mhurhangee/ep-ind-claims huggingface dataset:
A highlight projector system comprising: an image processor configured to process image data to yield a base image and a highlight image comprising highlight areas, wherein the processing the image data comprises trading off a peak luminance against an area of the highlight areas by identifying pixels in the image data as belonging to the highlight areas according to a first criterion, and if a large number of pixels are identified to belong to the highlight areas, determining whether to apply a second criterion to reduce the number of pixels included in the highlight areas based on a histogram analysis, wherein applying the first criterion comprises comparing a luminance of pixels in the image data to a first threshold and identifying pixels in the image data, for which the luminance exceeds the first threshold, as belonging to the highlight areas; and a highlight projector (20; 50; 80) operable to project light according to the highlight image superposed and in registration with the base image, in order to provide increased luminance in the highlight areas. an image processor configured to process image data to yield a base image and a highlight image comprising highlight areas, wherein the processing the image data comprises trading off a peak luminance against an area of the highlight areas by identifying pixels in the image data as belonging to the highlight areas according to a first criterion, and if a large number of pixels are identified to belong to the highlight areas, determining whether to apply a second criterion to reduce the number of pixels included in the highlight areas based on a histogram analysis, wherein applying the first criterion comprises comparing a luminance of pixels in the image data to a first threshold and identifying pixels in the image data, for which the luminance exceeds the first threshold, as belonging to the highlight areas; and a highlight projector (20; 50; 80) operable to project light according to the highlight image superposed and in registration with the base image, in order to provide increased luminance in the highlight areas.
A sealant composition comprising: at least one latex polymer; at least one freeze thaw stabilizer, wherein the at least one freeze thaw stabilizer includes a diol, propylene glycol, an alcohol, ethylene glycol, glycol, an ether, or a polyoxyethylated non-ionic; and at least one peptone being an enzymatic hydrolysate; characterized in that said latex polymer is an acrylic latex polymer with a Glass Transition Temperature (Tg) of below l°C. at least one latex polymer; at least one freeze thaw stabilizer, wherein the at least one freeze thaw stabilizer includes a diol, propylene glycol, an alcohol, ethylene glycol, glycol, an ether, or a polyoxyethylated non-ionic; and at least one peptone being an enzymatic hydrolysate; characterized in that said latex polymer is an acrylic latex polymer with a Glass Transition Temperature (Tg) of below l°C.
A turbine engine comprising a bearing housing for a turbine engine, said bearing enclosure being delimited between a rotor rotatably movable about a reference axis and a stator comprising a bearing bracket on which a bearing laying against said rotor is mounted, said enclosure including means for feeding lubricant to said bearing and means for recovering lubricant, said enclosure including an air-flow circuit through said bearing enclosure of turbine engine in which a lubricant can be injected, the air-flow circuit including: - supply means arranged to supply air into the bearing enclosure, - discharging means arranged to discharge at least some of the air-lubricant mixture contained in the bearing enclosure; - an oil-removal system connected to the discharging means, the oil-removal system being capable of separating the lubricant from the air contained in the air-lubricant mixture coming from the discharging means; the air-flow circuit further including a compressor disposed between the discharging means and the oil-removal system, the compressor being capable of increasing the pressure of the air-lubricant mixture at the intake of the oil-removal system, - drawing means containing air at atmospheric pressure, the drawing means of the air-flow circuit being connected to these drawing means. - supply means arranged to supply air into the bearing enclosure, - discharging means arranged to discharge at least some of the air-lubricant mixture contained in the bearing enclosure; - an oil-removal system connected to the discharging means, the oil-removal system being capable of separating the lubricant from the air contained in the air-lubricant mixture coming from the discharging means; the air-flow circuit further including a compressor disposed between the discharging means and the oil-removal system, the compressor being capable of increasing the pressure of the air-lubricant mixture at the intake of the oil-removal system, - drawing means containing air at atmospheric pressure, the drawing means of the air-flow circuit being connected to these drawing means.
