mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: displaying a map on a touch-sensitive display screen of an electronic device at a first zoom level; calculating, by the electronic device, a plurality of routes extending from a starting point to a destination point; displaying the plurality of calculated routes from the starting point to the destination point simultaneously overlaid on the map on the touch-sensitive display screen at the first zoom level; for each calculated route of the plurality of calculated routes, displaying an associated callout (101', 102', 103', 104', 105') that displays a corresponding time to travel to the destination point; and receiving a selection of a route from the plurality of calculated routes via the touch-sensitive display screen; characterised in that the method further comprises the steps of: zooming in to display the map at a second zoom level, wherein a set of off-screen routes of the plurality of calculated routes is not displayed on the map at the second zoom level; and displaying a subset of the plurality of callouts on the map associated with each route of the set of off-screen calculated routes (102, 104, 105), each callout of the subset of the plurality of callouts indicating a direction to a respective off-screen calculated route. displaying a map on a touch-sensitive display screen of an electronic device at a first zoom level; calculating, by the electronic device, a plurality of routes extending from a starting point to a destination point; displaying the plurality of calculated routes from the starting point to the destination point simultaneously overlaid on the map on the touch-sensitive display screen at the first zoom level; for each calculated route of the plurality of calculated routes, displaying an associated callout (101', 102', 103', 104', 105') that displays a corresponding time to travel to the destination point; and receiving a selection of a route from the plurality of calculated routes via the touch-sensitive display screen; characterised in that the method further comprises the steps of: zooming in to display the map at a second zoom level, wherein a set of off-screen routes of the plurality of calculated routes is not displayed on the map at the second zoom level; and displaying a subset of the plurality of callouts on the map associated with each route of the set of off-screen calculated routes (102, 104, 105), each callout of the subset of the plurality of callouts indicating a direction to a respective off-screen calculated route. zooming in to display the map at a second zoom level, wherein a set of off-screen routes of the plurality of calculated routes is not displayed on the map at the second zoom level; and displaying a subset of the plurality of callouts on the map associated with each route of the set of off-screen calculated routes (102, 104, 105), each callout of the subset of the plurality of callouts indicating a direction to a respective off-screen calculated route.
Layout for a motor vehicle comprising a motor vehicle floor made of composite material provided with a well, the layout comprising a securing device fitted level with the bottom of the well, said securing device comprising securing arms (2a, 2b, 2c) allowing the assembly of said securing device to said bottom of the well, and a central portion from which said securing arms (2a, 2b, 2c) extend, the securing device comprising a nut provided with a tapped hole fitted on the central portion, the central portion containing an opening arranged in such a manner as to allow the passage of a threaded element so that it is screwed into the tapped hole, the securing device comprising three securing arms (2a, 2b, 2c), characterized in that the well comprises ribs delimiting receiving cavities for two parts of two securing arms (2a, 2b), in order to ensure adequate positioning of the securing device in the bottom of the well.
A chip comprising (i) a crosslinked product of a temperature-responsive polymer as a constituting member, provided with (ii) a film having a hole pattern, (iii) on the surface of a substrate. (i) a crosslinked product of a temperature-responsive polymer as a constituting member, provided with (ii) a film having a hole pattern, (iii) on the surface of a substrate.
A magnetic transformer system, e.g. for wireless bicycle charging, comprising a primary core member provided with primary coil windings and a secondary core member provided with secondary coil windings, wherein the primary and secondary coil windings (3, 5) are arranged for inductive engagement, wherein the primary core member comprises a first end portion and an opposing second end portion providing an air gap between the first and second end portion (6, 7), wherein the secondary core member is moveably receivable within the air gap of the primary core member and retractable therefrom, and wherein a length of the secondary core member is smaller than a gap distance of the air gap; characterized in that the primary core member further comprises auxiliary primary coil windings and wherein the secondary core member comprises auxiliary secondary coil windings, the auxiliary primary and auxiliary secondary coil windings (9, 10) being arranged for auxiliary inductive engagement, and wherein the inductive engagement between the primary and secondary coil windings (3, 5) is substantially orthogonal to the auxiliary inductive engagement between the auxiliary primary and auxiliary secondary coil windings (9, 10). wherein the primary core member comprises a first end portion and an opposing second end portion providing an air gap between the first and second end portion (6, 7), wherein the secondary core member is moveably receivable within the air gap of the primary core member and retractable therefrom, and wherein a length of the secondary core member is smaller than a gap distance of the air gap; characterized in that the primary core member further comprises auxiliary primary coil windings and wherein the secondary core member comprises auxiliary secondary coil windings, the auxiliary primary and auxiliary secondary coil windings (9, 10) being arranged for auxiliary inductive engagement, and wherein the inductive engagement between the primary and secondary coil windings (3, 5) is substantially orthogonal to the auxiliary inductive engagement between the auxiliary primary and auxiliary secondary coil windings (9, 10).
