mhurhangee/patent-ind-claim-en huggingface dataset:
A connection method for wireless display, comprising: activating (S201), by a mobile device, an application program, wherein a camera of the mobile device is turned on concurrently when the application program is activated; scanning (S202), by the mobile device via the camera, a two-dimensional barcode image displayed on a screen of a display device and thus acquiring the two-dimensional barcode image, wherein the two-dimensional barcode image is recorded with a WiFi MAC address of the display device; determining (S203), by the mobile device, whether the two-dimensional barcode image is identical with a prestored image, if not, processing (S205) the two-dimensional barcode image to acquire the WiFi MAC address; further determining (S206) by the mobile device whether a format of the WiFi MAC address is correct, when it is correct, storing (S207) the two-dimensional barcode image and its corresponding WiFi MAC address; broadcasting (S208), by the mobile device, the WiFi MAC address to a WiFi display module of the mobile device, and establishing (S209) a data connection by the WiFi display module with the display device via the WiFi MAC address; and performing (S211) data transmission by the mobile device with the display device; the method further comprising: when the two-dimensional barcode image is determined to be identical with the prestored image, acquiring (S204) the WiFi MAC address corresponding to the prestored image, and establishing (S209) a data connection by the WiFi display module with the display device via the WiFi MAC address. activating (S201), by a mobile device, an application program, wherein a camera of the mobile device is turned on concurrently when the application program is activated; scanning (S202), by the mobile device via the camera, a two-dimensional barcode image displayed on a screen of a display device and thus acquiring the two-dimensional barcode image, wherein the two-dimensional barcode image is recorded with a WiFi MAC address of the display device; determining (S203), by the mobile device, whether the two-dimensional barcode image is identical with a prestored image, if not, processing (S205) the two-dimensional barcode image to acquire the WiFi MAC address; further determining (S206) by the mobile device whether a format of the WiFi MAC address is correct, when it is correct, storing (S207) the two-dimensional barcode image and its corresponding WiFi MAC address; broadcasting (S208), by the mobile device, the WiFi MAC address to a WiFi display module of the mobile device, and establishing (S209) a data connection by the WiFi display module with the display device via the WiFi MAC address; and performing (S211) data transmission by the mobile device with the display device; the method further comprising: when the two-dimensional barcode image is determined to be identical with the prestored image, acquiring (S204) the WiFi MAC address corresponding to the prestored image, and establishing (S209) a data connection by the WiFi display module with the display device via the WiFi MAC address.
The compound 4-[(2,4-dichloro-5-methoxyphenyl)amino]-6-methoxy-7-[3-(4-methyl-1-piperazinyl)propoxy]-3-quinolinecarbonitrile or a pharmaceutically acceptable salt thereof, for use in the treatment of a BcrAbl positive leukemia in a subject that is resistant to imatinib, wherein the leukemia is Chronic Myelogenous Leukemia and has a resistance-associated nucleic acid mutation in the bcrabl gene which is 1457T>C.
A resource configuration method, comprising: obtaining , by a virtualized network function manager, VNFM, a performance parameter that reflects a running status of a virtualized network function, VNF, instance, wherein the performance parameter is a performance indication parameter of the VNF instance and is a monitored value representing a running health index of the VNF instance; obtaining , by the VNFM, a mapping relationship in a VNF descriptor, VNFD, corresponding to the VNF instance, wherein the mapping relationship is a mapping relationship between the performance parameter and the deployment flavor; determining , by the VNFM based on the mapping relationship and the performance parameter that reflects the running status of the VNF instance, a target deployment flavor required by the VNF instance in the running status; and performing , by the VNFM, resource configuration for the VNF instance based on a currently configured deployment flavor of the VNF instance and the target deployment flavor; wherein the obtaining, by the VNFM, the performance indication parameter of the VNF instance comprises: receiving, by the VNFM, the performance indication parameter of the VNF instance from an element management system, EMS, of the VNF instance; or receiving, by the VNFM, the performance indication parameter of the VNF instance from the VNF instance. obtaining , by a virtualized network function manager, VNFM, a performance parameter that reflects a running status of a virtualized network function, VNF, instance, wherein the performance parameter is a performance indication parameter of the VNF instance and is a monitored value representing a running health index of the VNF instance; obtaining , by the VNFM, a mapping relationship in a VNF descriptor, VNFD, corresponding to the VNF instance, wherein the mapping relationship is a mapping relationship between the performance parameter and the deployment flavor; determining , by the VNFM based on the mapping relationship and the performance parameter that reflects the running status of the VNF instance, a target deployment flavor required by the VNF instance in the running status; and performing , by the VNFM, resource configuration for the VNF instance based on a currently configured deployment flavor of the VNF instance and the target deployment flavor; wherein the obtaining, by the VNFM, the performance indication parameter of the VNF instance comprises: receiving, by the VNFM, the performance indication parameter of the VNF instance from an element management system, EMS, of the VNF instance; or receiving, by the VNFM, the performance indication parameter of the VNF instance from the VNF instance. receiving, by the VNFM, the performance indication parameter of the VNF instance from an element management system, EMS, of the VNF instance; or receiving, by the VNFM, the performance indication parameter of the VNF instance from the VNF instance.
