mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for rendering a real-time view of a reflective and refractive object, the method comprising: in response to user input from a user, manipulating by rotation a 3D representation of the RAR and determining in real-time scintillation effects at a plurality of facets of the 3D representation of the RAR by loading flash and fiery scintillation factors, from a look-up table, pre-computed for a known material of the RAR object and having a known type of cut and stored in memory, the look up table providing various flash and various fiery scintillation factors corresponding to various angles between incident light and the normal to the surface of a given facet of the RAR object; wherein, flash scintillation factors represent the intensity of white color on the facets of the RAR object and fiery scintillation factors represent colors on the facets of the RAR object and displaying to a user via a display, the 3D representation of the RAR object as being rotated by the user and the determined scintillation effects at the plurality of facets of the RAR object. in response to user input from a user, manipulating by rotation a 3D representation of the RAR and determining in real-time scintillation effects at a plurality of facets of the 3D representation of the RAR by loading flash and fiery scintillation factors, from a look-up table, pre-computed for a known material of the RAR object and having a known type of cut and stored in memory, the look up table providing various flash and various fiery scintillation factors corresponding to various angles between incident light and the normal to the surface of a given facet of the RAR object; wherein, flash scintillation factors represent the intensity of white color on the facets of the RAR object and fiery scintillation factors represent colors on the facets of the RAR object and displaying to a user via a display, the 3D representation of the RAR object as being rotated by the user and the determined scintillation effects at the plurality of facets of the RAR object.
A remote management apparatus of a network to which a plurality of servers are connected, the apparatus comprising: a determination unit for determining, when a new server is added to the network, whether an original Internet protocol IP address of the new server corresponds to an IP address intended to be used for communications with the new server; and a control unit for performing an IP address mapping for the new server and for automatically allocating the intended IP address to the new server according to the IP address mapping if the determination unit determines that the original IP address of the new server and the intended IP address do not correspond to each other; wherein the intended IP address is one of pre-allocated IP addresses which are not currently being used by any of the plurality of servers and the remote management apparatus when the new server is added to the network. a determination unit for determining, when a new server is added to the network, whether an original Internet protocol IP address of the new server corresponds to an IP address intended to be used for communications with the new server; and a control unit for performing an IP address mapping for the new server and for automatically allocating the intended IP address to the new server according to the IP address mapping if the determination unit determines that the original IP address of the new server and the intended IP address do not correspond to each other; wherein the intended IP address is one of pre-allocated IP addresses which are not currently being used by any of the plurality of servers and the remote management apparatus when the new server is added to the network.
An intermediate network node configured to manage location data of mobile terminals (101, 121) in a wireless communication network, the intermediate network node comprising a processing unit and a memory, said memory containing instructions executable by said processing unit, whereby said network node is operative to: establish connection (S101a, S101b) with a first and a second mobility management node (104, 105) in the wireless communication network; establish connection with any one of location data requesting nodes (108, 111, 114) in the wireless communication network, which requesting nodes (108, 111, 114) request location data indicating the location of at least one mobile terminal; receive a request for the location data indicating the location of the at least one mobile terminal from a location data requesting node of said location data requesting nodes; obtain (S104a, S104b) a set of location information indicating the location of the at least one mobile terminal from the first mobility management node and a set of location information indicating the location of the at least one mobile terminal from the second mobility management node, wherein the obtained (S104a) set of location information indicating the location of the at least one mobile terminal from the first mobility management node pertains to a first mobile terminal, and the obtained (S104b) set of location information indicating the location of the at least one mobile terminal from the second mobility management node pertains to a second mobile terminal; produce the requested location data from the obtained set of location information; and to provide the produced location data to the location data requesting node of said location data requesting nodes. establish connection (S101a, S101b) with a first and a second mobility management node (104, 105) in the wireless communication network; establish connection with any one of location data requesting nodes (108, 111, 114) in the wireless communication network, which requesting nodes (108, 111, 114) request location data indicating the location of at least one mobile terminal; receive a request for the location data indicating the location of the at least one mobile terminal from a location data requesting node of said location data requesting nodes; obtain (S104a, S104b) a set of location information indicating the location of the at least one mobile terminal from the first mobility management node and a set of location information indicating the location of the at least one mobile terminal from the second mobility management node, wherein the obtained (S104a) set of location information indicating the location of the at least one mobile terminal from the first mobility management node pertains to a first mobile terminal, and the obtained (S104b) set of location information indicating the location of the at least one mobile terminal from the second mobility management node pertains to a second mobile terminal; produce the requested location data from the obtained set of location information; and to provide the produced location data to the location data requesting node of said location data requesting nodes.
