mhurhangee/ep-ind-claims huggingface dataset:
An electronic device, comprising: a camera comprising an image sensor including a plurality of pixels; a memory; and a processor configured to control the camera, wherein each pixel included in the plurality of pixels includes a plurality of photodiodes and a microlens covering the plurality of photodiodes, the plurality of photodiodes of a pixel comprising at least a first photodiode and a second photodiode in a defined position with respect to the first photodiode, and wherein the processor is further configured to: obtain phase images (510, 610) and image data for an external object using the plurality of photodiodes of the image sensor, wherein the phase images (510, 610) comprise a first phase image captured by the first photodiodes of the plurality of pixels and a second phase image captured by the second photodiodes of the plurality of pixels, calculate depth information about the external object based on a disparity map (511, 720) calculated using the phase images (510, 610) and arrangement information of the external object, the arrangement information being calculated using the image data, and determine liveness of the external object based on the calculated depth information. a camera comprising an image sensor including a plurality of pixels; a memory; and a processor configured to control the camera, wherein each pixel included in the plurality of pixels includes a plurality of photodiodes and a microlens covering the plurality of photodiodes, the plurality of photodiodes of a pixel comprising at least a first photodiode and a second photodiode in a defined position with respect to the first photodiode, and wherein the processor is further configured to: obtain phase images (510, 610) and image data for an external object using the plurality of photodiodes of the image sensor, wherein the phase images (510, 610) comprise a first phase image captured by the first photodiodes of the plurality of pixels and a second phase image captured by the second photodiodes of the plurality of pixels, calculate depth information about the external object based on a disparity map (511, 720) calculated using the phase images (510, 610) and arrangement information of the external object, the arrangement information being calculated using the image data, and determine liveness of the external object based on the calculated depth information. obtain phase images (510, 610) and image data for an external object using the plurality of photodiodes of the image sensor, wherein the phase images (510, 610) comprise a first phase image captured by the first photodiodes of the plurality of pixels and a second phase image captured by the second photodiodes of the plurality of pixels, calculate depth information about the external object based on a disparity map (511, 720) calculated using the phase images (510, 610) and arrangement information of the external object, the arrangement information being calculated using the image data, and determine liveness of the external object based on the calculated depth information.
An image encoding method, comprising: predicting (S121, S122) a block to be reconstructed, using intra prediction in which pixels among neighboring pixels above and neighboring pixels to the left of the block in an image including the block are used as reference pixels; transforming the image including the block on a block basis; reconstructing the block transformed; and performing an in-loop filter on the reconstructed block; characterized by encoding switch information indicating, as a process to be used in the intra prediction, one of a linear process having a fixed parameter indicating an intra prediction mode and a non-linear filter process that includes a neural network, and information indicating an operation parameter of a non-linear filter to be used in the non-linear filter process wherein in the encoding of the image, a process to be used for encoding the image is switched (S142, S152, S162), according to the switch information, between the non-linear filter process and the linear process in the intra prediction, and wherein in the non-linear filter process, the neural network is input the reference pixels to be used, respectively, as input nodes and outputs predicted pixels of the intra predicted block. predicting (S121, S122) a block to be reconstructed, using intra prediction in which pixels among neighboring pixels above and neighboring pixels to the left of the block in an image including the block are used as reference pixels; transforming the image including the block on a block basis; reconstructing the block transformed; and performing an in-loop filter on the reconstructed block; characterized by encoding switch information indicating, as a process to be used in the intra prediction, one of a linear process having a fixed parameter indicating an intra prediction mode and a non-linear filter process that includes a neural network, and information indicating an operation parameter of a non-linear filter to be used in the non-linear filter process wherein in the encoding of the image, a process to be used for encoding the image is switched (S142, S152, S162), according to the switch information, between the non-linear filter process and the linear process in the intra prediction, and wherein in the non-linear filter process, the neural network is input the reference pixels to be used, respectively, as input nodes and outputs predicted pixels of the intra predicted block.
Hydraulic system of a mobile work machine, in particular an industrial truck, having a pump for the common supply of a hydraulic steering device and working hydraulics comprising at least one consumer, a priority valve for the preferred supply of the steering device being arranged in a delivery line of the pump and being connected to the steering device by means of a delivery branch line and to the working hydraulics by a delivery branch line, characterized in that a safety device is provided which prevents undesired actuation of the consumers of the working hydraulics, the safety device comprising a shut-off valve device which is arranged in the delivery branch line led to the working hydraulics and which, when the consumers of the working hydraulics are not activated, is controlled into a blocking position and, when the consumers of the working hydraulics are activated, can be opened into an open position under control.