A laser welding by-product removal device, comprising: a housing comprising a distal housing end and a proximate housing end separated along a central axis by a peripheral sidewall, and a housing recess at the proximate housing end and extending along the central axis toward the distal housing end; a first circumferential plenum that circumscribes the peripheral sidewall at the proximate housing end and includes a gas inlet and a first circumferential plenum base surface that includes a plurality of gas outlet holes; a second circumferential plenum that circumscribes the peripheral sidewall between the first circumferential plenum and the distal housing end, where the second circumferential plenum includes a second circumferential plenum base surface, radially inner and radially outer sidewalls (36, 38) that extend axially distal from the second circumferential plenum base surface, and a top surface that extends between the radially inner and radially outer sidewalls (36, 38) at a distal end of the second circumferential plenum, a by-product outlet in the top surface, where at least one of the second circumferential plenum base surface and the radially outer sidewall includes a plurality of by-product inlet holes; a vacuum source that is connected to the by-product outlet to draw flow through the by-product inlet holes and through the by-product outlet; and a gas source that is connected to the gas inlet. a housing comprising a distal housing end and a proximate housing end separated along a central axis by a peripheral sidewall, and a housing recess at the proximate housing end and extending along the central axis toward the distal housing end; a first circumferential plenum that circumscribes the peripheral sidewall at the proximate housing end and includes a gas inlet and a first circumferential plenum base surface that includes a plurality of gas outlet holes; a second circumferential plenum that circumscribes the peripheral sidewall between the first circumferential plenum and the distal housing end, where the second circumferential plenum includes a second circumferential plenum base surface, radially inner and radially outer sidewalls (36, 38) that extend axially distal from the second circumferential plenum base surface, and a top surface that extends between the radially inner and radially outer sidewalls (36, 38) at a distal end of the second circumferential plenum, a by-product outlet in the top surface, where at least one of the second circumferential plenum base surface and the radially outer sidewall includes a plurality of by-product inlet holes; a vacuum source that is connected to the by-product outlet to draw flow through the by-product inlet holes and through the by-product outlet; and a gas source that is connected to the gas inlet.
A cage segment for a roller bearing, with two side plates (2, 3) and at least two bridges (4, 5) connecting the side plates (2, 3), wherein a complete rolling element pocket is formed between two bridges (4, 5) each and an incomplete rolling element pocket (7, 8) is formed by regions of the side plates (2, 3) each, which project beyond the bridges (4, 5) in the circumferential direction of the cage segment, characterised in that the two end faces (14, 15; 16, 17) of each side plate (2, 3) are differently contoured and the side plates (2, 3) have lateral surface portions (27, 28, 29, 30) spaced from the end faces (14, 15; 16, 17) that are offset from the surrounding surface portions of the side plates (2, 3) in such a way that the maximum width of the cage segment is given exclusively by the distance between the lateral, offset surface portions (27, 28, 29, 30) of the two side plates (2, 3) and the lateral surface portions (27, 28, 29, 30) that determine the maximum width of the cage segment are located in axial extension of the respective bridges (4, 5).
A yarn forming element for an air spinning nozzle, comprising a spinning cone having a cone tip, the spinning cone forming a first end face having an inlet opening, a channel body forming a second end face having an outlet opening, the channel body and the spinning cone being interconnected, and a passage, which passes through the channel body and the spinning cone in order to connect the inlet opening to the outlet opening, wherein the spinning cone has a frustoconical partial segment, which extends toward the second end face with increasing distance of the inner surface side of said frustoconical partial segment from an outer surface side of the channel body such that an intermediate space is formed, which channel body radially delimits the passage, characterised in that the yarn forming element is formed as a single piece, more particularly from a ceramic material. a spinning cone having a cone tip, the spinning cone forming a first end face having an inlet opening, a channel body forming a second end face having an outlet opening, the channel body and the spinning cone being interconnected, and a passage, which passes through the channel body and the spinning cone in order to connect the inlet opening to the outlet opening, wherein the spinning cone has a frustoconical partial segment, which extends toward the second end face with increasing distance of the inner surface side of said frustoconical partial segment from an outer surface side of the channel body such that an intermediate space is formed, which channel body radially delimits the passage, characterised in that the yarn forming element is formed as a single piece, more particularly from a ceramic material.
