mhurhangee/ep-ind-claims huggingface dataset:
A method of encoding a video signal in a hybrid encoder, comprising: receiving an original video signal including at least one video segment; obtaining an optimal quantized coefficient vector c; and entropy-encoding the optimal quantized coefficient vector c, determining an optimal matrix set by performing a rate-distortion optimization process for each of the at least one video segment, characterized in that the optimal matrix set includes three diagonal matrices S, W and Q, S representing a diagonal spatial domain scaling matrix, W representing another diagonal matrix and Q representing a diagonal quantization matrix; obtaining the optimal quantized coefficient vector c based on the optimal matrix set according to the following equation c = arg min a ∈ Z N D W x − p − ST − 1 Q − 1 a wherein D W (v) = v T W 2 v, and wherein x represents a vector of input video signal data, p and T respectively represent a signal vector predicted and the transform matrix used within video encoding, and Z N represents the integer numbers; and at least matrices S and Q of the matrix set are encoded as side information, prior to encoding the pixel data of each of the at least one video segment. receiving an original video signal including at least one video segment; obtaining an optimal quantized coefficient vector c; and entropy-encoding the optimal quantized coefficient vector c, determining an optimal matrix set by performing a rate-distortion optimization process for each of the at least one video segment, characterized in that the optimal matrix set includes three diagonal matrices S, W and Q, S representing a diagonal spatial domain scaling matrix, W representing another diagonal matrix and Q representing a diagonal quantization matrix; obtaining the optimal quantized coefficient vector c based on the optimal matrix set according to the following equation c = arg min a ∈ Z N D W x − p − ST − 1 Q − 1 a
A composite material comprising: a primary phase which is an alloy comprising a metallic element M and a nonmetallic element X and of which at least a portion is an amorphous phase in an amount of 50 vol % or more based on the entire region of the primary phase; and a secondary phase which is dispersed in the primary phase and comprises a crystalline ceramic compound, the ceramic compound consisting of the metallic element M and the nonmetallic element X and represented by M a X b where a and b are each greater than 0, wherein the metallic element M comprises at least one selected from the group consisting of Fe, Cr, Mo, Ni, Co, Cu, Ti, V, Nb, Ta, W, Mn and Al, and the nonmetallic element X comprises at least one selected from the group consisting of Si, B, C, N, S and P, and wherein the secondary phase in the composite material has a distribution density of 0.2 phase/μm to 1.2 phase/μm, as measured by using an electron microscope. a primary phase which is an alloy comprising a metallic element M and a nonmetallic element X and of which at least a portion is an amorphous phase in an amount of 50 vol % or more based on the entire region of the primary phase; and a secondary phase which is dispersed in the primary phase and comprises a crystalline ceramic compound, the ceramic compound consisting of the metallic element M and the nonmetallic element X and represented by M a X b where a and b are each greater than 0, wherein the metallic element M comprises at least one selected from the group consisting of Fe, Cr, Mo, Ni, Co, Cu, Ti, V, Nb, Ta, W, Mn and Al, and the nonmetallic element X comprises at least one selected from the group consisting of Si, B, C, N, S and P, and wherein the secondary phase in the composite material has a distribution density of 0.2 phase/μm to 1.2 phase/μm, as measured by using an electron microscope.
A method for manufacturing a fiber-reinforced plastic molded body, comprising: accommodating a particle group including rigid particles which have a bending elastic modulus of 50 GPa or more, and a core block which has a larger outer contour volume than the rigid particles and moves with the rigid particles in a flexible bag that can be expanded; disposing the flexible bag as a core inside a prepreg containing a resin and fibers, disposing the prepreg having the core therein inside a molding die (1, 2), followed by compression molding, and pressing a part of an outer surface of the core at the time of the compression molding. accommodating a particle group including rigid particles which have a bending elastic modulus of 50 GPa or more, and a core block which has a larger outer contour volume than the rigid particles and moves with the rigid particles in a flexible bag that can be expanded; disposing the flexible bag as a core inside a prepreg containing a resin and fibers, disposing the prepreg having the core therein inside a molding die (1, 2), followed by compression molding, and pressing a part of an outer surface of the core at the time of the compression molding.
