mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising a light source and an array of light intensity modulators for modulating light from the light source, wherein the light source is configured for operation in a 2D mode as a single broad light source or in a 3D mode as a plurality of narrow light sources, spaced in a spacing direction, and the light source and the array of light intensity modulators are arranged such that in the 3D mode each light intensity modulator is illuminated by substantially only one of said narrow light sources and a string of the light intensity modulators, parallel to said spacing direction, is illuminated by each narrow light source, wherein the light intensity modulators of the array are arranged in rows and columns, characterised in that the light source comprises an organic light emitting diode structure having alternating relatively large width and small width parallel control electrodes (11a, 11b; 11a', 11a", 11b', 11b") which are themselves independently controllable, wherein the control electrodes (11a, 11b) are parallel with said columns of light intensity modulators or skewed relative to said columns by a small angle, and the control electrode widths are in the row direction of the array of light intensity modulators wherein said 3D mode is be provided by selectively energising just said small width parallel control electrodes.
A method for correcting the position of a vehicle that is a ship being on the sea, comprising: - a step of reception, by the RADAR system installed on said vehicle, of a real RADAR image, - a step of acquisition, by a computer installed on said vehicle, of an estimated position of the vehicle, Characterized in tat it further comprises: - a step of elaboration, by the computer, of a simulated RADAR image as a function of the estimated position of the vehicle and of a cartographic model of the vehicle environment, - a step of comparison of the real RADAR image and the simulated RADAR image, and - a step of correction of the estimated position of the vehicle as a function of the comparison result, wherein the acquisition, elaboration and comparison steps are repeated with different estimated position of the vehicle, wherein at the correction step during a first time step, it is provided to define a pool of uncertainty corresponding to a zone in which the vehicle is located, wherein, during a second time step, the acquisition step is repeated using several estimated positions of the vehicle located within said pool of uncertainty, wherein, at the correction step, the estimated position of the vehicle is corrected as a function of the results of said comparisons, and wherein after the reception step, it is provided to determine if a sea coast is visible on the real RADAR image, and wherein, if so, the acquisition, elaboration, comparison and correction steps are automatically implemented by the computer. - a step of reception, by the RADAR system installed on said vehicle, of a real RADAR image, - a step of acquisition, by a computer installed on said vehicle, of an estimated position of the vehicle, - a step of elaboration, by the computer, of a simulated RADAR image as a function of the estimated position of the vehicle and of a cartographic model of the vehicle environment, - a step of comparison of the real RADAR image and the simulated RADAR image, and - a step of correction of the estimated position of the vehicle as a function of the comparison result, wherein the acquisition, elaboration and comparison steps are repeated with different estimated position of the vehicle, wherein at the correction step during a first time step, it is provided to define a pool of uncertainty corresponding to a zone in which the vehicle is located, wherein, during a second time step, the acquisition step is repeated using several estimated positions of the vehicle located within said pool of uncertainty, wherein, at the correction step, the estimated position of the vehicle is corrected as a function of the results of said comparisons, and wherein after the reception step, it is provided to determine if a sea coast is visible on the real RADAR image, and wherein, if so, the acquisition, elaboration, comparison and correction steps are automatically implemented by the computer.
A method for combining a mask with a video stream, the method comprising: - displaying one or more image frames of the video stream - receiving a selection of at least one mask to insert into the video stream, the mask comprising a mask zone that outlines or obscures at least a portion of a corresponding image frame of the video stream that the mask is inserted therein; - receiving a selection to emplace the at least one mask at a first location within a displayed image frame of the video stream; - receiving a selection to enable a tracking icon to move the at least one mask to a second location within at least another displayed image frame of the video stream while the displaying of the video stream progresses; and - generating a video stream copy of the video stream with the at least one mask inserted therein as emplaced and moved during the displaying of the video stream progression. - displaying one or more image frames of the video stream - receiving a selection of at least one mask to insert into the video stream, the mask comprising a mask zone that outlines or obscures at least a portion of a corresponding image frame of the video stream that the mask is inserted therein; - receiving a selection to emplace the at least one mask at a first location within a displayed image frame of the video stream; - receiving a selection to enable a tracking icon to move the at least one mask to a second location within at least another displayed image frame of the video stream while the displaying of the video stream progresses; and - generating a video stream copy of the video stream with the at least one mask inserted therein as emplaced and moved during the displaying of the video stream progression.
