mhurhangee/ep-ind-claims huggingface dataset:
A method implemented by a terminal, to dynamically control network selection, comprising: receiving a control signaling comprising at least one desired category; and selecting a desired network based on said at least one desired category and a category assigned to said desired network; characterized in that the method further comprises: receiving a network list comprising at least one network discovery element, each of said at least one network discovery element represents a network and comprises at least connection information for connecting to said network and a category assigned to said network; adding, upon receipt of said control signaling, a first network discovery element not existing in a desired network list from said network list to said desired network list, if the category comprised by said first network discovery element corresponds to said at least one desired category; and removing, upon receipt of said control signaling, a second network discovery element from said desired network list, if the category comprised by said second network discovery element does not correspond to said at least one desired category. receiving a control signaling comprising at least one desired category; and selecting a desired network based on said at least one desired category and a category assigned to said desired network; characterized in that the method further comprises: receiving a network list comprising at least one network discovery element, each of said at least one network discovery element represents a network and comprises at least connection information for connecting to said network and a category assigned to said network; adding, upon receipt of said control signaling, a first network discovery element not existing in a desired network list from said network list to said desired network list, if the category comprised by said first network discovery element corresponds to said at least one desired category; and removing, upon receipt of said control signaling, a second network discovery element from said desired network list, if the category comprised by said second network discovery element does not correspond to said at least one desired category. receiving a network list comprising at least one network discovery element, each of said at least one network discovery element represents a network and comprises at least connection information for connecting to said network and a category assigned to said network; adding, upon receipt of said control signaling, a first network discovery element not existing in a desired network list from said network list to said desired network list, if the category comprised by said first network discovery element corresponds to said at least one desired category; and removing, upon receipt of said control signaling, a second network discovery element from said desired network list, if the category comprised by said second network discovery element does not correspond to said at least one desired category.
A head-up display comprising: an acquiring unit (30, 31, 32, 33) configured to acquire distances, in a running direction of the own vehicle and in the perpendicular direction to the running direction, between an own vehicle and an obstacle (4, 5A, 5B, 6); a light source unit having an attaching portion (11a, 11b) and projecting light for displaying an image onto a projection portion (9, 20) to supply a viewer with the light through the projection portion, the attaching portion being capable of attaching to the own vehicle; and a control unit, the head-up display is characterized in that the control unit is configured to restrict display of a part of information at a time when the own vehicle and the obstacle pass each other or a predetermined time before the time if a distance, to right-hand or left-hand direction of the own vehicle perpendicular to the running direction, between the own vehicle and the obstacle is equal to or shorter than a predetermined criterion distance when the own vehicle passes the obstacle by moving towards the running direction. an acquiring unit (30, 31, 32, 33) configured to acquire distances, in a running direction of the own vehicle and in the perpendicular direction to the running direction, between an own vehicle and an obstacle (4, 5A, 5B, 6); a light source unit having an attaching portion (11a, 11b) and projecting light for displaying an image onto a projection portion (9, 20) to supply a viewer with the light through the projection portion, the attaching portion being capable of attaching to the own vehicle; and a control unit, the head-up display is characterized in that the control unit is configured to restrict display of a part of information at a time when the own vehicle and the obstacle pass each other or a predetermined time before the time if a distance, to right-hand or left-hand direction of the own vehicle perpendicular to the running direction, between the own vehicle and the obstacle is equal to or shorter than a predetermined criterion distance when the own vehicle passes the obstacle by moving towards the running direction.
A turbine rotor blade for reducing noise at a target sound frequency, the turbine rotor blade comprising: a leading edge; a trailing edge; a first and a second set of projections extending from the trailing edge, each projection of the plurality of projections having a length; characterized in that: the projections of the first set and the second set of projections are discrete projections that alternate with one another extending along the trailing edge; and the lengths of adjacent projections extending from the trailing edge differ from one another based at least on a wavelength distance of the target sound frequency. a leading edge; a trailing edge; a first and a second set of projections extending from the trailing edge, each projection of the plurality of projections having a length; characterized in that: the projections of the first set and the second set of projections are discrete projections that alternate with one another extending along the trailing edge; and the lengths of adjacent projections extending from the trailing edge differ from one another based at least on a wavelength distance of the target sound frequency. the projections of the first set and the second set of projections are discrete projections that alternate with one another extending along the trailing edge; and the lengths of adjacent projections extending from the trailing edge differ from one another based at least on a wavelength distance of the target sound frequency.
