mhurhangee/ep-ind-claims huggingface dataset:
Electric converter system for subsea use, comprising a housing configured to receive a dielectric fluid; at least two electric modules (10a, 10b) arranged within the housing and immersed in the dielectric fluid, each of the at least two electric modules comprising a first space (20a, 20b) and a second space (22a, 22b), the first space comprising a connecting portion (16a, 16b), a semiconductor element and a heat sink thermally connected to the semiconductor element, the second space comprising a capacitor element; a cooling system configured to circulate the dielectric fluid to cool the electric modules; and an inter module bus bar portion comprising a complementary connecting portion (18a, 18b); wherein the connecting portion (16a, 16b) is configured to be connected to the complementary connecting portion (18a, 18b) of the inter module bus bar portion, wherein the inter module bus bar portion is configured to interconnect one of the at least two electric modules with the other of the at least two electric modules, said one electric module being proximate to said other electric module; and wherein the connecting portion, the first space and the second space of each electric module are arranged in series.
A wireless communication method by a user equipment, UE,, comprising: being configured with a gap by a base station, wherein the gap comprises a duration of 16 μs, the gap comprises a first slot and a second slot after the first slot in time domain, one of the first slot and the second slot comprises a duration of 7 μs, and the other of the first slot and the second slot comprises a duration of 9 μs; and performing a listen before talk, LBT, by performing a measurement in a part of at least one of the first slot and the second slot; wherein when the first slot comprises the duration of 7 μs and the second slot comprises the duration of 9 μs, the measurement is performed in at least x μs of the first slot and the measurement is performed in at least 4 μs of the second slot, respectively, where x is 1; the LBT is successful if a measured energy based on the measurement is lower than an energy detection, ED, threshold. being configured with a gap by a base station, wherein the gap comprises a duration of 16 μs, the gap comprises a first slot and a second slot after the first slot in time domain, one of the first slot and the second slot comprises a duration of 7 μs, and the other of the first slot and the second slot comprises a duration of 9 μs; and performing a listen before talk, LBT, by performing a measurement in a part of at least one of the first slot and the second slot; wherein when the first slot comprises the duration of 7 μs and the second slot comprises the duration of 9 μs, the measurement is performed in at least x μs of the first slot and the measurement is performed in at least 4 μs of the second slot, respectively, where x is 1; the LBT is successful if a measured energy based on the measurement is lower than an energy detection, ED, threshold.
A method for converting print data, comprising objects with object attributes, to raster image data, having pixels with a colorant value and a pixel attribute for controlling a raster image processing step, which is applied in deriving a print signal from the raster image data, wherein a value of a pixel attribute of a pixel within an object Is selected in dependence on a value of an object attribute of said object, characterised in that a first value of a pixel attribute is selected for any pixel within an object having an object attribute with a value text object and an object attribute font size with a value higher than a predetermined threshold and a second value, different from the first value, of a pixel attribute is selected for any pixel within an object having an object attribute with a value text object and an object attribute font size with a value lower than said predetermined threshold.
A method of printing a three-dimensional "3D" article from a 3D design file describing a three-dimensional "3D" design, the method comprising the steps of: receiving the 3D design file in encrypted format, the 3D design file comprising a unique design file identifier, a 3D printer configuration file, the 3D printer configuration file defining one or more 3D printer configuration settings required to print the article in accordance with the 3D design, and a unique 3D printer identifier identifying a 3D printer authorised to print the 3D article in accordance with the 3D design file; constructing an authentication request for authenticating use of the 3D design file with the 3D printer specified by the 3D printer Identifier, the request including the unique design file identifier and the unique 3D printer identifier; transmitting the authentication request to an authentication server; receiving an authentication response from the authentication server, the response enabling printing of the article from the 3D design file on the authorised 3D printer, the response comprising a decryption key arranged to decrypt the encrypted 3D design file; using the decryption key to decrypt the received encrypted 3D design file, and sending the decrypted 3D design file to the 3D printer associated with the unique 3D printer identifier; configuring the authorised 3D printer in accordance with the configuration settings defined In the 3D printer configuration file; and printing the 3D article in accordance with the decrypted 3D design file at the authorised 3D printer. receiving the 3D design file in encrypted format, the 3D design file comprising a unique design file identifier, a 3D printer configuration file, the 3D printer configuration file defining one or more 3D printer configuration settings required to print the article in accordance with the 3D design, and a unique 3D printer identifier identifying a 3D printer authorised to print the 3D article in accordance with the 3D design file; constructing an authentication request for authenticating use of the 3D design file with the 3D printer specified by the 3D printer Identifier, the request including the unique design file identifier and the unique 3D printer identifier; transmitting the authentication request to an authentication server; receiving an authentication response from the authentication server, the response enabling printing of the article from the 3D design file on the authorised 3D printer, the response comprising a decryption key arranged to decrypt the encrypted 3D design file; using the decryption key to decrypt the received encrypted 3D design file, and sending the decrypted 3D design file to the 3D printer associated with the unique 3D printer identifier; configuring the authorised 3D printer in accordance with the configuration settings defined In the 3D printer configuration file; and printing the 3D article in accordance with the decrypted 3D design file at the authorised 3D printer.
