mhurhangee/ep-ind-claims huggingface dataset:
An engine system, comprising: an engine including: a cylinder defining a combustion chamber; a piston configured to reciprocate inside the cylinder; and a fuel injection valve configured to directly inject fuel into the cylinder; a swirl control valve provided inside an intake passage and configured to generate a swirl flow inside the cylinder when the swirl control valve closes, the intake passage being configured to supply intake air to the cylinder; an EGR passage configured to recirculate exhaust gas of the engine as EGR gas to the intake passage; an EGR gas adjusting mechanism provided to the EGR passage and configured to control an amount of EGR gas to be recirculated to the intake passage; and a controller configured to control the fuel injection valve, the swirl control valve, and the EGR gas adjusting mechanism, characterized in that when an engine load is at or below a given threshold, the controller is configured to control the swirl control valve to fully close, and while the engine load is at or below the threshold, the controller is configured to control the EGR gas adjusting mechanism such that, at a fixed engine speed, an increase rate of the amount of EGR gas with respect to an increase in the engine load is lower in a first load range (R1a) than in a second load range (R1b), the first load range (R1a) being higher than the second load range (R1b) and including the threshold. an engine including: a cylinder defining a combustion chamber; a piston configured to reciprocate inside the cylinder; and a fuel injection valve configured to directly inject fuel into the cylinder; a cylinder defining a combustion chamber; a piston configured to reciprocate inside the cylinder; and a fuel injection valve configured to directly inject fuel into the cylinder; a swirl control valve provided inside an intake passage and configured to generate a swirl flow inside the cylinder when the swirl control valve closes, the intake passage being configured to supply intake air to the cylinder; an EGR passage configured to recirculate exhaust gas of the engine as EGR gas to the intake passage; an EGR gas adjusting mechanism provided to the EGR passage and configured to control an amount of EGR gas to be recirculated to the intake passage; and a controller configured to control the fuel injection valve, the swirl control valve, and the EGR gas adjusting mechanism, characterized in that when an engine load is at or below a given threshold, the controller is configured to control the swirl control valve to fully close, and while the engine load is at or below the threshold, the controller is configured to control the EGR gas adjusting mechanism such that, at a fixed engine speed, an increase rate of the amount of EGR gas with respect to an increase in the engine load is lower in a first load range (R1a) than in a second load range (R1b), the first load range (R1a) being higher than the second load range (R1b) and including the threshold.
A composition comprising torasemide, or a salt or sustained release formulation thereof, for use in the treatment of Alzheimer's disease or an AD related disorder selected from senile dementia of AD type (SDAT), Lewy body dementia, vascular dementia, mild cognitive impairment and age-associated memory impairment (AAMI), amyotrophic lateral sclerosis or spinal cord injury in a subject in need thereof.
A method for producing a dental restoration, comprising the steps of: - rendering a first digital tooth model with a first material combination to generate a first actual data set (DS-I-1) representing the optical properties of the first digital tooth model; - determining a first deviation (ΔE1 S,I) between a target data set (DS-S) and the first actual data set (DS-I-1); - rendering a second digital tooth model with a second material combination to generate a second actual data set (DS-I-2) representing the optical properties of the second digital tooth model; - determining a second deviation (ΔE2 S,I) between the target data set (DS-S) and the second actual data set (DS-I-2); and characterized by the further step of: - producing the dental restoration based on the first digital tooth model if the first deviation (ΔE1 S,I) is smaller than the second deviation (ΔE2 S,I), and producing the dental restoration based on the second digital tooth model if the second deviation (ΔE2 S,I) is smaller than the first deviation (ΔE1 S,I). - rendering a first digital tooth model with a first material combination to generate a first actual data set (DS-I-1) representing the optical properties of the first digital tooth model; - determining a first deviation (ΔE1 S,I) between a target data set (DS-S) and the first actual data set (DS-I-1); - rendering a second digital tooth model with a second material combination to generate a second actual data set (DS-I-2) representing the optical properties of the second digital tooth model; - determining a second deviation (ΔE2 S,I) between the target data set (DS-S) and the second actual data set (DS-I-2); and characterized by the further step of: - producing the dental restoration based on the first digital tooth model if the first deviation (ΔE1 S,I) is smaller than the second deviation (ΔE2 S,I), and producing the dental restoration based on the second digital tooth model if the second deviation (ΔE2 S,I) is smaller than the first deviation (ΔE1 S,I).
