mhurhangee/ep-ind-claims huggingface dataset:
An air data probe comprising: a probe head defining a longitudinal axis between a forward tip and aft base; a port opening defined in the forward tip; a first conduit in fluid communication with the port opening to guide fluid flow from the port opening to a first chamber, wherein the first chamber is downstream from the port opening; and a second conduit, offset radially and circumferentially from the first conduit, in fluid communication with the first chamber to guide fluid flow from the first chamber to a second chamber, and characterized in that the second chamber is downstream from the first chamber, wherein the offset between the first and second conduits is configured to prevent particle ingestion from the port opening from entering the second conduit, and further comprising a static conduit in fluid communication with a static chamber, wherein the static chamber is upstream from the first chamber; wherein the static conduit directs flow from the static chamber through the first chamber, wherein the static conduit is sigmoidal shaped between an outlet of the first conduit and an inlet of the second conduit within the first chamber to block a direct pathway between the outlet of the first conduit and the inlet of the second conduit. a probe head defining a longitudinal axis between a forward tip and aft base; a port opening defined in the forward tip; a first conduit in fluid communication with the port opening to guide fluid flow from the port opening to a first chamber, wherein the first chamber is downstream from the port opening; and a second conduit, offset radially and circumferentially from the first conduit, in fluid communication with the first chamber to guide fluid flow from the first chamber to a second chamber, and characterized in that the second chamber is downstream from the first chamber, wherein the offset between the first and second conduits is configured to prevent particle ingestion from the port opening from entering the second conduit, and further comprising a static conduit in fluid communication with a static chamber, wherein the static chamber is upstream from the first chamber; wherein the static conduit directs flow from the static chamber through the first chamber, wherein the static conduit is sigmoidal shaped between an outlet of the first conduit and an inlet of the second conduit within the first chamber to block a direct pathway between the outlet of the first conduit and the inlet of the second conduit.
A method for monitoring a phase difference based on DQPSK, Differential Quadrature Phase Shift Keying, modulation, characterized by comprising the following steps of: performing a n th power multiplication operation respectively on a first differential current signal and a second differential current signal output after DQPSK demodulation so as to correspondingly obtain a first monitor signal and a second monitor signal, where, n is a positive integral multiple of 4; monitoring a phase difference between two arms of a first demodulator according to the first monitor signal, wherein, the first demodulator is used to perform addition and subtraction operations on optical signals transmitted by the two arms thereof and output a first added optical signal and a first subtracted optical signal for obtaining the first differential current signal; monitoring a phase difference between two arms of a second demodulator according to the second monitor signal, wherein, the second demodulator is used to perform addition and subtraction operations on optical signals transmitted by the two arms thereof and output a second added optical signal and a second subtracted optical signal for obtaining the second differential current signal. performing a n th power multiplication operation respectively on a first differential current signal and a second differential current signal output after DQPSK demodulation so as to correspondingly obtain a first monitor signal and a second monitor signal, where, n is a positive integral multiple of 4; monitoring a phase difference between two arms of a first demodulator according to the first monitor signal, wherein, the first demodulator is used to perform addition and subtraction operations on optical signals transmitted by the two arms thereof and output a first added optical signal and a first subtracted optical signal for obtaining the first differential current signal; monitoring a phase difference between two arms of a second demodulator according to the second monitor signal, wherein, the second demodulator is used to perform addition and subtraction operations on optical signals transmitted by the two arms thereof and output a second added optical signal and a second subtracted optical signal for obtaining the second differential current signal.
A method for controlling a working machine, the working machine comprising a front section having a frame and a pair of wheels (8a, 8b) arranged on a geometrical front wheel axis, and a rear section having a frame and a pair of wheels (10a, 10b) arranged on a first geometrical rear wheel axis and a pair of wheels (11 a, 11 b) arranged on a second geometrical rear wheel axis arranged behind the first geometrical rear wheel axis, the front section and the rear section being pivotally connected to each other for pivoting about a substantially vertical pivot axis, the distance from the geometrical front wheel axis to the vertical pivot axis being shorter than the distance from the vertical pivot axis to the second geometrical rear wheel axis, characterized by the steps of determining an operation parameter value indicative of the traction between a driven wheel of the rear section and the ground, and based on the determined parameter value selecting between a first control mode and a second control mode, and in the first control mode steering the wheels (11 a, 11 b) of the second geometrical rear wheel axis to substantially follow the same tracks as the wheels (8a, 8b) of the geometrical front wheel axis when driving the working machine during cornering, and in the second control mode steering the wheels (11 a, 11 b) of the second geometrical rear wheel axis to follow tracks which are different from the tracks of the wheels (8a, 8b) of the geometrical front wheel axis when driving the working machine during cornering, wherein said second control mode is selected when said operation parameter value is indicative of that the traction for one or more wheels of said rear section and the ground is not sufficient when the front and rear wheels are following the same tracks.