Method for the quantitative analysis of blood platelets and aggregates comprising the steps of: a) providing a sample comprising blood platelets aggregates; b) obtain a 3D representation of the platelets aggregates by the use of DHM or DDHM; c) extract quantitative information about the platelets aggregates from said 3D representation characterised in that said quantitative information is related to the group consisting of shape, such as form factor, volume, spreading, surface, surface to volume ratio, and squared aggregate perimeter to aggregate area ratio and wherein the step of obtaining a 3D representation comprises a phase background subtraction and permanent defects elimination by recording a sequence of N holograms of the sample moved with lateral translations, said background and permanent defects being determined on the said sequence. a) providing a sample comprising blood platelets aggregates; b) obtain a 3D representation of the platelets aggregates by the use of DHM or DDHM; c) extract quantitative information about the platelets aggregates from said 3D representation characterised in that said quantitative information is related to the group consisting of shape, such as form factor, volume, spreading, surface, surface to volume ratio, and squared aggregate perimeter to aggregate area ratio and wherein the step of obtaining a 3D representation comprises a phase background subtraction and permanent defects elimination by recording a sequence of N holograms of the sample moved with lateral translations, said background and permanent defects being determined on the said sequence.
A gamma-prime nickel-base alloy having a polycrystalline microstructure, the alloy consisting of, by weight: 10.00 to 22.0% cobalt; 10.0 to 14.0% chromium; 4.0 to 6.0% tantalum; 2.0 to 4.0% aluminum; 2.0 to 6.0% titanium; 1.5 to 5.0% tungsten; 1.5 to 5.0% molybdenum; 1.0 to 3.5% niobium; 0.05 to 0.6% hafnium; 0.02 to 0.10% carbon; 0.01 to 0.40 % boron; 0.02 to 0.10% zirconium; optionally up to 2.5% rhenium; optionally up to 2% vanadium; optionally up to 2% iron; optionally up to 0.1 % magnesium; the balance nickel and impurities, wherein the titanium:aluminum weight ratio is 0.7 to 1.5; wherein the polycrystalline microstructure of the alloy contains cellular precipitates of gamma prime and finer precipitates of gamma prime, the cellular precipitates comprising gamma prime arms radiating outward from an origin with the result that the cellular precipitates have convoluted borders, the finer gamma prime precipitates being dispersed between the arms of the cellular precipitates. 10.00 to 22.0% cobalt; 10.0 to 14.0% chromium; 4.0 to 6.0% tantalum; 2.0 to 4.0% aluminum; 2.0 to 6.0% titanium; 1.5 to 5.0% tungsten; 1.5 to 5.0% molybdenum; 1.0 to 3.5% niobium; 0.05 to 0.6% hafnium; 0.02 to 0.10% carbon; 0.01 to 0.40 % boron; 0.02 to 0.10% zirconium; optionally up to 2.5% rhenium; optionally up to 2% vanadium; optionally up to 2% iron; optionally up to 0.1 % magnesium; the balance nickel and impurities, wherein the titanium:aluminum weight ratio is 0.7 to 1.5; wherein the polycrystalline microstructure of the alloy contains cellular precipitates of gamma prime and finer precipitates of gamma prime, the cellular precipitates comprising gamma prime arms radiating outward from an origin with the result that the cellular precipitates have convoluted borders, the finer gamma prime precipitates being dispersed between the arms of the cellular precipitates.
