mhurhangee/patent-ind-claim-en huggingface dataset:
A wind turbine comprising: - a tower, - a nacelle mounted on the tower, - a generator, - a hub mounted rotatably on the nacelle, - a blade carrying structure connected to the hub, - one or more wind turbine blades connected to the blade carrying structure via a hinge, each wind turbine blade thereby being arranged to perform pivot movements relative to the blade carrying structure between a minimum pivot angle and a maximum pivot angle, each wind turbine blade extending between an outer tip and an inner tip, wherein each wind turbine blade has: - an outer portion extending between the hinge and the outer tip and having a first length (L 1 ), and - an inner portion extending between the hinge and the inner tip and having a second length (L 2 ), wherein a coning angle of the blade carrying structure is larger than zero and/or a tilt angle of the rotor axis is larger than zero, and wherein a horizontal distance (L 0 ) from - the tower at a vertical position defined by a position of the hinge at tower passage to - a point of connection between the blade carrying structure and the hub is equal to or less than the second length (L 2 ). - a tower, - a nacelle mounted on the tower, - a generator, - a hub mounted rotatably on the nacelle, - a blade carrying structure connected to the hub, - one or more wind turbine blades connected to the blade carrying structure via a hinge, each wind turbine blade thereby being arranged to perform pivot movements relative to the blade carrying structure between a minimum pivot angle and a maximum pivot angle, each wind turbine blade extending between an outer tip and an inner tip, wherein each wind turbine blade has: - an outer portion extending between the hinge and the outer tip and having a first length (L 1 ), and - an inner portion extending between the hinge and the inner tip and having a second length (L 2 ), - an outer portion extending between the hinge and the outer tip and having a first length (L 1 ), and - an inner portion extending between the hinge and the inner tip and having a second length (L 2 ), wherein a coning angle of the blade carrying structure is larger than zero and/or a tilt angle of the rotor axis is larger than zero, and wherein a horizontal distance (L 0 ) from - the tower at a vertical position defined by a position of the hinge at tower passage to - a point of connection between the blade carrying structure and the hub is equal to or less than the second length (L 2 ). - the tower at a vertical position defined by a position of the hinge at tower passage to - a point of connection between the blade carrying structure and the hub is equal to or less than the second length (L 2 ).
A method for obtaining access to a session with a remote cloud service server via a first client computing device and preventing unintentionally launching the session on the first client computing device, wherein the method uses a mobile device capable of transmitting a user unique identifier to the first client computing device when a user carrying the mobile device walks by the first client computing device, the method comprising: receiving, by the first client computing device, the user unique identifier from the mobile device located in proximity to the first client computing device, the user unique identifier being a first user name identifying a user of the mobile device; initiating facial recognition operations by the first client computing device subsequent to the reception of the user unique identifier and in response thereto, where the facial recognition operations comprise capturing by the first client computing device an image of the mobile device's user, and analyzing the image to obtain a second user name that is stored in a datastore associated with the facial features represented in the image; determining, by the first client computing device, if the second user name obtained during the facial recognition operations matches the first user name received from the mobile device; and automatically launching a first session with the remote cloud service server responsive to a determination that the second user name obtained during the facial recognition operations matches the first user name received from the mobile device. receiving, by the first client computing device, the user unique identifier from the mobile device located in proximity to the first client computing device, the user unique identifier being a first user name identifying a user of the mobile device; initiating facial recognition operations by the first client computing device subsequent to the reception of the user unique identifier and in response thereto, where the facial recognition operations comprise capturing by the first client computing device an image of the mobile device's user, and analyzing the image to obtain a second user name that is stored in a datastore associated with the facial features represented in the image; determining, by the first client computing device, if the second user name obtained during the facial recognition operations matches the first user name received from the mobile device; and capturing by the first client computing device an image of the mobile device's user, and analyzing the image to obtain a second user name that is stored in a datastore associated with the facial features represented in the image; determining, by the first client computing device, if the second user name obtained during the facial recognition operations matches the first user name received from the mobile device; and automatically launching a first session with the remote cloud service server responsive to a determination that the second user name obtained during the facial recognition operations matches the first user name received from the mobile device.
