mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a server, the method comprising: - receiving (S101) a route request, from a navigation device, between a starting location and a destination location; - determining (S103), using a processor and a map version of the server, a navigation route from the received route request, wherein the map version used by the server is different from a map version used by the navigation device; - encoding (S105) the navigation route with geographic data for each path segment along the navigation route between the starting location and the destination location, the geographic data comprising latitude and longitude values at a midpoint of the respective path segment, wherein each path segment has two endpoints and wherein each endpoint of the two endpoints is identified by a respective location of a path intersection, a respective location of a stoplight, a respective location of a stop sign, a respective location of a kilometer-marker, a respective location of a mile-marker, or a respective location of another path or road sign, or a respective change in a speed limit or a respective change in a number of traveling lanes, the method further comprising: - transmitting (S107) the encoded navigation route to the navigation device; - receiving an updated route request from the navigation device, the updated route request providing at least one unmatched path segment between the map version of the navigation device and the map version of the processor; - determining, using the processor, an updated navigation route avoiding the at least one unmatched path segment; - encoding the updated navigation route with geographic data comprising latitude and longitude values for each midpoint of each path segment along the updated navigation route; and - transmitting the encoded updated navigation route to the navigation device. - receiving (S101) a route request, from a navigation device, between a starting location and a destination location; - determining (S103), using a processor and a map version of the server, a navigation route from the received route request, wherein the map version used by the server is different from a map version used by the navigation device; - encoding (S105) the navigation route with geographic data for each path segment along the navigation route between the starting location and the destination location, the geographic data comprising latitude and longitude values at a midpoint of the respective path segment, - transmitting (S107) the encoded navigation route to the navigation device; - receiving an updated route request from the navigation device, the updated route request providing at least one unmatched path segment between the map version of the navigation device and the map version of the processor; - determining, using the processor, an updated navigation route avoiding the at least one unmatched path segment; - encoding the updated navigation route with geographic data comprising latitude and longitude values for each midpoint of each path segment along the updated navigation route; and - transmitting the encoded updated navigation route to the navigation device.
An article of footwear , comprising: a motorized tensioning system including a tensile member and a motorized tightening device , the tightening device configured to apply tension in the tensile member to adjust the size of an internal void defined by the article of footwear wherein the tightening device is attached to an outer surface of the article of footwear, whereby attaching the tightening device to the outer surface has the effect that the tightening device does not take up space between layers of the upper or within the sole structure of the article of footwear; and by further comprising: a tightening device cover configured to be removably attached to the article of footwear over the tightening device, wherein the tightening device and the tightening device cover are configured to be separately attached to the article of footwear. a motorized tensioning system including a tensile member and a motorized tightening device , the tightening device configured to apply tension in the tensile member to adjust the size of an internal void defined by the article of footwear wherein the tightening device is attached to an outer surface of the article of footwear, whereby attaching the tightening device to the outer surface has the effect that the tightening device does not take up space between layers of the upper or within the sole structure of the article of footwear; and by further comprising: a tightening device cover configured to be removably attached to the article of footwear over the tightening device, wherein the tightening device and the tightening device cover are configured to be separately attached to the article of footwear.
A chassis for accommodating electronic components, comprising: a chassis body having a channel that passes through a first end and a second end that are of the chassis body ; and an installation frame , slidably disposed in the channel of the chassis body , wherein a first part of the installation frame is configured to install an electronic component in the first part and capable of sliding out from the first end of the chassis body to expose the first part outside the chassis body , and a second part of the installation frame is configured to install an electronic component in the second part and capable of sliding out from the second end of the chassis body to expose the second part outside the chassis body , wherein the installation frame has a first accommodation space , a fan compartment , and a second accommodation space that are successively arranged along a direction from the first end of the chassis body to the second end of the chassis body , whereby a heat dissipation fan is installed in the fan compartment, and there is a limiting assembly between the installation frame and the chassis body ; and when the first part or the second part of the installation frame slides out of the chassis body , at least one air port of the fan compartment is located in the chassis . a chassis body having a channel that passes through a first end and a second end that are of the chassis body ; and an installation frame , slidably disposed in the channel of the chassis body , wherein a first part of the installation frame is configured to install an electronic component in the first part and capable of sliding out from the first end of the chassis body to expose the first part outside the chassis body , and a second part of the installation frame is configured to install an electronic component in the second part and capable of sliding out from the second end of the chassis body to expose the second part outside the chassis body , wherein the installation frame has a first accommodation space , a fan compartment , and a second accommodation space that are successively arranged along a direction from the first end of the chassis body to the second end of the chassis body , whereby a heat dissipation fan is installed in the fan compartment, and there is a limiting assembly between the installation frame and the chassis body ; and when the first part or the second part of the installation frame slides out of the chassis body , at least one air port of the fan compartment is located in the chassis .
