mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a crystalline form of 5-amino-2,3-dihydrophthalazine-1,4-dione comprising the following steps: a) Dissolving 5-amino-2,3-dihydrophthalazine-1,4-dione in a refluxing ethanol-water solution having a range from 5:1 to 1:1 (v/v) at 50 to 100°C, b) cooling the solution to room temperature over a period of 60 to 240 min, c) separating the precipitated crystalline product, d) drying the crystalline product at room temperature over a period of 6 to 48 hours, and e) optionally, resuspending the yielded crystalline form one to three times in ethanol, stirring, rewashing with ethanol and drying again, the resulting crystalline form being characterized by the following crystallography values determined by means of powder X-ray diffraction: D values: 11.4; 11.2; 6.9; 6.8; 6.4; 5.6; 3.6; 3.5; 3.5; 3.3; 3.2 and 2-theta values: 7.8; 7.9; 12.8; 13.0; 13.9; 15.7; 24.9; 25.7; 25.7; 27.2; 27.5. a) Dissolving 5-amino-2,3-dihydrophthalazine-1,4-dione in a refluxing ethanol-water solution having a range from 5:1 to 1:1 (v/v) at 50 to 100°C, b) cooling the solution to room temperature over a period of 60 to 240 min, c) separating the precipitated crystalline product, d) drying the crystalline product at room temperature over a period of 6 to 48 hours, and e) optionally, resuspending the yielded crystalline form one to three times in ethanol, stirring, rewashing with ethanol and drying again, the resulting crystalline form being characterized by the following crystallography values determined by means of powder X-ray diffraction: D values: 11.4; 11.2; 6.9; 6.8; 6.4; 5.6; 3.6; 3.5; 3.5; 3.3; 3.2 and 2-theta values: 7.8; 7.9; 12.8; 13.0; 13.9; 15.7; 24.9; 25.7; 25.7; 27.2; 27.5. D values: 11.4; 11.2; 6.9; 6.8; 6.4; 5.6; 3.6; 3.5; 3.5; 3.3; 3.2 and 2-theta values: 7.8; 7.9; 12.8; 13.0; 13.9; 15.7; 24.9; 25.7; 25.7; 27.2; 27.5.
Method for severing a metal mesh tube (2; 31) at a separation point , characterized in that the metal mesh tube (2; 31) is torn thermally at the separation point .
A component comprising a substrate having at least one surface which is provided with a layer system , wherein the layer system comprises at least one amorphous carbon layer, wherein the layer system further comprises at least one metal intermediate layer which is arranged between the substrate and the at least one amorphous carbon layer, wherein the metal intermediate layer consists of titanium, a titanium alloy, nickel or a nickel alloy, wherein there is furthermore a two-layer adhesion promoter layer which is arranged between the at least one intermediate layer and the substrate , wherein a first adhesion promoter layer made of NiP and a second adhesion promoter layer thereon made of a nickel-chromium alloy or a nickel-vanadium alloy is present, and wherein the at least one amorphous carbon layer forms an outer layer of the layer system facing away from the substrate and comprises at least one amorphous hydrogen-containing carbon layer.
