mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: capturing multiple images with depth data of a head of a subject; and determining a rotation matrix and a translation vector associated with a pose of the head in each image of the multiple images relative to a reference coordinate frame using the depth data, wherein determining the rotation matrix and translation vector associated with the pose of the head comprises: extracting feature points on the head in each of the multiple images; generating an edge map of the head using the depth data; and discarding the feature points on edges of the edge map; using the depth data associated with the remaining feature points to determine the rotation matrix and the translation vector of the pose of the head; and tracking the head in the multiple images. capturing multiple images with depth data of a head of a subject; and determining a rotation matrix and a translation vector associated with a pose of the head in each image of the multiple images relative to a reference coordinate frame using the depth data, wherein determining the rotation matrix and translation vector associated with the pose of the head comprises: extracting feature points on the head in each of the multiple images; generating an edge map of the head using the depth data; and discarding the feature points on edges of the edge map; using the depth data associated with the remaining feature points to determine the rotation matrix and the translation vector of the pose of the head; and extracting feature points on the head in each of the multiple images; generating an edge map of the head using the depth data; and discarding the feature points on edges of the edge map; using the depth data associated with the remaining feature points to determine the rotation matrix and the translation vector of the pose of the head; and tracking the head in the multiple images.
- An ammunition conveyor comprising a cradle intended to contain a piece of ammunition, the conveyor comprising wedges evenly distributed angularly around a longitudinal axis of the cradle, said wedges being able to slide radially, through openings, between a position engaged in the cradle and a position disengaged from the cradle by the introduction of a piece of ammunition which pushes the wedges and against the action of at least one elastic means bringing the wedges back into the engaged position, each wedge being lockable in the engaged position by the action of at least one cam secured to the conveyor and having an inclined surface cooperating with at least one inclined plane carried by the wedge, the inclined surfaces and inclined planes being arranged so that an axial translation of the cam, controlled by an actuator, causes a radial translation of the wedge, each wedge then being wedged between the cam and the piece of ammunition and ensuring the immobilization of the piece of ammunition relative to the cradle.
Motor vehicle rear axle cross member system comprising a sheet metal cross member forming in a section perpendicular to its length an open "U", equipped with a support having at its end a fixing intended to receive the end of a guide bar of this cross member arranged in the transverse direction of the vehicle which is the direction perpendicular to the direction of travel of this vehicle, characterized in that it comprises at least two fixing screws which pass through the cross member and a spacer fitted between the two wings of the "U" section of this cross member, to fix the support on the cross member.
An air changeover system for a metal hydride heat pump, said system comprising: a first pair of metal hydride reactor modules (102a, 102b) and a second pair of metal hydride reactor modules (104a, 104b), said first pair of metal hydride reactor modules (102a, 102b) and said second pair of metal hydride reactor modules (104a, 104b) being aligned and separated by partitions (118, 136); a shell for containing said first pair of metal hydride reactor modules (102a, 102b) and said second pair of metal hydride reactor modules (104a, 104b), said shell is compartmentalized to define a separate insulated chamber for each of said metal hydride reactor modules (102a, 102b, 104a, 104b), each of said chambers having an inlet and an outlet for heat transfer medium; and a bearing assembly for supporting said metal hydride reactor modules (102a, 102b, 104a, 104b) centrally about said partitions (118, 136), said bearing assembly comprising a drive mechanism for rotating said metal hydride reactor modules (102a, 102b, 104a, 104b) about an axis, wherein said air changeover system is configured to achieve the changeover between an absorption mode and a desorption mode, by rotating said first pair of metal hydride reactor modules (102a, 102b) and said second pair of metal hydride reactor modules (104a, 104b), characterized in that said first pair of metal hydride reactor modules (102a, 102b) and said second pair of metal hydride reactor modules (104a, 104b) are configured to be rotated, firstly in clockwise direction and thereafter in anticlockwise direction, by 90°, for achieving said changeover from the absorption mode to the desorption mode and vice-versa. a first pair of metal hydride reactor modules (102a, 102b) and a second pair of metal hydride reactor modules (104a, 104b), said first pair of metal hydride reactor modules (102a, 102b) and said second pair of metal hydride reactor modules (104a, 104b) being aligned and separated by partitions (118, 136); a shell for containing said first pair of metal hydride reactor modules (102a, 102b) and said second pair of metal hydride reactor modules (104a, 104b), said shell is compartmentalized to define a separate insulated chamber for each of said metal hydride reactor modules (102a, 102b, 104a, 104b), each of said chambers having an inlet and an outlet for heat transfer medium; and a bearing assembly for supporting said metal hydride reactor modules (102a, 102b, 104a, 104b) centrally about said partitions (118, 136), said bearing assembly comprising a drive mechanism for rotating said metal hydride reactor modules (102a, 102b, 104a, 104b) about an axis,