A data processing method for determining a path of a neural fibre in a patient, comprising the steps of: a) acquiring an atlas dataset representing an atlas of a fibrous structure comprising the neural fibre b) acquiring a nerve indicating dataset comprising information suitable for identifying the neural fibre in the patient c) calculating a matched atlas dataset by registering the atlas dataset with the nerve indicating dataset d) obtaining a generic path (P G) of the neural fibre from the matched atlas dataset e) defining a constraining volume in the patient around the generic path (P G), the constraining volume having at least two end surfaces (ES1, ES2) on which the generic path (P G) ends and being tubular and centred about the generic path (P G), and f) determining the path of the neural fibre between end surfaces (ES1, ES2) using a probabilistic approach, wherein the determined path lies completely within the constraining volume. a) acquiring an atlas dataset representing an atlas of a fibrous structure comprising the neural fibre b) acquiring a nerve indicating dataset comprising information suitable for identifying the neural fibre in the patient c) calculating a matched atlas dataset by registering the atlas dataset with the nerve indicating dataset d) obtaining a generic path (P G) of the neural fibre from the matched atlas dataset e) defining a constraining volume in the patient around the generic path (P G), the constraining volume having at least two end surfaces (ES1, ES2) on which the generic path (P G) ends and being tubular and centred about the generic path (P G), and f) determining the path of the neural fibre between end surfaces (ES1, ES2) using a probabilistic approach, wherein the determined path lies completely within the constraining volume.
Method for the control of a machine tool with a tool magazine for tools, of which the machine tool can hold one at any time for machining a workpiece, wherein the method comprises the following steps: - registering workpieces to be machined; - grouping registered workpieces into set-up families in such a way that a set-up assigned to the set-up family is sufficient to machine the workpieces of the set-up family; - wherein the set-up comprises tools which can be loaded simultaneously in the tool magazine; - wherein the set-up families are formed in such a way that the number of tools that are to be loaded for machining the registered workpieces is minimized as far as possible, characterized in that - a plurality of workpieces of the same type are grouped to form one order, and the set-up families are formed in such a way that the expression (M - E) * O is maximized as far as possible over all the workpieces of all the set-up families; - wherein M is the number of tools that must be loaded for machining the workpiece; - E is either zero or the number of tools that must be loaded exclusively for machining the workpiece; - and O is the number of orders registered altogether for the workpiece. - registering workpieces to be machined; - grouping registered workpieces into set-up families in such a way that a set-up assigned to the set-up family is sufficient to machine the workpieces of the set-up family; - wherein the set-up comprises tools which can be loaded simultaneously in the tool magazine; - wherein the set-up families are formed in such a way that the number of tools that are to be loaded for machining the registered workpieces is minimized as far as possible, - a plurality of workpieces of the same type are grouped to form one order, and the set-up families are formed in such a way that the expression (M - E) * O is maximized as far as possible over all the workpieces of all the set-up families; - wherein M is the number of tools that must be loaded for machining the workpiece; - E is either zero or the number of tools that must be loaded exclusively for machining the workpiece; - and O is the number of orders registered altogether for the workpiece.
