculating a volume of each object in the storage area; and calculating the unoccupied volume in the storage area.
Electrical switching spring member for an electrical switching element, such as a relay, comprising at least one contact spring portion with at least one contacting spot , and a base portion , from which the contact spring portion extends, said base portion comprising a terminal portion , wherein said base portion comprises an extension extending from said contact spring portion to said terminal portion , said extension protruding away from the remaining base portion , characterized in that the base portion which comprises at least two layers of sheet material is formed by folding the sheet material along a folding edge around 180°, wherein at least one of the layers forms the extension .
Gearbox assembly for a twin-screw extruder comprising - a speed change gearbox for adjusting a screw shaft rotational speed (ns) of two screw shafts of a twin-screw extruder , - a speed reduction gearbox , - a distribution gearbox with two distribution gearbox output shafts allowing the screw shafts of the twin-screw extruder to be coupled thereto, wherein the speed change gearbox is arranged at a driving end (A), wherein the speed reduction gearbox couples the speed change gearbox to the distribution gearbox , characterized in that a speed change gearbox housing of the speed change gearbox and a speed reduction gearbox housing of the speed reduction gearbox are configured such as to be separate from each other, wherein the speed reduction gearbox has precisely one speed reduction gearbox input shaft and a speed change gearbox output shaft of the speed change gearbox is detachably connected with the speed reduction gearbox input shaft , with the result that the speed change gearbox and the speed reduction gearbox are configured such as to be separable from each other. - a speed change gearbox for adjusting a screw shaft rotational speed (ns) of two screw shafts of a twin-screw extruder , - a speed reduction gearbox , - a distribution gearbox with two distribution gearbox output shafts allowing the screw shafts of the twin-screw extruder to be coupled thereto,
A binary ink developer , BID, comprising: a power supply electrically coupled to an electrode (307-1, 307-2), a developer roller , a squeegee roller , and a cleaner roller ; and a controller to: determine a level of image ghosting based on a sum of currents at the electrode, the developer roller, the squeegee roller, and the cleaner roller. a power supply electrically coupled to an electrode (307-1, 307-2), a developer roller , a squeegee roller , and a cleaner roller ; and a controller to: determine a level of image ghosting based on a sum of currents at the electrode, the developer roller, the squeegee roller, and the cleaner roller.
Cooling system with deionised water for electrical equipment , wherein the electrical equipment is electrically connected to a primary supply , comprising: - a main circuit for directing and cooling the deionised water to be circulated in the electrical equipment ; - a main pumping group for circulating the deionised water in the main circuit ; - a main power source for supplying power to the main pumping group ; and - a deionisation circuit connected to two points of the main circuit for deionising the water of the main circuit, the deionisation circuit comprising a deioniser ; characterised in that it also comprises - a secondary pumping group for circulating the deionised water in the deioniser ; and - a secondary power source for supplying power to the secondary pumping group ; the secondary power source being less powerful than the main power source . - a main circuit for directing and cooling the deionised water to be circulated in the electrical equipment ; - a main pumping group for circulating the deionised water in the main circuit ; - a main power source for supplying power to the main pumping group ; and - a deionisation circuit connected to two points of the main circuit for deionising the water of the main circuit, the deionisation circuit comprising a deioniser ; - a secondary pumping group for circulating the deionised water in the deioniser ; and - a secondary power source for supplying power to the secondary pumping group ;
A cleave system for separating a bonded wafer structure , the system comprising: a cleaving device for cleaving the bonded wafer structure along a cleave plane , the cleaving device comprising suction cups for applying a mechanical force to the bonded wafer structure near a leading cleave edge to cleave the bonded wafer structure; an acoustic sensor for sensing sound emitted from the bonded wafer structure during cleaving and to generate an output in response to the sensed sound; and a controller configured to generate a metric related to an attribute of the cleave based at least in part on the output of the acoustic sensor. a cleaving device for cleaving the bonded wafer structure along a cleave plane , the cleaving device comprising suction cups for applying a mechanical force to the bonded wafer structure near a leading cleave edge to cleave the bonded wafer structure; an acoustic sensor for sensing sound emitted from the bonded wafer structure during cleaving and to generate an output in response to the sensed sound; and a controller configured to generate a metric related to an attribute of the cleave based at least in part on the output of the acoustic sensor.
Inductor device with light weight configuration comprising: • a rectangular prismatic electro-insulating support with three pairs of parallel outer faces defining one axis (X), one axis (Y), and one axis (Z) orthogonal to each other perpendicular to said outer faces and defining eight corners, one on each intersection between three orthogonal outer faces ; • a rectangular prismatic magnetic core supported by said electro-insulating support ; • three conductor wire windings (DX, DY, DZ) arranged orthogonal to each other, wound around the three axis (X, Y, Z) surrounding the magnetic core ; characterized in that • the magnetic core is a hollow magnetic core composed by three pairs of sheets , each pair of sheets being composed by two parallel sheets facing each other perpendicular to one of said axis (X, Y, Z), and wherein • each sheet is made of a magnetic material, has two parallel main faces on opposed sides of the sheet , said main faces being surrounded by a perimetral area , said sheet being in contact and attached to the electro-insulating support through one of said main faces , and being in contact with the surrounding orthogonal sheets through said perimetral area . • a rectangular prismatic electro-insulating support with three pairs of parallel outer faces defining one axis (X), one axis (Y), and one axis (Z) orthogonal to each other perpendicular to said outer faces and defining eight corners, one on each intersection between three orthogonal outer faces ; • a rectangular prismatic magnetic core supported by said electro-insulating support ; • three conductor wire windings (DX, DY, DZ) arranged orthogonal to each other, wound around the three axis (X, Y, Z) surrounding the magnetic core ; characterized in that • the magnetic core is a hollow magnetic core composed by three pairs of sheets , each pair of sheets being composed by two parallel sheets facing each other perpendicular to one of said axis (X, Y, Z), and wherein • each sheet is made of a magnetic material, has two parallel main faces on opposed sides of the sheet , said main faces being surrounded by a perimetral area , said sheet being in contact and attached to the electro-insulating support through one of said main faces , and being in contact with the surrounding orthogonal sheets through said perimetral area .
