mhurhangee/patent-ind-claim-en huggingface dataset:
A safety cabinet, in particular fire protection cabinet for accommodating hazardous substances, preferably battery cabinet for accommodating and storing high-power batteries such as lithium ion batteries, having a cabinet body and at least one cabinet door connected to the cabinet body or interacting therewith, and having at least one sensor , the sensor signals of which are evaluated by a control unit of the safety cabinet, characterized in that - the at least one sensor is arranged in the cabinet body , wherein - a closing signal is derived from the sensor signals by the control unit when at least one threshold value (S) and/or a limit value (G) of time gradients is exceeded and is implemented for closing the door, wherein - the control unit causes the door to close as soon as the sensor signals of one of the sensors are interpreted by the control unit as a closing signal, and wherein - the sensor is designed as a smoke, gas, vapor or leakage sensor individually or in combination. - the at least one sensor is arranged in the cabinet body , wherein - a closing signal is derived from the sensor signals by the control unit when at least one threshold value (S) and/or a limit value (G) of time gradients is exceeded and is implemented for closing the door, wherein - the control unit causes the door to close as soon as the sensor signals of one of the sensors are interpreted by the control unit as a closing signal, and wherein - the sensor is designed as a smoke, gas, vapor or leakage sensor individually or in combination. - a closing signal is derived from the sensor signals by the control unit when at least one threshold value (S) and/or a limit value (G) of time gradients is exceeded and is implemented for closing the door, wherein - the control unit causes the door to close as soon as the sensor signals of one of the sensors are interpreted by the control unit as a closing signal, and wherein - the sensor is designed as a smoke, gas, vapor or leakage sensor individually or in combination.
A device for placing and bonding a filament onto a substrate , comprising: a filament feeder for feeding the filament at a filament feeding speed over the substrate as the device moves in respect of the substrate ; a dispenser nozzle for applying a bonding material at a bonding material application rate over the filament fed over the substrate; wherein the dispenser nozzle comprises a concave tip for guiding the filament onto the substrate as the device moves in respect of the substrate at a speed of movement of the device in respect of the substrate, characterized in that , the filament feeder comprises a guide for holding and driving the filament into said dispenser nozzle ; the filament feeder comprises an open channel for filament feeding; and the device further comprises an electronic data processor configured for synchronizing the filament feeding speed and the bonding material application rate with the speed of movement of the device in respect of the substrate . a filament feeder for feeding the filament at a filament feeding speed over the substrate as the device moves in respect of the substrate ; a dispenser nozzle for applying a bonding material at a bonding material application rate over the filament fed over the substrate; wherein the dispenser nozzle comprises a concave tip for guiding the filament onto the substrate as the device moves in respect of the substrate at a speed of movement of the device in respect of the substrate, characterized in that , the filament feeder comprises a guide for holding and driving the filament into said dispenser nozzle ; the filament feeder comprises an open channel for filament feeding; and the device further comprises an electronic data processor configured for synchronizing the filament feeding speed and the bonding material application rate with the speed of movement of the device in respect of the substrate .
A system of "intelligent bearings" for bridge of viaduct structures, wherein said system comprises at least: i. a plurality of sensorized " bearings ", installed in said bridge or viaduct, suitable to perform a series of measurements, over time, of the vertical load exerted on each of said sensorized " bearings ", ii. a subsystem capable of detecting the position, over time, of vehicles transiting on a trait of road corresponding to said bridge or viaduct, and iii. suitable computing means configured for processing the information produced by said sensorized "bearings" and by said subsystem capable of detecting the position of said vehicles; and said computing means are: a. configured to implement a previously programmed mathematical model of the structure of said bridge or viaduct, and b. programmed to produce a plurality of equations in which each value of said series of measurements, over time, of the vertical load exerted on each of said sensorized "bearings", is expressed as a function of said position, over time, of the vehicles transiting on that trait of road corresponding to said bridge or viaduct, and of their weight, being the weights of said vehicles expressed as unknowns in these equations, c. moreover, said computing means are programmed to solve systems of equations composed of said equations produced in the previous point "b." in order to estimate the weight of each of said vehicles transiting on said trait of road corresponding to said bridge or viaduct. i. a plurality of sensorized " bearings ", installed in said bridge or viaduct, suitable to perform a series of measurements, over time, of the vertical load exerted on each of said sensorized " bearings ", ii. a subsystem capable of detecting the position, over time, of vehicles transiting on a trait of road corresponding to said bridge or viaduct, and iii. suitable computing means configured for processing the information produced by said sensorized "bearings" and by said subsystem capable of detecting the position of said vehicles; a. configured to implement a previously programmed mathematical model of the structure of said bridge or viaduct, and b. programmed to produce a plurality of equations in which each value of said series of measurements, over time, of the vertical load exerted on each of said sensorized "bearings", is expressed as a function of said position, over time, of the vehicles transiting on that trait of road corresponding to said bridge or viaduct, and of their weight, being the weights of said vehicles expressed as unknowns in these equations, c. moreover, said computing means are programmed to solve systems of equations composed of said equations produced in the previous point "b." in order to estimate the weight of each of said vehicles transiting on said trait of road corresponding to said bridge or viaduct.