A thermal cycle system, comprising: driving devices, one or a plurality of outdoor units (21, 22, 2L), and a plurality of indoor units (31, 32, 3L), which are connected by pipelines; a bypass pipeline for the plurality of indoor units, a bypass valve being disposed in the bypass pipeline; a pressure sensor (51, 52) that senses a pressure difference ΔP o across the or the plurality of outdoor units; and a controller that is preset with a pressure difference set value ΔP set, wherein the controller calculates a pressure offset parameter ΔP = ΔP o - ΔP set and adjusts an opening degree of the bypass valve based on the pressure offset parameter ΔP so that the pressure offset parameter ΔP approaches zero, and characterised in that the controller is preset with a first pressure offset threshold P 1, and the controller is configured such that closed indoor units enter a bypass mode one by one when ΔP > P 1, until ΔP≤P 1, wherein the indoor unit comprises a heat exchanger and a fan, and the bypass mode is a mode in which a cooling medium flows through the heat exchanger of the indoor unit and the fan of the indoor unit is not operated, or wherein the bypass mode is a mode in which a valve on a direct-through flow path between a fluid inlet and a fluid outlet of the indoor unit is opened. driving devices, one or a plurality of outdoor units (21, 22, 2L), and a plurality of indoor units (31, 32, 3L), which are connected by pipelines; a bypass pipeline for the plurality of indoor units, a bypass valve being disposed in the bypass pipeline; a pressure sensor (51, 52) that senses a pressure difference ΔP o across the or the plurality of outdoor units; and a controller that is preset with a pressure difference set value ΔP set, wherein the controller calculates a pressure offset parameter ΔP = ΔP o - ΔP set and adjusts an opening degree of the bypass valve based on the pressure offset parameter ΔP so that the pressure offset parameter ΔP approaches zero, and characterised in that the controller is preset with a first pressure offset threshold P 1, and the controller is configured such that closed indoor units enter a bypass mode one by one when ΔP > P 1, until ΔP≤P 1, wherein the indoor unit comprises a heat exchanger and a fan, and the bypass mode is a mode in which a cooling medium flows through the heat exchanger of the indoor unit and the fan of the indoor unit is not operated, or wherein the bypass mode is a mode in which a valve on a direct-through flow path between a fluid inlet and a fluid outlet of the indoor unit is opened. wherein the indoor unit comprises a heat exchanger and a fan, and the bypass mode is a mode in which a cooling medium flows through the heat exchanger of the indoor unit and the fan of the indoor unit is not operated, or wherein the bypass mode is a mode in which a valve on a direct-through flow path between a fluid inlet and a fluid outlet of the indoor unit is opened.
A coupler system for coupling a top drive and a tool, comprising: a drive member of the top drive configured to transfer torque, the drive member having: a housing with a bore therethrough; a window formed substantially laterally through the housing; an adapter of the tool configured to be inserted through the window of the housing; and one or more utility connectors longitudinally movable relative to the housing. a drive member of the top drive configured to transfer torque, the drive member having: a housing with a bore therethrough; a window formed substantially laterally through the housing; an adapter of the tool configured to be inserted through the window of the housing; and one or more utility connectors longitudinally movable relative to the housing.
A polyacetylene of formula (C 2 H 2) n, wherein n is greater than 10, and wherein the polyacetylene is in the form of a bulk powder, obtained by a process comprising a gas-phase polymerization of acetylene in the presence of a supported catalyst comprising a solid support, a titanium alkoxide pre-catalyst, and an organoaluminum activating compound, wherein the molar ratio of activating compound to pre-catalyst is below 1.