A process for producing a DDR-type zeolite comprising: a raw material solution preparation step of preparing a raw material solution containing 1-adamantaneamine hydrochloride, silica (SiO 2), and water at a 1-adamantaneamine hydrochloride / SiO 2 molar ratio of 0.002 to 0.5 and a water / SiO 2 molar ratio of 10 to 500, and a crystal growth step of subjecting the raw material solution and a DDR-type zeolite powder to a heat treatment in a state that both the raw material solution and the DDR-type zeolite powder are brought into contact with each other to grow crystals of the DDR-type zeolite by the use of the DDR-type zeolite powder as seed crystals. a raw material solution preparation step of preparing a raw material solution containing 1-adamantaneamine hydrochloride, silica (SiO 2), and water at a 1-adamantaneamine hydrochloride / SiO 2 molar ratio of 0.002 to 0.5 and a water / SiO 2 molar ratio of 10 to 500, and a crystal growth step of subjecting the raw material solution and a DDR-type zeolite powder to a heat treatment in a state that both the raw material solution and the DDR-type zeolite powder are brought into contact with each other to grow crystals of the DDR-type zeolite by the use of the DDR-type zeolite powder as seed crystals.
An axial swirler for a gas turbine burner, comprising a plurality of swirl vanes with a streamline cross-section being arranged around a swirler axis and extending in radial direction between an inner radius (R min) and an outer radius (R max), each swirl vane having a leading edge, a trailing edge, and a suction side and a pressure side extending each between said leading and trailing edges (25,24), wherein a discharge flow angle (α) between a tangent to the swirl vane camber line at its trailing edge and the swirler axis is a first function of a radial distance from the swirler axis, and a position of maximum camber of the swirl vane is a second function of a radial distance from the swirler axis, characterized in that the trailing edge of each swirl vane is straight and for at least one swirl vane said first and second functions are both non-monotonic and comprise each a respective local maximum and local minimum values along said radial distance from R min to R max
A method performed by a Control Plane, CP, entity, the method comprising: receiving an indication from a User Plane, UP, entity that a feature Measure Number Of Packets, MNOP, is supported; determining that packet counting should be performed by the UP entity; instructing the UP entity to count packets, comprising sending an Information Element, IE, that conveys measurement instructions, wherein the measurement instructions indicate that the measurement method is to count the packets; identifying a recipient of a packet count, comprising: - indicating a Uniform Resource Identifier, URI, for sending packet count measurement reports, or - receiving a usage report comprising the packet count in accordance with the measurement instructions. receiving an indication from a User Plane, UP, entity that a feature Measure Number Of Packets, MNOP, is supported; determining that packet counting should be performed by the UP entity; instructing the UP entity to count packets, comprising sending an Information Element, IE, that conveys measurement instructions, wherein the measurement instructions indicate that the measurement method is to count the packets; identifying a recipient of a packet count, comprising: - indicating a Uniform Resource Identifier, URI, for sending packet count measurement reports, or - receiving a usage report comprising the packet count in accordance with the measurement instructions. - indicating a Uniform Resource Identifier, URI, for sending packet count measurement reports, or - receiving a usage report comprising the packet count in accordance with the measurement instructions.
A needle register for injection devices for injecting liquid into food products, comprising a needle carrier forming a distribution chamber for the liquid, a plurality of parallel hollow needles held on the needle carrier such that a respective portion of the needle, the portion including a supply opening for supplying the liquid into the needle, lies within the distribution chamber or is at least movable into the distribution chamber, characterized characterized in that the needle carrier is divided into a plurality of segments which adjoin one another and each form a part of the distributon chamber, and in that the parts of the distributon chamber adjoin one another flush at the butt joints of the segments.
An audio transducer apparatus comprising: a magnet assembly comprising at least two magnet assembly components including at least one magnet (44, 44a, 44b) and a first pole piece (46, 46a, 46b, 46c) arranged on a first side of the at least one magnet (44, 44a, 44b); wherein the apparatus comprises an eddy current heating reduction system configured to reduce heating of the magnet assembly by magnetic fields, where the eddy current heating reduction system comprises electrical insulation provided between the at least one magnet (44, 44a, 44b) and the first pole piece (46, 46a, 46b, 46c), and wherein the eddy current heating reduction system is configured such that at least one of the at least one magnet (44, 44a, 44b) and the first pole piece (46, 46a, 46b, 46c) is provided with a divided current loop area having at least two planar spaced subsections (47a, 47b, 47c, 47d) formed by at least one cut or gap, where the at least two planar spaced subsections (47a, 47b, 47c, 47d) are aligned in a common plane forming a majority of the divided current loop area in the common plane. a magnet assembly comprising at least two magnet assembly components including at least one magnet (44, 44a, 44b) and a first pole piece (46, 46a, 46b, 46c) arranged on a first side of the at least one magnet (44, 44a, 44b); wherein the apparatus comprises an eddy current heating reduction system configured to reduce heating of the magnet assembly by magnetic fields, where the eddy current heating reduction system comprises electrical insulation provided between the at least one magnet (44, 44a, 44b) and the first pole piece (46, 46a, 46b, 46c), and wherein the eddy current heating reduction system is configured such that at least one of the at least one magnet (44, 44a, 44b) and the first pole piece (46, 46a, 46b, 46c) is provided with a divided current loop area having at least two planar spaced subsections (47a, 47b, 47c, 47d) formed by at least one cut or gap, where the at least two planar spaced subsections (47a, 47b, 47c, 47d) are aligned in a common plane forming a majority of the divided current loop area in the common plane.