A method of determining encoding parameters for encoding, into a bitstream, a portion of an image of a video sequence, the image portion being encoded by motion compensation with respect to at least one reference image portion, the encoding parameters for encoding the image portion including a coding mode and a motion information predictor for predicting a motion vector of the image portion being encoded, the coding mode is selected from among at least a first coding mode in which a texture residual is not encoded and motion information is encoded using a set of motion information predictors (N) and a second coding mode in which a texture residual may be encoded and motion information is encoded using a set of motion information predictors, the set of motion information predictors (N) being the same for the first and the second coding modes, selection of the coding mode and the motion information predictor involving computing costs of encoding the image portion using motion information predictors of the set (N) in the first and second coding modes and comparing computed costs , the method comprising steps of: for each motion information predictor in the set of motion information predictors: computing the first-coding-mode cost and including the first-coding-mode cost in the comparison of costs; detecting when at least one condition relating to one or more motion information predictors of the set, or relating to one or more first-coding-mode and second-coding-mode costs already computed, is met; and if it is detected that the condition is met, omitting the computing of the second-coding-mode cost, and otherwise carrying out the computing of the second-coding-mode cost and including the second-coding-mode cost in the comparing of costs; and wherein the at least one condition results in the computing of the second-coding-mode cost for at least one motion information predictor. for each motion information predictor in the set of motion information predictors: computing the first-coding-mode cost and including the first-coding-mode cost in the comparison of costs; detecting when at least one condition relating to one or more motion information predictors of the set, or relating to one or more first-coding-mode and second-coding-mode costs already computed, is met; and if it is detected that the condition is met, computing the first-coding-mode cost and including the first-coding-mode cost in the comparison of costs; detecting when at least one condition relating to one or more motion information predictors of the set, or relating to one or more first-coding-mode and second-coding-mode costs already computed, is met; and if it is detected that the condition is met, omitting the computing of the second-coding-mode cost, and otherwise carrying out the computing of the second-coding-mode cost and including the second-coding-mode cost in the comparing of costs; and wherein the at least one condition results in the computing of the second-coding-mode cost for at least one motion information predictor.
Fibrous sheet having a basis weight of between 20 and 1000 g/m 2 being manufactured according to a wet papermaking process and dried by heat exchange, and disintegrating in water as defined in NF Q34-020 in less than 120 seconds, said fibrous sheet comprising 10 to 70% starch soluble in water and at least 30% of papermaking fibres on the basis of the total weight of the dry fibrous sheet, said starch being substantially uniformly distributed through the thickness of the fibrous sheet, papermaking fibres being coated with starch.
A method for determining the concentration of a predetermined gas in a sample in a closed sample container using a tunable diode laser and a light sensor , wherein a wavelength of substantially monochromatic light emitted from the diode laser into the sample is varied in time by changing a pump current (I) of a laser diode of the diode laser , the intensity of the light emerging from the sample is measured, and the concentration of the gas in the sample is calculated as a function of the variation in time of the pump current (I) and the variation in time of the measured intensity, wherein, in addition to an absorption spectrum, a temperature at the outer wall of the sample container is measured and taken into account when calculating the concentration of the gas, and wherein the pump current (I) has a first temporal portion with a substantially constant and non-zero base current and a second temporal portion with a current ramp continuously increasing from the base current , wherein the predetermined gas is nitrogen, wherein a line broadening is determined in the absorption spectrum determined from the intensity distribution as a function of the pump current and the partial pressure of water vapor in the sample is inferred from this line broadening, wherein the calculation of the nitrogen concentration comprises a calibrated parameter whose value has been previously determined by calibration with at least one reference sample having a known nitrogen concentration.
