mhurhangee/ep-ind-claims huggingface dataset:
A method of building a summarised topology of a communications network comprising the steps of: - receiving Class of Service, CoS, settings defining a plurality of CoS baskets, each CoS basket being defined by a specific combination of a range of delay and a range of bandwidth; - receiving traffic information; - receiving traffic demands for traffic between pairs of border nodes; - building an Expected Traffic Matrix EM based on the received Class of Service settings, traffic information and traffic demands, such that each traffic demand, which is specified by a source, a destination and bandwidth, is associated to a basket compatible with the features of said traffic demand; and routing traffic demands represented in the Expected Traffic Matrix EM; - for traffic demands in the EM matrix creating a path and assigning the path to one of CoS baskets, where the CoS baskets represent different Classes of Service, wherein if a traffic demand can be served then a path in the basket with the smallest bandwidth greater than the bandwidth of the traffic demand is chosen for assigning to the traffic demand and the residual bandwidth is made available for future reservations; - associating each CoS basket with a Summary Link connecting a pair of border nodes, wherein the Summary link represents a set of connections; and - building a summarised topology of the network, wherein pairs of border nodes are linked by the Summary Links corresponding to the CoS baskets. - receiving Class of Service, CoS, settings defining a plurality of CoS baskets, each CoS basket being defined by a specific combination of a range of delay and a range of bandwidth; - receiving traffic information; - receiving traffic demands for traffic between pairs of border nodes; - building an Expected Traffic Matrix EM based on the received Class of Service settings, traffic information and traffic demands, such that each traffic demand, which is specified by a source, a destination and bandwidth, is associated to a basket compatible with the features of said traffic demand; and routing traffic demands represented in the Expected Traffic Matrix EM; - for traffic demands in the EM matrix creating a path and assigning the path to one of CoS baskets, where the CoS baskets represent different Classes of Service, wherein if a traffic demand can be served then a path in the basket with the smallest bandwidth greater than the bandwidth of the traffic demand is chosen for assigning to the traffic demand and the residual bandwidth is made available for future reservations; - associating each CoS basket with a Summary Link connecting a pair of border nodes, wherein the Summary link represents a set of connections; and - building a summarised topology of the network, wherein pairs of border nodes are linked by the Summary Links corresponding to the CoS baskets.
Limit position detection device for use in actuation units of the type equipped with an actuating member movable along an axis between a first operative limit position and a second, non-operative limit position, within a body of an actuation unit, the device comprising a hollow body inside of which electronic processing means are housed for processing signals detected by at least one sensing element (11, 12), the at least one sensing element (11,12) of the inductive type electrically connected to the electronic processing means, wherein the at least one sensing element (11,12) defines a sensing area inside of which the sensing element (11,12) is able to detect at least the partial presence of at least one triggering component (57a,58a,57b,58b) moved due to a translational motion of the actuating member, characterized in that the at least one sensing element (11,12) comprises at least one first measuring coil-on-chip positioned such as to detect the presence of the at least one triggering component (57a,58a,57b,58b) within the sensing area and provide a corresponding first measurement, and at least one second reference coil-on-chip positioned in such a way as not to detect the presence of the at least one triggering component (57a,58a,57b,58b) within the sensing area and provide a corresponding second measurement for calculating a differential measurement signal with respect to the first measurement.
A retractable step arrangement for a vehicle or a rail vehicle having at least one footboard that is mounted on a guide device such that it is able, when driven by a drive, to move along a path of travel between a retracted position and an extended position, characterised in that the drive comprises at least one contactlessly operating linear electric motor, the drive force of this motor being transmitted to the footboard without a mechanical connection, the at least one contactlessly operating linear electric motor being controlled or regulated as regards a position on the path of travel to be assumed by the footboard, a speed to be achieved, an acceleration to be achieved or the drive force to be achieved by an electronic control or regulating device.
