mhurhangee/ep-ind-claims huggingface dataset:
One-component thermosetting epoxy resin composition comprising a) at least one epoxy resin A having an average of more than one epoxy group per molecule; b) at least one latent curing agent for epoxy resins B; c) at least one compound of the formula where the substituents R 1 and R 2 are independently an unsubstituted benzene, a halogenated benzene, alkoxylated benzene, an alkylated benzene or an N derivative of an aniline; and where the substituent R 3 is H or an alkyl group having 1 to 10 carbon atoms; and where the weight ratio of the at least one epoxy resin A having an average of more than one epoxy group per molecule to the at least one compound of the formula is 5-800; and where the one-component thermosetting epoxy resin composition has a viscosity at 25°C of 500-3000 Pa*s, especially 1000-2500 Pa*s, preferably 1000-2000 Pa*s. a) at least one epoxy resin A having an average of more than one epoxy group per molecule; b) at least one latent curing agent for epoxy resins B; c) at least one compound of the formula where the substituents R 1 and R 2 are independently an unsubstituted benzene, a halogenated benzene, alkoxylated benzene, an alkylated benzene or an N derivative of an aniline; and where the substituent R 3 is H or an alkyl group having 1 to 10 carbon atoms; and where the weight ratio of the at least one epoxy resin A having an average of more than one epoxy group per molecule to the at least one compound of the formula is 5-800; and where the one-component thermosetting epoxy resin composition has a viscosity at 25°C of 500-3000 Pa*s, especially 1000-2500 Pa*s, preferably 1000-2000 Pa*s.
An apparatus for filtering artifacts from ECG signals in real-time comprising: - means configured to sense an ECG signal, the ECG signal representing a physical impulse of cardiac tissue, and - means configured to sense an artifact signal, the artifact signal representing a physiological function, wherein the apparatus is characterized by - means configured to remove the artifact signal from the ECG signal using a piecewise stitching adaptive algorithm, - wherein the piecewise stitching adaptive algorithm comprises: -- means configured to select signal sample windows from the ECG signal and the artifact signal; -- means configured to generate a primary ECG signal segment from the ECG signal and a primary artifact signal segment from the artifact signal based on the selected sample windows; -- means configured to determine a relationship between the primary ECG signal segment and primary artifact signal segment that utilizes auto-correlation and/or cross-correlation calculations in determining the relationship; -- means configured to estimate a ECG signal artifact in the primary ECG signal segment based on the determined relationship; -- means configured to remove the estimated ECG signal artifact from the primary signal segment of the ECG signal. - means configured to sense an ECG signal, the ECG signal representing a physical impulse of cardiac tissue, and - means configured to sense an artifact signal, the artifact signal representing a physiological function, - means configured to remove the artifact signal from the ECG signal using a piecewise stitching adaptive algorithm, - wherein the piecewise stitching adaptive algorithm comprises: -- means configured to select signal sample windows from the ECG signal and the artifact signal; -- means configured to generate a primary ECG signal segment from the ECG signal and a primary artifact signal segment from the artifact signal based on the selected sample windows; -- means configured to determine a relationship between the primary ECG signal segment and primary artifact signal segment that utilizes auto-correlation and/or cross-correlation calculations in determining the relationship; -- means configured to estimate a ECG signal artifact in the primary ECG signal segment based on the determined relationship; -- means configured to remove the estimated ECG signal artifact from the primary signal segment of the ECG signal. -- means configured to select signal sample windows from the ECG signal and the artifact signal; -- means configured to generate a primary ECG signal segment from the ECG signal and a primary artifact signal segment from the artifact signal based on the selected sample windows; -- means configured to determine a relationship between the primary ECG signal segment and primary artifact signal segment that utilizes auto-correlation and/or cross-correlation calculations in determining the relationship; -- means configured to estimate a ECG signal artifact in the primary ECG signal segment based on the determined relationship; -- means configured to remove the estimated ECG signal artifact from the primary signal segment of the ECG signal.
