mhurhangee/ep-ind-claims huggingface dataset:
Method for treating a landfill with a landfill body of waste materials, wherein a plurality of heat exchanging means is introduced into the landfill body, characterized in that by way of a pump means and a control means a transfer fluid is led through the heat exchanging means, wherein heat is supplied to the landfill body and the heat is stored in the landfill body, and in that at a later stage the stored heat is recovered and heat is removed from the landfill body via the heat exchanging means.
A cooling device comprising a body; a door which covers the body, which provides access into the body and which has an upper side, two lateral sides and a lower side; at least one hinge which enables the door to be connected to the body in an openable/closable manner; and a protrusion which is provided at one end of the hinge and which creates an elevation from the surface of the hinge towards the lower side, wherein there is a ball which functions as a stopper by contacting the protrusion while the door is opened/closed; a cover whereon the ball is placed; and a housing which is provided on the lower side of the door and characterized in that the housing enables the cover supporting the ball to be mounted to the lower side of the door at a plurality of mounting positions predetermined by the producer.
Multi-turn potentiometer for measuring an angle of rotation, comprising a first housing part which is configured in such a way that a carrier for a resistance element is held in a holding device (11.1, 11.2), and that a spindle having a measuring element fitted thereto is supported in a bearing device (12.1, 12.2), the carrier, the spindle and the measuring element being designed in such a way that the measuring element can be displaced along the carrier by rotating the spindle, wherein the measuring element interacts with the resistance element of the carrier, wherein the carrier has a resistance track and a collector track, the carrier projects somewhat out of the first housing part, so that the resistance track is at least partly accessible, so that linearization can be performed by removing parts of the resistance track.
A pharmaceutical agent for use in treating hearing impairment resulting from apoptosis in inner ear cells comprising metformin or a pharmaceutically acceptable salt thereof as an active ingredient wherein the inner ear hearing impairment is caused by Pendred syndrome.
A system for robust constraints handling for a vehicle having an engine with one or more subsystems associated with the engine, comprising: a mechanism configured to measure disturbance variables of the one or more subsystems, wherein the measured disturbance variables are selected from a group comprising vehicle speeds, a pedal position of fuel control by a driver, a driver torque request, a driver's aggressive tip-ins, sudden vehicle accelerations, exhaust gas flow and ambient conditions; a sensor subsystem configured to collect information about uncertainties of the measured disturbance variables; and a model predictive controller configured to: provide model predictive control for the one or more subsystems; obtain information about the uncertainties of the measured disturbance variables; maintain controlled variables of the one or more subsystems within prescribed limits; estimate a worst case prediction of system uncertainty over a prediction horizon based on the uncertainties of the measured disturbance variables; and wherein the model predictive controller further comprises an algorithm configured to approximate uncertainties of the measured disturbance variables on the prediction horizon, and wherein the algorithm is configured to reduce a range between prescribed limits on the measured disturbance variables over the prediction horizon based on the worst case prediction which decreases a probability of exceeding the original prescribed limits. provide model predictive control for the one or more subsystems; obtain information about the uncertainties of the measured disturbance variables; maintain controlled variables of the one or more subsystems within prescribed limits; estimate a worst case prediction of system uncertainty over a prediction horizon based on the uncertainties of the measured disturbance variables; and wherein the model predictive controller further comprises an algorithm configured to approximate uncertainties of the measured disturbance variables on the prediction horizon, and wherein the algorithm is configured to reduce a range between prescribed limits on the measured disturbance variables over the prediction horizon based on the worst case prediction which decreases a probability of exceeding the original prescribed limits.