A door arrangement for a vehicle, with a movable door leaf, with a drive for moving the door leaf between an open and a closed position and with a locking device for the door leaf, wherein the locking device in a locking position prevents the door leaf from opening from a closed position and in a releasing position enables opening the door leaf from a closed position, wherein the locking device can be moved from the locking position to the releasing position by means of the drive, and wherein the drive has a traction means for transmitting a driving force onto the door leaf and/or onto the locking device, wherein the door leaf is equipped with a coupling device for coupling with the drive, characterized in that the coupling device is fixed to the door leaf, in that the coupling device is designed as a support arm and has a U-shaped portion, with a base portion and two leg portions protruding from the base portion, wherein the U-shaped portion adjoins or is connected to a mounting portion of the coupling device for mounting on the door leaf, and in that the U-shaped portion has at least one opening through which the traction means of the drive protrudes and/or that the leg portions of the U-shaped portion each comprise an opening through which the traction means can protrude.
Motor vehicle door latch, with a locking mechanism (1, 2), and with a closure/opening device (7 to 16) with at least one drive (7 to 11 and 13, 14), at least one transmission element (12, 15) and one drive pawl, whereby the drive (7 to 11 and 13, 14) works on the drive pawl with interposition of the transmission element (12, 15), in order to open or close the locking mechanism (1. 2), whereby a mechanical and/or electrical opening drive (7 to 11) and a mechanical and/or electrical closure drive (13, 14) with respectively pertaining opening transmission lever and a closure transmission lever are executed, whereby the opening drive (7 to 11) including the opening transmission lever in addition to the opening function for the locking mechanism (1, 2) is also set up to interrupt a closure function initiated by the closure drive (13, 14) in conjunction with the closure transmission lever, characterized in that the ejector lever is accommodated coaxially with the closure pawl.
A method comprising: receiving by a dedicated network device a request from a device to determine a location of the device, wherein the request comprises fingerprint data, said fingerprint data comprising signals received from one or more radio frequency devices (30, 32, 34, 36, 44, 45, 46); and evaluating the received fingerprint data and determining whether corresponding fingerprint data associated with at least one geographical location of the radio frequency devices (30, 32, 34, 36, 44, 45, 46) has already been stored in the dedicated network device; when the corresponding fingering data has been stored in the dedicated network device, estimating a location of the device and providing the estimated location of the device to the device; characterised in that when the corresponding fingerprint data has not been stored in the dedicated network device, generating a request to a network entity to determine the location of the device, wherein the request comprises the received fingerprint data and false fingerprint data that relates to one or more locations that do not correspond to a current location of the device; and receiving the determined location of the device and the locations that do not correspond to the location of the device; discarding the locations that do not correspond to the current location of the device; and providing the determined location to the device said fingerprint data and the corresponding location data received from the network entity being available for subsequent location requests from the device. receiving by a dedicated network device a request from a device to determine a location of the device, wherein the request comprises fingerprint data, said fingerprint data comprising signals received from one or more radio frequency devices (30, 32, 34, 36, 44, 45, 46); and evaluating the received fingerprint data and determining whether corresponding fingerprint data associated with at least one geographical location of the radio frequency devices (30, 32, 34, 36, 44, 45, 46) has already been stored in the dedicated network device; when the corresponding fingering data has been stored in the dedicated network device, estimating a location of the device and providing the estimated location of the device to the device; characterised in that when the corresponding fingerprint data has not been stored in the dedicated network device, generating a request to a network entity to determine the location of the device, wherein the request comprises the received fingerprint data and false fingerprint data that relates to one or more locations that do not correspond to a current location of the device; and receiving the determined location of the device and the locations that do not correspond to the location of the device; discarding the locations that do not correspond to the current location of the device; and providing the determined location to the device said fingerprint data and the corresponding location data received from the network entity being available for subsequent location requests from the device.
A fog lamp mounting structure comprising a front bumper skin, a fog lamp bracket mounted on the front bumper skin, and a fog lamp cover plate mounted on the fog lamp bracket, characterized in that the fog lamp cover plate comprises a cover plate main body, a plurality of holding parts, in a hook shape, formed by flanging inwards from a top edge of the cover plate main body for holding an edge of the fog lamp bracket, and a plurality of cover plate buckles provided at a bottom edge of the cover plate main body; wherein the fog lamp bracket is provided with cover plate buckle mounting holes engaged with the cover plate buckles by means of a snap fit connection, wherein the fog lamp cover plate is mounted from the top down along the Z direction which refers to the up-down direction of the vehicle.
