mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: an unmanned mobile observation device (20; 20A), the unmanned mobile observation device including: an imaging component configured to acquire image data of an improvement being monitored (2; 2A); a navigation component configured to determine a real-world geographic location of the unmanned mobile observation device (20; 20A) and navigate the unmanned mobile observation device (20; 20A) to an image acquisition geographic location suitable for acquiring the image data of the improvement being monitored (2; 2A); and a geolocation component configured to determine the real-world geographic location of the unmanned mobile observation device (20; 20A) to an accuracy of five centimeters or less when the imaging component acquires the image data wherein the geolocation component is configured to automatically refine the accuracy of the determined real-world geographic location using correction signal data acquired from a real-world geographic location signal source , and wherein geolocation data corresponding to the real-world geographic location is stored with the image data acquired by the imaging component as observation data for the improvement being monitored, characterized in that the unmanned mobile observation device (20; 20A) comprises a monitoring component configured to compare the image data to previously acquired image data using the geolocation data for the image data and the previously acquired image data and generate defect data for each defect (64A; 64B) found as a result of the image data comparison. an imaging component configured to acquire image data of an improvement being monitored (2; 2A); a navigation component configured to determine a real-world geographic location of the unmanned mobile observation device (20; 20A) and navigate the unmanned mobile observation device (20; 20A) to an image acquisition geographic location suitable for acquiring the image data of the improvement being monitored (2; 2A); and a geolocation component configured to determine the real-world geographic location of the unmanned mobile observation device (20; 20A) to an accuracy of five centimeters or less when the imaging component acquires the image data wherein the geolocation component is configured to automatically refine the accuracy of the determined real-world geographic location using correction signal data acquired from a real-world geographic location signal source , and wherein geolocation data corresponding to the real-world geographic location is stored with the image data acquired by the imaging component as observation data for the improvement being monitored, characterized in that the unmanned mobile observation device (20; 20A) comprises a monitoring component configured to compare the image data to previously acquired image data using the geolocation data for the image data and the previously acquired image data and generate defect data for each defect (64A; 64B) found as a result of the image data comparison.
Glass pane for a vehicle, comprising a first glass layer (GS2), a film (F) with two conductor layers (LS1, LS2) being applied to the first glass layer (GS2), the two conductor layers (LS1, LS2) being located opposite each other with respect to the film (F), an antenna structure being provided by means of at least one of the two conductor layers (LS1), characterized in that a connection structure (GCPW) to the antenna structure is provided by means of the two conductor layers, the connection structure having a centre conductor (ML) which is flanked by two lateral conductors (L1, L2), the centre conductor (ML) and the flanking two lateral conductors (L1, L2) being located in one of the two conductor layers ( LS1), a conductor (GL) being provided in the other conductor layer (LS2) of the two conductor layers (LS1, LS2), which conductor (GL) is arranged essentially parallel to the centre conductor (ML) and the flanking two lateral conductors (L1, L2), the flanking two lateral conductors (L1, L2) and the conductor (GL) having essentially the same potential.
Nozzle tip (20; 200) for guiding a valve pin of a nozzle for injecting molten material into a mold during injection molding, consisting of: - an outer member (30; 230), provided with an axial pass-through cavity, which at one end comprises a central pass-through conduit for the exit of the molten material, - an inner member (60; 260), having an axial pass-through cavity, which is coaxially mounted within the outer member (30; 230) and comprises a tapered tip (62; 262) with a hole (64; 264) to direct the molten material to the central conduit, - an annular-shape insert (74; 274) made of wear-resistant material, with a central pass-through cavity (76; 276) into which the valve pin can slide and mounted in correspondence with the central pass-through conduit (36; 236), wherein the central pass-through cavity (76; 276) of the insert (74; 274) is constituted of the juxtaposition of a cylindrical-shape cavity portion (77; 277) and a conical-shape cavity portion (75; 275), and the insert (74; 274) is a separate piece and directly interposed between the tapered tip (62; 262) of the inner member (60; 260) and an inner surface of the outer member (30; 203) so that said tapered tip (62; 262) abuts against the inlet of the conical-shape cavity portion (75; 275) at a zone of mutual contact. - an outer member (30; 230), provided with an axial pass-through cavity, which at one end comprises a central pass-through conduit for the exit of the molten material, - an inner member (60; 260), having an axial pass-through cavity, which is coaxially mounted within the outer member (30; 230) and comprises a tapered tip (62; 262) with a hole (64; 264) to direct the molten material to the central conduit, - an annular-shape insert (74; 274) made of wear-resistant material, with a central pass-through cavity (76; 276) into which the valve pin can slide and mounted in correspondence with the central pass-through conduit (36; 236), wherein the central pass-through cavity (76; 276) of the insert (74; 274) is constituted of the juxtaposition of a cylindrical-shape cavity portion (77; 277) and a conical-shape cavity portion (75; 275), and the insert (74; 274) is a separate piece and directly interposed between the tapered tip (62; 262) of the inner member (60; 260) and an inner surface of the outer member (30; 203) so that said tapered tip (62; 262) abuts against the inlet of the conical-shape cavity portion (75; 275) at a zone of mutual contact.