A lidar imaging apparatus for a motor vehicle, comprising an emitting section having a laser adapted to emit a pulsed light beam, said emitting section being adapted to change the direction of the light beam in two dimensions perpendicularly to the light beam, a receiving section having a lens objective, a digital micromirror device comprising a matrix of mirrors, a lidar detector and a further photo detector, and an electronic processing unit, wherein each mirror of the digital micromirror device is controllable by said electronic processing unit to change at least between a first position where light entering the lidar imaging apparatus through said lens objective is directed on said lidar detector, and a second position where light entering the lidar imaging apparatus through said lens objective is directed on said further photo detector, wherein said electronic processing unit is adapted to determine the time-of-flight of a laser pulse from said emitting section to said lidar detector, characterized in that said electronic processing unit performs compressive sensing processing on the signal provided by said further photo detector in order to generate a further image with higher resolution than the further photo detector could provide without compressive sensing, wherein the wavelength of the laser used for generating the light beam and the peak sensitivity of the lidar detector is in the range between 1100 nm and 2000 nm, wherein the lidar detector comprises a photosensitive layer made of, or based on, InGaAs, wherein said lidar detector is a multi-pixel lidar detector, namely a lidar photodiode array, wherein said electronic processing unit performs autocorrelation processing on the signal provided by said lidar detector in order to filter out false alarms in the lidar photodiode array, wherein a true event to be detected comprises a group or cluster of several pixels in a plan view onto the lidar detector determined by said autocorrelation processing.
A rechargeable battery comprising: a case in which an electrode assembly is accommodated in an inner space, and in which one side is opened; a cap plate arranged to close and seal one surface of the case; and a welding bead part formed along a circumference of the cap plate and formed at a contact surface of the case and the cap plate, wherein the welding bead part includes a first region and a second region on a cross-section vertical to a welding progressing direction of the welding bead part, the first region has a first boundary line on the cross-section, a contact surface is disposed between both end parts of the first boundary line, the second region has a second boundary line on the cross-section, the first region is disposed between both end parts of the second boundary line to form a first contact point and a second contact point in contact with the first boundary line, the first region has a deeper depth than the second region, and the second region has a wider width than the first region. a case in which an electrode assembly is accommodated in an inner space, and in which one side is opened; a cap plate arranged to close and seal one surface of the case; and a welding bead part formed along a circumference of the cap plate and formed at a contact surface of the case and the cap plate, wherein the welding bead part includes a first region and a second region on a cross-section vertical to a welding progressing direction of the welding bead part, the first region has a first boundary line on the cross-section, a contact surface is disposed between both end parts of the first boundary line, the second region has a second boundary line on the cross-section, the first region is disposed between both end parts of the second boundary line to form a first contact point and a second contact point in contact with the first boundary line, the first region has a deeper depth than the second region, and the second region has a wider width than the first region.
Low floor powered bogie (10a; 10b; 10c) having at least two wheel set shafts (12, 14) each with a wheel set (16, 18), which are respectively rotatably mounted about a wheel set axis (20, 22), and each with an electric drive (24a, 26a; 24b, 26b; 24c, 26c) for driving one of the at least two wheel set shafts (12, 14) in each case, wherein a motor axis (28, 30) of the respective electric drive (24a, 26a; 24b, 26b; 24c, 26c) and the respective wheel set axis (20, 22) are coaxially arranged and the respective electric drive (24a, 26a; 24b, 26b; 24c, 26c) is arranged unilaterally in a region around a section of the respective wheel set axis (20, 22), which lies outside of a free area (32, 34) of the respective wheel set axis (20, 22), delimited by a wheel set (16, 18) connected to the respective wheel set shaft (12, 14), characterised in that at least one electric drive (24a, 26a; 24c, 26c) is a direct drive.