A method for processing a propagated control channel signal (400, 600), the method comprising receiving (710, 810, 910, 1010) the propagated control channel signal (400, 600) at a wireless device comprising, processing (720, 820, 920, 1015) common control data (410, 610) included in the propagated control channel signal (400, 600) for use by mobile terminals authorized to access a shared radio access network; characterized in that the method further comprises: determining (730, 830, 930, 1020) whether the wireless device is associated with a first mobile operator of an unshared RAN having overlapping coverage with the shared RAN; and, based on said determining, selectively processing (740, 850, 940, 950, 1025) operator-specific data (420, 620) included in the control channel signal (400, 600) for use by those of the mobile terminals that are associated with the first mobile operator, the operator-specific data corresponding to the unshared RAN. processing (720, 820, 920, 1015) common control data (410, 610) included in the propagated control channel signal (400, 600) for use by mobile terminals authorized to access a shared radio access network; characterized in that the method further comprises: determining (730, 830, 930, 1020) whether the wireless device is associated with a first mobile operator of an unshared RAN having overlapping coverage with the shared RAN; and, based on said determining, selectively processing (740, 850, 940, 950, 1025) operator-specific data (420, 620) included in the control channel signal (400, 600) for use by those of the mobile terminals that are associated with the first mobile operator, the operator-specific data corresponding to the unshared RAN.
A roller for a chain, the roller comprising a shell roller part and a core roller part, the shell roller part and the core roller part being in an assemblable status so as to form said roller after assemblage, or the shell roller part and the core roller part being in an assembled status, forming said roller, wherein the shell roller part comprises a first outer cylinder a first inner cylinder and a bottom, said first outer and inner cylinders (2, 3) and bottom each having a respective wall thickness, wherein the first inner cylinder is positioned concentrically inside the first outer cylinder, and the bottom is positioned at and connected to one end of the first inner cylinder and the first outer cylinder and is stretched from the first inner cylinder to the first outer cylinder, such that the shell roller part defines a space surrounded by said first inner cylinder, first outer cylinder and bottom; wherein the core roller part comprises a second outer cylinder, a second inner cylinder and a top, said second outer and inner cylinders (6, 7) and top each also having a respective wall thickness, wherein the second inner cylinder is positioned concentrically inside the second outer cylinder, and the top is positioned at and connected to one end of the second inner cylinder and the second outer cylinder and is stretched from the second inner cylinder to the second outer cylinder; wherein in the assemblable status of the roller the core roller part is adapted to be positioned concentrically in said space to form said roller, or wherein in the assembled status of the roller the core roller part is positioned concentrically in said space, thus forming said roller. wherein the shell roller part comprises a first outer cylinder a first inner cylinder and a bottom, said first outer and inner cylinders (2, 3) and bottom each having a respective wall thickness, wherein the first inner cylinder is positioned concentrically inside the first outer cylinder, and the bottom is positioned at and connected to one end of the first inner cylinder and the first outer cylinder and is stretched from the first inner cylinder to the first outer cylinder, such that the shell roller part defines a space surrounded by said first inner cylinder, first outer cylinder and bottom; wherein the core roller part comprises a second outer cylinder, a second inner cylinder and a top, said second outer and inner cylinders (6, 7) and top each also having a respective wall thickness, wherein the second inner cylinder is positioned concentrically inside the second outer cylinder, and the top is positioned at and connected to one end of the second inner cylinder and the second outer cylinder and is stretched from the second inner cylinder to the second outer cylinder; wherein in the assemblable status of the roller the core roller part is adapted to be positioned concentrically in said space to form said roller, or wherein in the assembled status of the roller the core roller part is positioned concentrically in said space, thus forming said roller.