A method of displaying information on a display using a display control device configured to control a display device to display the information, the display device comprising the display and being installed in a vehicle, the method comprising: imaging a user of the display device using an imaging device integrated with the display device or provided around the display device; detecting a line of sight of the user from an image captured by the imaging device; determining whether the display exists within a central visual field region centered on the detected line of sight of the user or within a peripheral visual field region located outside the central visual field region; the method being characterized by the following steps: displaying notification information on the display in a first display form including a text when the display exists within the central visual field region; and displaying the notification information on the display in a second display form including an icon when the display exists within the peripheral visual field region, the second display form having a higher abstraction level than that in the first display form, and, after a predetermined time has passed from when the notification information is displayed on the display in the second display form, switching from the second display form to the first display form to display the notification information on the display, and continuously displaying the notification information on the display in the second display form when the display is absent not only in the central visual field region but also in the peripheral visual field region, even after the predetermined time has passed (step S306). imaging a user of the display device using an imaging device integrated with the display device or provided around the display device; detecting a line of sight of the user from an image captured by the imaging device; determining whether the display exists within a central visual field region centered on the detected line of sight of the user or within a peripheral visual field region located outside the central visual field region; displaying notification information on the display in a first display form including a text when the display exists within the central visual field region; and displaying the notification information on the display in a second display form including an icon when the display exists within the peripheral visual field region, the second display form having a higher abstraction level than that in the first display form, and, after a predetermined time has passed from when the notification information is displayed on the display in the second display form, switching from the second display form to the first display form to display the notification information on the display, and continuously displaying the notification information on the display in the second display form when the display is absent not only in the central visual field region but also in the peripheral visual field region, even after the predetermined time has passed (step S306).
A method of making a gas separation membrane comprising: dissolving a poly(ether- b -amide) (PEBA) copolymer in a solvent to form a polymer solution; casting the polymer solution into a mold; evaporating the solvent to form a film; submerging the film in a crosslinking solution to form a crosslinked film, wherein the crosslinking solution comprises a diisocyanate polyether according to formula: wherein: R 6 is independently an alkyl or -H; x is from 1 to 200; and R 1, R 2, R 3, R 4, R 5, R 7, R 8, R 9, R 10, and R 11 is independently -C=N=O, alkyl or -H, provided that at least one and not more than two of R 1, R 2, R 3, R 4 and R 5 is -C=N=O and at least one and not more than two of R 7, R 8, R 9, R 10, and R 11 is independently -C=N=O; and drying the film to form the gas separation membrane. dissolving a poly(ether- b -amide) (PEBA) copolymer in a solvent to form a polymer solution; casting the polymer solution into a mold; evaporating the solvent to form a film; submerging the film in a crosslinking solution to form a crosslinked film, wherein the crosslinking solution comprises a diisocyanate polyether according to formula: wherein: R 6 is independently an alkyl or -H; x is from 1 to 200; and R 1, R 2, R 3, R 4, R 5, R 7, R 8, R 9, R 10, and R 11 is independently -C=N=O, alkyl or -H, provided that at least one and not more than two of R 1, R 2, R 3, R 4 and R 5 is -C=N=O and at least one and not more than two of R 7, R 8, R 9, R 10, and R 11 is independently -C=N=O; and drying the film to form the gas separation membrane. R 6 is independently an alkyl or -H; x is from 1 to 200; and R 1, R 2, R 3, R 4, R 5, R 7, R 8, R 9, R 10, and R 11 is independently -C=N=O, alkyl or -H, provided that at least one and not more than two of R 1, R 2, R 3, R 4 and R 5 is -C=N=O and at least one and not more than two of R 7, R 8, R 9, R 10, and R 11 is independently -C=N=O; and
An amatoxin of Formula I wherein: R 1 is selected from C=O, C=S, C=NR 6 and CR 7 R 8; R 2 is selected from S=O, SO 2, and S; R 3 is selected from NHR 5 and OR 5; R 4 is selected from H, OR 5, and OC 1-6 -alkyl; R 6 is selected from C 1-6 -alkylene-R 5, cycloalkylene-R 5, heterocycloalkylene-R 5, arylene-R 5, and heteroarylene-R 5; R 7 and R 8 are independently selected from H, C 1-6 -alkylene-R 5, cycloalkylene-R 5, heterocycloalkylene-R 5, arylene-R 5, and heteroarylene-R 5; wherein: (i) each R 5 is H; (ii) one of R 5 is -L n -X, wherein L is a linker, n is selected from 0 and 1, and X is a chemical moiety that can be coupled with a targeting moiety, and wherein the remaining R 5 are H; or (iii) one of R 5 is -L n -X*-Y, wherein L is a linker, n is selected from 0 and 1, Y is a targeting moiety, and X* is a chemical moiety resulting from coupling X with a functional group of Y, and wherein the remaining R 5 are H. R 1 is selected from C=O, C=S, C=NR 6 and CR 7 R 8; R 2 is selected from S=O, SO 2, and S; R 3 is selected from NHR 5 and OR 5; R 4 is selected from H, OR 5, and OC 1-6 -alkyl; R 6 is selected from C 1-6 -alkylene-R 5, cycloalkylene-R 5, heterocycloalkylene-R 5, arylene-R 5, and heteroarylene-R 5; R 7 and R 8 are independently selected from H, C 1-6 -alkylene-R 5, cycloalkylene-R 5, heterocycloalkylene-R 5, arylene-R 5, and heteroarylene-R 5; wherein: (i) each R 5 is H; (ii) one of R 5 is -L n -X, wherein L is a linker, n is selected from 0 and 1, and X is a chemical moiety that can be coupled with a targeting moiety, and wherein the remaining R 5 are H; or (iii) one of R 5 is -L n -X*-Y, wherein L is a linker, n is selected from 0 and 1, Y is a targeting moiety, and X* is a chemical moiety resulting from coupling X with a functional group of Y, and wherein the remaining R 5 are H. (i) each R 5 is H; (ii) one of R 5 is -L n -X, wherein L is a linker, n is selected from 0 and 1, and X is a chemical moiety that can be coupled with a targeting moiety, and wherein the remaining R 5 are H; or (iii) one of R 5 is -L n -X*-Y, wherein L is a linker, n is selected from 0 and 1, Y is a targeting moiety, and X* is a chemical moiety resulting from coupling X with a functional group of Y, and wherein the remaining R 5 are H.