A method for controlling separation of solid and liquid phases in a centrifugal basket of a centrifugal, the method comprising the steps of - determining self-induced vibrations of the centrifugal within a predetermined rotational speed range of the centrifugal basket using an accelerometer, - monitoring at least associated values of the rotational speed of the centrifugal basket and a purging of the liquid phase from the centrifugal basket, wherein the purging of the liquid phase from the centrifugal basket is monitored using the accelerometer, and wherein the purging of the liquid phase from the centrifugal basket is monitored while taking into account the determined self-induced vibrations of the centrifugal, - determining a safe temporal range within which temporal range a washing liquid or steam can be safely applied to the content of the centrifugal basket, and - applying a washing liquid or steam to the content of the centrifugal basket during at least a portion of the safe temporal range. - determining self-induced vibrations of the centrifugal within a predetermined rotational speed range of the centrifugal basket using an accelerometer, - monitoring at least associated values of the rotational speed of the centrifugal basket and a purging of the liquid phase from the centrifugal basket, wherein the purging of the liquid phase from the centrifugal basket is monitored using the accelerometer, and wherein the purging of the liquid phase from the centrifugal basket is monitored while taking into account the determined self-induced vibrations of the centrifugal, - determining a safe temporal range within which temporal range a washing liquid or steam can be safely applied to the content of the centrifugal basket, and - applying a washing liquid or steam to the content of the centrifugal basket during at least a portion of the safe temporal range.
A method for reporting errors in software, the method comprising: determining an occurrence of an error in software executing on a user processor ; storing, in a memory accessible by the user processor , a unique error report identifier; reporting the error, the reporting comprising transmitting the unique error report identifier and error data that describes the error to a developer server , wherein the error data is anonymized to remove data that identifies a user reporting the error; launching, by the user processor , the software and determining that the error was previously reported, the determining based at least in part on the unique error report identifier, and the launching is performed in response to the determining, storing, and reporting; querying, by the software , a fixed error database with the unique error report identifier to locate a message regarding a fix to correct the error; and based on locating the message, downloading and displaying the message on the user processor , the downloading and displaying performed by the user processor . determining an occurrence of an error in software executing on a user processor ; storing, in a memory accessible by the user processor , a unique error report identifier; reporting the error, the reporting comprising transmitting the unique error report identifier and error data that describes the error to a developer server , wherein the error data is anonymized to remove data that identifies a user reporting the error; launching, by the user processor , the software and determining that the error was previously reported, the determining based at least in part on the unique error report identifier, and the launching is performed in response to the determining, storing, and reporting; querying, by the software , a fixed error database with the unique error report identifier to locate a message regarding a fix to correct the error; and based on locating the message, downloading and displaying the message on the user processor , the downloading and displaying performed by the user processor .
An arrangement for the relocating of a plurality of selected projected independent virtual object images within a real non electronic space , said arrangement including: a virtual object image creator adapted to project the plurality of selected projected independent virtual object images in a real non electronic space ; characterized by : a single free standing activatable tangible object including a base plate which is supported by a ground engaging means and a central user grasping shaft which supports a tracking arrangement , said single free standing activatable tangible object locatable within a selected projected virtual independent object image of the plurality of selected projected independent virtual object images created by the virtual object image creator in the real non electronic space ; wherein upon activation of the single free standing activatable tangible object by a user when the single free standing activatable tangible object is located within the selected projected independent virtual object image , the single free standing activatable tangible object allows physical movement of the selected projected independent virtual object image in a direction within the real non electronic space that corresponds with the physical movement in the same direction as applied by the user to the single free standing activated activatable tangible object . a single free standing activatable tangible object including a base plate which is supported by a ground engaging means and a central user grasping shaft which supports a tracking arrangement , said single free standing activatable tangible object locatable within a selected projected virtual independent object image of the plurality of selected projected independent virtual object images created by the virtual object image creator in the real non electronic space ; wherein upon activation of the single free standing activatable tangible object by a user when the single free standing activatable tangible object is located within the selected projected independent virtual object image , the single free standing activatable tangible object allows physical movement of the selected projected independent virtual object image in a direction within the real non electronic space that corresponds with the physical movement in the same direction as applied by the user to the single free standing activated activatable tangible object .