A seal structure for a cable, comprising: a cable in which a plurality of electrical wires is enveloped by a sheath that is part of the cable , the plurality of electrical wires extending out from an end portion of the sheath ; and a seal member for attachment to the cable , the seal member comprising: a rubber plug that is fitted around the end portion of the sheath ; and an inner support member having a support portion arranged inside the end portion of the sheath , wherein an outer support member that presses the rubber plug inward is fitted around the rubber plug , wherein the rubber plug has a plurality of through-holes for passage of the plurality of electrical wires respectively, wherein the inner support member has a plurality of guide holes for passage of the plurality of electrical wires respectively, and wherein the plurality of guide holes is arranged at positions that respectively correspond with the plurality of through-holes . a cable in which a plurality of electrical wires is enveloped by a sheath that is part of the cable , the plurality of electrical wires extending out from an end portion of the sheath ; and a seal member for attachment to the cable , the seal member comprising: a rubber plug that is fitted around the end portion of the sheath ; and an inner support member having a support portion arranged inside the end portion of the sheath , wherein an outer support member that presses the rubber plug inward is fitted around the rubber plug , wherein the rubber plug has a plurality of through-holes for passage of the plurality of electrical wires respectively, wherein the inner support member has a plurality of guide holes for passage of the plurality of electrical wires respectively, and wherein the plurality of guide holes is arranged at positions that respectively correspond with the plurality of through-holes . a rubber plug that is fitted around the end portion of the sheath ; and an inner support member having a support portion arranged inside the end portion of the sheath , wherein an outer support member that presses the rubber plug inward is fitted around the rubber plug , wherein the rubber plug has a plurality of through-holes for passage of the plurality of electrical wires respectively, wherein the inner support member has a plurality of guide holes for passage of the plurality of electrical wires respectively, and wherein the plurality of guide holes is arranged at positions that respectively correspond with the plurality of through-holes .
Motor vehicle comprising a sliding door, wherein the sliding door comprises at least one sliding door wing which is displaceable laterally on the motor vehicle between a closed position and an open position, characterized in that the sliding door wing comprises a lower part of the sliding door wing , wherein, in the closed position of the sliding door, the lower part is detachable at its upper edge and, if required, at its side edges from the rest of the sliding door and is mounted pivotably at its lower edge , and therefore, in the closed position of the sliding door, the lower part can be pivoted into a ramp position in which the lower part forms a ramp .
A method for controlling tripping of a low-voltage power distribution device , comprising: detecting whether the low-voltage power distribution device is in a closed state; detecting whether a tripping condition associated with the low-voltage power distribution device is met; in response to the low-voltage power distribution device being in the closed state and the tripping condition being met, causing the low-voltage power distribution device to perform a tripping action in order to enable the low-voltage power distribution device to switch from the closed state to an open state, characterized in that detecting whether the low-voltage power distribution device is in a closed state is accomplished by a detection unit , wherein the detection unit is coupled through a connection assembly to a power supply which is comprised in the low-voltage power distribution device , and the connection assembly is configured to connect the detection unit to the power supply only in the closed state, so that the detection unit provides information of the closed state. detecting whether the low-voltage power distribution device is in a closed state; detecting whether a tripping condition associated with the low-voltage power distribution device is met; in response to the low-voltage power distribution device being in the closed state and the tripping condition being met, causing the low-voltage power distribution device to perform a tripping action in order to enable the low-voltage power distribution device to switch from the closed state to an open state, characterized in that detecting whether the low-voltage power distribution device is in a closed state is accomplished by a detection unit , wherein the detection unit is coupled through a connection assembly to a power supply which is comprised in the low-voltage power distribution device , and the connection assembly is configured to connect the detection unit to the power supply only in the closed state, so that the detection unit provides information of the closed state.
A blade for a wind power generation apparatus comprising: a structural member made of a conductive material inserted and attached therein; and characterised by a first electrode made of a conductive material formed on a surface of the blade , wherein the structural member is electrically insulated from the first electrode and formed into a second electrode earthed to ground. a structural member made of a conductive material inserted and attached therein; and characterised by a first electrode made of a conductive material formed on a surface of the blade , wherein the structural member is electrically insulated from the first electrode and formed into a second electrode earthed to ground.
A Brassica plant, seed or, a sample of seed comprising event LBLFK wherein said elite event is comprised in seed deposited under ATCC Accession No. PTA-121703, wherein the plant or the seed or the progeny thereof comprises the LBFLFK Locus 1 junction region SEQ ID NO:4 and/or SEQ ID NO: 5, or the complement thereof, and the LBFLFK Locus 2 junction region SEQ ID NO:13 and/or SEQ ID NO:14, or the complement thereof.
