mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a pilot signal arrangement, the method comprising: signaling, by a transmitter, a selected pilot density arrangement of multiple pilot density arrangements in a time domain, wherein the multiple pilot density arrangements consist of a low pilot density arrangement, a medium pilot density arrangement, and a high pilot density arrangement, wherein the selected pilot density arrangement is selected based on one of multiple transmission time interval, TTI, lengths, and one of multiple user equipment mobilities, wherein the multiple TTI lengths consist of a short TTI length, a medium TTI length, and a long TTI length, wherein the multiple user equipment mobilities consist of a low user equipment mobility and a high user equipment mobility, wherein when the user equipment mobility is the low user equipment mobility and the TTI length is the long TTI length, the low pilot density arrangement is selected; when the user equipment mobility is the low user equipment mobility and the TTI length is the medium or short TTI length, or when the user equipment mobility is the high user equipment mobility and the TTI length is the long TTI length, the medium pilot density arrangement is selected, when the user equipment mobility is the high user equipment mobility and the TTI length is the medium or short TTI length, the high pilot density arrangement is selected. signaling, by a transmitter, a selected pilot density arrangement of multiple pilot density arrangements in a time domain, wherein the multiple pilot density arrangements consist of a low pilot density arrangement, a medium pilot density arrangement, and a high pilot density arrangement, wherein the selected pilot density arrangement is selected based on one of multiple transmission time interval, TTI, lengths, and one of multiple user equipment mobilities, wherein the multiple TTI lengths consist of a short TTI length, a medium TTI length, and a long TTI length, wherein the multiple user equipment mobilities consist of a low user equipment mobility and a high user equipment mobility, wherein when the user equipment mobility is the low user equipment mobility and the TTI length is the long TTI length, the low pilot density arrangement is selected; when the user equipment mobility is the low user equipment mobility and the TTI length is the medium or short TTI length, or when the user equipment mobility is the high user equipment mobility and the TTI length is the long TTI length, the medium pilot density arrangement is selected, when the user equipment mobility is the high user equipment mobility and the TTI length is the medium or short TTI length, the high pilot density arrangement is selected.
A machine learning method (100, 200) for use with automated seismic interpretation, comprising obtaining input data based on measured seismic data and/or measured geophysical data representative of a subsurface volume; data; obtaining one or more transformation factors (113, 213), wherein a range within which the one or more transformation factors must fall; or a set of rules for generation of the one or more transformation factors is based at least in part upon at least one of geologic domain knowledge and geophysical domain knowledge; extracting patches (170, 270) from a pre-extraction dataset, wherein the pre-extraction dataset is based on the input data; transforming (174, 274) the extracted patches based on the one or more transformation factors; generating augmented data from the extracted patches and the transformed data; and training (180, 280) a machine learning system using the generated augmented data. obtaining input data based on measured seismic data and/or measured geophysical data representative of a subsurface volume; data; obtaining one or more transformation factors (113, 213), wherein a range within which the one or more transformation factors must fall; or a set of rules for generation of the one or more transformation factors is based at least in part upon at least one of geologic domain knowledge and geophysical domain knowledge; extracting patches (170, 270) from a pre-extraction dataset, wherein the pre-extraction dataset is based on the input data; transforming (174, 274) the extracted patches based on the one or more transformation factors; generating augmented data from the extracted patches and the transformed data; and training (180, 280) a machine learning system using the generated augmented data.