A computer-implemented method comprising: receiving a facet image training set that comprises training images, wherein the training images depict a type of facet common to the training images, wherein the training images depict the type of facet in conjunction with a type of object common to the training images; training, by using the facet image training set, an artificial neural network to classify the type of facet when one or more sample images comprising the type of facet is input to the artificial neural network, wherein the artificial neural network comprises a convolutional neural network, and wherein the training the artificial neural network comprises recording two or more state data corresponding to different states of the convolutional neural network according to respective two or more trainings; classifying the one or more sample images using the artificial neural network to assess whether the one or more sample images depict the type of facet; after the one or more sample images have been classified, searching the one or more sample images for the type of facet using the different states of the artificial neural network; and determining search results based on a weighting of different images found during the searching of the one or more sample images using the different states. receiving a facet image training set that comprises training images, wherein the training images depict a type of facet common to the training images, wherein the training images depict the type of facet in conjunction with a type of object common to the training images; training, by using the facet image training set, an artificial neural network to classify the type of facet when one or more sample images comprising the type of facet is input to the artificial neural network, wherein the artificial neural network comprises a convolutional neural network, and wherein the training the artificial neural network comprises recording two or more state data corresponding to different states of the convolutional neural network according to respective two or more trainings; classifying the one or more sample images using the artificial neural network to assess whether the one or more sample images depict the type of facet; after the one or more sample images have been classified, searching the one or more sample images for the type of facet using the different states of the artificial neural network; and determining search results based on a weighting of different images found during the searching of the one or more sample images using the different states.
A process for preparing a copolyester comprising repeating units derived from (i) at least one aliphatic glycol, (ii) at least one aromatic dicarboxylic acid, and (iii) at least one aliphatic dicarboxylic acid, wherein the aliphatic dicarboxylic acid constitutes a proportion of the acid fraction of the copolyester; and wherein the process comprises the steps of: (a) reacting in an esterification reaction said at least one aliphatic glycol (i) with a dicarboxylic acid selected from said at least one aromatic dicarboxylic acid (ii) or said at least one aliphatic dicarboxylic acid (iii) to form an ester of the respective acid(s); (c) reacting in an ester interchange reaction (e.g. a transesterification), the ester obtained and/or obtainable from step (a) with a further ester which is different from the ester obtained and/or obtainable from step (a), said further ester being selected from the ester of said aromatic dicarboxylic acid (ii) or the ester of said aliphatic dicarboxylic acid (iii); wherein step (c) comprises reacting the bis(hydroxyalkyl)-ester of the aromatic dicarboxylic acid (ii) with the bis(hydroxyalkyl)-ester of the aliphatic dicarboxylic acid (iii). wherein the process comprises the steps of: (a) reacting in an esterification reaction said at least one aliphatic glycol (i) with a dicarboxylic acid selected from said at least one aromatic dicarboxylic acid (ii) or said at least one aliphatic dicarboxylic acid (iii) to form an ester of the respective acid(s); (c) reacting in an ester interchange reaction (e.g. a transesterification), the ester obtained and/or obtainable from step (a) with a further ester which is different from the ester obtained and/or obtainable from step (a), said further ester being selected from the ester of said aromatic dicarboxylic acid (ii) or the ester of said aliphatic dicarboxylic acid (iii); (a) reacting in an esterification reaction said at least one aliphatic glycol (i) with a dicarboxylic acid selected from said at least one aromatic dicarboxylic acid (ii) or said at least one aliphatic dicarboxylic acid (iii) to form an ester of the respective acid(s); (c) reacting in an ester interchange reaction (e.g. a transesterification), the ester obtained and/or obtainable from step (a) with a further ester which is different from the ester obtained and/or obtainable from step (a), said further ester being selected from the ester of said aromatic dicarboxylic acid (ii) or the ester of said aliphatic dicarboxylic acid (iii); wherein step (c) comprises reacting the bis(hydroxyalkyl)-ester of the aromatic dicarboxylic acid (ii) with the bis(hydroxyalkyl)-ester of the aliphatic dicarboxylic acid (iii).