A method for measuring stable glycated hemoglobin sA1c, which comprises a step of subjecting a blood sample after hemolysis to cation exchange chromatography to elute sA1c as separated from other hemoglobin components thereby to obtain a chromatogram showing elution of hemoglobin fractions, a step of identifying a sA1c peak in the obtained chromatogram and calculating its peak area, a step of identifying peaks of hemoglobin components other than sA1c in the obtained chromatogram and calculating their peak areas, a step of calculating the proportion (%) of the sA1c peak area to the total hemoglobin peak area, a step of identifying a non-glycated peak of abnormal hemoglobin D, abnormal hemoglobin S or abnormal hemoglobin C from peaks which appear after a non-glycated peak of hemoglobin A, and a step of estimating the area of a glycated peak of abnormal hemoglobin D, abnormal hemoglobin S or abnormal hemoglobin C based on a non-glycated peak area and the like of the abnormal hemoglobin identified, wherein the proportion (%) of the sA1c peak area in the above step 4 is corrected based on the estimated calculation results.
Clamping device for the connection and clamping of clamping parts (K), comprising a connecting joint , at least one clamping section with a respective transmission element , and a tensioning element , wherein the tensioning element is arranged on the connecting joint and is in a clamped state in a first end position (E1), and is in a relaxed state in a second end position (E2), wherein in the tensioned state, the at least one transmission element presses against a respective clamping part (K), whereby the clamping part (K) is clamped between a respective clamping section and a transmission element and is thus fixed, and in the relaxed state, a clamping part (K) is movable in a clamping section , wherein the at least one clamping section is rotatable relative to the connecting joint in the relaxed state and is fixed to the connecting joint in the clamped state, wherein in the connecting joint , a clamping element is further provided which comprises on at least one side an inclined surface which respectively abuts against an inclined surface of at least one transmission element , such that a translational movement of the clamping element causes a translational movement of the at least one transmission element , wherein the translational movement of the clamping element has a different direction than the translational movement of the at least one transmission element . comprising a connecting joint , at least one clamping section with a respective transmission element , and a tensioning element , wherein the tensioning element is arranged on the connecting joint and is in a clamped state in a first end position (E1), and is in a relaxed state in a second end position (E2), wherein in the tensioned state, the at least one transmission element presses against a respective clamping part (K), whereby the clamping part (K) is clamped between a respective clamping section and a transmission element and is thus fixed, and in the relaxed state, a clamping part (K) is movable in a clamping section , wherein the at least one clamping section is rotatable relative to the connecting joint in the relaxed state and is fixed to the connecting joint in the clamped state, wherein in the connecting joint , a clamping element is further provided which comprises on at least one side an inclined surface which respectively abuts against an inclined surface of at least one transmission element , such that a translational movement of the clamping element causes a translational movement of the at least one transmission element , wherein the translational movement of the clamping element has a different direction than the translational movement of the at least one transmission element .
A cascade for a thrust reversal device intended to be mounted on a turbomachine of an aircraft, the cascade comprising first partitions extending in a first direction (D A ), second fixed partitions extending in a second direction (D C ) orthogonal to the first direction (D A ), and a frame inside which the first and second partitions extend , the frame comprising at least two fixed walls extending according to the first direction (D A ), and at least one part of each first partition extending between two second partitions in a plane comprising the first and second directions (D A , D C ), wherein at least one first partition is mobile according to the second direction (D C ) between a first position in which said at least one first partition is distant, in the second direction (D C ), from said fixed walls of the frame to form a plurality of resonating cavities with the first partitions and/or the fixed walls of the frame , and a second position in which said at least one first partition is in contact with a fixed wall of the frame or another first partition .