A method of classifying an out-of-domain utterance as a web search query or an orphan of a targeted language understanding dialog system, wherein an orphan is an out-of-domain utterance that expresses a specific intent to have the targeted language understanding dialog system take a certain action, the method comprising: receiving an out-of-domain utterance rejected by a domain classifier of the targeted language system; evaluating the out-of-domain utterance for one or more semantic, syntactic, part-of-speech tag, or lexical features determinative of whether the out-of-domain utterance is a web search query or an orphan of the targeted language understanding dialog system; determining that the out-of-domain utterance is an orphan by: checking the evaluated out-of-domain utterance for the existence of a semantic feature, wherein the semantic feature is a predicate and an argument; and classifying the out-of-domain utterance as an orphan when the predicate and the argument exist;generating, when the out-of-domain utterance is determined to be an orphan, a response indicating that the out-of-domain utterance is understood as a request to perform the certain action addressed to the targeted language understanding dialog system. receiving an out-of-domain utterance rejected by a domain classifier of the targeted language system; evaluating the out-of-domain utterance for one or more semantic, syntactic, part-of-speech tag, or lexical features determinative of whether the out-of-domain utterance is a web search query or an orphan of the targeted language understanding dialog system; determining that the out-of-domain utterance is an orphan by: checking the evaluated out-of-domain utterance for the existence of a semantic feature, wherein the semantic feature is a predicate and an argument; and classifying the out-of-domain utterance as an orphan when the predicate and the argument exist;generating, when the out-of-domain utterance is determined to be an orphan, a response indicating that the out-of-domain utterance is understood as a request to perform the certain action addressed to the targeted language understanding dialog system.
A computer-implemented method, comprising: obtaining, by one or more computing machines, a training dataset, the training dataset comprising a plurality of examples, each example comprising entries for a plurality of features; partitioning, by the one or more computing machines, the plurality of features into a plurality of blocks, wherein at least one of the plurality of blocks contains at least two features, wherein, for each block, a respective feature subvector for each example has at most one non-zero entry, wherein partitioning the plurality of features into the plurality of blocks comprises partitioning the plurality of features according to a plurality of variables, wherein each variable is a categorical variable, a cross product of categorical variables, a bucketized numerical variable or a dense numerical variable, and learning, by the one or more computing machines, a plurality of model parameters from the plurality of blocks, wherein learning the model parameters comprises performing, by the one or more computing machines, a plurality of iterations, and wherein performing the plurality of iterations comprises processing, by the one or more computing machines, only one of the plurality of blocks per iteration, wherein the one or more computing machines comprise a master computing machine and a plurality of worker computing machines under control of the master computing machine. obtaining, by one or more computing machines, a training dataset, the training dataset comprising a plurality of examples, each example comprising entries for a plurality of features; partitioning, by the one or more computing machines, the plurality of features into a plurality of blocks, wherein at least one of the plurality of blocks contains at least two features, wherein, for each block, a respective feature subvector for each example has at most one non-zero entry, wherein partitioning the plurality of features into the plurality of blocks comprises partitioning the plurality of features according to a plurality of variables, wherein each variable is a categorical variable, a cross product of categorical variables, a bucketized numerical variable or a dense numerical variable, and learning, by the one or more computing machines, a plurality of model parameters from the plurality of blocks, wherein learning the model parameters comprises performing, by the one or more computing machines, a plurality of iterations, and wherein performing the plurality of iterations comprises processing, by the one or more computing machines, only one of the plurality of blocks per iteration, wherein the one or more computing machines comprise a master computing machine and a plurality of worker computing machines under control of the master computing machine.