A pipe component made of a metallic material comprising an inner pipe ; a jacket surrounding the inner pipe ; an annular space bounded by the outer surface of the inner pipe and the inner surface of the jacket , the jacket having at least one inlet and at least one outlet for a heat transfer fluid; and a connecting element at least at one pipe end for connecting the pipe component to another component; wherein the annular space axially extends up to the connecting element and is bounded and sealed by the connecting element ; and wherein the connection between connecting element , inner pipe and jacket is made in an additive manufacturing process; characterized in that the transition surface of the inlet to the annular space and/or the transition surface of the outlet to the annular space is curved with a radius of 0.5 to 20 mm or is chamfered with an inclination of the chamfer surface of from 20° to 80°. an inner pipe ; a jacket surrounding the inner pipe ; an annular space bounded by the outer surface of the inner pipe and the inner surface of the jacket , the jacket having at least one inlet and at least one outlet for a heat transfer fluid; and a connecting element at least at one pipe end for connecting the pipe component to another component; wherein the annular space axially extends up to the connecting element and is bounded and sealed by the connecting element ; and wherein the connection between connecting element , inner pipe and jacket is made in an additive manufacturing process; characterized in that the transition surface of the inlet to the annular space and/or the transition surface of the outlet to the annular space is curved with a radius of 0.5 to 20 mm or is chamfered with an inclination of the chamfer surface of from 20° to 80°. wherein the annular space axially extends up to the connecting element and is bounded and sealed by the connecting element ; and wherein the connection between connecting element , inner pipe and jacket is made in an additive manufacturing process; characterized in that the transition surface of the inlet to the annular space and/or the transition surface of the outlet to the annular space is curved with a radius of 0.5 to 20 mm or is chamfered with an inclination of the chamfer surface of from 20° to 80°.
A heat transfer assembly coupled to a heat emitting device for dissipating heat from the heat emitting device the heat transfer assembly comprising: a module inlet for receiving a coolant; at least one module comprising a first part having a recess to receive a portion of the heat emitting device , and a second part having a shaped cutout portion and a solid portion ; a sealing component disposed between the heat emitting device and the at least one module ; a module outlet for discharging a heat absorbed coolant after absorbing heat from the heat emitting device , wherein the at least one module is connected to the module inlet and the module outlet , wherein the second part allows a uniform compression of the seal component , and wherein the first part and the second part are mechanically connected to each other, wherein a portion of the heat emitting device is bolted to the at least one module using bolts (190, 190', 190", 190"'), where each bolt (190, 190', 190", 190"') passes through the first part and the second part , and wherein the at least one module is flexible to achieve a convex curvature or a concave curvature for load balance to ensure uniform compression for leak-proof sealing. a module inlet for receiving a coolant; at least one module comprising a first part having a recess to receive a portion of the heat emitting device , and a second part having a shaped cutout portion and a solid portion ; a sealing component disposed between the heat emitting device and the at least one module ; a module outlet for discharging a heat absorbed coolant after absorbing heat from the heat emitting device , wherein the at least one module is connected to the module inlet and the module outlet , wherein the second part allows a uniform compression of the seal component , and wherein the first part and the second part are mechanically connected to each other, wherein a portion of the heat emitting device is bolted to the at least one module using bolts (190, 190', 190", 190"'), where each bolt (190, 190', 190", 190"') passes through the first part and the second part , and wherein the at least one module is flexible to achieve a convex curvature or a concave curvature for load balance to ensure uniform compression for leak-proof sealing.