An optical article having antistatic and antireflection or reflective properties, comprising a substrate having at least one main surface coated with an antireflection or reflective coating, said coating comprising at least one electrically conductive layer, wherein: - the deposition of said electrically conductive layer has been performed under ionic assistance by bombarding the surface of the substrate with an ion beam produced by an ion gun, and - said substrate has a water uptake rate equal to or greater than 0.6% by weight relative to the total weight of said substrate, the water uptake rate being measured after predrying said substrate and then storing it for 800 hours in a chamber at 50°C under 100% relative humidity and at atmospheric pressure, characterized in that: the electrically conductive layer according to the present invention comprises at least 30% by weight of tin oxide (SnO 2) relative to the total weight of the electrically conductive layer. - the deposition of said electrically conductive layer has been performed under ionic assistance by bombarding the surface of the substrate with an ion beam produced by an ion gun, and - said substrate has a water uptake rate equal to or greater than 0.6% by weight relative to the total weight of said substrate, the water uptake rate being measured after predrying said substrate and then storing it for 800 hours in a chamber at 50°C under 100% relative humidity and at atmospheric pressure,
A data processing device, characterized in that the data processing device comprises: a data collection unit, configured to collect data transmitted in a network, and divide the collected data, according to a predetermined feature, into known attack data and unknown attack data; and a data conversion unit, configured to replace, according to a mapping database, at least a portion of content included in the unknown attack data with corresponding shorter identification codes to reduce the data size, wherein the data conversion unit comprises: a data matching unit, configured to determine whether the at least a portion of content in the unknown attack data is identical to historical data previously transmitted in the network and included in the mapping database; and a data replacement unit, configured to replace identical content with identification codes corresponding to the historical data in the mapping database when it is determined that the at least a portion of content in the unknown attack data is identical to the historical data. a data collection unit, configured to collect data transmitted in a network, and divide the collected data, according to a predetermined feature, into known attack data and unknown attack data; and a data conversion unit, configured to replace, according to a mapping database, at least a portion of content included in the unknown attack data with corresponding shorter identification codes to reduce the data size, wherein the data conversion unit comprises: a data matching unit, configured to determine whether the at least a portion of content in the unknown attack data is identical to historical data previously transmitted in the network and included in the mapping database; and a data replacement unit, configured to replace identical content with identification codes corresponding to the historical data in the mapping database when it is determined that the at least a portion of content in the unknown attack data is identical to the historical data. a data matching unit, configured to determine whether the at least a portion of content in the unknown attack data is identical to historical data previously transmitted in the network and included in the mapping database; and a data replacement unit, configured to replace identical content with identification codes corresponding to the historical data in the mapping database when it is determined that the at least a portion of content in the unknown attack data is identical to the historical data.
A method of assembling a fuel cell plate assembly, the method comprising: placing a bipolar plate on a build point platform; placing a prefabricated first fluid diffusion layer on, and in alignment with, the bipolar plate; dispensing a first track of adhesive adjacent both the bipolar plate and a peripheral edge of the first fluid diffusion layer; and placing a prefabricated MEA and second fluid diffusion layer in sealing engagement with the first track of adhesive and thereby forming a seal between the bipolar plate, the peripheral edge of the first fluid diffusion layer and the MEA and second fluid diffusion layer; wherein the method comprises lowering (1604,1608) the build point platform before or after any or all of the placing and dispensing steps. placing a bipolar plate on a build point platform; placing a prefabricated first fluid diffusion layer on, and in alignment with, the bipolar plate; dispensing a first track of adhesive adjacent both the bipolar plate and a peripheral edge of the first fluid diffusion layer; and placing a prefabricated MEA and second fluid diffusion layer in sealing engagement with the first track of adhesive and thereby forming a seal between the bipolar plate, the peripheral edge of the first fluid diffusion layer and the MEA and second fluid diffusion layer; wherein the method comprises lowering (1604,1608) the build point platform before or after any or all of the placing and dispensing steps.
A half bearing (100, 400, 700, 800, 900) comprising a bearing member (102, 102', 402, 702) having at least an internal bearing lining layer (106, 106', 706) with an optional bearing overlay layer defining a concave inner face extending between first and second axial ends (110A, 110B) of the half bearing (100, 400, 700, 800, 900), wherein the concave inner face comprises a concave substantially semi-cylindrical bearing surface (112, 112', 412, 712, 812, 912) and at least first and second micro-profiled seal regions (108A, 108B; 108A', 108 B', 408A(i), 408A(ii); 708A, 708B; 808A, 808B; 908A, 908B), wherein each of the first and second micro-profiled seal regions (108A, 108B; 108A', 108 B', 408A(i), 408A(ii); 708A, 708B; 808A, 808B; 908A, 908B) comprise a plurality of seal ridges and peaks of the seal ridges project above the concave bearing surface (112, 112', 412, 712, 812, 912), and the micro-profiled seal regions (108A, 108B; 108A', 108 B', 408A(i), 408A(ii); 708A, 708B; 808A, 808B; 908A, 908B) extend at least partially circumferentially across the concave inner face, wherein the first and second micro-profiled seal regions (108A, 108B; 108A', 108 B', 408A(i), 408A(ii); 708A, 708B; 808A, 808B; 908A, 908B) are at or adjacent to the first and second axial ends (110A, 110B), characterized in that the seal ridges have a repeat period of 300 to 700 μm, a ridge height of 12 to 30 μm and that each micro-profiled seal region has a width of 200 to 600 μm.