A pitot tube assembly configured to be fitted to a centrifugal pump, comprising: an extension arm having a tubular body with opposing ends (64,66) and a central axis extending between the opposing ends(64,66); at least one pickup tube secured to one of said opposing ends of said extension arm; and a terminal portion positioned at the end of the extension arm opposite the end of the extension arm to which the at least one pickup tube is secured; characterized in that a tapered fitting is provided toward the end of the extension arm opposite to the end of the extension arm to which the at least one pickup tube is secured, the tapered fitting being positioned between the opposing ends (64, 66) of the extension arm and having an outer surface configured to register against an outer pump casing part in friction fit therewith. an extension arm having a tubular body with opposing ends (64,66) and a central axis extending between the opposing ends(64,66); at least one pickup tube secured to one of said opposing ends of said extension arm; and a terminal portion positioned at the end of the extension arm opposite the end of the extension arm to which the at least one pickup tube is secured; characterized in that a tapered fitting is provided toward the end of the extension arm opposite to the end of the extension arm to which the at least one pickup tube is secured, the tapered fitting being positioned between the opposing ends (64, 66) of the extension arm and having an outer surface configured to register against an outer pump casing part in friction fit therewith.
Rotor for an electrical machine having at least two magnets, which each have a first end and a second end and which have magnetization, wherein the magnetization of said magnets at the first end thereof is opposite to the magnetization of said magnets at the second end thereof, with the result that the magnets form in each case two magnetic poles (112, 113) which are aligned opposite to one another, wherein the magnetization of the magnets is at least weakened in each case in a region between the first end and the second end, or the magnets do not have any magnetization in the region, and wherein a space is provided non-magnetically between two adjacent magnets, characterized in that the magnets are arranged such that they have identical magnetic poles (112, 113) at their mutually adjacent ends (11, 12).
An operation method of a memory device that includes a plurality of memory cells stacked in a direction perpendicular to a substrate, the method comprising: performing first to (n-1)-th program loops on selected memory cells connected to a selected word line from among the plurality of memory cells, based on a first program parameter; and after the (n-1)-th program loop is performed, performing n-th to k-th program loops on the selected memory cells, based on a second program parameter different from the first program parameter, wherein n is an integer greater than 1 and k is an integer greater than or equal to n, characterised in that the method is further comprising: wherein the first and second program parameters include information about at least two of a program voltage increment, a 2-step verify range, and a bit line forcing voltage used in the first to k-th program loops. performing first to (n-1)-th program loops on selected memory cells connected to a selected word line from among the plurality of memory cells, based on a first program parameter; and after the (n-1)-th program loop is performed, performing n-th to k-th program loops on the selected memory cells, based on a second program parameter different from the first program parameter, wherein n is an integer greater than 1 and k is an integer greater than or equal to n, characterised in that the method is further comprising: wherein the first and second program parameters include information about at least two of a program voltage increment, a 2-step verify range, and a bit line forcing voltage used in the first to k-th program loops.
A method for operating a group (2, 102) of nodes in a system for agile computing comprising a coordinator node and a first computation node communicating via a connection, and wherein the first computation node is adapted to perform a task for the coordinator node, the method comprising the steps of: - monitoring at least one operating parameter indicating the quality of the connection between the coordinator node and the first computation node and/or the capabilities of the first computation node; - determining a quality parameter based on the at least one operating parameter; - transferring information from the first computation node to the coordinator node, when the value of the quality parameter falls below a transfer threshold value, wherein the information comprises information about a part of a task performed by the first computation node; - deciding whether the first computation node should stop or continue performing the task after the step of transferring information about the performed part of the task. - monitoring at least one operating parameter indicating the quality of the connection between the coordinator node and the first computation node and/or the capabilities of the first computation node; - determining a quality parameter based on the at least one operating parameter; - transferring information from the first computation node to the coordinator node, when the value of the quality parameter falls below a transfer threshold value, wherein the information comprises information about a part of a task performed by the first computation node; - deciding whether the first computation node should stop or continue performing the task after the step of transferring information about the performed part of the task.