A method implemented by one or more processors, the method comprising: determining an input stream sequence based on a user interface input of at least one user of a computing device; jointly generating a first output stream sequence and a second output stream sequence by processing, the input stream sequence, using a multi-stream recurrent neural network transducer, MS RNN-T, wherein the MS RNN-T comprises an input stream encoder, a first output stream encoder, a second output stream encoder, and a joint network; generating a response to the user interface input based on the first output stream and/or the second output stream; and causing the computing device to render the response to the at least one user, wherein the user interface input is audio data. determining an input stream sequence based on a user interface input of at least one user of a computing device; jointly generating a first output stream sequence and a second output stream sequence by processing, the input stream sequence, using a multi-stream recurrent neural network transducer, MS RNN-T, wherein the MS RNN-T comprises an input stream encoder, a first output stream encoder, a second output stream encoder, and a joint network; generating a response to the user interface input based on the first output stream and/or the second output stream; and causing the computing device to render the response to the at least one user, wherein the user interface input is audio data.
Computer-implemented method for processing an audio signal (E1) with the steps: - receiving (S20) the audio signal (E1); - recognising (S40-A) a beginning (BE) of operator speech input in the audio signal (E1); - analysing (S40-B) the audio signal (E1) substantially in real time from the recognised beginning (BE) of the speech input to provide a speech analysis result; - defining (S40-D, 540-D') an end (EN) of the speech input based on the speech analysis result; and - providing (S40-E) a speech data stream (E2) based on the audio signal (E1) between the recognised beginning (BE) and the defined end (EN); - adjusting (S40-C) an adaptive time interval (AZS) based on the speech analysis result; wherein the step of defining (S40-D) the end (EN) of the speech input comprises: - capturing (S40-D-0) a time (T0) at which the audio signal (E1) does not contain any speech input; - defining (S40-D-1) the end (EN) of the speech input at the captured time (T0) if no new beginning (BE) of speech input is recognised starting from the captured time (T0) within the adaptive time interval (AZS). - receiving (S20) the audio signal (E1); - recognising (S40-A) a beginning (BE) of operator speech input in the audio signal (E1); - analysing (S40-B) the audio signal (E1) substantially in real time from the recognised beginning (BE) of the speech input to provide a speech analysis result; - defining (S40-D, 540-D') an end (EN) of the speech input based on the speech analysis result; and - providing (S40-E) a speech data stream (E2) based on the audio signal (E1) between the recognised beginning (BE) and the defined end (EN); - adjusting (S40-C) an adaptive time interval (AZS) based on the speech analysis result; - capturing (S40-D-0) a time (T0) at which the audio signal (E1) does not contain any speech input; - defining (S40-D-1) the end (EN) of the speech input at the captured time (T0) if no new beginning (BE) of speech input is recognised starting from the captured time (T0) within the adaptive time interval (AZS).
A sliding bearing unit (U) comprising: a stationary shaft that extends along a rotation axis (a) and includes a first radial bearing surface (S11a) on an outer peripheral surface; a rotor that is rotatable around the stationary shaft ; and a lubricant (LM), wherein the rotor includes: a first cylinder extending along the rotation axis (a) and formed in a tubular shape, and located surrounding the stationary shaft ; and a second cylinder extending along the rotation axis (a) and formed in a tubular shape, located between the stationary shaft and the first cylinder , including a second radial bearing surface (S22) on an inner peripheral surface, and whose operation is restricted so as not to rotate relative to the first cylinder , and the lubricant (LM) is filled in a plurality of gaps between the stationary shaft , the first cylinder , and the second cylinder , and forms a dynamic pressure radial sliding bearing (Ba) together with the first radial bearing surface (S11a) and the second radial bearing surface (S22) . a stationary shaft that extends along a rotation axis (a) and includes a first radial bearing surface (S11a) on an outer peripheral surface; a rotor that is rotatable around the stationary shaft ; and a lubricant (LM), wherein the rotor includes: a first cylinder extending along the rotation axis (a) and formed in a tubular shape, and located surrounding the stationary shaft ; and a second cylinder extending along the rotation axis (a) and formed in a tubular shape, located between the stationary shaft and the first cylinder , including a second radial bearing surface (S22) on an inner peripheral surface, and whose operation is restricted so as not to rotate relative to the first cylinder , and a first cylinder extending along the rotation axis (a) and formed in a tubular shape, and located surrounding the stationary shaft ; and a second cylinder extending along the rotation axis (a) and formed in a tubular shape, located between the stationary shaft and the first cylinder , including a second radial bearing surface (S22) on an inner peripheral surface, and whose operation is restricted so as not to rotate relative to the first cylinder , and the lubricant (LM) is filled in a plurality of gaps between the stationary shaft , the first cylinder , and the second cylinder , and forms a dynamic pressure radial sliding bearing (Ba) together with the first radial bearing surface (S11a) and the second radial bearing surface (S22) .