A sole structure (100, 200, 500, 800) for an article of footwear, comprising: a first region and a second region, the first region being disposed adjacent to the second region; a first set of openings arranged in an auxetic configuration, the first set of openings being disposed in the first region; a first set of sole portions (122, 124, 503, 889) bounding the first set of openings; characterized in that a first set of sipes (104, 210, 504, 560, 804, 820, 840, 887) disposed in the second region, the first set of sipes (104, 210, 504, 560, 804, 820, 840, 887) dividing the second region into a second set of sole portions (122, 124, 503, 889); wherein every sole portion (122, 124, 503, 889) in the first set of sole portions (122, 124, 503, 889) is continuously connected to at least one other sole portion (122, 124, 503, 889) in the first set of sole portions (122, 124, 503, 889) by a junction; and wherein every sole portion (122, 124, 503, 889) in the second set of sole portions (122, 124, 503, 889) is separated from any adjacent sole portion (122, 124, 503, 889) by a sipe from the first set of sipes (104, 210, 504, 560, 804, 820, 840, 887). a first region and a second region, the first region being disposed adjacent to the second region; a first set of openings arranged in an auxetic configuration, the first set of openings being disposed in the first region; a first set of sole portions (122, 124, 503, 889) bounding the first set of openings; characterized in that a first set of sipes (104, 210, 504, 560, 804, 820, 840, 887) disposed in the second region, the first set of sipes (104, 210, 504, 560, 804, 820, 840, 887) dividing the second region into a second set of sole portions (122, 124, 503, 889); wherein every sole portion (122, 124, 503, 889) in the first set of sole portions (122, 124, 503, 889) is continuously connected to at least one other sole portion (122, 124, 503, 889) in the first set of sole portions (122, 124, 503, 889) by a junction; and wherein every sole portion (122, 124, 503, 889) in the second set of sole portions (122, 124, 503, 889) is separated from any adjacent sole portion (122, 124, 503, 889) by a sipe from the first set of sipes (104, 210, 504, 560, 804, 820, 840, 887).
A cleaning device comprising: a handle portion; a cleaning pad support attached to the handle portion; and a retaining means (275, 277) for retaining the cleaning pad support in a desired shape; characterized in that the cleaning pad support is comprised of a piece of wire insert-molded into a polymer, wherein the piece of wire is insert-molded into a plurality of polymer vertabrae. a handle portion; a cleaning pad support attached to the handle portion; and a retaining means (275, 277) for retaining the cleaning pad support in a desired shape; characterized in that the cleaning pad support is comprised of a piece of wire insert-molded into a polymer, wherein the piece of wire is insert-molded into a plurality of polymer vertabrae.
A trigger mechanism for a games controller for controlling electronic games, the trigger mechanism comprising: a trigger body having a plurality of walls defining an internal chamber, the plurality of walls including a base wall and an orifice defined in the base wall; a detent for manual adjustment of the depressible range of the trigger mechanism detachably mounted on the trigger body, the detent at least partially received in the orifice and wherein the detent is rotatable with respect to the trigger body; the detent comprising a pair of opposing abutment surfaces (F1, F2), eccentrically arranged with respect to the rotational axis of the detent; characterised in that the detent is rotatable about an axis which extends through the base wall. a trigger body having a plurality of walls defining an internal chamber, the plurality of walls including a base wall and an orifice defined in the base wall; a detent for manual adjustment of the depressible range of the trigger mechanism detachably mounted on the trigger body, the detent at least partially received in the orifice and wherein the detent is rotatable with respect to the trigger body; the detent comprising a pair of opposing abutment surfaces (F1, F2), eccentrically arranged with respect to the rotational axis of the detent; characterised in that the detent is rotatable about an axis which extends through the base wall.
A method to visualize sedimentary attributes to determine geological properties of a geological model, the method comprising: in one or more computer processors: generating, based on measured geological data, paleo-geographic coordinates representing predicted approximate positions of the particles of sediment deposited at a time period when a geological layer was originally formed; generating a vector field tangent to Iso-Paleo-Geograhic, "IPG", lines, wherein IPG lines represent particles of sediments which have been deposited at the same paleo-geographic coordinates; determining a vector field of curvature of the IPG-lines based on the vector field tangent to the IPG lines; and displaying a sedimentary attribute representing the curvature vector field of the IPG-lines on the geological layer or on a cross-section. generating, based on measured geological data, paleo-geographic coordinates representing predicted approximate positions of the particles of sediment deposited at a time period when a geological layer was originally formed; generating a vector field tangent to Iso-Paleo-Geograhic, "IPG", lines, wherein IPG lines represent particles of sediments which have been deposited at the same paleo-geographic coordinates; determining a vector field of curvature of the IPG-lines based on the vector field tangent to the IPG lines; and displaying a sedimentary attribute representing the curvature vector field of the IPG-lines on the geological layer or on a cross-section.