A system for additively manufacturing a composite part , the system comprising: a delivery guide and a surface , at least one of which is movable relative to another, wherein: the delivery guide is configured to deposit at least a segment of a continuous flexible line along a print path , wherein the print path is stationary relative to the surface , and the continuous flexible line comprises a non-resin component and a photopolymer-resin component that is partially cured; a feed mechanism configured to push the continuous flexible line through the delivery guide ; and a source of a curing energy , wherein the source is configured to deliver the curing energy at least to a portion of the segment of the continuous flexible line after the segment of the continuous flexible line exits the delivery guide , wherein the source of the curing energy is configured to deliver a ring of the curing energy intersecting the segment of the continuous flexible line . a delivery guide and a surface , at least one of which is movable relative to another, wherein: the delivery guide is configured to deposit at least a segment of a continuous flexible line along a print path , wherein the print path is stationary relative to the surface , and the continuous flexible line comprises a non-resin component and a photopolymer-resin component that is partially cured; the delivery guide is configured to deposit at least a segment of a continuous flexible line along a print path , wherein the print path is stationary relative to the surface , and the continuous flexible line comprises a non-resin component and a photopolymer-resin component that is partially cured; a feed mechanism configured to push the continuous flexible line through the delivery guide ; and a source of a curing energy , wherein the source is configured to deliver the curing energy at least to a portion of the segment of the continuous flexible line after the segment of the continuous flexible line exits the delivery guide , wherein the source of the curing energy is configured to deliver a ring of the curing energy intersecting the segment of the continuous flexible line .
Blade for a gas turbine comprising: an airfoil having a leading edge , a trailing edge , a pressure side and a suction side ; the airfoil comprising an outer wall and an inner wall substantially enclosed by the outer wall ; and a cooling arrangement which comprises a suction side cooling path defined at least partially along the suction side between the outer wall and the inner wall ; the suction side cooling path having at least one suction side inlet and at least one suction side discharge arrangement extending through the outer wall ; the suction side inlet being arranged closer to the trailing edge than the suction side discharge arrangement ; wherein the cooling arrangement comprises a trailing edge cooling path , which is defined by a trailing edge cooling chamber arranged between the suction side inlet of suction side cooling path and the trailing edge ; wherein the trailing edge cooling path comprises at least one trailing edge inlet and at least one trailing edge discharge arrangement ; the trailing edge discharge arrangement being arranged on the pressure side and configured to direct the flow toward the trailing edge ; characterised in that the suction side discharge arrangement comprises a plurality of inlet holes (60; 160), at least one outlet common slot (61; 161) and a plurality of connecting channels (63; 163), each of which is configured to connect a respective hole (60;160) with the outlet common slot (61; 161). an airfoil having a leading edge , a trailing edge , a pressure side and a suction side ; the airfoil comprising an outer wall and an inner wall substantially enclosed by the outer wall ; and a cooling arrangement which comprises a suction side cooling path defined at least partially along the suction side between the outer wall and the inner wall ; the suction side cooling path having at least one suction side inlet and at least one suction side discharge arrangement extending through the outer wall ; the suction side inlet being arranged closer to the trailing edge than the suction side discharge arrangement ; wherein the cooling arrangement comprises a trailing edge cooling path , which is defined by a trailing edge cooling chamber arranged between the suction side inlet of suction side cooling path and the trailing edge ; wherein the trailing edge cooling path comprises at least one trailing edge inlet and at least one trailing edge discharge arrangement ; the trailing edge discharge arrangement being arranged on the pressure side and configured to direct the flow toward the trailing edge ; characterised in that the suction side discharge arrangement comprises a plurality of inlet holes (60; 160), at least one outlet common slot (61; 161) and a plurality of connecting channels (63; 163), each of which is configured to connect a respective hole (60;160) with the outlet common slot (61; 161).
Method for determining at least one characteristic of a boundary layer of a wind turbine rotor blade , comprising - capturing at least one movement of at least one flexible element of at least one sensor being attached to or being part of a surface of the rotor blade , - determining the at least one characteristic of the boundary layer based on the at least one captured movement of the at least one flexible element wherein - the at least one characteristic of the boundary layer is determined based on an air flow characteristic of the boundary layer, - the at least one flexible element comprises a bluff body, - a vortex shedding frequency of the bluff body is determined on basis of the captured movement, - the air flow characteristic is determined on basis of the determined vortex shedding frequency. - capturing at least one movement of at least one flexible element of at least one sensor being attached to or being part of a surface of the rotor blade , - determining the at least one characteristic of the boundary layer based on the at least one captured movement of the at least one flexible element wherein - the at least one characteristic of the boundary layer is determined based on an air flow characteristic of the boundary layer, - the at least one flexible element comprises a bluff body, - a vortex shedding frequency of the bluff body is determined on basis of the captured movement, - the air flow characteristic is determined on basis of the determined vortex shedding frequency.