A vascular embolization device comprising: a coil ; and a resin wire that contains a biochemical active material and is inserted in an inside of the coil , wherein the biochemical active material is a blood coagulation accelerator, an anticancer drug, or any other drug, the resin wire is a multilayer strand including a core and at least one outer layer , and the core and the at least one outer layer individually contain resin compositions with solubilities different from each other in a same organic solvent, characterized in that the resin composition in at least one of the core and the at least one outer layer | includes an ethylene-vinyl acetate copolymer, a styrene-isobutylene-styrene block copolymer, a styrene-ethylene-propylene-styrene block copolymer, a styrene-ethylene-butadiene-styrene block copolymer, or a styrene-ethylene-ethylene-propylene-styrene block copolymer. a coil ; and a resin wire that contains a biochemical active material and is inserted in an inside of the coil , wherein the biochemical active material is a blood coagulation accelerator, an anticancer drug, or any other drug, the resin wire is a multilayer strand including a core and at least one outer layer , and the core and the at least one outer layer individually contain resin compositions with solubilities different from each other in a same organic solvent, characterized in that the resin composition in at least one of the core and the at least one outer layer | includes an ethylene-vinyl acetate copolymer, a styrene-isobutylene-styrene block copolymer, a styrene-ethylene-propylene-styrene block copolymer, a styrene-ethylene-butadiene-styrene block copolymer, or a styrene-ethylene-ethylene-propylene-styrene block copolymer.
A package comprising: a substrate comprising: (i) at least one inner dielectric layer ; (ii) a plurality of interconnects located in the at least one inner dielectric layer, wherein the plurality of interconnects includes a pad located on a bottom metal layer of the substrate; (iii) an outer dielectric layer located over the at least one inner dielectric layer; (iv) at least one routing interconnect coupled to the plurality of interconnects, wherein the at least one routing interconnect is located over the outer dielectric layer, wherein the at least one routing interconnect is located over the bottom metal layer of the substrate, and (v) a cover dielectric layer located over the outer dielectric layer and the at least one routing interconnect; an integrated device coupled to the substrate; and a solder interconnect coupled to the pad located on the bottom metal layer of the substrate. a substrate comprising: (i) at least one inner dielectric layer ; (ii) a plurality of interconnects located in the at least one inner dielectric layer, wherein the plurality of interconnects includes a pad located on a bottom metal layer of the substrate; (iii) an outer dielectric layer located over the at least one inner dielectric layer; (iv) at least one routing interconnect coupled to the plurality of interconnects, wherein the at least one routing interconnect is located over the outer dielectric layer, wherein the at least one routing interconnect is located over the bottom metal layer of the substrate, and (v) a cover dielectric layer located over the outer dielectric layer and the at least one routing interconnect; (i) at least one inner dielectric layer ; (ii) a plurality of interconnects located in the at least one inner dielectric layer, wherein the plurality of interconnects includes a pad located on a bottom metal layer of the substrate; (iii) an outer dielectric layer located over the at least one inner dielectric layer; (iv) at least one routing interconnect coupled to the plurality of interconnects, wherein the at least one routing interconnect is located over the outer dielectric layer, wherein the at least one routing interconnect is located over the bottom metal layer of the substrate, and wherein the at least one routing interconnect is located over the outer dielectric layer, wherein the at least one routing interconnect is located over the bottom metal layer of the substrate, and (v) a cover dielectric layer located over the outer dielectric layer and the at least one routing interconnect; an integrated device coupled to the substrate; and a solder interconnect coupled to the pad located on the bottom metal layer of the substrate.
Use of an ink jet ink composition in an ink jet method, the ink jet ink composition comprising: water; and particles including a chain polymer including Structural Unit , Structural Unit , and a hydrophilic group and a polymerizable group, in Structural Units and , Cy 1 and Cy 2 each independently represent a divalent organic group having 3 to 30 carbon atoms including a cyclic structure, wherein at least one of Cy 1 or Cy 2 includes an aliphatic ring as the cyclic structure, Y 1 and Y 2 each independently represent an oxygen atom, a sulfur atom, or a -NR'- group, R 1 represents a hydrogen atom or a hydrocarbon group having 1 to 10 carbon atoms, * 1 in Structural Unit represents a bonding position to a structural unit other than Structural Unit , and *2 in Structural Unit represents a bonding position to a structural unit other than Structural Unit . water; and particles including a chain polymer including Structural Unit , Structural Unit , and a hydrophilic group and a polymerizable group, in Structural Units and , Cy 1 and Cy 2 each independently represent a divalent organic group having 3 to 30 carbon atoms including a cyclic structure, wherein at least one of Cy 1 or Cy 2 includes an aliphatic ring as the cyclic structure, Y 1 and Y 2 each independently represent an oxygen atom, a sulfur atom, or a -NR'- group, R 1 represents a hydrogen atom or a hydrocarbon group having 1 to 10 carbon atoms, * 1 in Structural Unit represents a bonding position to a structural unit other than Structural Unit , and *2 in Structural Unit represents a bonding position to a structural unit other than Structural Unit .