mhurhangee/ep-ind-claims huggingface dataset:
A method for fractionating a feedstock into two or more fractions by a chromatographic sequential simulated moving bed system, wherein the SMB system comprises a separation loop comprising at least three compartments; and wherein the method comprises a separation cycle comprising at least one feeding step, at least one circulating step and at least one eluting step; and wherein the dissolved substances in the feedstock form a separation profile as they progress through the separation loop; and the separation profile is circulated more than once through the separation loop in each separation cycle; and wherein at least two flow paths are present in the separation loop during each feeding step of the separation cycle; and at least one of said flow paths is an active flow path wherein liquid is actively flowing through the compartment(s) which constitute the flow path and at least one of said flow paths is an inactive flow path wherein liquid is not actively flowing through the compartments which constitute the flow path. wherein, a part of the separation profile is held in the compartments which form the inactive flow paths, before being reintroduced into the separation profile at a subsequent step in the separation cycle. wherein the SMB system comprises a separation loop comprising at least three compartments; and wherein the method comprises a separation cycle comprising at least one feeding step, at least one circulating step and at least one eluting step; and wherein the dissolved substances in the feedstock form a separation profile as they progress through the separation loop; and the separation profile is circulated more than once through the separation loop in each separation cycle; and wherein at least two flow paths are present in the separation loop during each feeding step of the separation cycle; and at least one of said flow paths is an active flow path wherein liquid is actively flowing through the compartment(s) which constitute the flow path and at least one of said flow paths is an inactive flow path wherein liquid is not actively flowing through the compartments which constitute the flow path. wherein, a part of the separation profile is held in the compartments which form the inactive flow paths, before being reintroduced into the separation profile at a subsequent step in the separation cycle.
Method for actuating a compressor system in order to set a measured operating pressure (p w), which serves as a measure for the operating pressure (p) that the compressor system supplies to a user network at a flow rate demanded by a user network, to a desired operating pressure (p set), the compressor system comprising a compressor element with an inlet and an outlet, and wherein this compressor element is driven by a drive, wherein the compressor system is provided with means for throttling the inlet of the compressor element, characterized in that as long as an operating pressure (p), selected from the measured operating pressure (p w) and the desired operating pressure (p set), is higher than the maximum obtainable operating pressure (p w,max) for the aforementioned compressor system that can be achieved when the inlet is not throttled, the inlet is throttled by the means for throttling the inlet of the compressor element for at least a specific percentage (x) greater than zero.
Down-the-hole drilling device, being meant for drilling a hole with a casing part, wherein the drilling device comprises in its drilling head: a drilling arrangement, having first drilling means for drilling a center hole and second drilling means for reaming the center hole for the casing part; and a flushing flow arrangement for feeding of a flushing medium onto a drilling surface of the drilling arrangement by one or more feed channels and for discharging the same from the drilling surface together with drilling waste backwards with respect to the drilling direction, wherein the casing part is arranged to be pulled into the hole to be drilled by power influence directed thereto from the drilling arrangement, such as the first and/or the second drilling means (4, 5), and wherein a feed channel of the flushing flow arrangement ends up on the drilling surface, to direct the flushing medium flow through a feed channel opening thereof on the drilling surface, the opening existing in a transverse plane with respect to the longitudinal direction (s) of the drilling device, at a flushing channel (6a1) having a bottom and that exists in the longitudinal direction (s) of the drilling device essentially behind a rearmost part (P1') of the drilling surface of the first drilling means, characterized in that, the flushing flow arrangement comprises on the bottom of the flushing channel (6a1) a supplementary flushing groove (6a2) having a smaller transverse width than a width of the bottom of the flushing channel (6a1) and that extends from the feed channel towards the outer periphery of the drilling arrangement.