A dye-exchanged zeolite marker comprising a zeolite and a dye, wherein: a) the zeolite is a Faujasite type zeolite or a Mordenite zeolite characterized by a pores size, determined by using a Micromeritics BET instrument according to the method disclosed in the description, comprised between 4 Å and 12 Å, b) the dye is an organic cationic molecule selected in a group consisting of Rhodamine B, Tetramethyl rhodamine isothiocyanate - Dextran, Rhodamine 6G, Rhodamine B isothiocyanate, Rhodamine 19 perchlorate, and other Rhodamine derivatives and c) the amount of the dye is comprised between 0.05 %wt and 1 %wt with respect to the zeolite weight. a) the zeolite is a Faujasite type zeolite or a Mordenite zeolite characterized by a pores size, determined by using a Micromeritics BET instrument according to the method disclosed in the description, comprised between 4 Å and 12 Å, b) the dye is an organic cationic molecule selected in a group consisting of Rhodamine B, Tetramethyl rhodamine isothiocyanate - Dextran, Rhodamine 6G, Rhodamine B isothiocyanate, Rhodamine 19 perchlorate, and other Rhodamine derivatives and c) the amount of the dye is comprised between 0.05 %wt and 1 %wt with respect to the zeolite weight.
A marker, comprising: a stripe pattern (9, 10,25) formed on a two-dimensional plane shape; and a lens array in which a plurality of lenses are arranged on the two-dimensional plane including the stripe pattern, characterized in that the two-dimensional plane has an oblong shape, and the stripe pattern (9,10,25) includes a first marker in which the stripe pattern is parallel to the arrangement of the plurality of lenses in the short side direction of the oblong shape, and a second marker in which the stripe pattern obliquely intersects with the arrangement of the plurality of lenses in the long side direction of the oblong shape, wherein the first marker and the second marker are provided so that the corresponding long sides are positioned on the same line or on parallel lines. a stripe pattern (9, 10,25) formed on a two-dimensional plane shape; and a lens array in which a plurality of lenses are arranged on the two-dimensional plane including the stripe pattern, characterized in that the two-dimensional plane has an oblong shape, and the stripe pattern (9,10,25) includes a first marker in which the stripe pattern is parallel to the arrangement of the plurality of lenses in the short side direction of the oblong shape, and a second marker in which the stripe pattern obliquely intersects with the arrangement of the plurality of lenses in the long side direction of the oblong shape, wherein the first marker and the second marker are provided so that the corresponding long sides are positioned on the same line or on parallel lines.
A capacitive sensing apparatus comprising: a capacitive sensor that provides a means for generating a capacitive sensing field from a capacitive sensing area, the capacitive sensor being located on an opaque substrate; a light source; and a light guide comprising a light scattering means and wherein the capacitive sensor is located between the opaque substrate and the light guide, wherein the light source is spaced apart from the capacitive sensing area and the light guide is arranged to guide light from the light source to the light scattering means, the light scattering means being positioned at the capacitive sensing area; wherein the light guide and the opaque substrate are arranged such that an air gap separates the light guide from the opaque substrate and the capacitive sensor. a capacitive sensor that provides a means for generating a capacitive sensing field from a capacitive sensing area, the capacitive sensor being located on an opaque substrate; a light source; and a light guide comprising a light scattering means and wherein the capacitive sensor is located between the opaque substrate and the light guide, wherein the light source is spaced apart from the capacitive sensing area and the light guide is arranged to guide light from the light source to the light scattering means, the light scattering means being positioned at the capacitive sensing area; wherein the light guide and the opaque substrate are arranged such that an air gap separates the light guide from the opaque substrate and the capacitive sensor.
An occlusion device (210, 310, 510, 510'), comprising: a support frame (212, 312, 512, 512') comprising a disc-shaped member (218, 318, 518, 518'), a first crossbar (220, 320, 520, 520'), and a second crossbar (221, 321, 521, 521'); the disc-shaped member having an outer edge and defining a closed circumference with a central opening (224, 324, 524, 524'), the disc-shaped member including a first coil defining a first passageway and a first core wire extending through the first passageway; the first crossbar attached to the disc-shaped member and extending across the central opening and including a second coil defining a second passageway and a second core wire extending through the second passageway; the second crossbar attached to the disc-shaped member and extending across the central opening and including a third coil defining a third passageway and a third core wire extending through the third passageway, the second crossbar disposed substantially orthogonally to the first crossbar; and a covering (214, 314, 514, 514') attached to the disc-shaped member. a support frame (212, 312, 512, 512') comprising a disc-shaped member (218, 318, 518, 518'), a first crossbar (220, 320, 520, 520'), and a second crossbar (221, 321, 521, 521'); the disc-shaped member having an outer edge and defining a closed circumference with a central opening (224, 324, 524, 524'), the disc-shaped member including a first coil defining a first passageway and a first core wire extending through the first passageway; the first crossbar attached to the disc-shaped member and extending across the central opening and including a second coil defining a second passageway and a second core wire extending through the second passageway; the second crossbar attached to the disc-shaped member and extending across the central opening and including a third coil defining a third passageway and a third core wire extending through the third passageway, the second crossbar disposed substantially orthogonally to the first crossbar; and a covering (214, 314, 514, 514') attached to the disc-shaped member.