A flux-cored wire with a flux filled into a steel outer sheath, comprising, relative to the total mass of the wire: Mn: 1.5 to 3.1% by mass; Ni: 0.2% or more by mass and less than 1.00% by mass; at least one kind of Si, a Si alloy and a Si oxide: 0.3 to 1.0% by mass in terms of Si; Ti: 0.05 to 0.29% by mass; C: 0.10 to 0.30% by mass; at least one kind of B, a B alloy and a B oxide: 0.0030 to 0.0090% by mass in terms of B; and Fe: 91 to 97% by mass and inevitable impurities (by mass) such as Nb: 0.040% or less, V: 0.040% or less, Mo: 0.02% or less, Cr: less than 0.30%, wherein ( + [Si])/([Ti] + [Ni]) is in a range of 0.30 to 1.2, wherein is a C content, [Si] is a content in terms of Si, [Ti] is a Ti content and [Ni] is a Ni content. Mn: 1.5 to 3.1% by mass; Ni: 0.2% or more by mass and less than 1.00% by mass; at least one kind of Si, a Si alloy and a Si oxide: 0.3 to 1.0% by mass in terms of Si; Ti: 0.05 to 0.29% by mass; C: 0.10 to 0.30% by mass; at least one kind of B, a B alloy and a B oxide: 0.0030 to 0.0090% by mass in terms of B; and Fe: 91 to 97% by mass and inevitable impurities (by mass) such as Nb: 0.040% or less, V: 0.040% or less, Mo: 0.02% or less, Cr: less than 0.30%, wherein ( + [Si])/([Ti] + [Ni]) is in a range of 0.30 to 1.2, wherein is a C content, [Si] is a content in terms of Si, [Ti] is a Ti content and [Ni] is a Ni content.
A benzobis(thiadiazole) derivative represented by the formula: wherein m represents an integer of from 1 to 10, and the R group comprises a structure represented by any one of the formulae (B-2) to (B-6), (C-2) to (C-4) and (D-1) to (D-6): wherein R 1 represents hydrogen atom, fluorine atom, linear or branched alkyl group, or linear or branched alkyl group substituted with at least one fluorine atom, with the proviso that two R 1 groups in the formulae (B-2) to (B-6) and (D-1) to (D-6) may be the same as, or different from each other. m represents an integer of from 1 to 10, and the R group comprises a structure represented by any one of the formulae (B-2) to (B-6), (C-2) to (C-4) and (D-1) to (D-6): wherein R 1 represents hydrogen atom, fluorine atom, linear or branched alkyl group, or linear or branched alkyl group substituted with at least one fluorine atom, with the proviso that two R 1 groups in the formulae (B-2) to (B-6) and (D-1) to (D-6) may be the same as, or different from each other.
An apparatus, comprising: a permanent magnet first block having six faces (face 1, face 2, face 3, face 4, face 5 and face 6), wherein face 1 is parallel with face 2 and wherein each of face 3, face 4, face 5 and face 6 are perpendicular with face 1 and face 2, wherein said first block has a B-field magnetization polarization direction that is perpendicular to face 1, wherein said first block has Amperian currents characterized as flowing on the surfaces of, and making a complete loop around said block on face 3, face 4, face 5 and face 6; characterized in that the apparatus further comprises a ferromagnetic first shield in direct contact with one of face 3, face 4, face 5 or face 6. a permanent magnet first block having six faces (face 1, face 2, face 3, face 4, face 5 and face 6), wherein face 1 is parallel with face 2 and wherein each of face 3, face 4, face 5 and face 6 are perpendicular with face 1 and face 2, wherein said first block has a B-field magnetization polarization direction that is perpendicular to face 1, wherein said first block has Amperian currents characterized as flowing on the surfaces of, and making a complete loop around said block on face 3, face 4, face 5 and face 6; characterized in that the apparatus further comprises a ferromagnetic first shield in direct contact with one of face 3, face 4, face 5 or face 6.
A device for process-based power regulation of an electric arc furnace, the device comprising - a plurality of sensor types (15, 16, 17) for detecting presently active operating parameters of the electric arc furnace in dependence on time; - a control and regulating unit; - at least one furnace transformer with a primary side and a secondary side; - at least one on-load tap changer, which switches winding taps (TS1,..., TSN) of the primary side of the furnace transformer; wherein - three electrodes are electrically connected to the secondary side of the at least one furnace transformer and each define one line, characterised in that - the on-load tap changer is a semiconductor tap changer. - a plurality of sensor types (15, 16, 17) for detecting presently active operating parameters of the electric arc furnace in dependence on time; - a control and regulating unit; - at least one furnace transformer with a primary side and a secondary side; - at least one on-load tap changer, which switches winding taps (TS1,..., TSN) of the primary side of the furnace transformer; - three electrodes are electrically connected to the secondary side of the at least one furnace transformer and each define one line, - the on-load tap changer is a semiconductor tap changer.