Continuous dyeing plant with a dyeing substance for a warp thread, the dyeing plant comprising: - a plurality of dyeing/squeezing groups arranged in line, each of said dyeing/squeezing groups being provided with a respective impregnation or dyeing tank (14A, 14B, 14C) into which the warp thread is immersed; an oxidation apparatus that comprises a plurality of upper and lower return rollers (22A, 22B), which are configured to place the warp thread onto a plurality of vertical planes parallel to each other, and a support frame placed downstream of said plurality of dyeing/squeezing groups, said support frame consisting of at least an upper strut and of at least a lower strut forming a laterally, downwardly and upwardly open structure to allow the oxidation of the dyeing substance by means of the contact of the dyed warp thread with the maximum possible amount of air, a plurality of upper return rollers being mounted on said at least one upper strut; the dyeing plant being characterised in that at least one part of the lower return rollers is rotatably mounted on at least one respective support device (30A, 30B, 30C) that is movable in a vertical direction between a first operating position, wherein said movable support device (30A, 30B, 30C) is placed at said at least one lower strut in order to keep the lower return rollers at a maximum predefined distance from the corresponding upper return rollers, and a second operating position, wherein said movable support device (30A, 30B, 30C) is placed at said at least one upper strut in order to keep the lower return rollers at a minimum predefined distance from the corresponding upper return rollers. - a plurality of dyeing/squeezing groups arranged in line, each of said dyeing/squeezing groups being provided with a respective impregnation or dyeing tank (14A, 14B, 14C) into which the warp thread is immersed;
A counter-steering vehicle rear axle, which causes a rotational movement of this wheel carrier about a virtual spread axis in a tow-in direction under a lateral force influence on the wheel, which is on the outside during cornering and fastened to a wheel carrier, wherein the wheel carrier is supported by at least one support part formed from a metal sheet on an axle body extending substantially in the longitudinal direction of the vehicle, and wherein the support part has a portion, which is flexible to a certain extent and substantially parallel to the plane of the wheel carrier, as well as a portion extending substantially in the transverse direction of the vehicle and adjoining said flexible portion behind the wheel centre point, viewed in the direction of travel, characterised in that the portion, which is inclined in a lateral projection substantially similarly to the virtual spread axis relative to the vertical direction, is also flexible to a certain extent, so these two portions (4a, 4b) are connected to one another by an edge forming the spread axis and, because of their certain flexibility, can be pivoted slightly in relation to one another about this edge, and in that this support part is supported at least on the free ends of a a support plate, which is approximately U-shaped in lateral projection and is in turn fastened to the axle body.
A dental abutment for use with a dental implant, comprising: an abutment body having a longitudinal axis, a coronal end, and an apical end, wherein the abutment body includes a first externally facing surface, extending from a location between the coronal end and the apical end and towards the apical end, at least a portion of which tapers conically inwardly towards the apical end; an internal bore provided within the abutment body, at least a portion of the internal bore having internal threads; an external shoulder positioned between a coronal end of the first externally facing surface and the coronal end of the abutment body and a step portion located between the abutment coronal end and the abutment internal threads, wherein the conically tapered portion of the first externally facing surface of the abutment is able to form an interference fit when in use with a mating conically tapered recess in the dental implant. an abutment body having a longitudinal axis, a coronal end, and an apical end, wherein the abutment body includes a first externally facing surface, extending from a location between the coronal end and the apical end and towards the apical end, at least a portion of which tapers conically inwardly towards the apical end; an internal bore provided within the abutment body, at least a portion of the internal bore having internal threads; an external shoulder positioned between a coronal end of the first externally facing surface and the coronal end of the abutment body and a step portion located between the abutment coronal end and the abutment internal threads, wherein the conically tapered portion of the first externally facing surface of the abutment is able to form an interference fit when in use with a mating conically tapered recess in the dental implant.
A hydraulic shock absorber in which a lower end of an axle-side tube slidably inserted into a vehicle body-side tube is threadedly engaged with an axle bracket, and a lower end of a suspension spring interposed between the vehicle body-side tube and the axle-side tube is seated on a spring receiver supported to be not rotatable with respect to the axle bracket in the axle-side tube, the hydraulic shock absorber characterized by comprising: a spring receiver (31,32) that is supported to be not rotatable with respect to the axle bracket, the spring receiver (31,32) being divided into a spring receiver base portion that has an outer diameter smaller than an inner periphery of the axle-side tube, and a spring receiver cylindrical portion that is inserted into an inner periphery of the axle-side tube and the suspension spring is seated thereon, wherein a lower end engagement portion provided at a lower end of the spring receiver cylindrical portion is seated on an upper end engagement portion provided at an upper end of the spring receiver base portion, so that the spring receiver cylindrical portion is concentrically set to the axle-side tube.