A scintillator for an imaging device, comprising a first plate of a first material able to emit photons (Φ) as a function of an incident radiation, and at least a second plate of a second material able to emit photons (Φ) as a function of the incident radiation, the first plate and the second plate being assembled by respective edge surfaces of the first plate and of the second plate by connecting means, at least the first material is a crystal of a material of density greater than 5 g/cm 3, and one of the two largest faces of at least the first plate is opaque and absorbent, characterized in that the connecting means are means absorbing some or all of the photons (Φ) emitted by the plates (4, 5), in which the edge surfaces are optically polished.
An occlusion device comprising: (a) a self-expanding support frame having a longitudinal axis and comprising, in a plan top view, a plurality of adjacent loops each having an orifice, said support frame being self-expandable from a constrained shape to an unconstrained shape and (b) a covering material covering an orifice of at least one of the loops, wherein, in an elevation side view, the support frame has a cosinusoidal shape.
An exhaust gas treatment method comprising: a first combustion step of treating a first exhaust gas discharged from a carbonization furnace for carbonizing a fibrous substance in an inert atmosphere and a graphitization furnace for graphitizing a fibrous substance in an inert atmosphere; and a second combustion step of treating a second exhaust gas discharged from a flameproofing furnace for flameproofing a fibrous substance in air atmosphere; wherein the first exhaust gas is combusted at an oxygen ratio of 0.8 or less in the first combustion step, and the second exhaust gas is combusted in the second combustion step using sensible heat and latent heat of a third exhaust gas discharged in the first combustion step; wherein the first exhaust gas is combusted at 1,000 to 1,600°C in the first combustion step, and the second exhaust gas is combusted at 700 to 1,200°C in the second combustion step. a first combustion step of treating a first exhaust gas discharged from a carbonization furnace for carbonizing a fibrous substance in an inert atmosphere and a graphitization furnace for graphitizing a fibrous substance in an inert atmosphere; and a second combustion step of treating a second exhaust gas discharged from a flameproofing furnace for flameproofing a fibrous substance in air atmosphere; wherein the first exhaust gas is combusted at an oxygen ratio of 0.8 or less in the first combustion step, and the second exhaust gas is combusted in the second combustion step using sensible heat and latent heat of a third exhaust gas discharged in the first combustion step; wherein the first exhaust gas is combusted at 1,000 to 1,600°C in the first combustion step, and the second exhaust gas is combusted at 700 to 1,200°C in the second combustion step.
Vehicle provided with a safety system, the safety system comprising: - a window breaker comprising: - a drive system; and - a pin driven by the drive system for breaking a window; - activating means operatively connected to the drive system for control thereof, characterized in that the activating means comprise a water sensor (14, 102, 104) for controlling the drive system therewith, wherein the window breaker is positioned close to a window of the vehicle such that the pin breaks the window through activation of the system, wherein the window breaker is integrated in a door or wall of the vehicle, and wherein the pin is directed at a peripheral side of the window. - a window breaker comprising: - a drive system; and - a pin driven by the drive system for breaking a window; - a drive system; and - a pin driven by the drive system for breaking a window; - activating means operatively connected to the drive system for control thereof,
A method for making an isomalto-oligosaccharide grain composition said method comprising: (a) contacting a ungelatinized starch in grain with an exogenous maltogenic enzyme and a starch liquefying enzyme to produce maltose wherein said starch liquefying enzyme is an alpha amylase; (b) contacting said maltose with a transglucosidic enzyme, wherein said steps (a) and (b) occur at a temperature less than or at the gelatinization temperature of said starch; and (c) obtaining a grain composition having an enzymatically produced isomalto-oligosaccharide, wherein said oligosaccharide is obtained from said grain. (a) contacting a ungelatinized starch in grain with an exogenous maltogenic enzyme and a starch liquefying enzyme to produce maltose wherein said starch liquefying enzyme is an alpha amylase; (b) contacting said maltose with a transglucosidic enzyme, wherein said steps (a) and (b) occur at a temperature less than or at the gelatinization temperature of said starch; and (c) obtaining a grain composition having an enzymatically produced isomalto-oligosaccharide, wherein said oligosaccharide is obtained from said grain.