Process for the synthesis of 5-fluoro-1H-pyrazoles of the general formula (I), wherein a compound of formula (c) is reacted with a hydrazine of formula (b) R 1 -NH-NH 2 (b), wherein R 1 is selected from C 1 -C 6 alkyl; R 2 is a trihalomethyl moiety with at least one fluorine atom; and R 3 is selected from C 1 -C 5 haloalkyl, wherein Kat is selected from Li + , Na + , K + , Cs + , (NAlkyl 4 ) + , (HNAlkyl 3 ) + ., and wherein the reaction is performed at temperatures ranging from -5°C to 50 °C in a solvent selected from dichloromethane, dichloroethane, acetonitrile and butyronitrile. R 1 is selected from C 1 -C 6 alkyl; R 2 is a trihalomethyl moiety with at least one fluorine atom; and R 3 is selected from C 1 -C 5 haloalkyl, wherein Kat is selected from Li + , Na + , K + , Cs + , (NAlkyl 4 ) + , (HNAlkyl 3 ) + ., and wherein the reaction is performed at temperatures ranging from -5°C to 50 °C in a solvent selected from dichloromethane, dichloroethane, acetonitrile and butyronitrile.
An analyte detection package comprising: a substrate ; a surface-enhanced luminescence, SEL, structure extending from the substrate, the SEL structure having a first wettability for a given liquid; a housing extending from the substrate to form a chamber between the housing of the substrate about the SEL structure to receive an analyte containing solution, the housing having an inner surface adjacent the chamber, characterized in the inner surface having a second wettability for the given liquid less than the first wettability wherein the said given liquid is ethanol and the second wettability is such that the the inner surface has a wettability contact angle of greater than 90° as measured with ethanol. a substrate ; a surface-enhanced luminescence, SEL, structure extending from the substrate, the SEL structure having a first wettability for a given liquid; a housing extending from the substrate to form a chamber between the housing of the substrate about the SEL structure to receive an analyte containing solution, the housing having an inner surface adjacent the chamber, characterized in the inner surface having a second wettability for the given liquid less than the first wettability wherein the said given liquid is ethanol and the second wettability is such that the the inner surface has a wettability contact angle of greater than 90° as measured with ethanol.
A system for detecting a fault condition of a surgical instrument, the system comprising: a surgical instrument comprising an end effector component configured to move from a first position to a second position; and a controller in signal communication with the surgical instrument , wherein the controller is configured to: receive a first signal indicating that the end effector component is positioned between the first position and the second position, receive a second signal indicating that the end effector component is in either the first position or the second position, and when the second signal is not received within a predetermined time period after detecting the first signal, transmit a control signal to automatically control operation of the end effector component . a surgical instrument comprising an end effector component configured to move from a first position to a second position; and a controller in signal communication with the surgical instrument , wherein the controller is configured to: receive a first signal indicating that the end effector component is positioned between the first position and the second position, receive a second signal indicating that the end effector component is in either the first position or the second position, and when the second signal is not received within a predetermined time period after detecting the first signal, transmit a control signal to automatically control operation of the end effector component . receive a first signal indicating that the end effector component is positioned between the first position and the second position, receive a second signal indicating that the end effector component is in either the first position or the second position, and when the second signal is not received within a predetermined time period after detecting the first signal, transmit a control signal to automatically control operation of the end effector component .