A system for adjusting optical security sensor mirrors, the system comprising: an adjustment device having a first slot; a first mirror that is rotatable about a first axis; and a first drive (214, 216) coupled to the first mirror and configured to engage the first slot, wherein rotation of the adjustment device causes the first drive (214, 216) to move within the first slot upwards or downwards in accordance with a first inclined slope of the first slot, thereby rotating the first mirror about the first axis. an adjustment device having a first slot; a first mirror that is rotatable about a first axis; and a first drive (214, 216) coupled to the first mirror and configured to engage the first slot, wherein rotation of the adjustment device causes the first drive (214, 216) to move within the first slot upwards or downwards in accordance with a first inclined slope of the first slot, thereby rotating the first mirror about the first axis.
A single use disposable surgical kit, comprising: a sterile sealed container comprising; a module (120, 220, 720) configured to fit within the sterile sealed container comprising: surgical instruments housed in a bottom tray (250, 350) comprising a first fastening feature; and a lid (260, 460) comprising a second fastening feature congruently aligned with the first fastening feature, wherein the first fastening feature is one of a tab portion (251a, 351a) and a mating slot (261, 461), the second fastening feature is the other of the tab portion (251a, 351a) and the mating slot (261, 461), and the second fastening feature is configured to engage with the first fastening feature characterized in that the first fastening feature comprises at least two tab portions (251a, 351a) positioned diagonally opposite each other in at least two corners of the bottom tray (250, 350), wherein the second fastening feature comprises at least two mating slots (261, 461) positioned diagonally opposite each other and congruently aligned with the tab portions (251a, 351a) of the bottom tray (250, 350). a sterile sealed container comprising; a module (120, 220, 720) configured to fit within the sterile sealed container comprising: surgical instruments housed in a bottom tray (250, 350) comprising a first fastening feature; and a lid (260, 460) comprising a second fastening feature congruently aligned with the first fastening feature, wherein the first fastening feature is one of a tab portion (251a, 351a) and a mating slot (261, 461), the second fastening feature is the other of the tab portion (251a, 351a) and the mating slot (261, 461), and the second fastening feature is configured to engage with the first fastening feature surgical instruments housed in a bottom tray (250, 350) comprising a first fastening feature; and a lid (260, 460) comprising a second fastening feature congruently aligned with the first fastening feature, wherein the first fastening feature is one of a tab portion (251a, 351a) and a mating slot (261, 461), the second fastening feature is the other of the tab portion (251a, 351a) and the mating slot (261, 461), and the second fastening feature is configured to engage with the first fastening feature characterized in that the first fastening feature comprises at least two tab portions (251a, 351a) positioned diagonally opposite each other in at least two corners of the bottom tray (250, 350), wherein the second fastening feature comprises at least two mating slots (261, 461) positioned diagonally opposite each other and congruently aligned with the tab portions (251a, 351a) of the bottom tray (250, 350).
Method for automatically recognizing an acoustic signal for detecting a type of acoustic measurement of a building, the acoustic signal being picked up by a sound meter placed in the environment of the building, the acoustic performance of which is to be measured, the method comprising: - detecting either a noise source placed in the environment of the building and emitting a random or pseudo-random acoustic signal or a standardized tapping machine placed on a floor of the building and emitting a standardized tapping noise, - acquiring the acoustic signal in response using the sound meter, - analyzing by frequency band the acoustic signal acquired by the sound meter by applying detection threshold criteria for different types of acoustic measurements of the building, in order to deduce therefrom the type of acoustic measurement of the building taken, between different types of acoustic measurement of the building taken from among the following list: • a noise level in transmit mode (Le), • a noise level in receive mode (Lr), • a tapping noise level (Ln), • a measurement of reverberation time by interrupted method (Tr int) or by pulsed method (Tr imp), • a background noise level, - and displaying the type of acoustic measurement of the building taken. - detecting either a noise source placed in the environment of the building and emitting a random or pseudo-random acoustic signal or a standardized tapping machine placed on a floor of the building and emitting a standardized tapping noise, - acquiring the acoustic signal in response using the sound meter, - analyzing by frequency band the acoustic signal acquired by the sound meter by applying detection threshold criteria for different types of acoustic measurements of the building, in order to deduce therefrom the type of acoustic measurement of the building taken, between different types of acoustic measurement of the building taken from among the following list: • a noise level in transmit mode (Le), • a noise level in receive mode (Lr), • a tapping noise level (Ln), • a measurement of reverberation time by interrupted method (Tr int) or by pulsed method (Tr imp), • a background noise level, • a noise level in transmit mode (Le), • a noise level in receive mode (Lr), • a tapping noise level (Ln), • a measurement of reverberation time by interrupted method (Tr int) or by pulsed method (Tr imp), • a background noise level, - and displaying the type of acoustic measurement of the building taken.