A transmitter lens for a lidar sensor system, the transmitter lens (11, 11', 20) comprising a back portion (19, 19'), the back portion (19, 19') having a convex shape in a first direction and in a second direction, the first direction being perpendicular to the second direction, the transmitter lens (11, 11', 20) comprising a front portion (18, 18'), the front portion (18, 18') comprising one or more prismatic elements (21-33, 21'-33')for directing light rays,, the prismatic elements (21-33, 21'-33') comprising respective front surfaces (39, 40, 41), wherein an array of microlenses (12, 12') is provided at the front surfaces (39, 40, 41) of the prismatic elements (21-33, 21'-33') for shaping bundles of emitted light rays, characterized in that the prismatic elements (21-33, 21'-33') being aligned in parallel to the first direction with respect to a lateral boundary of the prismatic elements (21-33, 21'-33'), wherein the lateral boundary of the prismatic elements (21-33, 21'-33') which separates the prismatic elements (21-33, 21'-33') from each other is aligned in parallel to the first direction.
A method for partially treating the surface or the entire cross-section of a wood composite board or a pre-compacted wood composite fleece or wood fibre cake by means of a combined application and pressure impregnation device, featuring the following steps: a) fixing the wood composite board or the pre-compacted wood composite fleece or the wood fibre cake to a workbench, b) placing at least one application unit on the upper side and/or the underside of the wood composite board, the wood composite fleece or the wood fibre cake, c) selectively moving the at least one application unit on the upper side and/or underside and pressing in an improving medium in a quantity of up to 1 to 2 kg/m 2 to completely impregnate the wood composite board, the wood composite fleece or the wood fibre cake under a predetermined pressure, d) where applicable, subsequently pressing the pre-compacted wood composite fleece or the wood fibre cake to produce a wood composite board of the desired strength. a) fixing the wood composite board or the pre-compacted wood composite fleece or the wood fibre cake to a workbench, b) placing at least one application unit on the upper side and/or the underside of the wood composite board, the wood composite fleece or the wood fibre cake, c) selectively moving the at least one application unit on the upper side and/or underside and pressing in an improving medium in a quantity of up to 1 to 2 kg/m 2 to completely impregnate the wood composite board, the wood composite fleece or the wood fibre cake under a predetermined pressure, d) where applicable, subsequently pressing the pre-compacted wood composite fleece or the wood fibre cake to produce a wood composite board of the desired strength.
Method for operating a digital security token in a data network terminal, wherein the digital security token is used for authenticating a user who is using the data network terminal, and the method for detecting unauthorized copies of the digital security token has the following steps: - provision of the digital security token in the data network terminal, wherein the digital security token has a test characteristic (Pz), which is stored in the data network terminal in a manner protected against unauthorized access by means of a user code, and wherein information about the test characteristic (Pz) and its connection to the data network terminal device is stored in a server integrated into the data network; - examination of the test characteristic (Pz) by the server based on the information about the test characteristic (Pz) and its connection to the user in the context of a periodic routine examination, wherein the server transmits to the data network terminal a new test characteristic (Pz) which is necessary for the continued operation of the security token and replaces the examined test characteristic (Pz) for continued operation only if the examined test characteristic (Pz) is accurate. - provision of the digital security token in the data network terminal, wherein the digital security token has a test characteristic (Pz), which is stored in the data network terminal in a manner protected against unauthorized access by means of a user code, and wherein information about the test characteristic (Pz) and its connection to the data network terminal device is stored in a server integrated into the data network; - examination of the test characteristic (Pz) by the server based on the information about the test characteristic (Pz) and its connection to the user in the context of a periodic routine examination, wherein the server transmits to the data network terminal a new test characteristic (Pz) which is necessary for the continued operation of the security token and replaces the examined test characteristic (Pz) for continued operation only if the examined test characteristic (Pz) is accurate.
An aircraft including a device for aiding the localization of the wreck of an aircraft submerged in a sea water expanse, said device comprising at least one beacon being able to emit signals (15A, 15B) able to be detected remotely and being arranged inside the aircraft, and means for automatically ejecting said beacon floating out of the fuselage of the aircraft, upon an immersion of the latter, as well as means for automatically triggering the emission of said signals (15A, 15B) after said ejection, characterized in that said ejection means comprise a piston system including an ejection tube provided with a piston, the piston comprising a plug for stamping the skin of the aircraft in order to generate an opening in the fuselage, the piston being hollow and comprising a casing wherein at least the beacon is housed, and in that, when said piston reaches the end of its stroke, it comes in abutment on the ejection tube so as to prevent the piston from being ejected from the structure of the aircraft, the stamping plug and the beacon being then ejected, simultaneously and separately.