A method operational on a wireless access terminal (104,300), of positioning the wireless access terminal (104,300), comprising: determining if to retrieve position information corresponding to the access terminal; and in response to the determination: determining system information corresponding to each of a plurality of serving base stations of a network, wherein the system information comprising latitude and longitude associated with each base station of the plurality of base stations; storing the determined system information associated with each of the plurality of base stations as accumulated system information over time in a memory of the wireless access terminal; and storing for each of the plurality of base stations an associated timestamp with the system information; and determining if sufficient system information corresponding to a sufficient number of base stations has been gathered and in response to the determination transmitting the accumulated system information and time stamps for the current serving base station and for at least one prior serving base station, for localization of the access terminal, wherein the associated timestamp is adapted to record the time at which the system information is determined and wherein the accumulated system information and time stamps are accumulated over time as the access terminal moves about the network. determining if to retrieve position information corresponding to the access terminal; and in response to the determination: determining system information corresponding to each of a plurality of serving base stations of a network, wherein the system information comprising latitude and longitude associated with each base station of the plurality of base stations; storing the determined system information associated with each of the plurality of base stations as accumulated system information over time in a memory of the wireless access terminal; and storing for each of the plurality of base stations an associated timestamp with the system information; and determining system information corresponding to each of a plurality of serving base stations of a network, wherein the system information comprising latitude and longitude associated with each base station of the plurality of base stations; storing the determined system information associated with each of the plurality of base stations as accumulated system information over time in a memory of the wireless access terminal; and storing for each of the plurality of base stations an associated timestamp with the system information; and determining if sufficient system information corresponding to a sufficient number of base stations has been gathered and in response to the determination transmitting the accumulated system information and time stamps for the current serving base station and for at least one prior serving base station, for localization of the access terminal, wherein the associated timestamp is adapted to record the time at which the system information is determined and wherein the accumulated system information and time stamps are accumulated over time as the access terminal moves about the network.
Arrangement for improving manoeuvrability of a vehicle combination comprising a first vehicle unit, a second vehicle unit and a third vehicle unit interconnected by articulated joints (5, 6), where the vehicle combination further comprises a distributed propulsion system, in which the vehicle combination comprises a first driven axle and a second driven axle and in which the first and the second driven axles can be controlled independently, means (20, 21) for determining the articulation angle between the vehicle units (2, 3, 4), means for determining a steering wheel angle of the vehicle combination, means for determining the speed of the vehicle combination, means (17, 18, 19) for determining the yaw rate of the vehicle units (2,3, 4), and means for determining a delay value between the steering wheels (24, 25) of the vehicle combination and at least one of the articulated joints (5, 6), characterized in that the arrangement is adapted to control a desired articulation angle of the first and the second articulated joints (5, 6) by coordinating the force ratio between the first driven axle and the second driven axle by using the determined yaw rate or articulation angle of the vehicle units (2, 3, 4) and the determined delay value.