A stator comprising: a plurality of split cores arranged in an annular shape, each split core of the plurality of split cores including a tooth around which a respective wire is wound; a plurality of insulators respectively disposed on the plurality of split cores and configured to insulate the plurality of split cores from the respective wires, each insulator of the plurality of insulators including a connector configured to connect the plurality of insulators , and thereby to connect the plurality of split cores , in a circumferential direction of the stator and to allow a spacing distance between adjacent split cores in the plurality of split cores to be changed; characterized by a deflection reducer formed on adjacent split cores and configured to secure the wire between adjacent split cores and to reduce a deflection of the wire between adjacent split cores when the spacing distance between adjacent split cores is reduced, wherein the deflection reducer comprises a pair of engaging portions on which the wire is secured, and a distance between the pair of engaging portions changes as the spacing distance between the adjacent split cores changes, a first engaging portion of the pair of engaging portions is located above a second engaging portion of the pair of engaging portions , and the wire passes between the pair of engaging portions from an upper side of the first engaging portion and is secured on a lower side of the second engaging portion . a plurality of split cores arranged in an annular shape, each split core of the plurality of split cores including a tooth around which a respective wire is wound; a plurality of insulators respectively disposed on the plurality of split cores and configured to insulate the plurality of split cores from the respective wires, each insulator of the plurality of insulators including a connector configured to connect the plurality of insulators , and thereby to connect the plurality of split cores , in a circumferential direction of the stator and to allow a spacing distance between adjacent split cores in the plurality of split cores to be changed; characterized by a deflection reducer formed on adjacent split cores and configured to secure the wire between adjacent split cores and to reduce a deflection of the wire between adjacent split cores when the spacing distance between adjacent split cores is reduced, wherein the deflection reducer comprises a pair of engaging portions on which the wire is secured, and a distance between the pair of engaging portions changes as the spacing distance between the adjacent split cores changes, a first engaging portion of the pair of engaging portions is located above a second engaging portion of the pair of engaging portions , and the wire passes between the pair of engaging portions from an upper side of the first engaging portion and is secured on a lower side of the second engaging portion .
A sieve for stone picking stones from soil, said sieve in the orientation intended for use comprising: a number of bars (2,2',2",2"'), wherein each bar is extending in a longitudinal direction between a lower end configured to be at least partly submerged in soil, and an upper end ; wherein each said bar comprises a leading surface extending a distance (L) from a first edge to a second edge of said leading surface of said bar; wherein each said bar comprises a trailing surface ; wherein one or more sets of two adjacent bars (2,2',2",2"'), preferably all sets of two adjacent bars, of the sieve are being grouped in pairs in such a way that the lower end of two adjacent bars are being connected to each other characterized in that in respect of two specific adjacent bars (2,2',2",2"'), preferably in respect of any two adjacent bars, the geometry of the bars and the sieve is configured in such a way that the smallest distance (D) between said two adjacent bars is only being present at the position of the leading surface of said two adjacent bars. a number of bars (2,2',2",2"'), wherein each bar is extending in a longitudinal direction between a lower end configured to be at least partly submerged in soil, and an upper end ; wherein each said bar comprises a leading surface extending a distance (L) from a first edge to a second edge of said leading surface of said bar; wherein each said bar comprises a trailing surface ; wherein one or more sets of two adjacent bars (2,2',2",2"'), preferably all sets of two adjacent bars, of the sieve are being grouped in pairs in such a way that the lower end of two adjacent bars are being connected to each other characterized in that in respect of two specific adjacent bars (2,2',2",2"'), preferably in respect of any two adjacent bars, the geometry of the bars and the sieve is configured in such a way that the smallest distance (D) between said two adjacent bars is only being present at the position of the leading surface of said two adjacent bars.
A media stream playing method, wherein the method comprises: obtaining a first attribute parameter set when detecting that a first passenger views a first media stream played on a first vehicle-mounted screen, wherein the first attribute parameter set comprises an identity of the first passenger and the first vehicle-mounted screen viewed by the first passenger; and when determining that attention of the first passenger is lost from the first vehicle-mounted screen, indicating to pause playing of the first media stream on the first vehicle-mounted screen, except if determining that a second vehicle-mounted screen that is viewed by a second passenger and that is in a stored second attribute parameter set is the same as the first vehicle-mounted screen, then indicating to continue playing the first media stream on the first vehicle-mounted screen, wherein the second attribute parameter set comprises an identity of the second passenger and the second vehicle-mounted screen viewed by the second passenger. obtaining a first attribute parameter set when detecting that a first passenger views a first media stream played on a first vehicle-mounted screen, wherein the first attribute parameter set comprises an identity of the first passenger and the first vehicle-mounted screen viewed by the first passenger; and when determining that attention of the first passenger is lost from the first vehicle-mounted screen, indicating to pause playing of the first media stream on the first vehicle-mounted screen, except if determining that a second vehicle-mounted screen that is viewed by a second passenger and that is in a stored second attribute parameter set is the same as the first vehicle-mounted screen, then indicating to continue playing the first media stream on the first vehicle-mounted screen, wherein the second attribute parameter set comprises an identity of the second passenger and the second vehicle-mounted screen viewed by the second passenger.