A non-access stratum, NAS, connection establishment method, comprising: a radio access network node receiving an Access Stratum, AS, message carrying a non-access stratum, NAS, request message from a machine type communication, MTC, user equipment, UE, wherein, the AS message further carries a request reason of the AS request message; the radio access network node converting the request reason in the AS message into priority indication information, and sending a signaling to a core network node, wherein the signaling comprises the priority indication information and the NAS request message; the core network node determining a priority of the NAS request message based on the priority indication information in the signaling; when a congestion occurs in the core network, the core network node sends a rejection response message to a UE that sends an NAS request message with a low priority; wherein, the signaling comprising the priority indication information and the NAS request message carried in the AS message comprising: respectively saving the priority indication information and the NAS request message carried in the AS message into separate control fields of the signaling; wherein, the priority indication information is saved in a newly-added control field or an originally-reserved control field in the signaling. a radio access network node receiving an Access Stratum, AS, message carrying a non-access stratum, NAS, request message from a machine type communication, MTC, user equipment, UE, wherein, the AS message further carries a request reason of the AS request message; the radio access network node converting the request reason in the AS message into priority indication information, and sending a signaling to a core network node, wherein the signaling comprises the priority indication information and the NAS request message; the core network node determining a priority of the NAS request message based on the priority indication information in the signaling; when a congestion occurs in the core network, the core network node sends a rejection response message to a UE that sends an NAS request message with a low priority; wherein, the signaling comprising the priority indication information and the NAS request message carried in the AS message comprising: respectively saving the priority indication information and the NAS request message carried in the AS message into separate control fields of the signaling; wherein, the priority indication information is saved in a newly-added control field or an originally-reserved control field in the signaling.
A variable size seat, in particular for aircrafts, comprising a backrest, a fixed supporting frame, a sitting portion which is formed by a first rear portion and by a second front portion separated longitudinally, and a positioning mechanism, placed below the sitting portion, connected to the supporting frame, thereby the sitting portion moves from a first configuration, wherein the rear portion is in a lifted position and the front portion is in a vertical position, to a second configuration, wherein the rear portion is in a lowered position due to the effect of a load which weighing thereupon and the front portion is in a horizontal position, aligned to said rear portion, characterized in that the positioning mechanism comprises a fixed supporting element, connected to the supporting frame, a movable resting plate, which is positioned between the supporting element and the rear portion of the sitting portion, and a tilting plate, connected to the resting plate by means of one or more levers, which supports said front portion of the sitting portion.
A control architecture for a vehicle, the control architecture comprising: - a plurality of controllers (1, 2); and - a plurality of commanded components (7, 8); wherein, each of the plurality of controllers is communicatively (3, 4, 5, 6) connected to all of the plurality of commanded components; wherein, each of the plurality of controllers is configured to send commands to be executed by one or more of the plurality of commanded components; characterised in that: each of the plurality of commanded components is configured to determine that one of the plurality of controllers is a master controller on the basis of at least one signal transmitted from at least one of the plurality of controllers to the plurality of commanded components, and wherein the at least one signal comprises a trigger signal; and wherein the at least one signal comprises at least two signals transmitted from at least two controllers of the plurality of controllers, and wherein the controller of the at least two controllers from which a signal is received first is determined as the master controller. - a plurality of controllers (1, 2); and - a plurality of commanded components (7, 8); wherein, each of the plurality of controllers is communicatively (3, 4, 5, 6) connected to all of the plurality of commanded components; wherein, each of the plurality of controllers is configured to send commands to be executed by one or more of the plurality of commanded components; characterised in that: each of the plurality of commanded components is configured to determine that one of the plurality of controllers is a master controller on the basis of at least one signal transmitted from at least one of the plurality of controllers to the plurality of commanded components, and wherein the at least one signal comprises a trigger signal; and wherein the at least one signal comprises at least two signals transmitted from at least two controllers of the plurality of controllers, and wherein the controller of the at least two controllers from which a signal is received first is determined as the master controller. each of the plurality of commanded components is configured to determine that one of the plurality of controllers is a master controller on the basis of at least one signal transmitted from at least one of the plurality of controllers to the plurality of commanded components, and wherein the at least one signal comprises a trigger signal; and wherein the at least one signal comprises at least two signals transmitted from at least two controllers of the plurality of controllers, and wherein the controller of the at least two controllers from which a signal is received first is determined as the master controller.