A forging method comprising: a placement step of placing a work having a first shape which is a rectangular hexahedron in a work space of a forging die, the forging die comprising an upper die and a lower die, the work space having a rectangular opening, being formed by rectangular plane wall portions, and being provided for holding the work, the upper die of the forging die having a vertically movable upper die indenter which is formed into the shape of a prism having an end with a rectangular plane; the forging die including a slidable pedestal portion constituting the bottom of the work space, a space communicating with the outside from the work space being formed by sliding the pedestal portion; a working step of applying, with the upper die indenter, a plastic strain to the work by deforming the placed work into a second shape which is a rectangular hexahedron; and a push-out step wherein the slidable pedestal portion is slid to form the communication space and, thereafter, the work in the work space is pushed out to the communication space by being pressurized from above with the upper die indenter wherein the placement step and the working step are performed to deform the work in its X axis direction, Y axis direction and Z axis direction, the X axis, Y axis and Z axis directions of the work being orthogonal to one another. a placement step of placing a work having a first shape which is a rectangular hexahedron in a work space of a forging die, the forging die comprising an upper die and a lower die, the work space having a rectangular opening, being formed by rectangular plane wall portions, and being provided for holding the work, the upper die of the forging die having a vertically movable upper die indenter which is formed into the shape of a prism having an end with a rectangular plane; the forging die including a slidable pedestal portion constituting the bottom of the work space, a space communicating with the outside from the work space being formed by sliding the pedestal portion; a working step of applying, with the upper die indenter, a plastic strain to the work by deforming the placed work into a second shape which is a rectangular hexahedron; and a push-out step wherein the slidable pedestal portion is slid to form the communication space and, thereafter, the work in the work space is pushed out to the communication space by being pressurized from above with the upper die indenter wherein the placement step and the working step are performed to deform the work in its X axis direction, Y axis direction and Z axis direction, the X axis, Y axis and Z axis directions of the work being orthogonal to one another.
A light emitting device comprising: a first conductive semiconductor layer; an active layer adjacent to the first conductive semiconductor layer to emit light; a second conductive semiconductor layer adjacent to the active layer; and a first electrode adjacent to the first conductive semiconductor layer, wherein the first electrode includes a plurality of openings, and wherein a ratio of an area of the first electrode to an area of a top surface of the first conductive semiconductor layer is 20% or less, a pad electrode disposed on the first electrode; wherein the pad electrode vertically overlaps with the first electrode, characterized in that "a" is a distance between centers of two adjacent openings, and wherein a radius of at least one of the two adjacent openings is equal to or greater than 0.45 x a, and wherein the first electrode includes an ohmic layer and a reflective layer on the ohmic layer. a first conductive semiconductor layer; an active layer adjacent to the first conductive semiconductor layer to emit light; a second conductive semiconductor layer adjacent to the active layer; and a first electrode adjacent to the first conductive semiconductor layer, wherein the first electrode includes a plurality of openings, and wherein a ratio of an area of the first electrode to an area of a top surface of the first conductive semiconductor layer is 20% or less, a pad electrode disposed on the first electrode;
A throttle system for providing throttle control for an engine (24,26) on an aircraft, comprising: a throttle quadrant assembly module in electrical communication with a throttle lever for receiving a position signal indicative of a magnitude for a throttle of the engine, the TQA module being operative to convert the position signal into a throttle signal; an engine electronic control module connected to the TQA module to translate the throttle signal into a throttle control signal for the engine (24,26); and a signal/power line connecting the TQA module to the EEC module for carrying power from the EEC module to the TQA module, wherein the signal/power line carries the throttle signal from the TQA module to the EEC module, characterized in that the signal/power line carries both power signals at a low frequency and throttle data signals at a high frequency on the same electrical wire, by relying on power line communication. a throttle quadrant assembly module in electrical communication with a throttle lever for receiving a position signal indicative of a magnitude for a throttle of the engine, the TQA module being operative to convert the position signal into a throttle signal; an engine electronic control module connected to the TQA module to translate the throttle signal into a throttle control signal for the engine (24,26); and a signal/power line connecting the TQA module to the EEC module for carrying power from the EEC module to the TQA module, wherein the signal/power line carries the throttle signal from the TQA module to the EEC module, characterized in that the signal/power line carries both power signals at a low frequency and throttle data signals at a high frequency on the same electrical wire, by relying on power line communication.