A vinyl monomer having a diglycolamic-acid-type ligand, represented by the following general formula: in the formula, R 1 represents a hydrogen atom or an alkyl group having a carbon number of from 1 to 3, when R 1 is a hydrogen atom, X represents a single bond or a divalent organic group having a carbon number of from 2 to 7, which may have a substituent, and when R 1 is an alkyl group having a carbon number of from 1 to 3, X represents a single bond or a divalent organic group having a carbon number of from 1 to 7, which may have a substituent; and n represents 0 or 1, when n is 0, R 2 represents a hydrogen atom, an alkyl group having a carbon number of from 1 to 3, an acyl group having a carbon number of from 1 to 2, or an aldehyde group, and when n is 1, R 2 represents an alkylene group having a carbon number of from 1 to 3.
A process of treating an edible oil comprising passing a deodorized oil from a deodorization section to a glycidyl ester conversion reactor (40; 140), in which the edible oil is brought in contact with a fixed bed of porous bodies comprising an acid epoxide conversion catalyst comprising at least one of acidic clay, activated clay, acidic bleaching earth, activated bleaching earth, silica-alumina, alumina and gamma alumina, the porous bodies having a size of larger than 0.5 mm.
An alkyd polymer composition comprising, in polymerized form: a) between 10 weight percent and 80 weight percent, based on the overall weight of the alkyd polymer composition, of at least one fatty acid ester; b) between 2 weight percent and 76 weight percent, based on the overall weight of the alkyd polymer composition, of at least one sugar alcohol, wherein the sugar alcohol comprises at least 6 carbon atoms and wherein the sugar alcohol is capable of forming at least one, in particular at least two, cyclic ether ring through intramolecular cyclization; and c) between 10 weight percent and 50 weight percent, based on the overall weight of the alkyd polymer composition, of at least one of a poly acid or an anhydride or a combination thereof; wherein the alkyd polymer composition exhibits a plurality of peaks associated with cyclic ether rings in the range of 75 - 90 ppm on a spectra obtained from C 13 Nuclear Magnetic Resonance spectroscopy and the ratio of signal integration between 75 to 90 ppm to signal integration between 126 to 132 ppm is higher than 0.10. a) between 10 weight percent and 80 weight percent, based on the overall weight of the alkyd polymer composition, of at least one fatty acid ester; b) between 2 weight percent and 76 weight percent, based on the overall weight of the alkyd polymer composition, of at least one sugar alcohol, wherein the sugar alcohol comprises at least 6 carbon atoms and wherein the sugar alcohol is capable of forming at least one, in particular at least two, cyclic ether ring through intramolecular cyclization; and c) between 10 weight percent and 50 weight percent, based on the overall weight of the alkyd polymer composition, of at least one of a poly acid or an anhydride or a combination thereof;
A light with integrated optical and thermal guides, comprising: a light source; an optical guide sheet coupled to the light source for receiving and distributing light from the light source, wherein the optical guide sheet distributes the light from the light source through an emission end; and dual co-extensive thermal guides (32, 36) integrated with the optical guide sheet for providing thermal conduction from the light source for cooling the light, wherein the thermal guides (32, 36) comprise a material capable of conducting heat from the light source and dissipating the heat, wherein the thermal guides (32, 36) are integrated with the optical guide sheet by being co-extensive and in physical proximity with first and second surfaces of the optical guide sheet, wherein the light source is located within a depression in an edge of the optical guide sheet in order to optically couple the light into the optical guide sheet at said edge, and the emission end is located at a portion of an edge of the optical guide sheet that is located on the opposite side of the edge of the optical guide sheet where the light source is located. a light source; an optical guide sheet coupled to the light source for receiving and distributing light from the light source, wherein the optical guide sheet distributes the light from the light source through an emission end; and dual co-extensive thermal guides (32, 36) integrated with the optical guide sheet for providing thermal conduction from the light source for cooling the light, wherein the thermal guides (32, 36) comprise a material capable of conducting heat from the light source and dissipating the heat, wherein the thermal guides (32, 36) are integrated with the optical guide sheet by being co-extensive and in physical proximity with first and second surfaces of the optical guide sheet, wherein the light source is located within a depression in an edge of the optical guide sheet in order to optically couple the light into the optical guide sheet at said edge, and the emission end is located at a portion of an edge of the optical guide sheet that is located on the opposite side of the edge of the optical guide sheet where the light source is located.
A nickname processing method, characterized by comprising: a routing bridge, RB, in a transparent interconnection of lots of links,TRILL, network allocating a nickname to a terminal attached to the RB, the nickname being used for forwarding a packet in the TRILL network; and the RB sending the allocated nickname to the terminal, the terminal encapsulating, according to the nickname, a TRILL packet which uses a fine grained label to distinguish a multi-tenant service. a routing bridge, RB, in a transparent interconnection of lots of links,TRILL, network allocating a nickname to a terminal attached to the RB, the nickname being used for forwarding a packet in the TRILL network; and the RB sending the allocated nickname to the terminal, the terminal encapsulating, according to the nickname, a TRILL packet which uses a fine grained label to distinguish a multi-tenant service.