A variable stator vane arrangement crankshaft , the crankshaft having an axis and a plurality of clevises , characterised in that at least one clevis is movably mounted on the crankshaft , the at least one clevis is movable radially relative to the axis of the crankshaft and/or the at least one clevis is movable angularly relative to the axis of the crankshaft , the at least one clevis is adjustably secured to the crankshaft by an adjusting mechanism, the adjusting mechanism is arranged to select the radial position of the at least one clevis relative to the axis of the crankshaft and/or the angular position of the at least one clevis relative to the axis of the crankshaft , the adjusting mechanism including a releasable lock to lock the at least one clevis in a selected radial position and/or a selected angular position.
A communication method, comprising: determining a physical downlink shared channel, PDSCH, occasion based on a value set of K1 and time domain resource allocation information; and determining hybrid automatic repeat request, HARQ, feedback information based on the PDSCH occasion, wherein the value set of K1 comprises a set of values of a time relationship between downlink data transmission and the HARQ feedback information, and the value set of K1 is correlated with a downlink control information, DCI, format, wherein if non-fallback DCI is configured to be monitored, the value set of K1 is a first set; if fallback DCI is configured to be monitored and the non-fallback DCI is not configured to be monitored, the value set of K1 is a second set. determining a physical downlink shared channel, PDSCH, occasion based on a value set of K1 and time domain resource allocation information; and determining hybrid automatic repeat request, HARQ, feedback information based on the PDSCH occasion, wherein the value set of K1 comprises a set of values of a time relationship between downlink data transmission and the HARQ feedback information, and the value set of K1 is correlated with a downlink control information, DCI, format, wherein if non-fallback DCI is configured to be monitored, the value set of K1 is a first set; if fallback DCI is configured to be monitored and the non-fallback DCI is not configured to be monitored, the value set of K1 is a second set.
A granular activated carbon with a particle size of 0.150 mm or more as specified in JIS K1474 having the following properties to : an ignition residue of 2 mass fraction% or less; a hardness of 60 mass fraction% or more; a mesopore volume of 0.5 mL/g or more, the mesopore volume refers to the volume of pores with a diameter of 2 to 30 nm measured by a nitrogen adsorption method and calculated by the Cranston-Inkley method; and the raw material of the granular activated carbon being coconut shell, wherein the ignition residue and the hardness are determined according to JIS K1474, and wherein the specific surface area of the activated carbon is 1,000 to 2,200 m 2 /g, wherein the specific surface area is determined by the BET method. an ignition residue of 2 mass fraction% or less; a hardness of 60 mass fraction% or more; a mesopore volume of 0.5 mL/g or more, the mesopore volume refers to the volume of pores with a diameter of 2 to 30 nm measured by a nitrogen adsorption method and calculated by the Cranston-Inkley method; and the raw material of the granular activated carbon being coconut shell,
A composition comprising a) 10 to 60 % by weight of one or more urea components having a number average molecular weight Mn above 350 g/mol, determined by gel permeation chromatography (eluent: solution of lithium bromide (content 5g/l) in dimethylacetamide, standard: polymethylmethacrylate, column temperature: 80°C) according to DIN 55672 part 2 (year: 2008) and b) 40 to 90 % by weight of one or more carboxylic acid components according to formula (I) HO-R 1 -COOH, wherein R 1 represents an organic group having 3 to 75 carbon atoms, wherein the % by weight are calculated on the sum of components a) and b). a) 10 to 60 % by weight of one or more urea components having a number average molecular weight Mn above 350 g/mol, determined by gel permeation chromatography (eluent: solution of lithium bromide (content 5g/l) in dimethylacetamide, standard: polymethylmethacrylate, column temperature: 80°C) according to DIN 55672 part 2 (year: 2008) and b) 40 to 90 % by weight of one or more carboxylic acid components according to formula (I) HO-R 1 -COOH,
Hook for suspending cables and hoses, said hook is comprised of 45 to 800 grams of an injection molded composition comprised of a polybutylene terephthalate resin, 18% to 22% per total weight of the composition glass-fiber, one or more flame retardants and one or more UV stabilizers; and said hook has a maximum load bearing of 0.3 to 0.8 kg per gram composition.