A transistor comprising: a III-nitride-based channel layer; a III-nitride-based semiconductor first cap layer on the III-nitride-based channel layer; first and second III-nitride-based semiconductor second cap layers on the first cap layer, comprising recesses adjacent the first and second second cap layers; ohmic contacts disposed directly on top of the first cap layer, adjacent respective sidewalls of the first and second second cap layers; and a corresponding gate contact disposed directly on the first cap layer in the recess between the first and second second cap layers. a III-nitride-based channel layer; a III-nitride-based semiconductor first cap layer on the III-nitride-based channel layer; first and second III-nitride-based semiconductor second cap layers on the first cap layer, comprising recesses adjacent the first and second second cap layers; ohmic contacts disposed directly on top of the first cap layer, adjacent respective sidewalls of the first and second second cap layers; and a corresponding gate contact disposed directly on the first cap layer in the recess between the first and second second cap layers.
A method comprising the steps of: receiving a signal comprising a three dimensional image signal representing a left eye image and a right eye image; encoding the left eye image as a reference image using a two dimensional encoding process; apportioning motion blocks in the encoded left eye image, the motion block size of the motion blocks being a fixed number of pixels; predictively coding, in the two dimensional encoding process, the right eye image using the coded left eye image as the reference image, the predictive coding using unidirectional prediction between the right eye image and the left eye image as if the right eye image and the left eye occurred consecutively even though the right eye image and the left eye image are intended to be viewed simultaneously; capturing motion vectors generated from the two dimensional encoding process during the predictive coding of the right eye image; and generating a granular disparity map between the left eye image the right eye image by filtering the motion vectors, the granular disparity map being an indication, with picture level granularity of equal to the apportioned motion block size, of the horizontal disparity between the left view and right view pictures; determining a pixel level disparity map from the granular disparity map by interpolating differences in horizontally adjacent disparity values in at least three consecutive motion blocks; generating a dense disparity map by combining the pixel level disparity map and an occlusion map, the occlusion map generated from the pixel level disparity map. receiving a signal comprising a three dimensional image signal representing a left eye image and a right eye image; encoding the left eye image as a reference image using a two dimensional encoding process; apportioning motion blocks in the encoded left eye image, the motion block size of the motion blocks being a fixed number of pixels; predictively coding, in the two dimensional encoding process, the right eye image using the coded left eye image as the reference image, the predictive coding using unidirectional prediction between the right eye image and the left eye image as if the right eye image and the left eye occurred consecutively even though the right eye image and the left eye image are intended to be viewed simultaneously; capturing motion vectors generated from the two dimensional encoding process during the predictive coding of the right eye image; and generating a granular disparity map between the left eye image the right eye image by filtering the motion vectors, the granular disparity map being an indication, with picture level granularity of equal to the apportioned motion block size, of the horizontal disparity between the left view and right view pictures; determining a pixel level disparity map from the granular disparity map by interpolating differences in horizontally adjacent disparity values in at least three consecutive motion blocks; generating a dense disparity map by combining the pixel level disparity map and an occlusion map, the occlusion map generated from the pixel level disparity map.