A computer-implemented method for connecting to and/or validating the respective identities of co-operating entities on a computer network, the method comprising the steps of: receiving , at an entity on the computer network, a signed digital certificate comprising: a public key associated with the entity and having a corresponding private key; and an arbitrary identifier associated with the public key; exchanging the arbitrary identifier and an arbitrary identifier of a co-operating entity with the co-operating entity on the network ; connecting directly with the co-operating entity using network address information based on the exchanged arbitrary identifiers provided by a discovery service ; performing a digital certificate exchange between the entities, each entity demonstrating knowledge of their respective private key ; validating that the arbitrary identifiers exchanged match the arbitrary identifiers provided on the digital certificates and validating the knowledge of the private keys; and allowing a secure connection to be established between the entities if the validation is successful for both parties . receiving , at an entity on the computer network, a signed digital certificate comprising: a public key associated with the entity and having a corresponding private key; and an arbitrary identifier associated with the public key; a public key associated with the entity and having a corresponding private key; and an arbitrary identifier associated with the public key; exchanging the arbitrary identifier and an arbitrary identifier of a co-operating entity with the co-operating entity on the network ; connecting directly with the co-operating entity using network address information based on the exchanged arbitrary identifiers provided by a discovery service ; performing a digital certificate exchange between the entities, each entity demonstrating knowledge of their respective private key ; validating that the arbitrary identifiers exchanged match the arbitrary identifiers provided on the digital certificates and validating the knowledge of the private keys; and allowing a secure connection to be established between the entities if the validation is successful for both parties .
Method of cleaning a filter element in a filter device , comprising the steps of: - feeding a volume Vr of cleaning fluid, via a cleaning valve , to an outlet of the filter element from a cleaning fluid chamber containing a volume V0 of cleaning fluid, the cleaning fluid chamber being connected to a pressure chamber comprising a pressurizing fluid, at a starting pressure P0, - refilling the cleaning fluid chamber with cleaning fluid to contain a volume V0 of cleaning fluid, so that the pressure in the pressure chamber rises towards P0, characterized in that, - the volume Vr is smaller than the volume V0 such that a volume Vmin of cleaning fluid remains in the cleaning fluid chamber , and - after the cleaning step, the volume Vr is supplied to the cleaning fluid chamber while it is in open fluid communication with the pressure chamber - measuring the pressure in the pressure chamber after the volume Vr of cleaning fluid has been reintroduced into the cleaning fluid chamber and supplying pressurizing fluid into the pressure chamber when the difference between the measured pressure and P0 is larger than a predetermined threshold value. - feeding a volume Vr of cleaning fluid, via a cleaning valve , to an outlet of the filter element from a cleaning fluid chamber containing a volume V0 of cleaning fluid, the cleaning fluid chamber being connected to a pressure chamber comprising a pressurizing fluid, at a starting pressure P0, - refilling the cleaning fluid chamber with cleaning fluid to contain a volume V0 of cleaning fluid, so that the pressure in the pressure chamber rises towards P0, characterized in that, - the volume Vr is smaller than the volume V0 such that a volume Vmin of cleaning fluid remains in the cleaning fluid chamber , and - after the cleaning step, the volume Vr is supplied to the cleaning fluid chamber while it is in open fluid communication with the pressure chamber - measuring the pressure in the pressure chamber after the volume Vr of cleaning fluid has been reintroduced into the cleaning fluid chamber and supplying pressurizing fluid into the pressure chamber when the difference between the measured pressure and P0 is larger than a predetermined threshold value.
An elastomer composition, comprising: an elastomer selected from one or more natural rubbers, one or more synthetic rubbers or combinations thereof; and a carbon black, wherein the carbon black, having a COAN of between about 90 and 150 mL/100 g, a BET of between 50 and 69 m 2 /g, is characterized as having an OAN of between about 150 and about 170 mL/100 g, an iodine adsorption number of between about 50 and about 60 mg/g, and a distribution index DI that is greater than 1.15, wherein the DI is a ratio of d w to d mode . an elastomer selected from one or more natural rubbers, one or more synthetic rubbers or combinations thereof; and a carbon black, wherein the carbon black, having a COAN of between about 90 and 150 mL/100 g, a BET of between 50 and 69 m 2 /g, is characterized as having an OAN of between about 150 and about 170 mL/100 g, an iodine adsorption number of between about 50 and about 60 mg/g, and a distribution index DI that is greater than 1.15, wherein the DI is a ratio of d w to d mode .