A refrigerator comprising: a cabinet defining a first storage region for storing food; a door for opening and closing the first storage region; a gasket which is provided on an inner surface of the door for sealing the first storage region from outdoor air by forming a sealing boundary when the door closes the first storage region; a first hinge member which has a rotary shaft and rotatably connects the door to the cabinet, the first hinge member being outside the sealing boundary; a container which defines a second storage region for storing food and is receivable in the first storage region, characterized by further comprising a second hinge member which is fixed, at one side thereof, to the container within the sealing boundary while being rotatably connected, at the other side thereof, to the door, the second hinge member having a rotary shaft which is vertically and linearly aligned with the rotary shaft of the first hinge member. a cabinet defining a first storage region for storing food; a door for opening and closing the first storage region; a gasket which is provided on an inner surface of the door for sealing the first storage region from outdoor air by forming a sealing boundary when the door closes the first storage region; a first hinge member which has a rotary shaft and rotatably connects the door to the cabinet, the first hinge member being outside the sealing boundary; a container which defines a second storage region for storing food and is receivable in the first storage region, characterized by further comprising a second hinge member which is fixed, at one side thereof, to the container within the sealing boundary while being rotatably connected, at the other side thereof, to the door, the second hinge member having a rotary shaft which is vertically and linearly aligned with the rotary shaft of the first hinge member.
An equipment shelf comprising: at least one power supply unit positioned in an upper region of the equipment shelf; at least one battery backup unit positioned in a lower region of the equipment shelf; and an airflow path extending through the equipment shelf between the upper region and the lower region, wherein the airflow path separates the upper region of the equipment shelf from the lower region of the equipment shelf and thermally isolates the at least one PSU in the upper region from the at least one BBU in the lower region when air flows through the airflow path. at least one power supply unit positioned in an upper region of the equipment shelf; at least one battery backup unit positioned in a lower region of the equipment shelf; and an airflow path extending through the equipment shelf between the upper region and the lower region, wherein the airflow path separates the upper region of the equipment shelf from the lower region of the equipment shelf and thermally isolates the at least one PSU in the upper region from the at least one BBU in the lower region when air flows through the airflow path.
A core network, CN, node comprising: a processor; and a memory that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the CN node is operable to: send, to a radio access network, RAN, node (102 2), a dummy paging request associated with a wireless device (104 2), wherein the dummy paging request includes information for use by the RAN node to calculate a time remaining until a next paging opportunity for the wireless device, and wherein the information comprises an International Mobile Subscriber Identity, IMSI, of the wireless device and an extended Discontinuous Receive, eDRX, cycle length of the wireless device; and receive, from the RAN node, a dummy paging response which includes the time remaining until a next paging opportunity for the wireless device. a processor; and a memory that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the CN node is operable to: send, to a radio access network, RAN, node (102 2), a dummy paging request associated with a wireless device (104 2), wherein the dummy paging request includes information for use by the RAN node to calculate a time remaining until a next paging opportunity for the wireless device, and wherein the information comprises an International Mobile Subscriber Identity, IMSI, of the wireless device and an extended Discontinuous Receive, eDRX, cycle length of the wireless device; and receive, from the RAN node, a dummy paging response which includes the time remaining until a next paging opportunity for the wireless device. send, to a radio access network, RAN, node (102 2), a dummy paging request associated with a wireless device (104 2), wherein the dummy paging request includes information for use by the RAN node to calculate a time remaining until a next paging opportunity for the wireless device, and wherein the information comprises an International Mobile Subscriber Identity, IMSI, of the wireless device and an extended Discontinuous Receive, eDRX, cycle length of the wireless device; and receive, from the RAN node, a dummy paging response which includes the time remaining until a next paging opportunity for the wireless device.
A method of attaching to an Evolved-Universal Terrestrial Radio Access Network (E-UTRAN), the method comprising: a step A of retrieving at the network side context information of a user equipment upon reception of an Attach Request sent by the user equipment; a step B of performing at the network side an authentication procedure and a security procedure with the user equipment; a step C of establishing at the network side tunnels with the user equipment for information transmission; and a step D of establishing at the network side a default bearer with the user equipment, wherein the step D is performed upon determining that the step B and the step C are performed successfully; characterized in that the step B and the step C are performed in parallel after the step A is performed successfully, the step B and the step C includes sub-steps, when any one of sub-steps in the step B is performed unsuccessfully, the step C and the step B are stopped from being further performed; and if any one of sub-steps in the step C is performed unsuccessfully, the step C and the step B are stopped from being performed. a step A of retrieving at the network side context information of a user equipment upon reception of an Attach Request sent by the user equipment; a step B of performing at the network side an authentication procedure and a security procedure with the user equipment; a step C of establishing at the network side tunnels with the user equipment for information transmission; and a step D of establishing at the network side a default bearer with the user equipment, wherein the step D is performed upon determining that the step B and the step C are performed successfully; characterized in that the step B and the step C are performed in parallel after the step A is performed successfully, the step B and the step C includes sub-steps, when any one of sub-steps in the step B is performed unsuccessfully, the step C and the step B are stopped from being further performed; and if any one of sub-steps in the step C is performed unsuccessfully, the step C and the step B are stopped from being performed.