A piezoelectric element comprising, in sequence: a substrate; a lower electrode layer; a growth control layer; a piezoelectric layer including, as a main component, a perovskite-type oxide containing lead; and an upper electrode layer, characterized in that the growth control layer includes a metal oxide represented by the following general formula: M d N 1-d O e where M is composed of one or more metal elements capable of substituting in the perovskite-type oxide and has an electronegativity of less than 0.95, N includes, as a main component, at least one selected from the group consisting of Sc, Zr, V, Nb, Ta, Cr, Mo, W, Mn, Fe, Ru, Co, Ir, Ni, Cu, Zn, Ga, Sn, In, and Sb, O is oxygen, and d and e each represent a compositional ratio, where 0 < d < 1, where e depends on the valences of M and N, and, when the electronegativity is X, 1.41 X − 1.05 ≤ d ≤ A1 ⋅ exp − X / t1 + y0 where A1 = 1.68 × 10 12, t1 = 0.0306, and y0 = 0.59958. a substrate; a lower electrode layer; a growth control layer; a piezoelectric layer including, as a main component, a perovskite-type oxide containing lead; and an upper electrode layer, characterized in that the growth control layer includes a metal oxide represented by the following general formula: M d N 1-d O e where M is composed of one or more metal elements capable of substituting in the perovskite-type oxide and has an electronegativity of less than 0.95, N includes, as a main component, at least one selected from the group consisting of Sc, Zr, V, Nb, Ta, Cr, Mo, W, Mn, Fe, Ru, Co, Ir, Ni, Cu, Zn, Ga, Sn, In, and Sb, O is oxygen, and d and e each represent a compositional ratio, where 0 < d < 1, where e depends on the valences of M and N, and, when the electronegativity is X, 1.41 X − 1.05 ≤ d ≤ A1 ⋅ exp − X / t1 + y0 where A1 = 1.68 × 10 12, t1 = 0.0306, and y0 = 0.59958.
Damper arrangement comprising at least a first Helmholtz damper connected in series to a second Helmholtz damper wherein the second Helmholtz damper has a second volume and has a second neck connectable to the inside of a chamber wherein pressure pulsations to be damped may occur, characterised in that the first Helmholtz damper comprises an entrance for cooling air and a first neck connected to the second volume, and in that the resonance frequency of the at least a first Helmholtz damper and second Helmholtz damper are shifted from one another in an amount producing a synergic damping effect wherein a broadband character is adjusted by the flow velocity inside the first neck, and wherein the broadband characteristic depends on a non-dimensional value q = ω 0 · L N / ζ · u N larger than 0.1 wherein ω 0 is the arithmetic mean of the single frequencies of the single dampers, L N is the length of the first neck, ζ is the loss coefficient of the first neck, and u N is the flow velocity inside the first neck.