A method of antenna selection in a first wireless electronic device, the method comprising: - detecting movement of the first wireless electronic device; - selecting an antenna among a plurality of antennas of the first wireless electronic device, in response to the movement of the first wireless electronic device; and - measuring a positioning-related characteristic of a signal from a second wireless electronic device, using the antenna that was selected in response to the movement, wherein measuring the positioning-related characteristic of the signal comprises: - receiving the signal from the second wireless electronic device via the antenna that was selected in response to the movement; and - determining a position of the first wireless electronic device with respect to the second wireless electronic device, using the signal received from the second wireless electronic device via the antenna that was selected in response to the movement, wherein the signal received from the second wireless electronic device comprises a short-range wireless signal, and wherein determining the position of the first wireless electronic device with respect to the second wireless electronic device comprises: - estimating an angle of a arrival of the short-range wireless signal received from the second wireless electronic device via the antenna that was selected in response to the movement. - detecting movement of the first wireless electronic device; - selecting an antenna among a plurality of antennas of the first wireless electronic device, in response to the movement of the first wireless electronic device; and - measuring a positioning-related characteristic of a signal from a second wireless electronic device, using the antenna that was selected in response to the movement, - receiving the signal from the second wireless electronic device via the antenna that was selected in response to the movement; and - determining a position of the first wireless electronic device with respect to the second wireless electronic device, using the signal received from the second wireless electronic device via the antenna that was selected in response to the movement, - estimating an angle of a arrival of the short-range wireless signal received from the second wireless electronic device via the antenna that was selected in response to the movement.
A cathode assembly suitable for a Hall-Heroult electrolysis cell, comprising - a cathode body made of a carbonaceous material; - at least one cathode bar (3, 3') made of a first conductive material, said cathode bar being fitted in a groove provided in said cathode body; - at least one insert (5, 5') made of a second conductive material, having a higher electrical conductivity than that of said first conductive material, said insert being fitted in a slot or bore provided in said cathode bar; characterized in that said slot leads to an end wall of said cathode bar and an end wall of said insert is substantially flush with said end wall of said cathode bar, in that said cathode assembly is further provided with connection means (2, 4, 6) intended to connect said cathode assembly with a cathodic bus bar, in that said connection means comprise at least one first connection member extending across said slot or bore, as well as across said insert, viewed from the end, in that the free end of said first connection member, adjacent to said slot and said insert, comprises at least one connection zone (26a, 26b) for mechanical and electrical connection to said end wall of cathode bar, and in that said free end of said first connection member also comprises a non-connection zone which does neither mechanically nor electrically contact said insert. - a cathode body made of a carbonaceous material; - at least one cathode bar (3, 3') made of a first conductive material, said cathode bar being fitted in a groove provided in said cathode body; - at least one insert (5, 5') made of a second conductive material, having a higher electrical conductivity than that of said first conductive material, said insert being fitted in a slot or bore provided in said cathode bar;
An outer packaging for bundles comprising side areas (6, 8) and front surfaces and being composed of grouped single goods, comprising a plastic foil which is wrapped and shrunk around the grouped single goods, wherein the plastic foil is in immediate contact with the single goods in the side areas (6, 8) and on the front surfaces, and wherein the plastic foil comprises at least two shrink holes (11, 12) in the side areas, whereby the bundle comprises at least two areas, which are not covered by the plastic foil, characterized by an adhesive strip arranged in an area, of the bundle which is not covered by the shrunk plastic foil and a carrying handle arranged in a side area opposite the adhesive strip.