An imaging system, comprising: an imaging detector adapted to capture an image of human tissue; a compression paddle situated apart from the imaging detector and adapted to compress the human tissue between the compression paddle and the imaging detector; a force sensor adapted to generate a force signal indicating a measure of force applied superior to the human tissue; a movement detection circuit adapted to filter a movement signal from the force signal indicating a measure of movement of the compressed human tissue; a movement analysis module adapted to determine that the movement signal is beyond a movement threshold; and an image correction module adapted to perform a corrective action based upon the determination that the movement signal is beyond a movement threshold.
A system for locating airflow modifiers for installation on wind turbine rotor blades, the system comprising: a plurality of airflow modifier, each airflow modifier including a base defining an outer profile that differs from the outer profiles of the remainder of the airflow modifiers, wherein the base of each airflow modifier includes at least one of: a projection extending outwardly therefrom that differs with reference to at least one of shape, size or location relative to the projections of the remainder of the airflow modifiers, and a recess defined therein that differs with reference to at least one of shape, size or location relative to the recesses of the remainder of the airflow modifiers; a blade shell defining an exterior surface, the base of each airflow modifier being configured to be coupled to the exterior surface of the blade shell; and an installation template provided on the exterior surface of the blade shell, the installation template defining a different installation location for each of the airflow modifiers, the installation template including a geometric feature at each installation location that at least partially matches the outer profile of the airflow modifier configured to be installed at such installation location. a plurality of airflow modifier, each airflow modifier including a base defining an outer profile that differs from the outer profiles of the remainder of the airflow modifiers, wherein the base of each airflow modifier includes at least one of: a projection extending outwardly therefrom that differs with reference to at least one of shape, size or location relative to the projections of the remainder of the airflow modifiers, and a recess defined therein that differs with reference to at least one of shape, size or location relative to the recesses of the remainder of the airflow modifiers; a projection extending outwardly therefrom that differs with reference to at least one of shape, size or location relative to the projections of the remainder of the airflow modifiers, and a recess defined therein that differs with reference to at least one of shape, size or location relative to the recesses of the remainder of the airflow modifiers; a blade shell defining an exterior surface, the base of each airflow modifier being configured to be coupled to the exterior surface of the blade shell; and an installation template provided on the exterior surface of the blade shell, the installation template defining a different installation location for each of the airflow modifiers, the installation template including a geometric feature at each installation location that at least partially matches the outer profile of the airflow modifier configured to be installed at such installation location.
Tuning device for pipe musical instruments comprising: - one fixed, in use, support collar, which has an annular form and is applicable to a pipe at a preset distance from an upper end thereof, said pipe extending along a respective longitudinal symmetry axis, wherein said support collar comprises one side wall extending over a section (h) along said longitudinal symmetry axis of said pipe, - one movable, in use, tubular portion, slidably applicable on said pipe at the upper end of the same, wherein said tubular portion has a side wall extending over a certain section along said longitudinal symmetry axis of said pipe, - adjustment means between said tubular portion and said support collar, provided for adjusting a distance between said movable, in use, tubular portion, and said fixed, in use, support collar, so that said tubular portion is configured to project with respect to said upper end, - engagement means (8a, 8b), respectively mounted on said support collar and on said tubular portion and provided for engaging said adjustment means, characterized in that said support collar delimits a region having a cross-section substantially corresponding to a transversal overall dimension of said pipe and in that both said support collar and said tubular portion are configured to be positioned outside the pipe. - one fixed, in use, support collar, which has an annular form and is applicable to a pipe at a preset distance from an upper end thereof, said pipe extending along a respective longitudinal symmetry axis, wherein said support collar comprises one side wall extending over a section (h) along said longitudinal symmetry axis of said pipe, - one movable, in use, tubular portion, slidably applicable on said pipe at the upper end of the same, wherein said tubular portion has a side wall extending over a certain section along said longitudinal symmetry axis of said pipe, - adjustment means between said tubular portion and said support collar, provided for adjusting a distance between said movable, in use, tubular portion, and said fixed, in use, support collar, so that said tubular portion is configured to project with respect to said upper end, - engagement means (8a, 8b), respectively mounted on said support collar and on said tubular portion and provided for engaging said adjustment means, characterized in that said support collar delimits a region having a cross-section substantially corresponding to a transversal overall dimension of said pipe and in that both said support collar and said tubular portion are configured to be positioned outside the pipe.