mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for providing guidance during a flare maneuver of an aircraft , the method comprising: determining a pre-flare flight path to a runway ; calculating a flare engage altitude along the pre-flare flight path ; calculating a flare command path comprising a linear path intersecting the runway at a desired touchdown location and having a slope associated with a desired altitude rate at the desired touchdown location , the calculation comprising: an intersection of an extrapolated aircraft flight path and the runway , the desired touchdown location relative to the intersection of the extrapolated aircraft flight path and the runway , and the desired altitude rate at touchdown; calculating an aircraft flare trajectory that transitions the aircraft from a location on the pre-flare flight path at the flare engage altitude to the flare command path at the touchdown location ; receiving current aircraft flight parameters associated with a current aircraft flight path; and providing flight director commands based on the current aircraft flight path, wherein the flight director commands allow the aircraft to be guided along the aircraft flare trajectory during the flare maneuver. determining a pre-flare flight path to a runway ; calculating a flare engage altitude along the pre-flare flight path ; calculating a flare command path comprising a linear path intersecting the runway at a desired touchdown location and having a slope associated with a desired altitude rate at the desired touchdown location , the calculation comprising: an intersection of an extrapolated aircraft flight path and the runway , the desired touchdown location relative to the intersection of the extrapolated aircraft flight path and the runway , and the desired altitude rate at touchdown; an intersection of an extrapolated aircraft flight path and the runway , the desired touchdown location relative to the intersection of the extrapolated aircraft flight path and the runway , and the desired altitude rate at touchdown; calculating an aircraft flare trajectory that transitions the aircraft from a location on the pre-flare flight path at the flare engage altitude to the flare command path at the touchdown location ; receiving current aircraft flight parameters associated with a current aircraft flight path; and providing flight director commands based on the current aircraft flight path, wherein the flight director commands allow the aircraft to be guided along the aircraft flare trajectory during the flare maneuver.
A charger configured to charge a battery pack of an electric power tool, comprising: a housing comprising an intake port and an exhaust port , wherein the housing comprises an upper surface and a bottom surface located opposite to the upper surface ; a battery interface disposed on the housing and configured to removably receive the battery pack ; a charging circuit disposed within the housing and configured to supply charging power to the battery pack attached to the battery interface ; and a blower configured to introduce air into the housing through the intake port and exhaust air from the housing through the exhaust port , characterized in that at least one wall mounting portion is provided on the bottom surface of the housing such that the housing is configured to be mountable on a wall extending in a vertical direction in a predetermined orientation, the exhaust port is located higher in the vertical direction than the intake port when the housing is mounted on the wall in the predetermined orientation, when the housing is mounted on the wall in the predetermined orientation, the bottom surface is disposed along the wall , the intake port is located along a lower edge of the bottom surface and the exhaust port is located along an upper edge of the bottom surface , and the bottom surface of the housing includes a curved portion along the lower edge , the curved portion is curved away from the wall , and the intake port is at least partly disposed within the curved portion along the lower edge . a housing comprising an intake port and an exhaust port , wherein the housing comprises an upper surface and a bottom surface located opposite to the upper surface ; a battery interface disposed on the housing and configured to removably receive the battery pack ; a charging circuit disposed within the housing and configured to supply charging power to the battery pack attached to the battery interface ; and a blower configured to introduce air into the housing through the intake port and exhaust air from the housing through the exhaust port , characterized in that at least one wall mounting portion is provided on the bottom surface of the housing such that the housing is configured to be mountable on a wall extending in a vertical direction in a predetermined orientation, the exhaust port is located higher in the vertical direction than the intake port when the housing is mounted on the wall in the predetermined orientation, when the housing is mounted on the wall in the predetermined orientation, the bottom surface is disposed along the wall , the intake port is located along a lower edge of the bottom surface and the exhaust port is located along an upper edge of the bottom surface , and the bottom surface of the housing includes a curved portion along the lower edge , the curved portion is curved away from the wall , and the intake port is at least partly disposed within the curved portion along the lower edge .