A method of determining unknown concentrations (Ck, Cca, Cna) of constituents (K,Ca,Na) in a composition based on a measurement of the composition by Laser Induced Breakdown Spectroscopy (LIBS), the method comprising - receiving a LIBS spectrum (Sx) comprising resonance peaks (Rk,Rca,Rna) corresponding to the constituents (K,Ca,Na) in the composition, the resonance peaks comprising spectral amplitudes (Pk,Pca,Dna,Pna) indicative of the unknown concentrations (Ck, Cca, Cna) of the constituents (K,Ca,Na); - determining a first spectral amplitude (Pk,Pca,Dna) in the LIBS spectrum (Sx) corresponding to the unknown concentration (Ck,Cca,Cna) of a first constituent (K,Ca,Na) to be determined; - determining a second spectral amplitude (Pna) corresponding to a maximum value of a self-reversed resonance peak (Rna) of the first or another one of the constituents (Na) in the LIBS spectrum (Sx), wherein the maximum value of the self-reversed resonance peak (Rna) is limited by self-absorption reduction during the LIBS measurement; - calculating an amplitude ratio (Pk/Pna, Pca/Pna, Dna/Pna) between the first spectral amplitude (Pk,Pca,Dna) and the second spectral amplitude (Pna); - accessing calibration data to match the calculated amplitude ratio (Pk/Pna, Pca/Pna, Dna/Pna) with a predetermined calibration amplitude ratio (Pk'/Pna' Pca'/Pna', Dna'/Pna') as function of a known concentration (Ck',Cca',Cna') of the first constituent (K,Ca,Na); and - using the known concentration (Ck',Cca',Cna') of the matched calibration amplitude ratio to calculate the unknown concentration (Ck,Cca,Cna) of the first constituent (K,Ca,Na) in the composition. - receiving a LIBS spectrum (Sx) comprising resonance peaks (Rk,Rca,Rna) corresponding to the constituents (K,Ca,Na) in the composition, the resonance peaks comprising spectral amplitudes (Pk,Pca,Dna,Pna) indicative of the unknown concentrations (Ck, Cca, Cna) of the constituents (K,Ca,Na); - determining a first spectral amplitude (Pk,Pca,Dna) in the LIBS spectrum (Sx) corresponding to the unknown concentration (Ck,Cca,Cna) of a first constituent (K,Ca,Na) to be determined; - determining a second spectral amplitude (Pna) corresponding to a maximum value of a self-reversed resonance peak (Rna) of the first or another one of the constituents (Na) in the LIBS spectrum (Sx), wherein the maximum value of the self-reversed resonance peak (Rna) is limited by self-absorption reduction during the LIBS measurement; - calculating an amplitude ratio (Pk/Pna, Pca/Pna, Dna/Pna) between the first spectral amplitude (Pk,Pca,Dna) and the second spectral amplitude (Pna); - accessing calibration data to match the calculated amplitude ratio (Pk/Pna, Pca/Pna, Dna/Pna) with a predetermined calibration amplitude ratio (Pk'/Pna' Pca'/Pna', Dna'/Pna') as function of a known concentration (Ck',Cca',Cna') of the first constituent (K,Ca,Na); and - using the known concentration (Ck',Cca',Cna') of the matched calibration amplitude ratio to calculate the unknown concentration (Ck,Cca,Cna) of the first constituent (K,Ca,Na) in the composition.
A method for controlling a screen display in an electronic device comprising a display unit provided with a cover having an uncovered area, the method comprising: detecting a signal from light-receiving pixels on the display unit, the display unit comprising light-emitting pixels and light-receiving pixels commingled with the light-emitting pixels in a predetermined pattern; and switching off light-emitting pixels arranged in a partial area of the display unit, if light-receiving pixels in the partial area do not detect light and light-receiving pixels in another area of the display unit detect light; wherein the partial area is an area of the display unit which is covered by the cover when the cover is closed, such that the light-receiving pixels in the partial area do not detect light. detecting a signal from light-receiving pixels on the display unit, the display unit comprising light-emitting pixels and light-receiving pixels commingled with the light-emitting pixels in a predetermined pattern; and switching off light-emitting pixels arranged in a partial area of the display unit, if light-receiving pixels in the partial area do not detect light and light-receiving pixels in another area of the display unit detect light; wherein the partial area is an area of the display unit which is covered by the cover when the cover is closed, such that the light-receiving pixels in the partial area do not detect light.
A terminal device, comprising: a band, wherein the band comprises a U-shaped band main body, and a first band end portion and a second band end portion that are located at two ends of the band main body; and a headset, wherein the headset comprises a headset main body, and the headset main body comprises a first headset end portion and a second headset end portion, characterized in that the first band end portion is fixedly connected to the first headset end portion by using a rotation structure; when the headset is used, the second headset end portion rotates by using the rotation structure as a sphere center; and when the headset is used, the band is used as an ear hook; and when the headset is not used, the headset and the band together form a closed ring for a user to wear on a wrist. a band, wherein the band comprises a U-shaped band main body, and a first band end portion and a second band end portion that are located at two ends of the band main body; and a headset, wherein the headset comprises a headset main body, and the headset main body comprises a first headset end portion and a second headset end portion, characterized in that the first band end portion is fixedly connected to the first headset end portion by using a rotation structure; when the headset is used, the second headset end portion rotates by using the rotation structure as a sphere center; and when the headset is used, the band is used as an ear hook; and when the headset is not used, the headset and the band together form a closed ring for a user to wear on a wrist.