An apparatus comprising: a segmented optical modulator (100, 300, 400, 500, 700, 800, 1000, 1100), the segmented optical modulator comprising: an optical waveguide along a planar surface of a substrate; a plurality of electrodes (113, 123) disposed along the planar surface of the substrate, the plurality of electrodes comprising: one or more first electrodes located along a first segment of the optical waveguide to form a first modulator segment therewith; one or more second electrodes located along a second segment of the optical waveguide to form a second modulator segment therewith; and, an electrical drive circuit (151, 152) configured to transmit RF drive signals to both the first and second electrodes (113, 123) to modulate an optical carrier propagating along the optical waveguide; wherein the segmented optical modulator is configured so that the second modulator segment is optically connected in series with the first modulator segment and characterized in that the first and second modulator segments (110, 120) modulate the optical carrier in distinct frequency regions (201, 202), wherein a spectral response (211, 212) of the first modulator segment and a spectral response (211, 212) of the second modulator segment are at least partially non-overlapping in the distinct frequency regions. an optical waveguide along a planar surface of a substrate; a plurality of electrodes (113, 123) disposed along the planar surface of the substrate, the plurality of electrodes comprising: one or more first electrodes located along a first segment of the optical waveguide to form a first modulator segment therewith; one or more second electrodes located along a second segment of the optical waveguide to form a second modulator segment therewith; and, one or more first electrodes located along a first segment of the optical waveguide to form a first modulator segment therewith; one or more second electrodes located along a second segment of the optical waveguide to form a second modulator segment therewith; and, an electrical drive circuit (151, 152) configured to transmit RF drive signals to both the first and second electrodes (113, 123) to modulate an optical carrier propagating along the optical waveguide; wherein the segmented optical modulator is configured so that the second modulator segment is optically connected in series with the first modulator segment and characterized in that the first and second modulator segments (110, 120) modulate the optical carrier in distinct frequency regions (201, 202), wherein a spectral response (211, 212) of the first modulator segment and a spectral response (211, 212) of the second modulator segment are at least partially non-overlapping in the distinct frequency regions.
A cosmetic composition comprising: a. N-undecylenoyl-L-phenylalanine; b. hexyldecanol; c. bisabolol; and d. batyl alcohol a. N-undecylenoyl-L-phenylalanine; b. hexyldecanol; c. bisabolol; and d. batyl alcohol
A method for producing a steviol glycoside composition having a solubility of not less than 0.8 gram per 100 grams of water at 25°C comprising the steps of: A) providing a steviol glycoside powder composition comprising at least one steviol glycoside and having a solubility of 0.3 gram and less per 100 grams of water at 25°C, wherein the at least one steviol glycoside comprises Rebaudioside M; B) providing water; C) providing ethanol; D) mixing the water, ethanol and powder composition comprising at least one steviol glycoside to make a mixture; E) increasing the temperature of the mixture to make a solution; F) mixing the solution with second batch of ethanol; G) decreasing the temperature of the mixture to obtain colloidal suspension; H) separating the solid phase of colloidal suspension, and I) drying the separated solid phase, to provide the steviol glycoside composition having a solubility of not less than 0.8 gram per 100 grams of water at 25°C. A) providing a steviol glycoside powder composition comprising at least one steviol glycoside and having a solubility of 0.3 gram and less per 100 grams of water at 25°C, wherein the at least one steviol glycoside comprises Rebaudioside M; B) providing water; C) providing ethanol; D) mixing the water, ethanol and powder composition comprising at least one steviol glycoside to make a mixture; E) increasing the temperature of the mixture to make a solution; F) mixing the solution with second batch of ethanol; G) decreasing the temperature of the mixture to obtain colloidal suspension; H) separating the solid phase of colloidal suspension, and I) drying the separated solid phase, to provide the steviol glycoside composition having a solubility of not less than 0.8 gram per 100 grams of water at 25°C.
Gas turbine with a burner which has at least one fuel supply line and at least one fuel removal line, wherein the fuel supply line is fluidically connected to a flush water line, and wherein the fuel removal line is fluidically connected, via a drainage line, to a leakage oil tank and the fuel removal line and the drainage line are connected at a point downstream of at least one closure valve in the fuel removal line, characterized in that upstream of the at least one closure valve a bypass line is fluidically connected to the fuel removal line, which bypass line fluidically connects the fuel removal line to the leakage oil tank.