A network-side device, capable of performing data communication with user equipment by using a millimeter-wave band, wherein the network-side device comprises: a receiving module , configured to receive measurement information sent by the user equipment; a determining module , configured to identify a status of the user equipment according to the measurement information fed back by the user equipment, wherein the status of the user equipment is a normal communication state or a blind area state, and the blind area state comprises at least one of a beam biased state, an interfered state, or a blocked state; and a blind area state processing module , configured to perform blind area management on the user equipment that is in the blind area state according to the identified blind area state, wherein blind area management comprises performing a corresponding optimization operation according to a corresponding blind area state. a receiving module , configured to receive measurement information sent by the user equipment; a determining module , configured to identify a status of the user equipment according to the measurement information fed back by the user equipment, wherein the status of the user equipment is a normal communication state or a blind area state, and the blind area state comprises at least one of a beam biased state, an interfered state, or a blocked state; and a blind area state processing module , configured to perform blind area management on the user equipment that is in the blind area state according to the identified blind area state, wherein blind area management comprises performing a corresponding optimization operation according to a corresponding blind area state.
A method for preparing beer concentrate, comprising the steps of: a. Subjecting beer to a first concentration step comprising nanofiltration (A) for the retention of particles having a size of 0.001 to 0.01 μm and larger thereby obtaining a retentate and a fraction comprising alcohol and volatile flavour components , wherein the retentate is characterised by the concentration of unfilterable compounds equal to or higher than 20% (w/w), preferably 30% (w/w), most preferably 40% (w/w), as calculated from density measurement corrected for the alcohol amount; b. Subjecting the fraction comprising alcohol and volatile flavour components to a next concentration step (B) comprising freeze concentration, fractionation, preferably being distillation, or reverse osmosis, to obtain a concentrated fraction comprising alcohol and volatile flavour components and a leftover fraction ; c. Combining (C) the retentate from a) with the concentrated fraction comprising alcohol and volatile flavour components from b). a. Subjecting beer to a first concentration step comprising nanofiltration (A) for the retention of particles having a size of 0.001 to 0.01 μm and larger thereby obtaining a retentate and a fraction comprising alcohol and volatile flavour components , wherein the retentate is characterised by the concentration of unfilterable compounds equal to or higher than 20% (w/w), preferably 30% (w/w), most preferably 40% (w/w), as calculated from density measurement corrected for the alcohol amount; b. Subjecting the fraction comprising alcohol and volatile flavour components to a next concentration step (B) comprising freeze concentration, fractionation, preferably being distillation, or reverse osmosis, to obtain a concentrated fraction comprising alcohol and volatile flavour components and a leftover fraction ; c. Combining (C) the retentate from a) with the concentrated fraction comprising alcohol and volatile flavour components from b).
An engine oil dipstick for monitoring an internal combustion engine comprising: a processor ; a sensor module configured to sense a characteristic of the internal combustion engine and output data representative of the sensed characteristic to the processor; wherein the sensor module comprises a pressure sensor; wherein the engine oil dipstick is configured to provide a housing for the processor; characterised in that the processor is configured to determine a value representative of the firing frequency of the internal combustion engine based on the output data; and the sensed characteristic comprises engine crankcase pressure; the processor is configured to calculate a root mean squared value of engine crankcase pressure; and the processor is configured to generate an aggregated summary of the total engine running at each combination of firing frequency and root mean squared engine crank case pressure. a processor ; a sensor module configured to sense a characteristic of the internal combustion engine and output data representative of the sensed characteristic to the processor; wherein the sensor module comprises a pressure sensor; wherein the engine oil dipstick is configured to provide a housing for the processor; characterised in that the processor is configured to determine a value representative of the firing frequency of the internal combustion engine based on the output data; and the sensed characteristic comprises engine crankcase pressure; the processor is configured to calculate a root mean squared value of engine crankcase pressure; and the processor is configured to generate an aggregated summary of the total engine running at each combination of firing frequency and root mean squared engine crank case pressure.