Process for printing a security element on at least one side of a substrate with two or more intaglio inks characterized in that at least one of said two or more intaglio inks is an oxidative drying intaglio ink, at least one other of said two or more intaglio inks is a UV-VIS-curable intaglio ink, and the said one and one other of said two or more intaglio inks are printed in one printing step using one intaglio printing device, and the excess of the said two or more intaglio inks are wiped off from said intaglio printing device using a polymeric wiping cylinder and an alkaline aqueous wiping solution
A home gateway dual stack lite, DS-Lite, multicast method, the method comprising: adding, when receiving an Internet Protocol Version 4, IPv4, multicast protocol request message sent from a user, the IPv4 multicast protocol request message to a home gateway; converting the IPv4 multicast protocol request message into an Internet Protocol Version 6, IPv6, multicast protocol message and sending the IPv6 multicast protocol message to a router; converting, when receiving an IPv6 multicast data message sent from the router, the IPv6 multicast data message into an IPv4 multicast data message; and forwarding the IPv4 multicast data message to the user, wherein the converting the IPv4 multicast protocol request message into an IPv6 multicast protocol message comprises: parsing the IPv4 multicast protocol request message to obtain an IPv4 multicast address; obtaining an IPv6 multicast address according to the IPv4 multicast address and a DS-Lite multicast prefix; and obtaining an IPv6 multicast protocol message according to the IPv6 multicast address, wherein the converting the IPv6 multicast data message into an IPv4 multicast data message comprises: removing an IPv6 message header of the IPv6 multicast data message, to obtain the IPv4 multicast data message. adding, when receiving an Internet Protocol Version 4, IPv4, multicast protocol request message sent from a user, the IPv4 multicast protocol request message to a home gateway; converting the IPv4 multicast protocol request message into an Internet Protocol Version 6, IPv6, multicast protocol message and sending the IPv6 multicast protocol message to a router; converting, when receiving an IPv6 multicast data message sent from the router, the IPv6 multicast data message into an IPv4 multicast data message; and forwarding the IPv4 multicast data message to the user, wherein the converting the IPv4 multicast protocol request message into an IPv6 multicast protocol message comprises: parsing the IPv4 multicast protocol request message to obtain an IPv4 multicast address; obtaining an IPv6 multicast address according to the IPv4 multicast address and a DS-Lite multicast prefix; and obtaining an IPv6 multicast protocol message according to the IPv6 multicast address, wherein the converting the IPv6 multicast data message into an IPv4 multicast data message comprises: removing an IPv6 message header of the IPv6 multicast data message, to obtain the IPv4 multicast data message.
Surgical instrument with a device located on the instrument, the said device comprising at least one sensor (101 1, 101 2, 101 1,...101N), a circuit for controlling and processing signals originating from the said at least one sensor, a memory module for storing information originating from the said circuit, and a radio interface for transmitting the said information to an external device, the said at least one sensor, the said circuit, the said memory module and the said radio interface being powered by a power source, the said circuit, the said memory module, the said radio interface and the said power source being housed in one or more hermetically sealed heat-resistant and pressure-resistant casings, in order to allow autonomous operation of the said device.
A method for navigation, comprising: constructing a current map that includes one or more two-dimensional or three dimensional representations of an area; detecting one or more edge features on the current map; generating a first fine-edge map based on the detected edge features on the current map; retrieving a historical map that includes one or more two-dimensional or three dimensional representations of the area; detecting one or more edge features on the historical map; generating a second fine-edge map based on the detected edge features on the historical map; generating a coarse version of the current map from the first fine-edge map; generating a coarse version of the historical map from the second fine-edge map; correlating the coarse version of the current map with the coarse version of the historical map to determine a first position and orientation; and correlating the first fine-edge map with the second fine-edge map using the first position and orientation to determine a second position and orientation that is more accurate than the first position and orientation. constructing a current map that includes one or more two-dimensional or three dimensional representations of an area; detecting one or more edge features on the current map; generating a first fine-edge map based on the detected edge features on the current map; retrieving a historical map that includes one or more two-dimensional or three dimensional representations of the area; detecting one or more edge features on the historical map; generating a second fine-edge map based on the detected edge features on the historical map; generating a coarse version of the current map from the first fine-edge map; generating a coarse version of the historical map from the second fine-edge map; correlating the coarse version of the current map with the coarse version of the historical map to determine a first position and orientation; and correlating the first fine-edge map with the second fine-edge map using the first position and orientation to determine a second position and orientation that is more accurate than the first position and orientation.