A printer, comprising: a housing having a fixed structure and a movable cover, the movable cover configured to be movable with respect to the fixed structure; and a printing mechanism disposed inside the housing, the printing mechanism configured to print an image on a medium; wherein a first slat of the movable cover is movably attached to a first top portion of the fixed structure via a first pivoting mechanism placed over an adjacent side of the first top portion that defines a first pivoting axis, t wherein the first pivoting mechanism allows a rotation of the first slat over top of the first top portion; wherein the first slat and a plurality of linked slats (34, 36, 38, 40) of the movable cover, and each pair of adjacent linked slats of the plurality of linked slats (34, 36, 38,40) are being linked together by a plurality of second pivoting mechanisms, each second pivoting mechanism being attached between adjoining pairs of slats comprising the first slat and the plurality of linked slats (34, 36, 38, 40), wherein the plurality of second pivoting mechanisms allows a slat to swing up to 360 degrees with respect to an adjoining slat. a housing having a fixed structure and a movable cover, the movable cover configured to be movable with respect to the fixed structure; and a printing mechanism disposed inside the housing, the printing mechanism configured to print an image on a medium; wherein a first slat of the movable cover is movably attached to a first top portion of the fixed structure via a first pivoting mechanism placed over an adjacent side of the first top portion that defines a first pivoting axis, t wherein the first pivoting mechanism allows a rotation of the first slat over top of the first top portion; wherein the first slat and a plurality of linked slats (34, 36, 38, 40) of the movable cover, and each pair of adjacent linked slats of the plurality of linked slats (34, 36, 38,40) are being linked together by a plurality of second pivoting mechanisms, each second pivoting mechanism being attached between adjoining pairs of slats comprising the first slat and the plurality of linked slats (34, 36, 38, 40), wherein the plurality of second pivoting mechanisms allows a slat to swing up to 360 degrees with respect to an adjoining slat.
A mounting system for an energy storage module, the module comprising a plurality of energy storage devices electrically connected together in series; each energy storage module further comprising plurality of coolers onto each of which one of the plurality of energy storage devices is mounted; wherein the mounting system comprises two or more connectors on each cooler, each connector comprising a first part and a second part, wherein the connector is connectable with a corresponding second part and first part on another cooler; wherein each first part comprises a resilient member supporting a protruding tab; wherein each second part comprises a corresponding slot to receive the protruding tab; and, wherein the mounting system further comprises an electronics board mount, the mount comprising one or more pairs of resilient locating members spaced from one another by a distance substantially equal to a width of the electronics board, each resilient locating member further comprising a downward facing surface, wherein each connector comprises a cylindrical body integrally formed in a wall of the cooler incorporating the second part and the first part, the resilient member of the first part comprising a pin independently removable from the cylindrical body, wherein the cylindrical body and resilient member of the connector of each cooler define a hollow through hole; and wherein the mounting system further comprises a rod inserted in the through hole and extending through the plurality of coolers. wherein each connector comprises a cylindrical body integrally formed in a wall of the cooler incorporating the second part and the first part, the resilient member of the first part comprising a pin independently removable from the cylindrical body, wherein the cylindrical body and resilient member of the connector of each cooler define a hollow through hole; and wherein the mounting system further comprises a rod inserted in the through hole and extending through the plurality of coolers.
A cavity filter (200, 300, 400, 500) comprising: a plate (220, 320, 420, 520) comprising a feeder part (230, 330, 430) supplying an electrical signal; a housing (210, 310, 410, 510) forming an exterior of the cavity filter (200, 300, 400, 500) and coupled to the plate (220, 320, 420, 520), the housing (210, 310, 410, 510) and the plate (220, 320, 420, 520) forming a shielded space inside the cavity filter (200, 300, 400, 500); a first metal structure having a first end coupled to an inside of the housing (210, 310, 410, 510) and a second end extending toward the feeder part (230, 330, 430) and being configured to resonate to filter frequencies in the shielded space; and characterized in that the cavity filter (200, 300, 400, 500) further comprises a first control bolt disposed in one surface of the housing (210, 310, 410, 510) and arranged to correspond to the first metal structure to control a length of the first metal structure; and a printed circuit board having a function of a resonator and being coupled to the second end of the first metal structure, wherein a resonant frequency of the cavity filter (200, 300, 400, 500) depends on an area of a region where the printed circuit board and the feeder part (230, 330, 430) face each other. a plate (220, 320, 420, 520) comprising a feeder part (230, 330, 430) supplying an electrical signal; a housing (210, 310, 410, 510) forming an exterior of the cavity filter (200, 300, 400, 500) and coupled to the plate (220, 320, 420, 520), the housing (210, 310, 410, 510) and the plate (220, 320, 420, 520) forming a shielded space inside the cavity filter (200, 300, 400, 500); a first metal structure having a first end coupled to an inside of the housing (210, 310, 410, 510) and a second end extending toward the feeder part (230, 330, 430) and being configured to resonate to filter frequencies in the shielded space; and characterized in that the cavity filter (200, 300, 400, 500) further comprises a first control bolt disposed in one surface of the housing (210, 310, 410, 510) and arranged to correspond to the first metal structure to control a length of the first metal structure; and a printed circuit board having a function of a resonator and being coupled to the second end of the first metal structure, wherein a resonant frequency of the cavity filter (200, 300, 400, 500) depends on an area of a region where the printed circuit board and the feeder part (230, 330, 430) face each other.