Drain , such as a drain hole or drain channel, comprising: - a collecting container for collecting water, wherein the collecting container has an outflow on the underside; - a connecting part being a siphon housing for connecting the outflow to an outlet pipe ; wherein the siphon housing is provided with a unidirectional passage for admitting water from outside inward into the siphon housing , characterized by the unidirectional passage having a first depending flange and a second depending flange , wherein the outflow is sealed onto the first depending flange of the siphon housing via an O-ring ; secondary drainage openings , which are arranged at the top of the siphon housing , which secondary drainage openings debouch in the unidirectional passage ; wherein the unidirectional passage is closed at the bottom of the first depending flange by a sealing flap , which is arranged at the bottom of the first depending flange and lies against the second depending flange . - a collecting container for collecting water, wherein the collecting container has an outflow on the underside; - a connecting part being a siphon housing for connecting the outflow to an outlet pipe ;
A bone removal device , comprising: an outer elongated shaft having a longitudinal axis , a distal end and a proximal end ; a bone borer having a distal drilling tip configured to drill into a bone tissue and at least one proximal reamer , wherein said bone borer is movably coupled to a distal end of said outer elongated shaft , wherein said bone borer is configured to move between a drilling state, in which said drilling tip is placed in contact with bone tissue, and reaming states, in which said at least one proximal reamer is placed in contact with the bone tissue; a pusher element mechanically coupled to said outer elongated shaft and to said bone borer , wherein said pusher element is configured to tilt said bone borer relative to said longitudinal axis of said outer elongated shaft so as to provide said distal drilling tip in a forwardly facing position during said drilling state, and said at least one reamer in a radially extending position during said reaming states; and a rotatable adjuster coupled to said pusher element , said rotatable adjuster configured to rotate between two or more predetermined stopping states each defining a different tilting angle of said bone borer relative to said longitudinal axis of said outer elongated shaft ; characterized in that , in said drilling state, said proximal reamer is located proximal to said shaft distal end . an outer elongated shaft having a longitudinal axis , a distal end and a proximal end ; a bone borer having a distal drilling tip configured to drill into a bone tissue and at least one proximal reamer , wherein said bone borer is movably coupled to a distal end of said outer elongated shaft , wherein said bone borer is configured to move between a drilling state, in which said drilling tip is placed in contact with bone tissue, and reaming states, in which said at least one proximal reamer is placed in contact with the bone tissue; a pusher element mechanically coupled to said outer elongated shaft and to said bone borer , wherein said pusher element is configured to tilt said bone borer relative to said longitudinal axis of said outer elongated shaft so as to provide said distal drilling tip in a forwardly facing position during said drilling state, and said at least one reamer in a radially extending position during said reaming states; and a rotatable adjuster coupled to said pusher element , said rotatable adjuster configured to rotate between two or more predetermined stopping states each defining a different tilting angle of said bone borer relative to said longitudinal axis of said outer elongated shaft ; characterized in that , in said drilling state, said proximal reamer is located proximal to said shaft distal end .
A method for association of a mobile device, the method being performed by a connection and mobility manager (315; 615; 712) instantiated in a management plane of a communication network supporting a plurality of network slices, and the method comprising: receiving an attach request transmitted from the mobile device (305; 405; 605; 705), the attach request including an identifier indicative of a network slice that the mobile device (305; 405; 605; 705) is to be associated with; making a determination (350; 445; 635; 735) of a network slice to associate with the mobile device based on the identifier and selecting, based on the identifier, a service-specific connection and mobility manager, CMM, (320; 415; 620; 715) associated with the determined network slice; and transmitting the attach request to the service-specific CMM (320; 415; 620; 715) to associate the mobile device with the determined network slice. receiving an attach request transmitted from the mobile device (305; 405; 605; 705), the attach request including an identifier indicative of a network slice that the mobile device (305; 405; 605; 705) is to be associated with; making a determination (350; 445; 635; 735) of a network slice to associate with the mobile device based on the identifier and selecting, based on the identifier, a service-specific connection and mobility manager, CMM, (320; 415; 620; 715) associated with the determined network slice; and transmitting the attach request to the service-specific CMM (320; 415; 620; 715) to associate the mobile device with the determined network slice.