A bidirectional downhole fluid flow control system comprising: at least one injection vortex diode wherein injection fluid flow entering the injection vortex diode travels primarily in a radial direction and wherein production fluid flow entering the injection vortex diode travels primarily in a tangential direction; at least one production vortex diode in parallel with the at least one injection vortex diode wherein production fluid flow entering the production vortex diode travels primarily in a radial direction and wherein injection fluid flow entering the production vortex diode travels primarily in a tangential direction; characterized in that the at least one injection vortex diode and the at least one production vortex diode provide a plurality of flow paths between a central passageway of a tubing string and an annulus in a wellbore that are in parallel with one another. at least one injection vortex diode wherein injection fluid flow entering the injection vortex diode travels primarily in a radial direction and wherein production fluid flow entering the injection vortex diode travels primarily in a tangential direction; at least one production vortex diode in parallel with the at least one injection vortex diode wherein production fluid flow entering the production vortex diode travels primarily in a radial direction and wherein injection fluid flow entering the production vortex diode travels primarily in a tangential direction; characterized in that the at least one injection vortex diode and the at least one production vortex diode provide a plurality of flow paths between a central passageway of a tubing string and an annulus in a wellbore that are in parallel with one another.
An oral care composition comprising a) an orally acceptable acidic polymer comprising a combination of 1:4 to 4:1 copolymers of maleic anhydride or acid with another polymerizable ethylenically unsaturated monomer; and a co-polymerized product of a mixture of acrylic acid, methacrylic acid, and 2-hydroxyethyl methacrylate phosphates of Formula 1: wherein n is 0, 1 or 2; b) an orally acceptable nonionic polymer, wherein the orally acceptable nonionic polymer is selected from polyethylene glycols, polypropylene glycols, poloxamers and mixtures thereof; c) an effective amount of an orally acceptable cationic active agent, wherein said orally acceptable cationic active agent is provided by an orally acceptable salt selected from zinc salts, stannous salts, chlorhexidine digluconate, and cetyl pyridinium chloride; d) a stabilizing amount of a polyamine compound, in free or orally acceptable salt form, wherein the polyamine compound is lysine; e) water; and f) an anionic surfactant, wherein the anionic surfactant comprises sodium lauryl sulfate. a) an orally acceptable acidic polymer comprising a combination of 1:4 to 4:1 copolymers of maleic anhydride or acid with another polymerizable ethylenically unsaturated monomer; and a co-polymerized product of a mixture of acrylic acid, methacrylic acid, and 2-hydroxyethyl methacrylate phosphates of Formula 1: wherein n is 0, 1 or 2; b) an orally acceptable nonionic polymer, wherein the orally acceptable nonionic polymer is selected from polyethylene glycols, polypropylene glycols, poloxamers and mixtures thereof; c) an effective amount of an orally acceptable cationic active agent, wherein said orally acceptable cationic active agent is provided by an orally acceptable salt selected from zinc salts, stannous salts, chlorhexidine digluconate, and cetyl pyridinium chloride; d) a stabilizing amount of a polyamine compound, in free or orally acceptable salt form, wherein the polyamine compound is lysine; e) water; and f) an anionic surfactant, wherein the anionic surfactant comprises sodium lauryl sulfate.