An apparatus, (300, 400) comprising: a first plurality of volatile memories (320, 420); a non-volatile memory (330, 430); a controller (333, 433) coupled to the non-volatile memory and being configured to detect an event configured to trigger a backup operation; the controller including a first controller output; a connector (302, 402); a registering clock driver, RCD (310, 410), including a first RCD output; and a first multiplexer (336, 436) including a first mux input coupled to the first RCD output, a second mux input coupled to the first controller output, and a first mux output coupled to the first plurality of volatile memories; wherein the connector is configured to receive first command/address signals for the first plurality of volatile memories; wherein the connector is further configured to provide the first command/address signals to the RCD to generate memory command/address signals, wherein the RCD is configured to provide the memory command/address signals to the first mux input, wherein the controller is configured to provide backup command/address signals to the second input of the multiplexer; wherein the first multiplexer is configured to provide the memory command/address signals to the first plurality of volatile memories; and providing the backup command/address signals to the volatile memory to copy data from the volatile memory to the non-volatile memory a first plurality of volatile memories (320, 420); a non-volatile memory (330, 430); a controller (333, 433) coupled to the non-volatile memory and being configured to detect an event configured to trigger a backup operation; the controller including a first controller output; a connector (302, 402); a registering clock driver, RCD (310, 410), including a first RCD output; and a first multiplexer (336, 436) including a first mux input coupled to the first RCD output, a second mux input coupled to the first controller output, and a first mux output coupled to the first plurality of volatile memories; wherein the connector is configured to receive first command/address signals for the first plurality of volatile memories; wherein the connector is further configured to provide the first command/address signals to the RCD to generate memory command/address signals, wherein the RCD is configured to provide the memory command/address signals to the first mux input, wherein the controller is configured to provide backup command/address signals to the second input of the multiplexer; wherein the first multiplexer is configured to provide the memory command/address signals to the first plurality of volatile memories; and providing the backup command/address signals to the volatile memory to copy data from the volatile memory to the non-volatile memory
Device for disposing of used chewing gums, comprising, - a facility which is suited to receive chewing gum; and - a exchangeable vessel for the retention, storage, keeping and/or collection of chewing gum; whereby the vessel is arranged underneath the facility and protrudes beyond its front and is at least partially open on a top side; and - the facility is, on its front face, provided with a layer of such constitution that the chewing gum sticks to it at least temporarily; characterized in that - a completely and/or partially closed body comprising assembled, plane sides, bottom and top, wherein the facility is arranged at a front face of the body, and - the vessel ∘ is exchangeably and/or removably inserted or insertable into the body from the front, or ∘ is provided with an appropriate lining and/or a liquid for facilitating its emptying. - a facility which is suited to receive chewing gum; and - a exchangeable vessel for the retention, storage, keeping and/or collection of chewing gum; whereby the vessel is arranged underneath the facility and protrudes beyond its front and is at least partially open on a top side; and - the facility is, on its front face, provided with a layer of such constitution that the chewing gum sticks to it at least temporarily; - a completely and/or partially closed body comprising assembled, plane sides, bottom and top, wherein the facility is arranged at a front face of the body, and - the vessel ∘ is exchangeably and/or removably inserted or insertable into the body from the front, or ∘ is provided with an appropriate lining and/or a liquid for facilitating its emptying. ∘ is exchangeably and/or removably inserted or insertable into the body from the front, or ∘ is provided with an appropriate lining and/or a liquid for facilitating its emptying.
A network, comprising: a plurality of network switches (112-1, 112-2, 112-3, 112-4) connected via links; and a controller external to the plurality of network switches, the controller adapted to monitor a logical topology of a network, and identify a link that is blocked by a Spanning Tree Protocol,STP, wherein the controller is adapted to configure at least one of the network switches to identify specific traffic having at least one of a priority requirement, latency requirement, packet-loss requirement or security requirement different from that of general traffic, based on at least one of a priority, source or content type of the specific traffic; and the controller is adapted to configure via the Openflow protocol the at least one of the network switches to transmit the specific traffic along the blocked link while not allowing general traffic to traverse the blocked link, characterized in that the plurality of network switches are configured to operate according to the Openflow protocol for the specific traffic and STP protocol for the general traffic, wherein the STP protocol is a switch-to-switch protocol in which the plurality of network switches are peers and a global view of the entire network is unknown. a plurality of network switches (112-1, 112-2, 112-3, 112-4) connected via links; and a controller external to the plurality of network switches, the controller adapted to monitor a logical topology of a network, and identify a link that is blocked by a Spanning Tree Protocol,STP, wherein the controller is adapted to configure at least one of the network switches to identify specific traffic having at least one of a priority requirement, latency requirement, packet-loss requirement or security requirement different from that of general traffic, based on at least one of a priority, source or content type of the specific traffic; and the controller is adapted to configure via the Openflow protocol the at least one of the network switches to transmit the specific traffic along the blocked link while not allowing general traffic to traverse the blocked link, characterized in that the plurality of network switches are configured to operate according to the Openflow protocol for the specific traffic and STP protocol for the general traffic, wherein the STP protocol is a switch-to-switch protocol in which the plurality of network switches are peers and a global view of the entire network is unknown.