Lamp with a casing, a light outlet opening set by the casing and with an arrangement for light emission, having - LED lamp means in a longitudinal arrangement, - a carrier element, which carries the LED lamp means and - a light radiation element that is connectable with the carrier element, wherein the light radiation element is configured for transforming the light radiation feature of the LED lamp means to the light radiation feature of a fluorescent lamp, and wherein the carrier element is reversibly removably connected to the casing, wherein the light radiation element is carried by the carrier element, ' characterised in that the carrier element and the light radiation element are reversibly removably connected. - LED lamp means in a longitudinal arrangement, - a carrier element, which carries the LED lamp means and - a light radiation element that is connectable with the carrier element, wherein the light radiation element is configured for transforming the light radiation feature of the LED lamp means to the light radiation feature of a fluorescent lamp, and wherein the carrier element is reversibly removably connected to the casing, wherein the light radiation element is carried by the carrier element, '
An implant, comprising: an intermediate portion having a first continuous helical winding defining a plurality of circumferential sections circumscribing a longitudinal axis from a first end to a second end to define a portion of essentially a tube, the circumferential sections being spaced apart along the longitudinal axis, each circumferential section having struts with undulations disposed about a portion of the tube; a first end portion disposed proximate the first end, the first end portion having a second continuous helical winding that circumscribes a portion of the longitudinal axis, the second continuous helical winding having struts with undulations of increasing lengths; a second end portion disposed proximate the second end, the second end portion having undulations that circumscribe the longitudinal axis to define a ring; a coupling portion that connects the second end portion to the intermediate portion, the coupling portion having a third continuous helical winding that circumscribes a portion of the longitudinal axis; and a paddle disposed adjacent to the second end portion, characterized in that the paddle has a length and opposing ends disposed parallel to the longitudinal axis, an end of the paddle connected to a paddle strut connected to a bridge, at least one end strut of the intermediate portion connected to the bridge. an intermediate portion having a first continuous helical winding defining a plurality of circumferential sections circumscribing a longitudinal axis from a first end to a second end to define a portion of essentially a tube, the circumferential sections being spaced apart along the longitudinal axis, each circumferential section having struts with undulations disposed about a portion of the tube; a first end portion disposed proximate the first end, the first end portion having a second continuous helical winding that circumscribes a portion of the longitudinal axis, the second continuous helical winding having struts with undulations of increasing lengths; a second end portion disposed proximate the second end, the second end portion having undulations that circumscribe the longitudinal axis to define a ring; a coupling portion that connects the second end portion to the intermediate portion, the coupling portion having a third continuous helical winding that circumscribes a portion of the longitudinal axis; and a paddle disposed adjacent to the second end portion, characterized in that the paddle has a length and opposing ends disposed parallel to the longitudinal axis, an end of the paddle connected to a paddle strut connected to a bridge, at least one end strut of the intermediate portion connected to the bridge.
A method of manufacturing a component (20; 40) of a turbomachine by powder metal hot isostatic pressing, using a container (21; 41) defining outside surfaces (22A, 22B, 22C, 22D, 22E, 22F, 22G; 42A, 42B, 42C, 42D, 42E, 42F, 42G, 42H) of the component (20; 40); wherein a metal insert (23; 443; 543; 643; 743; 843) and a metal core are located inside the container (21; 41) before filling the container (21; 41) with metal powder, the metal material of the insert and the metal material of the powder being the same; and wherein the insert (23; 443; 543; 643; 743; 843) is left in the component (20;40) after the end of its manufacturing, and the core is removed from the component (20; 40) before the end of its manufacturing by pickling and/or by machining. wherein a metal insert (23; 443; 543; 643; 743; 843) and a metal core are located inside the container (21; 41) before filling the container (21; 41) with metal powder, the metal material of the insert and the metal material of the powder being the same; and wherein the insert (23; 443; 543; 643; 743; 843) is left in the component (20;40) after the end of its manufacturing, and the core is removed from the component (20; 40) before the end of its manufacturing by pickling and/or by machining.
A method for adjusting the electrical behaviour or characteristics of a calibration element (30; RC; RP1, RP2; 40) comprising adjusting the electrical behaviour or characteristics of said calibration element (30; RC; RP1, RP2; 40) by making one or more incisions or cuts in said calibration element (30; RC; RP1, RP2; 40), said method being characterized in that said calibration element (30; RC; RP1, RP2; 40) comprises a plurality of apertures, and said method comprises at least one of the following operations: - making an incision or cut in said calibration element (30; RC; RP1, RP2; 40) between an edge thereof and at least one of said apertures; and - making an incision or cut in said calibration element (30; RC; RP1, RP2; 40) between at least two of said apertures. - making an incision or cut in said calibration element (30; RC; RP1, RP2; 40) between an edge thereof and at least one of said apertures; and - making an incision or cut in said calibration element (30; RC; RP1, RP2; 40) between at least two of said apertures.