An audio signal processing method for suppressing a noise in a degraded audio signal comprising: recursively adapting noise information using a perturbation method; and suppressing the noise in the degraded audio signal using the noise information, wherein the recursive adaptation of the noise information is performed using one of the following equations: ν ⁢ n + 1 k = ν ⁢ n k + μ ⁢ en k ν ⁢ n k = ν ⁢ n − 1 k + μ ⁢ en k and ν ⁢ n + 1 k = ν ⁢ n k + μ ⋅ sgn en k , wherein vn(k) is the noise information for the nth frame for the frequency number k, en(k) is an error of the nth frame for the frequency number k, μ is a constant, and sgn is a signum function. recursively adapting noise information using a perturbation method; and suppressing the noise in the degraded audio signal using the noise
A fibrous element comprising one or more fibrous element-forming materials; one or more active agents not designed to be ingested by humans and/or animals and arranged to produce an intended effect to something other than the fibrous element under conditions of intended use of the fibrous element; and, one or more deterrent agents intended to prevent or mitigate the risk of accidental ingestion of the fibrous element by humans and/or animals and selected from the group consisting of bittering agents, pungent agents, emetic agents, and mixtures thereof, wherein at least one of the fibrous element-forming materials comprises a water-soluble material.
A microencapsulated formulation with a coating matrix, wherein said formulation comprises or, alternatively, consists of: (a) a diosmin; (b) a troxerutin; (c) coumarins or an extract of a plant species comprising coumarins; and wherein said coating matrix comprises or, alternatively, consists of at least one lipid. wherein said formulation comprises or, alternatively, consists of: (a) a diosmin; (b) a troxerutin; (c) coumarins or an extract of a plant species comprising coumarins; and (a) a diosmin; (b) a troxerutin; (c) coumarins or an extract of a plant species comprising coumarins; and wherein said coating matrix comprises or, alternatively, consists of at least one lipid.
A security transfer element for a value document , comprising a security element layer composite and a carrier film detachably connected to the security element layer composite , wherein the security element layer composite - has a functional layer , which, after transfer to a value document , develops an optically variable effect for a viewer, - has an adhesive layer ; - has an upper side, which faces the viewer after transfer of the security element layer composite to a value document substrate , wherein the adhesive layer is arranged on the side of the functional layer that is disposed opposite the upper side; and - has at least one luminescent substance, wherein the luminescent substance is arranged in the adhesive layer and/or in a luminescent substance layer , wherein the adhesive layer and/or the luminescent substance layer is arranged on the side of the functional layer in the security element layer composite that is disposed opposite the upper side, wherein the functional layer is configured to be opaque for a primary emission radiation of the luminescent substance, characterized in that the luminescent substance has the primary emission radiation in the wavelength range between 700 nm and 2100 nm and is excitable by an excitation radiation in the wavelength range between 400 nm and 2100 nm, in particular between 700 nm and 2100 nm, wherein the emission radiation of the luminescent substance of the security element layer composite is in a wavelength range between 900 nm and 1300 nm and/or 1300 nm and 1600 nm, and/or 1600 nm and 1850 nm and/or 1850 nm and 2100 nm. - has a functional layer , which, after transfer to a value document , develops an optically variable effect for a viewer, - has an adhesive layer ; - has an upper side, which faces the viewer after transfer of the security element layer composite to a value document substrate , wherein the adhesive layer is arranged on the side of the functional layer that is disposed opposite the upper side; and - has at least one luminescent substance, wherein the luminescent substance is arranged in the adhesive layer and/or in a luminescent substance layer , wherein the adhesive layer and/or the luminescent substance layer is arranged on the side of the functional layer in the security element layer composite that is disposed opposite the upper side, wherein the functional layer is configured to be opaque for a primary emission radiation of the luminescent substance,