An information handling system comprising: a plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807) defined on a plurality of physical data storage devices (311-317; 411-417; 511-517; 611-618; 711-717; 811-820), wherein at least one of the plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807) is comprised of at least one of a different type of physical storage device (311-317; 411-417; 511-517; 611-618; 711-717; 811-820) or a different number of physical data storage devices (311-317; 411-417; 511-517; 611-618; 711-717; 811-820) than at least one other of the plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807); and a processing unit, wherein the processing unit is configured to dynamically allocate data to the plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807) so as to balance data I/O across the plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807), wherein balancing data I/O comprises: determining a usage factor for each RAID device (301-304; 401-406; 501-507; 601-607; 701-704; 801-807), wherein the usage factor is the sum of overlapping disk usages of the extents of a given RAID device divided by the number of disks over which the device is striped; and wherein the balancing data I/O is based at least in part on the usage factor. a plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807) defined on a plurality of physical data storage devices (311-317; 411-417; 511-517; 611-618; 711-717; 811-820), wherein at least one of the plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807) is comprised of at least one of a different type of physical storage device (311-317; 411-417; 511-517; 611-618; 711-717; 811-820) or a different number of physical data storage devices (311-317; 411-417; 511-517; 611-618; 711-717; 811-820) than at least one other of the plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807); and a processing unit, wherein the processing unit is configured to dynamically allocate data to the plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807) so as to balance data I/O across the plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807), wherein balancing data I/O comprises: determining a usage factor for each RAID device (301-304; 401-406; 501-507; 601-607; 701-704; 801-807), wherein the usage factor is the sum of overlapping disk usages of the extents of a given RAID device divided by the number of disks over which the device is striped; and wherein the balancing data I/O is based at least in part on the usage factor. determining a usage factor for each RAID device (301-304; 401-406; 501-507; 601-607; 701-704; 801-807), wherein the usage factor is the sum of overlapping disk usages of the extents of a given RAID device divided by the number of disks over which the device is striped; and wherein the balancing data I/O is based at least in part on the usage factor.
A method for calculating a total state-of-charge of a battery, wherein the method comprises: calculating the total state-of-charge as a coulomb counting state-of-charge (SoC(CC)), upon determining that the battery is charging; - determining an off period (dtoff), which is the time period that the battery has not received charge, upon determining that the battery is no longer charging, - calculating the total state-of-charge as a constant state of charge value (SoC') being equal to the coulomb counting state-of-charge (SoC(CC)), upon determining that the off period (dtoff) is shorter than a first time interval (dt1), or - calculating the total state-of-charge as a function of the constant state-of-charge value (SoC') and an open circuit voltage state-of-charge value (SoC(OCV)) determined by means of an open circuit voltage (OCV) across the poles of the battery , upon determining that the off period (dtoff) is shorter than a second time interval (dt2), and that the off period (dtoff) is longer than the first time interval (dt1), wherein the function comprises a sum of a first function, comprising the relation 1-W, multiplied with the constant state-of-charge value (SoC') and a second function, comprising the relation W, multiplied with the open circuit voltage (OCV) state-of-charge value (SoC(OCV)), wherein W strictly increases from 0 to 1 when the off period (dtoff) changes from the first time interval (dt1) to the second time interval (dt2), or - calculating the total state-of-charge as the open circuit voltage state-of-charge value (SoC(OCV)), upon determining that the off period (dtoff) is larger than the second time interval (dt2). - determining an off period (dtoff), which is the time period that the battery has not received charge, upon determining that the battery is no longer charging, - calculating the total state-of-charge as a constant state of charge value (SoC') being equal to the coulomb counting state-of-charge (SoC(CC)), upon determining that the off period (dtoff) is shorter than a first time interval (dt1), or - calculating the total state-of-charge as a function of the constant state-of-charge value (SoC') and an open circuit voltage state-of-charge value (SoC(OCV)) determined by means of an open circuit voltage (OCV) across the poles of the battery , upon determining that the off period (dtoff) is shorter than a second time interval (dt2), and that the off period (dtoff) is longer than the first time interval (dt1), wherein the function comprises a sum of a first function, comprising the relation 1-W, multiplied with the constant state-of-charge value (SoC') and a second function, comprising the relation W, multiplied with the open circuit voltage (OCV) state-of-charge value (SoC(OCV)), wherein W strictly increases from 0 to 1 when the off period (dtoff) changes from the first time interval (dt1) to the second time interval (dt2), or - calculating the total state-of-charge as the open circuit voltage state-of-charge value (SoC(OCV)), upon determining that the off period (dtoff) is larger than the second time interval (dt2).