(3a R,5 s,6a S)- N -(3-methoxyl-1,2,4-thiadiazol-5-yl)-5-(methyl(7 H- pyrrolo [2,3- d]pyrimidin-4-yl)amino)hexahydrocyclopenta[ c]pyrrole-2(1 H)-carboxamide bisulfate of formula,
A control system for a work vehicle comprising: a position determination unit which determines a position of loading on a loaded vehicle based on a state of loading on the loaded vehicle; a display; and a representation control unit which has the display show loading guidance (300, 302) corresponding to the position of loading determined by the position determination unit in a lateral view of the loaded vehicle. a position determination unit which determines a position of loading on a loaded vehicle based on a state of loading on the loaded vehicle; a display; and a representation control unit which has the display show loading guidance (300, 302) corresponding to the position of loading determined by the position determination unit in a lateral view of the loaded vehicle.
Retroreflector (1, 101, 201, 301) comprising an arrangement composed of a plurality of totally reflective triples (3, 103, 203), each having three side surfaces (5, 7, 9, 105, 107, 109, 205, 207), wherein the side surfaces (5, 7, 9, 105, 107, 109, 205, 207) are disposed in the manner of cube corners and enclose an angle between 85° and 95° between each other, wherein the retroreflector (1, 101, 201, 301) is produced from a carrier material by means of injection molding, and wherein the carrier material is an optically transparent silicone resin, preferably a silicone resin based on polydimethylsiloxane, which has a transmissivity of at least 95% in the range of visible light as well as in the near infrared range, at a thickness of 2 mm, wherein the retroreflector is produced on a curved surface, namely a spherical, ellipsoid, toroidal, hyperbolic or parabola-type surface, which comprises a spatial angle greater than π steradian, preferably a spatial angle greater than or equal to 2 π steradian, or on a cylindrical or cone-shaped surface, preferably having a polar angle greater than 180°, in one piece, wherein the surface has undercuts, and wherein the retroreflector can still be unmolded from an injection-molding mold that is used for its production. wherein the side surfaces (5, 7, 9, 105, 107, 109, 205, 207) are disposed in the manner of cube corners and enclose an angle between 85° and 95° between each other, wherein the retroreflector (1, 101, 201, 301) is produced from a carrier material by means of injection molding, and wherein the carrier material is an optically transparent silicone resin, preferably a silicone resin based on polydimethylsiloxane, which has a transmissivity of at least 95% in the range of visible light as well as in the near infrared range, at a thickness of 2 mm, wherein the retroreflector is produced on a curved surface, namely a spherical, ellipsoid, toroidal, hyperbolic or parabola-type surface, which comprises a spatial angle greater than π steradian, preferably a spatial angle greater than or equal to 2 π steradian, or on a cylindrical or cone-shaped surface, preferably having a polar angle greater than 180°, in one piece, wherein the surface has undercuts, and wherein the retroreflector can still be unmolded from an injection-molding mold that is used for its production.
A bearing adapter (44, 144, 154, 160, 344, 404, 444, 452, 580) for installation in a rail road car truck sideframe pedestal (26, 151, 512, 807), said bearing adapter having an upper portion engageable with a pedestal seat (38, 146, 166, 168, 348, 354, 410, 486, 514, 566, 586), and a lower portion engageable with a bearing casing of a rail road car truck wheelset bearing (46, 152), said lower portion having an apex, said lower portion defining a seat for engaging a bearing casing, said seat including a first land portion (450, 502, 504) for engaging a first portion of the bearing casing, a second land portion (450, 502, 504) for engaging a second portion of the bearing casing, said first land portion (450, 502, 504) lying to one side of the apex, said second land portion (450, 502, 504) lying to the other side of the apex, characterized by at least one relief (448, 492, 494, 496) formed at said apex for seating over a bearing race of the bearing (46, 152), said relief (448, 492, 494, 496) being located circumferentially between said first and second land portions (450, 502, 504).