A system configured for managing traffic on one or more distributed network servers that deliver digital content to a user device, the system comprising: one or more hardware processors configured by machine-readable instructions to: receive an item of digital content on the one or more distributed network servers; assign a type category to the item of digital content; determine an update time variable of the item of digital content; determine a cache time for the item of digital content based on the type category of the item of digital content and the update time variable of the item of digital content, wherein the step of determining a cache time comprises applying a rule to determine the cache time, wherein the rule includes multiple time periods that are each respectively associated with a corresponding update time variable and wherein a time period is selected as the cache time based on the time period corresponding to the update time variable of the item of digital content, wherein the rule further includes type categories each having a corresponding offset and the step of determining the cache time further comprises multiplying the selected time period by the offset corresponding to the type category of the item of digital content; and cause an instance of the item of digital content to be cached in a cache memory associated with the one or more distributed network servers for the cache time and allowing removal of the instance of the item of digital content from the cache memory after the cache time has lapsed. receive an item of digital content on the one or more distributed network servers; assign a type category to the item of digital content; determine an update time variable of the item of digital content; determine a cache time for the item of digital content based on the type category of the item of digital content and the update time variable of the item of digital content, wherein the step of determining a cache time comprises applying a rule to determine the cache time, wherein the rule includes multiple time periods that are each respectively associated with a corresponding update time variable and wherein a time period is selected as the cache time based on the time period corresponding to the update time variable of the item of digital content, wherein the rule further includes type categories each having a corresponding offset and the step of determining the cache time further comprises multiplying the selected time period by the offset corresponding to the type category of the item of digital content; and cause an instance of the item of digital content to be cached in a cache memory associated with the one or more distributed network servers for the cache time and allowing removal of the instance of the item of digital content from the cache memory after the cache time has lapsed.
A tissue expander for breast reconstruction comprising: an MMP sensor unit attached to the tissue expander, wherein the MMP sensor unit comprises a biosensor configured to detect matrix metalloproteinase (MMP), which is collagenase, of surrounding tissues adjacent to the tissue expander, characterized in that , the MMP sensor includes an MMP-specific peptide, and an MMP inhibitor or inhibitory drug is further bonded to a terminal of the peptide. an MMP sensor unit attached to the tissue expander, wherein the MMP sensor unit comprises a biosensor configured to detect matrix metalloproteinase (MMP), which is collagenase, of surrounding tissues adjacent to the tissue expander, characterized in that , the MMP sensor includes an MMP-specific peptide, and an MMP inhibitor or inhibitory drug is further bonded to a terminal of the peptide.
An overcurrent protection system for a battery , the overcurrent protection system comprising: a thermal fuse configured to connect to a first terminal and a second terminal of the battery; a first sleeving layer that is disposed on the thermal fuse, and that is configured to muffle an arc explosion of the thermal fuse and encapsulate molten material generated by the arc explosion of the thermal fuse; and a second sleeving layer that is disposed on the first sleeving layer, and that is configured to encapsulate the molten material generated by the arc explosion of the thermal fuse that penetrates the first sleeving layer; characterized in that : the first sleeving layer comprises braided fiberglass ; a first end cover covers a first opening of the first sleeving layer and the thermal fuse; and a second end cover covers a second opening of the first sleeving layer and the thermal fuse. a thermal fuse configured to connect to a first terminal and a second terminal of the battery; a first sleeving layer that is disposed on the thermal fuse, and that is configured to muffle an arc explosion of the thermal fuse and encapsulate molten material generated by the arc explosion of the thermal fuse; and a second sleeving layer that is disposed on the first sleeving layer, and that is configured to encapsulate the molten material generated by the arc explosion of the thermal fuse that penetrates the first sleeving layer; characterized in that : the first sleeving layer comprises braided fiberglass ; a first end cover covers a first opening of the first sleeving layer and the thermal fuse; and a second end cover covers a second opening of the first sleeving layer and the thermal fuse. the first sleeving layer comprises braided fiberglass ; a first end cover covers a first opening of the first sleeving layer and the thermal fuse; and a second end cover covers a second opening of the first sleeving layer and the thermal fuse.
A wall-mounted housing comprising a body to be suspended from a wall and a distance-control device mounted on the body and in contact with the wall which is adjustable for setting a distance between the body and the wall, wherein the distance-control device comprises a rail (2.1) and that for connecting the rail (2.1) to the body connecting elements (2.2, 2.3) are provided, characterized in that one of the connecting elements (2.2) is designed as an oblong slot, that the slot runs along a first straight line, which, in turn, is formed in the suspended position of the body on the one hand parallel to the underside of the body and on the other hand running obliquely to the rear side of the body, that another of the connecting elements (2.3) is formed as a pin penetrating the slot and that the pin runs along a second straight line, which, in turn, is formed in the suspended position of the body , on the one hand, parallel to the rear side of the body and, on the other hand, perpendicular to the underside of the body.