A triplication register device comprising a first register (REG. 1), a second register (REG. 2) and a third register (REG. 3), the three registers being identical and containing the same information in common use, a majority vote device and a self-correction device, the correction being dependent on the result from the majority vote device, each register being controlled by the output of a dual-input multiplexer (mux), the first input corresponding to a functional write operation, the second input corresponding to the result of the majority vote, the triplication device contains a test device and is characterised in that the function of the test device is to block, on command and independently, either the functional write operation to the first register, or the functional write operation to the second register, or the functional write operation to the third register, or the self-correction.
Profiled casing for a roller press for subjecting particulate material to be ground to high-pressure treatment, characterized in that a) the material at the surface is an iron alloy having the following alloy constituents with the following % by weight: Element Min. % by weight Max. % by weight C 2.70% 2.85% Si 0.95% 1.02% Mn 0.55% 0.64% P 0.0012% 0.0027% S 0.022% 0.027% Cr 16.90% 17.50% Mo 0.40% 1.30% Ni 4.35% 4.55% b) and in that the profiling worked in on the surface of the rollers is worked in by casting in a mold, by subsequent machining of the surface or by grinding. a) the material at the surface is an iron alloy having the following alloy constituents with the following % by weight: Element Min. % by weight Max. % by weight C 2.70% 2.85% Si 0.95% 1.02% Mn 0.55% 0.64% P 0.0012% 0.0027% S 0.022% 0.027% Cr 16.90% 17.50% Mo 0.40% 1.30% Ni 4.35% 4.55% b) and in that the profiling worked in on the surface of the rollers is worked in by casting in a mold, by subsequent machining of the surface or by grinding.
A compound of Formula I: which is 3-[{2-[(Methylaminocarbonyl)-methoxy]-acetyl}-(4-aminobenzyl)]-5-(4-bromophenyl)-1-(4-aminosulfonylphenyl)-1H-pyrazole or a pharmaceutically acceptable salt thereof.
A neural network system implemented by one or more computers for generating an audio output autoregressively, wherein the neural network system is configured to generate an output sequence of audio data that comprises a respective audio sample at each of a plurality of time steps, wherein each time step corresponds to a respective time in an audio waveform and the audio sample at each time step characterizes the waveform at the corresponding time, and wherein the neural network system comprises: a convolutional subnetwork comprising one or more audio-processing convolutional neural network layers, wherein the convolutional subnetwork is configured to, for each of the plurality of time steps: receive a current sequence of audio data that comprises the respective audio sample at each time step that precedes the time step in the output sequence, and process the current sequence of audio data to generate an alternative representation for the time step; an output layer, wherein the output layer is configured to, for each of the plurality of time steps: receive the alternative representation for the time step, and process the alternative representation for the time step to generate an output that defines a score distribution over a plurality of possible audio samples for the time step; and a subsystem configured to, for each of the plurality of time steps: select an audio sample at the time step in the output sequence in accordance with the score distribution for the time step. a convolutional subnetwork comprising one or more audio-processing convolutional neural network layers, wherein the convolutional subnetwork is configured to, for each of the plurality of time steps: receive a current sequence of audio data that comprises the respective audio sample at each time step that precedes the time step in the output sequence, and process the current sequence of audio data to generate an alternative representation for the time step; receive a current sequence of audio data that comprises the respective audio sample at each time step that precedes the time step in the output sequence, and process the current sequence of audio data to generate an alternative representation for the time step; an output layer, wherein the output layer is configured to, for each of the plurality of time steps: receive the alternative representation for the time step, and process the alternative representation for the time step to generate an output that defines a score distribution over a plurality of possible audio samples for the time step; and receive the alternative representation for the time step, and process the alternative representation for the time step to generate an output that defines a score distribution over a plurality of possible audio samples for the time step; and a subsystem configured to, for each of the plurality of time steps: select an audio sample at the time step in the output sequence in accordance with the score distribution for the time step.
Linear electromechanical servocontrol comprising a translationally movable power rod, said servocontrol comprises a single linear electric jack provided with at least one electric motor connected by a mechanical link to the power rod, the servocontrol comprising an anchor rigidly connected to the electric jack, said at least one electric motor being controlled by a computer, characterised in that said anchor has an anchor rod that is translationally movable relative to a body of the servocontrol, said anchor having at least one anchor brake that is configured to immobilise the anchor rod relative to the electric jack in a normal operating mode (MODA, MODIA) and to allow free movement of the servocontrol by allowing the electric jack to move relative to the anchor rod in a safe operating mode (MODS) at the request of the computer. said servocontrol comprises a single linear electric jack provided with at least one electric motor connected by a mechanical link to the power rod, the servocontrol comprising an anchor rigidly connected to the electric jack, said at least one electric motor being controlled by a computer, characterised in that said anchor has an anchor rod that is translationally movable relative to a body of the servocontrol, said anchor having at least one anchor brake that is configured to immobilise the anchor rod relative to the electric jack in a normal operating mode (MODA, MODIA) and to allow free movement of the servocontrol by allowing the electric jack to move relative to the anchor rod in a safe operating mode (MODS) at the request of the computer.