A laundry treating apparatus comprising: a rotatable drum that receives laundry, has open front and rear, and is formed to have a flexible non-circular closed cross-section; a rotatable upper circular guide that is disposed with its rotational center higher than a rotational center of the drum and supports a portion having a uniform curvature at the upper portion of the drum; a rotatable lower circular guide that is disposed with its rotational center lower than the rotational center of the drum and supports a portion having a uniform curvature at the lower portion of the drum; and a driving mechanism (170; 270) rotating the drum by rotating the upper circular guide or the lower circular guide, characterized by: a drum guide (113; 213) covering the edge of the drum in contact with the outer side of the upper circular guide or the lower circular guide, wherein the drum guide (113, 213) is embossed in order not to slip on the upper circular guide or the lower circular guide. a rotatable drum that receives laundry, has open front and rear, and is formed to have a flexible non-circular closed cross-section; a rotatable upper circular guide that is disposed with its rotational center higher than a rotational center of the drum and supports a portion having a uniform curvature at the upper portion of the drum; a rotatable lower circular guide that is disposed with its rotational center lower than the rotational center of the drum and supports a portion having a uniform curvature at the lower portion of the drum; and a driving mechanism (170; 270) rotating the drum by rotating the upper circular guide or the lower circular guide, characterized by: a drum guide (113; 213) covering the edge of the drum in contact with the outer side of the upper circular guide or the lower circular guide, wherein the drum guide (113, 213) is embossed in order not to slip on the upper circular guide or the lower circular guide. a drum guide (113; 213) covering the edge of the drum in contact with the outer side of the upper circular guide or the lower circular guide, wherein the drum guide (113, 213) is embossed in order not to slip on the upper circular guide or the lower circular guide.
A method of preparing a graft copolymer, comprising: batch-adding a first molecular weight controlling agent, a diene-based rubber polymer, an aromatic vinyl-based monomer, and a vinyl cyanide-based monomer to a reactor to initiate polymerization; and after the initiation of polymerization, continuously adding a second molecular weight controlling agent, an aromatic vinyl-based monomer, and a vinyl cyanide-based monomer to the reactor to perform polymerization, wherein the second molecular weight controlling agent includes an alkyl styrene-based dimer and a mercaptan-based compound in a weight ratio of 40.0:60.0 to 70.0:30.0, and the weight ratio of the first molecular weight controlling agent and the second molecular weight controlling agent is 5.0:95.0 to 25.0:75.0. batch-adding a first molecular weight controlling agent, a diene-based rubber polymer, an aromatic vinyl-based monomer, and a vinyl cyanide-based monomer to a reactor to initiate polymerization; and after the initiation of polymerization, continuously adding a second molecular weight controlling agent, an aromatic vinyl-based monomer, and a vinyl cyanide-based monomer to the reactor to perform polymerization, wherein the second molecular weight controlling agent includes an alkyl styrene-based dimer and a mercaptan-based compound in a weight ratio of 40.0:60.0 to 70.0:30.0, and the weight ratio of the first molecular weight controlling agent and the second molecular weight controlling agent is 5.0:95.0 to 25.0:75.0.
A sealing element for sealing a cable (24, 25) inserted into a terminal housing, featuring a passage opening for passing through the cable (24, 25), wherein the sealing element is realized in a disk-shaped fashion with at least one first disk that has an essentially U-shaped circumference and a second disk that has an essentially U-shaped circumference and rests against the first disk, wherein the first disk has two opposing lateral flanks (9a, 9b) that extend parallel to one another, and wherein the first disk has a sealing lip on its upper side that connects the two lateral flanks (9a, 9b) of the first disk to one another, characterized in that the second disk has a first pair of flanks with two opposing lateral flanks (13a, 13b) that are realized conically with respect to one another, and in that the sealing lip is respectively connected to the lateral flanks (9a, 9b) by means of a chamfered connecting region (16a, 16b).