Attachment for a base jaw of a pressing tool for pressing fittings to produce pipe connections, comprising - an attachment body , - a pressing section , formed on the attachment body , to form half a jaw opening , and - a connecting section formed on the attachment body , to connect to the base jaw , - wherein the pressing section and the connecting section are arranged at a distance from one another, - wherein the connecting section has connection means for a form-fitting, twist-proof and releasable connection to the base jaw . and - wherein the connection means can be brought into engagement with the connection means formed on the base jaw by a rotational movement, and characterized in - that the attachment body forms the complete distal section of the base jaw , and - that the connecting section forms a substantially planar interface, at least in sections, with the base jaw . - an attachment body , - a pressing section , formed on the attachment body , to form half a jaw opening , and - a connecting section formed on the attachment body , to connect to the base jaw , - wherein the pressing section and the connecting section are arranged at a distance from one another, - wherein the connecting section has connection means for a form-fitting, twist-proof and releasable connection to the base jaw . and - wherein the connection means can be brought into engagement with the connection means formed on the base jaw by a rotational movement, and characterized in - that the attachment body forms the complete distal section of the base jaw , and - that the connecting section forms a substantially planar interface, at least in sections, with the base jaw .
A system for providing durable storage by a firmware interface , said system comprising: a processor configured to host said firmware interface , said firmware interface to control access to system variables in a protected region of a volatile memory , wherein the firmware interface is a Unified Extensible Firmware Interface (UEFI), and the system variables are controllably accessed by an operating system (OS 106), the system variables at least including a Platform Key, PK, a Key Exchange Key, KEK, a data base of trusted keys, signatures and executable images, DB, and a database of non-trusted keys, signatures and executable images, DBX; a power management circuit configured to provide power to said processor and further to provide a power loss indicator to said firmware interface ; and a reserve energy storage module configured to provide power to said processor in response to said power loss indicator; wherein said firmware interface is further configured to: copy said system variables from said volatile memory to a non-volatile memory in response to said power loss indicator; and generate a Non-Maskable Interrupt (NMI) after copying said system variables to said non-volatile memory , when sufficient reserve power is available, to trigger the operating system to perform any additional operations that may be appropriate. a processor configured to host said firmware interface , said firmware interface to control access to system variables in a protected region of a volatile memory , wherein the firmware interface is a Unified Extensible Firmware Interface (UEFI), and the system variables are controllably accessed by an operating system (OS 106), the system variables at least including a Platform Key, PK, a Key Exchange Key, KEK, a data base of trusted keys, signatures and executable images, DB, and a database of non-trusted keys, signatures and executable images, DBX; a power management circuit configured to provide power to said processor and further to provide a power loss indicator to said firmware interface ; and a reserve energy storage module configured to provide power to said processor in response to said power loss indicator; wherein said firmware interface is further configured to: copy said system variables from said volatile memory to a non-volatile memory in response to said power loss indicator; and generate a Non-Maskable Interrupt (NMI) after copying said system variables to said non-volatile memory , when sufficient reserve power is available, to trigger the operating system to perform any additional operations that may be appropriate. copy said system variables from said volatile memory to a non-volatile memory in response to said power loss indicator; and generate a Non-Maskable Interrupt (NMI) after copying said system variables to said non-volatile memory , when sufficient reserve power is available, to trigger the operating system to perform any additional operations that may be appropriate.
Fish pen having a double net wall comprising an inner net bag and an external net bag , the inner net bag having an inner bottom net and the external net bag having an external bottom net , characterized in that a lower part of the inner bottom net and a lower part of the external bottom net are attached to a common pulldown body arranged therebetween , with an upper attachment point and a lower attachment point having a certain distance between each other, and, wherein, the nets and common pull-down body are arranged such that by pulling down the common pull-down body , the net walls are tensioned such that they are spread out from each other and are not in contact with each other.
Ratchet tensioning device for tensioning objects such as belts or tarpaulins, comprising a ratchet lever , a ratchet gear and a fastening part , the ratchet gear being mounted in the fastening part and cooperating with a latching part , the ratchet lever further being secured in a home position on the fastening part on a counter latching portion designed to be able to move against spring force, characterised in that a movably arranged pawl is provided on the ratchet lever and in that the pawl has a securing part for cooperating with the counter latching portion .