A method of loading a prosthetic heart valve into a delivery device, the prosthetic heart valve including: an inner frame having a tubular shape; and a braided wire mesh arranged outside of the inner frame and defining a circumferential flange around the inner frame; the method comprising the steps of: providing a delivery device having a lumen defined by a wall and a distal aperture at a distal end thereof, the lumen having a diameter that is less than that of the inner frame and braided wire mesh; providing the prosthetic heart valve in a radially uncompressed condition; positioning the prosthetic heart valve such that the inner frame is received through the distal aperture and into the lumen; moving the prosthetic heart valve fully into the lumen such that the inner frame and braided wire mesh are radially compressed; wherein the step of moving the braided wire mesh into the lumen of the delivery device includes inverting the circumferential flange. an inner frame having a tubular shape; and a braided wire mesh arranged outside of the inner frame and defining a circumferential flange around the inner frame; the method comprising the steps of: providing a delivery device having a lumen defined by a wall and a distal aperture at a distal end thereof, the lumen having a diameter that is less than that of the inner frame and braided wire mesh; providing the prosthetic heart valve in a radially uncompressed condition; positioning the prosthetic heart valve such that the inner frame is received through the distal aperture and into the lumen; moving the prosthetic heart valve fully into the lumen such that the inner frame and braided wire mesh are radially compressed; wherein the step of moving the braided wire mesh into the lumen of the delivery device includes inverting the circumferential flange. providing a delivery device having a lumen defined by a wall and a distal aperture at a distal end thereof, the lumen having a diameter that is less than that of the inner frame and braided wire mesh; providing the prosthetic heart valve in a radially uncompressed condition; positioning the prosthetic heart valve such that the inner frame is received through the distal aperture and into the lumen; moving the prosthetic heart valve fully into the lumen such that the inner frame and braided wire mesh are radially compressed; wherein the step of moving the braided wire mesh into the lumen of the delivery device includes inverting the circumferential flange.
An appliance (10, 100, 200) comprising: an outer wrapper including a plurality of walls (14, 16, 18, 20, 22) defining an external surface; an inner liner; a trim breaker sealing the outer wrapper to the inner liner to define an insulation space; at least one vacuum port disposed on the external surface of the outer wrapper; a channel (102, 202) in fluid communication with the at least one vacuum port and extending along at least one of the plurality of walls (14, 16, 18, 20, 22) of the outer wrapper; an insulative material disposed between the outer wrapper and the inner liner; and a filter media disposed along the channel (102, 202) such that air can be drawn from the insulation space past the filter media, into the channel (102, 202), and through each vacuum port, characterised in that the channel (102, 202) includes a loop configuration, wherein a first end and a second end of the loop terminates at the at least one vacuum port. an outer wrapper including a plurality of walls (14, 16, 18, 20, 22) defining an external surface; an inner liner; a trim breaker sealing the outer wrapper to the inner liner to define an insulation space; at least one vacuum port disposed on the external surface of the outer wrapper; a channel (102, 202) in fluid communication with the at least one vacuum port and extending along at least one of the plurality of walls (14, 16, 18, 20, 22) of the outer wrapper; an insulative material disposed between the outer wrapper and the inner liner; and a filter media disposed along the channel (102, 202) such that air can be drawn from the insulation space past the filter media, into the channel (102, 202), and through each vacuum port,
A seal assembly for a cannula, the cannula comprising a housing having a proximal portion and a distal portion, wherein the seal assembly is configured to be located at the proximal portion of the housing, the seal assembly comprising: a first seal including a first tri-slit and at least one interlocking member; a second seal disposed co-axially and proximal to the first seal, the second seal including a second tri-slit and at least one interlocking member; and a third seal disposed co-axially and proximal to the first seal and the second seal, the third seal including a central opening, wherein a space is located between the second seal and the third seal and the at least one interlocking member of the first seal and the at least one interlocking member of the second seal interlock with each other to facilitate positioning of the first tri-slit and the second tri-slit offset by an angle, α, relative to each other. a first seal including a first tri-slit and at least one interlocking member; a second seal disposed co-axially and proximal to the first seal, the second seal including a second tri-slit and at least one interlocking member; and a third seal disposed co-axially and proximal to the first seal and the second seal, the third seal including a central opening, wherein a space is located between the second seal and the third seal and the at least one interlocking member of the first seal and the at least one interlocking member of the second seal interlock with each other to facilitate positioning of the first tri-slit and the second tri-slit offset by an angle, α, relative to each other.