A method of producing a chromium-rich coating comprising steps of: a) applying a MCrAlY coating on a substrate using cathodic arc deposition, wherein M is a metal alloy comprising nickel, cobalt, iron, or a combination thereof and the coating comprises between 25 to 50% chromium by weight based on the weight of the MCrAlY; and b) applying a diffused chromide coating atop the MCrAlY coating by pack chromizing, slurry chromizing, vapor diffusion coating, or gas diffusion coating; wherein the diffused chromide coating atop the MCrAlY coating has greater than 50% chromium by weight. a) applying a MCrAlY coating on a substrate using cathodic arc deposition, wherein M is a metal alloy comprising nickel, cobalt, iron, or a combination thereof and the coating comprises between 25 to 50% chromium by weight based on the weight of the MCrAlY; and b) applying a diffused chromide coating atop the MCrAlY coating by pack chromizing, slurry chromizing, vapor diffusion coating, or gas diffusion coating; wherein the diffused chromide coating atop the MCrAlY coating has greater than 50% chromium by weight.
A sheet conveying apparatus for an image forming apparatus , comprising: a conveyance path along which a sheet can be conveyed; a plurality of conveyance rollers configured to move a sheet along the conveyance path; a wireless tag reader/writer configured to read information from, and write information to, a wireless tag of a sheet on the conveyance path ; a phase change detector configured to detect a phase change of a response wave received by the wireless tag reader/writer from a wireless tag ; a tag specifying unit configured to identify whether a wireless tag is moving along the conveyance path based on the detected phase change of the response wave from the wireless tag ; and a controller configured to control the wireless tag reader/writer to write information to the wireless tag identified as moving along the conveyance path . a conveyance path along which a sheet can be conveyed; a plurality of conveyance rollers configured to move a sheet along the conveyance path; a wireless tag reader/writer configured to read information from, and write information to, a wireless tag of a sheet on the conveyance path ; a phase change detector configured to detect a phase change of a response wave received by the wireless tag reader/writer from a wireless tag ; a tag specifying unit configured to identify whether a wireless tag is moving along the conveyance path based on the detected phase change of the response wave from the wireless tag ; and a controller configured to control the wireless tag reader/writer to write information to the wireless tag identified as moving along the conveyance path .
A saddled vehicle with a cover fastening structure, comprising: a headlight that lights a front side of the vehicle ; side covers serving as exterior parts that cover lateral sides of the vehicle ; a first cover disposed below the headlight such as to be continuous with the side covers ; and a second cover disposed rearwardly of the first cover such as to cover a lower side of the headlight , wherein the first cover is provided with a fitting section that is fitted to the second cover , the fitting section is provided with a cutout , the second cover is provided with a solid fitting-receiving section , and the cutout of the first cover and the fitting-receiving section of the second cover are fastened together by being fitted to each other, characterized in that the fitting-receiving section is cylindrical, a direction in which the cutout and the fitting-receiving section are fitted to each other is a vehicle traveling direction, and an axis of the fitting-receiving section extends in a transverse direction. a headlight that lights a front side of the vehicle ; side covers serving as exterior parts that cover lateral sides of the vehicle ; a first cover disposed below the headlight such as to be continuous with the side covers ; and a second cover disposed rearwardly of the first cover such as to cover a lower side of the headlight , wherein the first cover is provided with a fitting section that is fitted to the second cover , the fitting section is provided with a cutout , the second cover is provided with a solid fitting-receiving section , and the cutout of the first cover and the fitting-receiving section of the second cover are fastened together by being fitted to each other,
A method, comprising: receiving , by a computing device , data from a primary storage node , wherein the data is stored in a primary volume within a primary composite aggregate hosted by the primary storge node; determining , by the computing device, whether the data is tagged to indicate that the data is stored in the primary volume on a remote data storage device(131 ) of the primary composite aggregate; and storing , by the computing device, the data on another remote data storage device (131(n)) without storing the data in a local data storage device , when the determining indicates that the data is tagged to indicate that the data is stored in the primary volume on a remote data storage device of the primary composite aggregate; the method further comprising storing , by the computing device, the data on the local data storage device, when the determining indicates that the data is not tagged to indicate that the data is stored in the primary volume on a remote data storage device of the primary composite aggregate; and the method further comprising storing , by the computing device, the data in a secondary volume in a locally-hosted secondary composite aggregate, when the determining indicates that the data is tagged to indicate that the data is stored in the primary volume on a remote data storage device of the primary composite aggregate. receiving , by a computing device , data from a primary storage node , wherein the data is stored in a primary volume within a primary composite aggregate hosted by the primary storge node; determining , by the computing device, whether the data is tagged to indicate that the data is stored in the primary volume on a remote data storage device(131 ) of the primary composite aggregate; and storing , by the computing device, the data on another remote data storage device (131(n)) without storing the data in a local data storage device , when the determining indicates that the data is tagged to indicate that the data is stored in the primary volume on a remote data storage device of the primary composite aggregate; the method further comprising storing , by the computing device, the data on the local data storage device, when the determining indicates that the data is not tagged to indicate that the data is stored in the primary volume on a remote data storage device of the primary composite aggregate; and the method further comprising storing , by the computing device, the data in a secondary volume in a locally-hosted secondary composite aggregate, when the determining indicates that the data is tagged to indicate that the data is stored in the primary volume on a remote data storage device of the primary composite aggregate.