A method for decoding a video signal comprising: judging whether or not a candidate unit among reconstructed neighboring units and a target unit have same reference picture list and use the same reference picture; selecting the candidate unit among reconstructed neighboring units if the candidate unit among reconstructed neighboring units and the target unit have same reference picture list and use the same reference picture; judging whether or not a motion information of the candidate unit among reconstructed neighboring units and a motion information of the target unit are similar to each other, wherein if the candidate unit among reconstructed neighboring units and the target unit have different reference picture lists but use the same reference picture, judging that the motion information of the candidate unit among reconstructed neighboring units and of the target unit are similar to each other; selecting the candidate unit among reconstructed neighboring units if the motion information of the candidate unit among reconstructed neighboring units and the motion information of the target unit are similar to each other; generating a candidate set for the target unit using the selected candidate unit; and performing inter prediction on the target unit using the generated candidate set. judging whether or not a candidate unit among reconstructed neighboring units and a target unit have same reference picture list and use the same reference picture; selecting the candidate unit among reconstructed neighboring units if the candidate unit among reconstructed neighboring units and the target unit have same reference picture list and use the same reference picture; judging whether or not a motion information of the candidate unit among reconstructed neighboring units and a motion information of the target unit are similar to each other, wherein if the candidate unit among reconstructed neighboring units and the target unit have different reference picture lists but use the same reference picture, judging that the motion information of the candidate unit among reconstructed neighboring units and of the target unit are similar to each other; selecting the candidate unit among reconstructed neighboring units if the motion information of the candidate unit among reconstructed neighboring units and the motion information of the target unit are similar to each other; generating a candidate set for the target unit using the selected candidate unit; and performing inter prediction on the target unit using the generated candidate set.
A computer-implemented method comprising: receiving an audio signal at one or more microphones; and controlling one or more adaptive filters of a beamformer using a coherent to diffuse ratio ("CDR") by determining speech and speech pause for the audio signal received at the one or more microphones based upon the CDR, and adapting one of a blocking filter of the one or more adaptive filters during the speech and an interference cancellation filter of the one or more adaptive filters during the speech pause, wherein the coherent to diffuse ratio determines a ratio of a coherent sound energy to a diffuse sound energy. receiving an audio signal at one or more microphones; and controlling one or more adaptive filters of a beamformer using a coherent to diffuse ratio ("CDR") by determining speech and speech pause for the audio signal received at the one or more microphones based upon the CDR, and adapting one of a blocking filter of the one or more adaptive filters during the speech and an interference cancellation filter of the one or more adaptive filters during the speech pause, wherein the coherent to diffuse ratio determines a ratio of a coherent sound energy to a diffuse sound energy.
A hydrophilic slippery treatment agent, comprising: an organosilicon compound having a silicon atom, a hydrophilic-chain-containing group represented by the following formula and three hydrolyzable groups, the hydrophilic-chain-containing group and the three hydrolyzable groups bonding to the silicon atom, and a metal alkoxide, wherein the molar ratio (A/B) of the organosilicon compound to the metal alkoxide is 0.07 to 0.4, wherein in the formula, R 1 represents a hydrogen atom, an alkyl group, an alkoxy group, a cycloalkyl group, an alkenyl group, an aromatic hydrocarbon group, or a hydroxyl group, R 2 represents an alkylene group having 1 to 5 carbon atoms, wherein in a case where a plurality of R 2 is present in one hydrophilic-chain-containing group, the plurality of R 2 is identical to or different from one another, n is an integer of 4 or more, and R 3 represents an alkylene group having 1 to 5 carbon atoms. an organosilicon compound having a silicon atom, a hydrophilic-chain-containing group represented by the following formula and three hydrolyzable groups, the hydrophilic-chain-containing group and the three hydrolyzable groups bonding to the silicon atom, and a metal alkoxide, wherein the molar ratio (A/B) of the organosilicon compound to the metal alkoxide is 0.07 to 0.4, wherein in the formula, R 1 represents a hydrogen atom, an alkyl group, an alkoxy group, a cycloalkyl group, an alkenyl group, an aromatic hydrocarbon group, or a hydroxyl group, R 2 represents an alkylene group having 1 to 5 carbon atoms, wherein in a case where a plurality of R 2 is present in one hydrophilic-chain-containing group, the plurality of R 2 is identical to or different from one another, n is an integer of 4 or more, and R 3 represents an alkylene group having 1 to 5 carbon atoms.