An arrangement for supplying a reducing agent in gaseous form into a flue gas flowing in a gas duct communicating with a catalyst in a selective catalytic reduction reactor arranged downstream of said arrangement, the arrangement comprising a plurality of nozzles arranged in the gas duct adapted to supply said reducing agent, a plurality of mixing plates arranged in the gas duct downstream of said nozzles, each mixing plate positioned with one dedicated nozzle wherein each nozzle is arranged within a projected area of its dedicated mixing plate, the projected area is the area of a surface of the dedicated mixing plate as projected in a plane perpendicular to the gas flow direction of the gas duct, which is parallel to a longitudinal axis of the gas duct, wherein the plurality of nozzles are arranged in a pattern comprising at least two symmetrically arranged rows over a cross section of the gas duct, each row comprising at least one nozzle, and a straight edge of the dedicated mixing plates is parallel with said rows, characterized in that each mixing plate has a parabolic geometry.
A hash value calculation device that is configured to calculate a hash value using a block cipher encryption function for a block cipher having an n-bit plaintext length and a k-bit, k > n, key length, the hash value calculation device comprising: a default-length value input part that is configured to receive L, L is an integer of 2 or more, of values M,..., M each having k-n bits; a compression function calculation part that, for each integer i of i = 1,..., L in an ascending order: is configured to calculate a function f[i] which, upon input of a value M[i] received by the default-length value input part, an n-bit value y1[i-1], a value y1 is a predetermined value IV1, and an n-bit value y2[i-1], a value y2 is a predetermined value IV2, is configured to output an n-bit value x1[i], an n-bit value x2[i], a k-bit value k1[i], and a k-bit value k2[i]; for the value x1[i] as a plaintext and the value k1[i] as a key, is configured to calculate an n-bit value y1[i] with the encryption function; and for the value x2[i] as a plaintext and the value k2[i] as a key, is configured to calculate an n-bit value y2[i] with the encryption function; and a hash value calculation part that is configured to, upon input of a value y1 and a value y2 which are calculated by the compression function calculation part, calculate a hash value with an injective function g, and wherein for each integer i = 1,..., L, the function f[i] is injective, and the value x1[i] and the value x2[i] are not equal, or the value k1[i] and the value k2[i] are not equal, and characterized in that, where the value M[i] is a fixed value, an injective relation holds between the values x1[i] and x2[i] and the values y1[i] and y2[i]. a default-length value input part that is configured to receive L, L is an integer of 2 or more, of values M,..., M each having k-n bits; a compression function calculation part that, for each integer i of i = 1,..., L in an ascending order: is configured to calculate a function f[i] which, upon input of a value M[i] received by the default-length value input part, an n-bit value y1[i-1], a value y1 is a predetermined value IV1, and an n-bit value y2[i-1], a value y2 is a predetermined value IV2, is configured to output an n-bit value x1[i], an n-bit value x2[i], a k-bit value k1[i], and a k-bit value k2[i]; for the value x1[i] as a plaintext and the value k1[i] as a key, is configured to calculate an n-bit value y1[i] with the encryption function; and for the value x2[i] as a plaintext and the value k2[i] as a key, is configured to calculate an n-bit value y2[i] with the encryption function; and a hash value calculation part that is configured to, upon input of a value y1 and a value y2 which are calculated by the compression function calculation part, calculate a hash value with an injective function g, and wherein for each integer i = 1,..., L, the function f[i] is injective, and the value x1[i] and the value x2[i] are not equal, or the value k1[i] and the value k2[i] are not equal, and characterized in that, where the value M[i] is a fixed value, an injective relation holds between the values x1[i] and x2[i] and the values y1[i] and y2[i].
A network management system in which field wireless management stations (11, 12) having gateway functions and system management functions incorporated are redundantly connected together, wherein the plurality of field wireless management stations (11, 12) are connected to each other through a synchronizing cable and synchronizing connectors (CNa, CNb) provided in the synchronizing cable, and characterized in that the plurality of redundantly connected field wireless management stations (11, 12) are connected so as to be individually identified by groups of signal wires (Pc1, Pc2) provided in the vicinity of the synchronizing connectors (CNa, CNb) of the synchronizing cable.