A method for making a wax model for manufacturing a part, such as a turbine vane, said part comprising at least one cavity, the method comprising the steps of: arranging at least two core elements (102, 104) made of a ceramic material in a wax mould, said core elements having, at least partially, a shape complementary to the cavity of the part to be manufactured, and injecting wax into the wax mould, around the core elements (102, 104), so as to form the wax model, wherein the two core elements (102, 104) are assembled prior to the injection of wax by at least one staple, said staple including a central portion from which two branches extend, each branch being fitted into an orifice (120, 122) formed in one of the core elements (102, 104), and wherein at least one orifice (120, 122) of one of the core elements is an open-through orifice, the corresponding branch of the staple passing through said orifice (120, 122) and the free end of said branch being folded over the corresponding core (102, 104) so as to block the staple in position. arranging at least two core elements (102, 104) made of a ceramic material in a wax mould, said core elements having, at least partially, a shape complementary to the cavity of the part to be manufactured, and injecting wax into the wax mould, around the core elements (102, 104), so as to form the wax model, wherein the two core elements (102, 104) are assembled prior to the injection of wax by at least one staple, said staple including a central portion from which two branches extend, each branch being fitted into an orifice (120, 122) formed in one of the core elements (102, 104), and wherein at least one orifice (120, 122) of one of the core elements is an open-through orifice, the corresponding branch of the staple passing through said orifice (120, 122) and the free end of said branch being folded over the corresponding core (102, 104) so as to block the staple in position.
A nonaqueous ink jet ink composition comprising: a solvent including at least one compound represented by the following formula; and a pigment including a pigment orange 43 (PO-43); wherein a Na amount included in the ink is 5 ppm to 500 ppm; and wherein a content of ionic chlorine is 50 ppm to 800 ppm with respect to a total amount of the ink composition, R 1 O-(R 2 O) m -R 3..... wherein, in formula, R 1 and R 3 each independently represent hydrogen or an alkyl group having 1 to 5 carbon atoms; at least one of R 1 and R 3 is an alkyl group having 1 to 5 carbon atoms; R 2 represents an alkylene group having 2 or 3 carbon atoms; and m represents an integer of 1 to 6. a solvent including at least one compound represented by the following formula; and a pigment including a pigment orange 43 (PO-43); wherein a Na amount included in the ink is 5 ppm to 500 ppm; and wherein a content of ionic chlorine is 50 ppm to 800 ppm with respect to a total amount of the ink composition, R 1 O-(R 2 O) m -R 3..... wherein, in formula, R 1 and R 3 each independently represent hydrogen or an alkyl group having 1 to 5 carbon atoms; at least one of R 1 and R 3 is an alkyl group having 1 to 5 carbon atoms; R 2 represents an alkylene group having 2 or 3 carbon atoms; and m represents an integer of 1 to 6.
An authorization system comprising A reader for a reader-card interaction with a card; A logic module configured to assign the reader and the card to each other and to make operable the reader-card interaction based on reader data of the reader and card data of the card, the reader data and the card data being authorization data of the authorization system; the logic module is further configured to read via a non-contact interface (12.1) device data from an authorization storage device, and to assign the reader to the card and to make operable the reader-card interaction based on the device data while the authorization storage device is present within an interaction range of the non-contact interface (12.1), characterized in that the authorization storage device is arranged spaced apart from the non-contact interface (12.1) at an essentially fixed distance, and the logic module is configured to verify that the fixed distance has not been altered.