Method for managing revocation status of a token (SE) while protecting the privacy of the token's user, wherein the revocation status of the token is managed through a revocation management system (RM SYS), wherein the revocation management system (RM_SYS) is configured to create or update at least one status attribute (R) stored in the token, said at least one status attribute (R) comprising a value indicating if the token (SE) is revoked or not from at least one service provider terminal (SP_T) of a service provider system (SYS), wherein; a service provider terminal (SP_T) is adapted to: - request from said token (SE) the at least one status attribute (R) after one of its services (Sv) has been requested by the user of said token (SE) ; said token (SE) being adapted to : - transmit the value of the status attribute (R) to the service provider terminal (SP_T) upon request of said service provider terminal (SP_T); the service provider terminal (SP_T) is further adapted to : - verify if said token (SE) is revoked or not, said verification being based on the value of said one status attribute (R) received from said token (SE). - grant access to said service (Sv) if said the value is not a revocation value. a service provider terminal (SP_T) is adapted to: - request from said token (SE) the at least one status attribute (R) after one of its services (Sv) has been requested by the user of said token (SE) ; - request from said token (SE) the at least one status attribute (R) after one of its services (Sv) has been requested by the user of said token (SE) ; said token (SE) being adapted to : - transmit the value of the status attribute (R) to the service provider terminal (SP_T) upon request of said service provider terminal (SP_T); - transmit the value of the status attribute (R) to the service provider terminal (SP_T) upon request of said service provider terminal (SP_T); the service provider terminal (SP_T) is further adapted to : - verify if said token (SE) is revoked or not, said verification being based on the value of said one status attribute (R) received from said token (SE). - grant access to said service (Sv) if said the value is not a revocation value. - verify if said token (SE) is revoked or not, said verification being based on the value of said one status attribute (R) received from said token (SE). - grant access to said service (Sv) if said the value is not a revocation value.
A method of optimizing a hydraulic fracturing stimulation model comprising: a) installing a fiber optic cable in a treatment well; b) installing a fiber optic cable in an observational well situated near said treatment well; c) attaching each fiber optic cable to an interrogator; d) performing at least one stage of a multistage hydraulic fracturing stimulation in said treatment well according to a hydraulic fracturing plan; e) interrogating each fiber optic cable with an interrogation signal during said performing step; f) recording a reflected Distributed Acoustic Sensing, DAS, dataset from each interrogator; g) converting each reflected DAS dataset into a continuous record by merging the record from the same interrogator; h) interpreting each transformed record to provide an interpreted record; i) optimizing said hydraulic fracturing stimulation plan using each interpreted record; and j) implementing an optimized hydraulic fracturing plan in subsequent fracturing stages in said reservoir; the method being characterised by : k) transforming each continuous record with a low-pass filter transform of 0-50 mHz and down sampling the data to provide a transformed record; wherein said reflected datasets records formation stress change. a) installing a fiber optic cable in a treatment well; b) installing a fiber optic cable in an observational well situated near said treatment well; c) attaching each fiber optic cable to an interrogator; d) performing at least one stage of a multistage hydraulic fracturing stimulation in said treatment well according to a hydraulic fracturing plan; e) interrogating each fiber optic cable with an interrogation signal during said performing step; f) recording a reflected Distributed Acoustic Sensing, DAS, dataset from each interrogator; g) converting each reflected DAS dataset into a continuous record by merging the record from the same interrogator; h) interpreting each transformed record to provide an interpreted record; i) optimizing said hydraulic fracturing stimulation plan using each interpreted record; and j) implementing an optimized hydraulic fracturing plan in subsequent fracturing stages in said reservoir; the method being characterised by : k) transforming each continuous record with a low-pass filter transform of 0-50 mHz and down sampling the data to provide a transformed record; wherein said reflected datasets records formation stress change. k) transforming each continuous record with a low-pass filter transform of 0-50 mHz and down sampling the data to provide a transformed record; wherein said reflected datasets records formation stress change.