A thermoelectric cooling device comprising: a liquid heat exchanger including a liquid circulation path through which liquid coolant flows to exchange heat with the liquid heat exchanger and a separator that separates the liquid circulation path into an upper circulation path and a lower circulation path, the upper circulation path guiding the liquid coolant at a given planar coordinate alongside an upper side of the separator to flow in one direction and the lower circulation path guiding the liquid coolant at the same given planar coordinate alongside a lower side of the separator to flow in a substantially opposite direction; a first air heat exchanger over which air flows to exchange heat with the first air heat exchanger; a second air heat exchanger _over which air flows to exchange heat with the second air heat exchanger; a first thermoelectric module thermally coupled on a first side with a first side of the liquid heat exchanger and on a second side with the first air heat exchanger to transfer heat between the first air heat exchanger and the liquid heat exchanger; and a second thermoelectric module thermally coupled on a first side with a second side of the liquid heat exchanger and on a second side with the second air heat exchanger to transfer heat between the second air heat exchanger and the liquid heat exchanger. a liquid heat exchanger including a liquid circulation path through which liquid coolant flows to exchange heat with the liquid heat exchanger and a separator that separates the liquid circulation path into an upper circulation path and a lower circulation path, the upper circulation path guiding the liquid coolant at a given planar coordinate alongside an upper side of the separator to flow in one direction and the lower circulation path guiding the liquid coolant at the same given planar coordinate alongside a lower side of the separator to flow in a substantially opposite direction; a first air heat exchanger over which air flows to exchange heat with the first air heat exchanger; a second air heat exchanger _over which air flows to exchange heat with the second air heat exchanger; a first thermoelectric module thermally coupled on a first side with a first side of the liquid heat exchanger and on a second side with the first air heat exchanger to transfer heat between the first air heat exchanger and the liquid heat exchanger; and a second thermoelectric module thermally coupled on a first side with a second side of the liquid heat exchanger and on a second side with the second air heat exchanger to transfer heat between the second air heat exchanger and the liquid heat exchanger.
A synchronization method for a synchronization device, the method comprising: generating a first timing pulse based on an inputted packet transmitted from a server via a network; receiving a clock as a signal of a physical layer of a transmission path via the network; and outputting a second timing pulse by using said first timing pulse generated based on the inputted packet and said clock received as the signal of the physical layer of the transmission path. generating a first timing pulse based on an inputted packet transmitted from a server via a network; receiving a clock as a signal of a physical layer of a transmission path via the network; and outputting a second timing pulse by using said first timing pulse generated based on the inputted packet and said clock received as the signal of the physical layer of the transmission path.
Method for controlling a system, in particular an electrical and/or electronic system with a number of application devices, in which - input control information is detected in the form of a spoken command; - wherein the detected control information is identified and a determination is performed automatically with which application device the detected control information is linked; - if the detected control information is linked with a single application device, the linked application device and the detected control information is reported back as an announcement or indication for confirming the detected input of control information and a control is executed in the application device in accordance with the detected control information; - if the detected control information is linked with more than one application device, an input request is provided for selecting an application device with which the detected control information is to be linked, wherein, following the selection of the application device, a control is executed in the application device in accordance with the detected control information. - input control information is detected in the form of a spoken command; - wherein the detected control information is identified and a determination is performed automatically with which application device the detected control information is linked; - if the detected control information is linked with a single application device, the linked application device and the detected control information is reported back as an announcement or indication for confirming the detected input of control information and a control is executed in the application device in accordance with the detected control information; - if the detected control information is linked with more than one application device, an input request is provided for selecting an application device with which the detected control information is to be linked, wherein, following the selection of the application device, a control is executed in the application device in accordance with the detected control information.