A method for facilitating migration of virtual machines among a plurality of physical machines , wherein the plurality of physical machines comprises a first subset of the plurality of physical machines and a second subset of the plurality of physical machines, a virtual machine executing on a first physical machine in the second subset of the plurality of physical machines, and wherein at least one physical resource is inaccessible by the first subset of the plurality of physical machines and is available to the second subset of the plurality of physical machines; the method comprising: associating the second subset of the plurality of physical machines with the at least one physical resource ; associating the virtual machine with the at least one physical resource ; receiving a request to migrate the virtual machine from the first physical machine in the second subset of the plurality of physical machines to a different physical machine in the first subset of the plurality of physical machines; determining that the different physical machine in the first subset of the plurality of physical machines that was identified in the request does not provide access to the physical resource ; identifying , in response to determining that the different physical machine does not provide access to the physical resource , a second physical machine in the second subset of the plurality of physical machines; and migrating the virtual machine to the second physical machine . associating the second subset of the plurality of physical machines with the at least one physical resource ; associating the virtual machine with the at least one physical resource ; receiving a request to migrate the virtual machine from the first physical machine in the second subset of the plurality of physical machines to a different physical machine in the first subset of the plurality of physical machines; determining that the different physical machine in the first subset of the plurality of physical machines that was identified in the request does not provide access to the physical resource ; identifying , in response to determining that the different physical machine does not provide access to the physical resource , a second physical machine in the second subset of the plurality of physical machines; and migrating the virtual machine to the second physical machine .
An aqueous coating composition comprising at least the following components: a. An organopolysiloxane (A) which is a polysiloxane compound having at least two alkenyl groups per molecule, b. An organohydrogenpolysiloxane (B) which is a polysiloxane compound comprising at least two SiH groups per molecule, c. An hydrosilylation catalyst (C) able to catalyse an hydrosilylation reaction between the organopolysiloxane compound (A) and the organohydrogenpolysiloxane compound (B), d. An organic copolymer (D) comprising at least two types of repeating units: i. unit (i) which is an alkyl group comprising from 2 to 12 carbon atoms ii. unit (ii) which is an alkyl group comprising from 2 to 12 carbon atoms and having at least one pendant alcohol substituent, wherein the copolymer (D) is ethylene-vinyl alcohol copolymer or ethylene-vinyl alcohol-vinyl ester copolymer, e. Water, and the composition is able to form upon curing by hydrosilylation a coating on a substrate. a. An organopolysiloxane (A) which is a polysiloxane compound having at least two alkenyl groups per molecule, b. An organohydrogenpolysiloxane (B) which is a polysiloxane compound comprising at least two SiH groups per molecule, c. An hydrosilylation catalyst (C) able to catalyse an hydrosilylation reaction between the organopolysiloxane compound (A) and the organohydrogenpolysiloxane compound (B), d. An organic copolymer (D) comprising at least two types of repeating units: i. unit (i) which is an alkyl group comprising from 2 to 12 carbon atoms ii. unit (ii) which is an alkyl group comprising from 2 to 12 carbon atoms and having at least one pendant alcohol substituent, wherein the copolymer (D) is ethylene-vinyl alcohol copolymer or ethylene-vinyl alcohol-vinyl ester copolymer, i. unit (i) which is an alkyl group comprising from 2 to 12 carbon atoms ii. unit (ii) which is an alkyl group comprising from 2 to 12 carbon atoms and having at least one pendant alcohol substituent, wherein the copolymer (D) is ethylene-vinyl alcohol copolymer or ethylene-vinyl alcohol-vinyl ester copolymer, e. Water, and