Packaging line designed for at least partially automatic changing of one of a plurality of robots, the packaging line comprising - a base frame, - a plurality of robots attached to the base frame one after the other in the passage direction of the packaging line, - a control (1*) for controlling at least all robots of the packaging line, characterized by - respectively a robot base with a robot arm of the robot fastened thereto, - an assembly device for automatic assembly or disassembly of the robot at a defined assembly position, with - a positioning device for exact automatic positioning at the mounting position and - a fixing device for automatic mechanical fixing of the robot at the mounting position, - a coupling device for automatically coupling or uncoupling the data connection and the power connection of each robot with respect to corresponding counter connections (8b, 9b) of the packaging line, - wherein the control (1*) is capable of controlling at least the operations necessary for the at least partially automatic changing operation of a robot on the packaging line side. - a base frame, - a plurality of robots attached to the base frame one after the other in the passage direction of the packaging line, - a control (1*) for controlling at least all robots of the packaging line, characterized by - respectively a robot base with a robot arm of the robot fastened thereto, - an assembly device for automatic assembly or disassembly of the robot at a defined assembly position, with - a positioning device for exact automatic positioning at the mounting position and - a fixing device for automatic mechanical fixing of the robot at the mounting position, - a positioning device for exact automatic positioning at the mounting position and - a fixing device for automatic mechanical fixing of the robot at the mounting position, - a coupling device for automatically coupling or uncoupling the data connection and the power connection of each robot with respect to corresponding counter connections (8b, 9b) of the packaging line, - wherein the control (1*) is capable of controlling at least the operations necessary for the at least partially automatic changing operation of a robot on the packaging line side.
A method for manufacturing a silicon carbide honeycomb structure, the method using a regeneration raw material regenerated from a recovered material derived from a starting raw material of a silicon carbide honeycomb structure generated in a manufacture process of a silicon carbide honeycomb structure, wherein the regeneration raw material is recovered from a material constituting the silicon carbide honeycomb structure in a step after the starting raw material is fired, the regeneration raw material having an oxygen content rate of 20 mass % or less; the regeneration raw material is added to the starting raw material to account for 50 mass% or less of the entire starting raw material as a part of the starting raw material after the average particle size of the regeneration raw material is controlled to be 5 to 100 μm, or the average particle size of the regeneration raw material is controlled to be 5 to 100 μm after the regeneration raw material is added to the starting raw material to account for 50 mass% or less of the entire starting raw material as a part of the starting raw material, and the silicon carbide honeycomb structure is manufactured using the resultant starting raw material.
A dilutable biocidal composition comprising: 7% to 7.5% by weight hydrogen peroxide; 6% to 6.8% by weight quaternary ammonium compound; 0.25% to 0.35% by weight amine oxide; and 0.2% to 0.4% by weight acidic stabilizer for stabilizing the hydrogen peroxide against decomposition; wherein the quaternary ammonium compound comprises n-alkyl dimethyl benzyl ammonium chloride, wherein n-alkyl contains 50% C 14, 40% C 12, and 10% C 16; n-octyl decyl dimethyl ammonium chloride; di-n-octyl dimethyl ammonium chloride; and di-n-decyl dimethyl ammonium chloride, and wherein the amine oxide is selected from the group consisting of lauramine oxide, octyl amine oxide, decyl amine oxide, stearamine oxide, cetamide oxide, myristamine oxide, lauramidopropylamine oxide, and tetradecyl amine oxide. 7% to 7.5% by weight hydrogen peroxide; 6% to 6.8% by weight quaternary ammonium compound; 0.25% to 0.35% by weight amine oxide; and 0.2% to 0.4% by weight acidic stabilizer for stabilizing the hydrogen peroxide against decomposition;