A process for obtaining an avocado oil from whole soft avocados, said oil containing at least 3% unsaponifiable by mass relative to the total mass of the oil, in which said unsaponifiable contains aliphatic acetogenins and/or their derivatives, the soft avocados having a penetration resistance force in the flesh less than or equal to 3 kg/cm 2 , said penetration resistance force being measured by means of a penetrometer, comprising the following successive steps: Grinding of the soft avocados resulting in obtaining a ground product granulometry of between 2 and 20 mm, Drying of the ground product at high temperature between 60 and 150°C, to obtain a residual humidity less than or equal to 5%, Adding water to the dried avocados by addition of 1 to 5% of water or steam relative to the mass of ground dry avocados, then Extraction of the oil by mechanical pressure. Grinding of the soft avocados resulting in obtaining a ground product granulometry of between 2 and 20 mm, Drying of the ground product at high temperature between 60 and 150°C, to obtain a residual humidity less than or equal to 5%, Adding water to the dried avocados by addition of 1 to 5% of water or steam relative to the mass of ground dry avocados, then Extraction of the oil by mechanical pressure.
An attachment for mounting on a harvesting machine having a number of picking devices arranged adjacent to one another and distributed over the working width, the picking devices each having a picking gap delimited laterally by picking plates , under which at least a first and a second picking rotor , which are drivable to rotate in opposite directions, are arranged, the picking rotors are each provided with several drawing edges which protrude in the radial direction and are formed on drawing bodies , the envelope circles of which mesh with one another, and adjacent drawing edges of the first picking rotor delimit intermediate spaces located between them within the envelope circle , which extend along the longitudinal direction of the first picking rotor and into which the drawing edges of the opposite second picking rotor plunge during a rotation of the first and second picking rotors , characterized in that the drawing edges on the drawing bodies on the first and second picking rotor are arranged in relation to one another in such a way that, during a rotation movement of the first and second picking rotor , two adjacent drawing edges of the first picking rotor , in their effective range in the downward-directed movement path of a plant stalk , hold the plant stalk temporarily pressed against the drawing edges of the second picking rotor , which are leading and trailing in relation to the two adjacent drawing edges of the first picking rotor , and stretch the plant stalk through the four contact points of the plant stalk onto the drawing edges of the first and second picking rotor into a curved shape approximating the envelope circle of the first picking rotor , and a knife blade is arranged on the second picking rotor between the leading and trailing drawing edges of the second picking rotor , which cuts into the outside of the plant stalk stretched in a curved shape.
A method of manufacturing a chorionic membrane product comprising the steps of: a. selectively depleting the chorionic membrane of a placenta of one or more types of viable immunogenic cells, wherein i. the one or more types of immunogenic cells comprise functional CD14+ macrophages, ii. the step of selective depletion does not comprise killing or removing native therapeutic cells selected from MSCs, fibroblasts, and a combination thereof, iii the selective depletion is a substantial amount of at least 50% compared to an unprocessed membrane, iv the step of selective depletion comprises incubating the chorionic membrane, with all or a portion of the trophoblast layer removed, in a cryopreservation medium at a temperature above freezing for at least 30 minutes; followed directly by b. cryopreserving the chorionic membrane in the cryopreservation medium, wherein the cryopreserved chorionic membrane comprises at least 70% viable therapeutic cells, thereby providing a chorionic membrane selectively depleted of at least 50% of one or more types of viable immunogenic cells, wherein the chorionic membrane comprises viable therapeutic cells, wherein the viable therapeutic cells are native to the chorionic membrane, and wherein the viable cells comprise MSCs, and fibroblasts. a. selectively depleting the chorionic membrane of a placenta of one or more types of viable immunogenic cells, wherein i. the one or more types of immunogenic cells comprise functional CD14+ macrophages, ii. the step of selective depletion does not comprise killing or removing native therapeutic cells selected from MSCs, fibroblasts, and a combination thereof, iii the selective depletion is a substantial amount of at least 50% compared to an unprocessed membrane, iv the step of selective depletion comprises incubating the chorionic membrane, with all or a portion of the trophoblast layer removed, in a cryopreservation medium at a temperature above freezing for at least 30 minutes; followed directly by i. the one or more types of immunogenic cells comprise functional CD14+ macrophages, ii. the step of selective depletion does not comprise killing or removing native therapeutic cells selected from MSCs, fibroblasts, and a combination thereof, iii the selective depletion is a substantial amount of at least 50% compared to an unprocessed membrane, iv the step of selective depletion comprises incubating the chorionic membrane, with all or a portion of the trophoblast layer removed, in a cryopreservation medium at a temperature above freezing for at least 30 minutes; followed directly by b. cryopreserving the chorionic membrane in the cryopreservation medium, wherein the cryopreserved chorionic membrane comprises at least 70% viable therapeutic cells,