A laminated diffraction optical element comprising: a substrate; and a resin layer provided on the substrate and including an optically effective portion and an optically non-effective outer portion adjacent to the optically effective portion, wherein the optically non-effective outer portion in the resin layer includes at least a continuous first shape such that a layer thickness decreases when extending toward an outer periphery of the substrate, and a second shape adjacent to the first shape such that the layer thickness increases when extending toward the outer periphery of the substrate, and the optically non-effective outer portion in the resin layer includes repetitive pairs of the continuous first shape such that the layer thickness decreases when extending toward the outer periphery of the substrate and the second shape adjacent to the first shape such that the layer thickness increases when extending toward the outer periphery of the substrate, wherein the number of the pairs is within a range of 2 to 10, wherein an angle (Θ) formed between a straight line connecting both ends (10a, 10b) of the continuous first shape such that the layer thickness decreases and a tangent to a surface of the substrate at a point opposite to the end closer to the surface of the substrate is within a range of 20 to 60 degrees; and the laminated diffraction optical element is produced by the production method of any of claims 5 and 6. a substrate; and a resin layer provided on the substrate and including an optically effective portion and an optically non-effective outer portion adjacent to the optically effective portion, wherein the optically non-effective outer portion in the resin layer includes at least a continuous first shape such that a layer thickness decreases when extending toward an outer periphery of the substrate, and a second shape adjacent to the first shape such that the layer thickness increases when extending toward the outer periphery of the substrate, and the optically non-effective outer portion in the resin layer includes repetitive pairs of the continuous first shape such that the layer thickness decreases when extending toward the outer periphery of the substrate and the second shape adjacent to the first shape such that the layer thickness increases when extending toward the outer periphery of the substrate, wherein the number of the pairs is within a range of 2 to 10, wherein an angle (Θ) formed between a straight line connecting both ends (10a, 10b) of the continuous first shape such that the layer thickness decreases and a tangent to a surface of the substrate at a point opposite to the end closer to the surface of the substrate is within a range of 20 to 60 degrees; and the laminated diffraction optical element is produced by the production method of any of claims 5 and 6.
A chamber apparatus used with an external apparatus having an obscuration region, the chamber apparatus comprising: a chamber in which extreme ultraviolet light is generated; a collector mirror provided in the chamber for collecting the extreme ultraviolet light; a support for securing the collector mirror to the chamber; and an output port provided to the chamber for allowing the extreme ultraviolet light collected by the collector mirror to be introduced therethrough into the external apparatus, wherein the collector mirror is provided with at least one through-hole (A1, A2, A3) passing therethrough between a reflective side thereof and a back side thereof, and the collector mirror is secured to the chamber such that the at least one through-hole is positioned within a portion thereof substantially corresponding to the obscuration region, characterized in that the collector mirror further includes at least one notch (A75, A76) provided in the portion thereof corresponding to the obscuration region. a chamber in which extreme ultraviolet light is generated; a collector mirror provided in the chamber for collecting the extreme ultraviolet light; a support for securing the collector mirror to the chamber; and an output port provided to the chamber for allowing the extreme ultraviolet light collected by the collector mirror to be introduced therethrough into the external apparatus,
A method for displaying a future aircraft position for Vertical Navigation (VNAV) Autopilot Mode disengagement, onboard an aircraft, during operation of a Flight Management System, the method comprising: when the FMS has disengaged a Lateral Navigation (LNAV) Autopilot Mode, detecting a current aircraft position indicating divergence from a flight path; calculating a future aircraft position for VNAV Autopilot Mode disengagement, based on the current aircraft position, a predicted cross-track error, and the divergence from the flight path; presenting the current aircraft position and the future aircraft position for VNAV Autopilot Mode disengagement when operating in the VNAV Autopilot Mode, via a display device communicatively coupled to the FMS; when the future aircraft position for VNAV Autopilot Mode disengagement is not on the flight path, disengaging the VNAV Autopilot Mode of the FMS, based on the current aircraft position and the future aircraft position for VNAV Autopilot Mode disengagement; calculating a descent path for the aircraft, after disengagement of the VNAV Autopilot Mode; and presenting the descent path, via the display device. detecting a current aircraft position indicating divergence from a flight path; calculating a future aircraft position for VNAV Autopilot Mode disengagement, based on the current aircraft position, a predicted cross-track error, and the divergence from the flight path; presenting the current aircraft position and the future aircraft position for VNAV Autopilot Mode disengagement when operating in the VNAV Autopilot Mode, via a display device communicatively coupled to the FMS; when the future aircraft position for VNAV Autopilot Mode disengagement is not on the flight path, disengaging the VNAV Autopilot Mode of the FMS, based on the current aircraft position and the future aircraft position for VNAV Autopilot Mode disengagement; calculating a descent path for the aircraft, after disengagement of the VNAV Autopilot Mode; and presenting the descent path, via the display device.