A method comprising: treating a CFx material with a base during the formation of a CFx cathode; and assembling the treated CFx material into a cathode electrode and assembling the cathode electrode with a lithium anode electrode and an electrolyte into a cell, wherein the base includes LiOH. treating a CFx material with a base during the formation of a CFx cathode; and assembling the treated CFx material into a cathode electrode and assembling the cathode electrode with a lithium anode electrode and an electrolyte into a cell, wherein the base includes LiOH.
A cellulose acetate powder comprising cellulose acetate having an acetylation degree of 53 to 56% and a 6% viscosity of 30 to 200 mPa · s detrmined at 25±1 °C in an Ostwald viscometer, wherein: a cumulative pore volume is not less than 0.200 ml/g; a proportion of particles having a particle diameter of not less than 500 μm is not higher than 40%; and an angle of repose is not greater than 51°. a cumulative pore volume is not less than 0.200 ml/g; a proportion of particles having a particle diameter of not less than 500 μm is not higher than 40%; and an angle of repose is not greater than 51°.
A method for controlling input using a cursor, in a computer coupled to a touch-sensitive device, the method comprising: displaying the cursor; receiving a first touch input on the touch-sensitive device within an active region adjacent to the cursor; responsive to the first touch input, displaying a cursor handle adjacent to the cursor, the cursor handle containing one or more regions and providing a visual indication of where a further touch input may be made to control the cursor; receiving a second touch input on the touch sensitive device; and determining whether the second touch input is on the displayed cursor handle or is not near the cursor; if it is determined that the second touch input is on the displayed cursor handle, then if the second touch input is a drag across the touch-sensitive device, controlling movement of the cursor and the handle in accordance with the second touch input, wherein the cursor handle moves with the cursor; if the second touch input is a tap on one of the one or more regions of the cursor handle, sending a mouse button event to a location of the displayed cursor; and, if it is determined that the second touch is not near the cursor, the cursor is returned to an idle state, wherein the idle state is a state in which the cursor handle is not displayed. displaying the cursor; receiving a first touch input on the touch-sensitive device within an active region adjacent to the cursor; responsive to the first touch input, displaying a cursor handle adjacent to the cursor, the cursor handle containing one or more regions and providing a visual indication of where a further touch input may be made to control the cursor; receiving a second touch input on the touch sensitive device; and determining whether the second touch input is on the displayed cursor handle or is not near the cursor; if it is determined that the second touch input is on the displayed cursor handle, then if the second touch input is a drag across the touch-sensitive device, controlling movement of the cursor and the handle in accordance with the second touch input, wherein the cursor handle moves with the cursor; if the second touch input is a tap on one of the one or more regions of the cursor handle, sending a mouse button event to a location of the displayed cursor; and, if the second touch input is a drag across the touch-sensitive device, controlling movement of the cursor and the handle in accordance with the second touch input, wherein the cursor handle moves with the cursor; if the second touch input is a tap on one of the one or more regions of the cursor handle, sending a mouse button event to a location of the displayed cursor; and, if it is determined that the second touch is not near the cursor, the cursor is returned to an idle state, wherein the idle state is a state in which the cursor handle is not displayed.
A partially heat-treated torsion beam used for a suspension of a vehicle, the torsion beam comprising a peripheral wall, wherein an outer portion of the peripheral wall of the partially heat-treated torsion beam has an hardness which is larger than the hardness of an inner portion of the peripheral wall, characterized in that a thickness of the outer portion of the peripheral wall, in which the hardness is increased compared to the hardness of the inner portion, is half or less of a total thickness of the peripheral wall.