An aerofoil blade or vane suitable for the turbine of a gas turbine engine including: a longitudinally extending aerofoil portion having facing wall parts (20, 22), the wall parts being interconnected by a generally longitudinally extending divider member to partially define first and second cooling fluid passage portions (11, 15) disposed in side-by-side generally longitudinally extending relationship, the first and second passage portions being interconnected in series fluid flow relationship by a bend passage portion, the first passage portion being adapted to direct cooling fluid to the bend portion and the second passage portion being adapted to exhaust cooling fluid from the bend portion, the divider member having a first local thickening in the region of the bend portion to provide a localised contraction of the downstream end of the first passage portion to accelerate the cooling fluid flow before it enters the bend passage portion, and the divider member having a second local thickening in the region of the bend portion to provide a localised progressive series narrowing and opening of the upstream end of the second passage portion in the general direction of cooling fluid flow, characterised in that: over at least a portion of the second local thickening of the divider member, the thickening is reduced along the centre line of the divider member relative to along the edges of the divider member where the divider member connects with the wall parts. a longitudinally extending aerofoil portion having facing wall parts (20, 22), the wall parts being interconnected by a generally longitudinally extending divider member to partially define first and second cooling fluid passage portions (11, 15) disposed in side-by-side generally longitudinally extending relationship, the first and second passage portions being interconnected in series fluid flow relationship by a bend passage portion, the first passage portion being adapted to direct cooling fluid to the bend portion and the second passage portion being adapted to exhaust cooling fluid from the bend portion, the divider member having a first local thickening in the region of the bend portion to provide a localised contraction of the downstream end of the first passage portion to accelerate the cooling fluid flow before it enters the bend passage portion, and the divider member having a second local thickening in the region of the bend portion to provide a localised progressive series narrowing and opening of the upstream end of the second passage portion in the general direction of cooling fluid flow, characterised in that: over at least a portion of the second local thickening of the divider member, the thickening is reduced along the centre line of the divider member relative to along the edges of the divider member where the divider member connects with the wall parts. over at least a portion of the second local thickening of the divider member, the thickening is reduced along the centre line of the divider member relative to along the edges of the divider member where the divider member connects with the wall parts.
Metal composition consisting of: - 7.7 wt.-% to 9.3 wt.-% Co, - 15.5 wt.-% to 16.6 wt.-% Cr, - 0.001 wt.-% to 0.13 wt.-% Fe, - 0 wt.-% to 0.02 wt.-% Mn, - 1.3 wt.-% to 2.2 wt.-% Mo, - 2.1 wt.-% to 3.1 wt.-% W, - 3 wt.-% to 4.22 wt.-% Al, - 3 wt.-% to 4 wt.-% Ti, - 0.45 wt.-% to 1.35 wt.-% Nb, - 0.9 wt.-% to 1.6 wt.-% Ta, - 0.001 wt.-% to 0.8 wt.-% Hf, - 0 wt.-% to 0.05 wt.-% Si, - 0 wt.-% to 0.01 wt.-% P, - 0 wt.-% to 0.01 wt.-% S, - 0 wt.-% to 0.31 wt.-% O, - 0 wt.-% to 0.01 wt.-% N, - 0.03 wt.-% to 0.15 wt.-% C, - 0 wt.-% to 0.03 wt.-% Zr, - 0.004 wt.-% to 0.015 wt.-% B, - 0 wt.-% to 1.06 wt.-% Y, - incidental impurities, - rest nickel, based on the total weight of the metal composition. - 7.7 wt.-% to 9.3 wt.-% Co, - 15.5 wt.-% to 16.6 wt.-% Cr, - 0.001 wt.-% to 0.13 wt.-% Fe, - 0 wt.-% to 0.02 wt.-% Mn, - 1.3 wt.-% to 2.2 wt.-% Mo, - 2.1 wt.-% to 3.1 wt.-% W, - 3 wt.-% to 4.22 wt.-% Al, - 3 wt.-% to 4 wt.-% Ti, - 0.45 wt.-% to 1.35 wt.-% Nb, - 0.9 wt.-% to 1.6 wt.-% Ta, - 0.001 wt.-% to 0.8 wt.-% Hf, - 0 wt.-% to 0.05 wt.-% Si, - 0 wt.-% to 0.01 wt.-% P, - 0 wt.-% to 0.01 wt.-% S, - 0 wt.-% to 0.31 wt.-% O, - 0 wt.-% to 0.01 wt.-% N, - 0.03 wt.-% to 0.15 wt.-% C, - 0 wt.-% to 0.03 wt.-% Zr, - 0.004 wt.-% to 0.015 wt.-% B, - 0 wt.-% to 1.06 wt.-% Y, - incidental impurities, - rest nickel,