High-temperature component composed of a metallic substrate (4, 4') of a nickel-based or cobalt-based superalloy, in particular composed of a nickel-based alloy, wherein the substrate (4, 4') has a first carbon content, wherein a layer (13, 13') composed of a cobalt-based alloy is applied directly to an area (14, 20, 23) of the substrate (4, 4'), said layer having a higher carbon content than the substrate (4, 4'), in which the layer (13, 13') is applied only locally, in particular in a region (19, 19') with increased erosion loading and in which the substrate (4, 4') is coated with a metallic coating (7, 7') and/or a ceramic coating (10, 10') on the metallic coating (7, 7'), which adjoin the area (14, 20, 23) of the substrate (4, 4'), in which the absolute difference in the carbon content of the substrate (4, 4') and the layer (13, 13') is at least 0.03% by weight, in which the nickel-based alloy of the substrate (4, 4') comprises at least chromium (Cr), cobalt (Co), tungsten, aluminum (Al), titanium (Ti), optionally tantalum (Ta) and preferably no rhenium (Re) and preferably no yttrium, in which the cobalt-based alloy of the layer (13, 13') comprises at least chromium (Cr), nickel (Ni), tungsten, optionally tantalum (Ta), aluminum (Al), titanium (Ti) and preferably no rhenium (Re) and preferably no yttrium, in which the metallic coating (7, 7') comprises no carbon and in particular comprises NiCoCrAl, NiCoCrAlY, NiCoCrAlTa or NiCoCrAlFe, NiCOCrAlYFe, NiCoCrAlYFeTa, NiCoCrAlFeTa or NiCoCrAlYTa, very particularly consists thereof, in which the layer (13, 13') has a thickness of 1 μm to 100 μm.
Device for integrating an opening into a roof formed from self-supporting panels (100a, 100b, 100c), with the device comprising an opening formed from at least one translucent panel supported by a frame profile being integrated into said roof, the device comprising said self-supporting panels (100a, 100b, 100c), said self-supporting panels comprising preformed parallel edges with at least one groove in which is housed at least one connection key and forming a discharge channel for the water infiltrated between the self-supporting panels (100a, 100b, 100c), such that the frame profile surrounding the translucent panel comprises - a portion bearing against the upper surface of said self-supporting panels (100a, 100b, 100c), and - a preformed portion with at least one groove (330, 340) in which is embedded said connection key in such a way that the liaison between the frame profile and the key reproduces the connection and the flow of water proposed between self-supporting panels (100a, 100b, 100c). - a portion bearing against the upper surface of said self-supporting panels (100a, 100b, 100c), and - a preformed portion with at least one groove (330, 340) in which is embedded said connection key in such a way that the liaison between the frame profile and the key reproduces the connection and the flow of water proposed between self-supporting panels (100a, 100b, 100c).
A method for downlink power allocation in a wireless communication system, the method comprising: obtaining information on positions of user equipments in a cell; classifying the user equipments into cell-edge user equipments and non-cell-edge user equipments based on the obtained information on the positions of user equipments in the cell; and performing downlink power allocation without increasing the total transmit power, by increasing power allocated to at least one of physical downlink control channels, PDCCH, for scheduled user equipments of the cell-edge user equipments and common reference signals, and allocating less power to at least one of downlink common channels for scheduled user equipments of the non-cell-edge user equipments than to the at least one of physical downlink control channels for scheduled user equipments of the cell-edge user equipments. obtaining information on positions of user equipments in a cell; classifying the user equipments into cell-edge user equipments and non-cell-edge user equipments based on the obtained information on the positions of user equipments in the cell; and performing downlink power allocation without increasing the total transmit power, by increasing power allocated to at least one of physical downlink control channels, PDCCH, for scheduled user equipments of the cell-edge user equipments and common reference signals, and allocating less power to at least one of downlink common channels for scheduled user equipments of the non-cell-edge user equipments than to the at least one of physical downlink control channels for scheduled user equipments of the cell-edge user equipments.
A hemostatic article comprising a porous carrier and an absorbent composition, wherein the absorbent composition comprises zeolite or non-zeolite molecular sieves and a cationic polyelectrolyte, an anionic polyelectrolyte or a mixture thereof, wherein the polyelectrolytes do not inhibit the blood coagulation mechanism wherein the cationic polyelectrolyte is a cationic polyacrylamide containing quaternary ammonium cation groups and the anionic polyelectrolyte is an anionic polyacrylamide having acrylic acid groups, and wherein the absorbent composition is loaded on the porous carrier.