A method for analysing with a temporal resolution below 160 milliseconds at least one response of a test person to at least one input stimulus, comprising the steps of: a. providing the at least one input stimulus to the test person, b. obtaining data representing the test person's response to the provided at least one input stimulus, c. automatically determining at least one induced response pattern, d. synchronising the determined at least one induced response pattern, with the provided at least one input stimulus, e. presenting in the same display and/or storing on the same storage device the synchronized at least one input stimulus and the determined at least one induced response pattern, wherein the step of automatically determining comprises automatically analyzing the obtained data to identify at least one induced response pattern, or at least one feature thereof, characterized in that the obtained data representing the test person's response to the provided at least one input stimulus comprises data relating to the test person's brain activity, and that the method further comprises the step of calibrating the test person's response, wherein the step of calibrating comprises analyzing and interpreting calibration data obtained when at least one calibration input stimulus is provided to the test person. a. providing the at least one input stimulus to the test person, b. obtaining data representing the test person's response to the provided at least one input stimulus, c. automatically determining at least one induced response pattern, d. synchronising the determined at least one induced response pattern, with the provided at least one input stimulus, e. presenting in the same display and/or storing on the same storage device the synchronized at least one input stimulus and the determined at least one induced response pattern,
A method of determining the feasibility of a proposed structure analysis process, said process comprising electron beam excitation of x-rays from a multi-layered structure in order to determine the structure and composition of the layers, the method comprising:- i) generating predicted x-ray data representing the x-ray excitation response of the multi-layered structure according to a first set of one or more process conditions, using structure data defining the structure and composition of the layers; ii) analysing the effect upon the x-ray data of changes to the structure data in accordance with one or more predetermined feasibility criteria, wherein the said one or more predetermined feasibility criteria define whether or not it is possible for a structure solver, when given the x-ray data, to calculate output structure data defining the structure and composition of the multi-layered structure for x-ray data generated according to the first set of process conditions; and, iii) repeating steps (i) and (ii) using different process conditions in place of the first set of process conditions so as to determine under which process conditions, if any, the proposed structure analysis process can be used to determine the structure and composition of the layers. i) generating predicted x-ray data representing the x-ray excitation response of the multi-layered structure according to a first set of one or more process conditions, using structure data defining the structure and composition of the layers; ii) analysing the effect upon the x-ray data of changes to the structure data in accordance with one or more predetermined feasibility criteria, wherein the said one or more predetermined feasibility criteria define whether or not it is possible for a structure solver, when given the x-ray data, to calculate output structure data defining the structure and composition of the multi-layered structure for x-ray data generated according to the first set of process conditions; and, iii) repeating steps (i) and (ii) using different process conditions in place of the first set of process conditions so as to determine under which process conditions, if any, the proposed structure analysis process can be used to determine the structure and composition of the layers.
A honeycomb structure comprising a tubular honeycomb segment bonded body having a plurality of tubular honeycomb segments having porous partition walls defining a plurality of cells as through channels of a fluid which extend from a first end face as one end face to a second end face as another end face, and a bonding layer which bonds side surfaces of the plurality of honeycomb segments to each other; and a pair of electrode members disposed on a side surface of the honeycomb segment bonded body, characterized in that volume resistivities of the respective honeycomb segments of the honeycomb segment bonded body are from 1 to 200 Ωcm, at least a part of the bonding layer is made of a bonding material having conductive property, a volume resistivity of the bonding layer is from 2 to 2000 Ωcm, each of the pair of electrode members is formed into a band shape extending in an extending direction of the cells of the honeycomb segment bonded body, and in a cross section perpendicular to the extending direction of the cells, the one electrode member in the pair of electrode members is disposed on an opposite side across the center of the honeycomb segment bonded body with respect to another electrode member in the pair of electrode members, and in at least a part of the bonding layer, conductive inorganic fibers made of β-SiC and a metal silicide are included in a porous body where particles of silicon carbide as an aggregate are bound with silicon as a binding material in a state where pores are held among the particles.
A radio access network node (202 2) configured to interact with a plurality of wireless devices (204 2, 204 3, 204 4, 204 5, 204 6, 204 7...204 n), the RAN node comprising: a processor (232 2); and, a memory (234 2) that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the radio access network node is characterized by and operable to: transmit (502, 708), to the plurality of wireless devices, a message (252, 254) which comprises at least the following: (i) a page mode field which includes information indicating one or more coverage classes for which one or more paging messages were available for transmission during a time interval but were not transmitted to the plurality of wireless devices due to the RAN node making paging message prioritization decisions applicable to the time interval; and (ii) a used_downlink_coverage_class field which includes information indicating a coverage class associated with the transmitted message. a processor (232 2); and, a memory (234 2) that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the radio access network node is characterized by and operable to: transmit (502, 708), to the plurality of wireless devices, a message (252, 254) which comprises at least the following: (i) a page mode field which includes information indicating one or more coverage classes for which one or more paging messages were available for transmission during a time interval but were not transmitted to the plurality of wireless devices due to the RAN node making paging message prioritization decisions applicable to the time interval; and (ii) a used_downlink_coverage_class field which includes information indicating a coverage class associated with the transmitted message.