Method for evaluating measured values obtained during the practical driving operation of a vehicle, wherein: - a determination of the time delay between a signal change at the input of a system comprising an internal combustion engine with an exhaust line and a mobile exhaust gas analyzer is carried out by parallel application of two independent methods, - the two resulting indications concerning the time delay are compared with each other and a decision is made depending on this comparison whether a deviation between the two time delays lies within a predetermined tolerance or not, - if the deviation is within the tolerance, the determination of the time delay is considered successful and at least one of the two time delays is further processed, so that measured values determined by the exhaust gas analyzer in knowledge of this time delay can be assigned to those signals of the control and/or regulation of the internal combustion engine which were present at the time when the measured values were determined by the exhaust gas analyzer, - if the deviation is not within the tolerance, determination of the time delay is discarded and a new determination of the time delay is carried out by parallel application of the two independent methods, - in accordance with the first method, determination of the time delay is carried out by means of cross-correlation analysis and in accordance with the second method, determination of the time delay is based on system identification through a determination of the dependence of the output variables of the system on the input variables of the system. - a determination of the time delay between a signal change at the input of a system comprising an internal combustion engine with an exhaust line and a mobile exhaust gas analyzer is carried out by parallel application of two independent methods, - the two resulting indications concerning the time delay are compared with each other and a decision is made depending on this comparison whether a deviation between the two time delays lies within a predetermined tolerance or not, - if the deviation is within the tolerance, the determination of the time delay is considered successful and at least one of the two time delays is further processed, so that measured values determined by the exhaust gas analyzer in knowledge of this time delay can be assigned to those signals of the control and/or regulation of the internal combustion engine which were present at the time when the measured values were determined by the exhaust gas analyzer, - if the deviation is not within the tolerance, determination of the time delay is discarded and a new determination of the time delay is carried out by parallel application of the two independent methods, - in accordance with the first method, determination of the time delay is carried out by means of cross-correlation analysis and in accordance with the second method, determination of the time delay is based on system identification through a determination of the dependence of the output variables of the system on the input variables of the system.
Construction composite from the residue of mixed municipal waste after mechanical treatment, where the residue of mixed municipal waste after mechanical treatment represents a heavy fraction with the highest content of hazardous substances in the form of water-soluble compounds in dry matter of the heavy fraction: Cd ≤ 1.00 mg/kg, Cr total ≤ 2.70 mg/kg, Cu ≤ 19.00 mg/kg, Hg ≤ 0.02 mg/kg, Mo ≤ 1.50 mg/kg, Ni ≤ 7.20 mg/kg, Pb ≤ 2.37 mg/kg, Sb ≤ 5.60 mg/kg, Se ≤ 0.15 mg/kg, Zn ≤ 23.00 mg/kg, Cl - ≤ 11,000.00 mg/kg, F - ≤ 17.20 mg/kg and SO 4 2- ≤ 13,000.00 mg/kg, characterized in that its dry weight fractions are from 10 to 40 wt.% of heavy fraction, from 60 to 90 wt.% of ash, up to 20 wt.% of natural clay or zeolite, and water, which is added to the construction composite in such an amount that the construction composite reaches such consistency that when installed by layered compaction it achieves a density of at least 95% of the maximum reference dry density (ρ dmax) according to the laboratory standard Proctor test, and the content of hazardous substances in the form of water-soluble compounds in the dry matter of the construction composite after installation is as follows: Cd ≤ 0.04 mg/kg, Total ≤ 0.50 mg/kg, Cu ≤ 2.00 mg/kg, Hg ≤ 0.01 mg/kg, Mo ≤ 0.50 mg/kg, Ni ≤ 0.40 mg/kg, Pb ≤ 0.50 mg/kg, Sb ≤ 0.06 mg/kg, Se ≤ 0.10 mg/kg, Zn ≤ 4.00 mg/kg, Cl - ≤ 800.00 mg/kg, F - ≤ 10.00 mg/kg and SO 4 2- 1,000.00 mg/kg.
A composition for preparing high strength, light weight glass fibers comprising: SiO 2 in an amount from 70.6 to 78.2% by weight of the total composition, Al 2 O 3 in an amount from 18.6 to 26.2% by weight of the total composition, MgO in an amount from 3.1 to 10.7% by weight of the total composition, CaO in an amount from 0.0 to 7.6% by weight of the total composition, Li 2 O in an amount from 0.1 to 5.0% by weight of the total composition, and Na 2 O is present in an amount from 0.0 to 0.2% by weight of the total composition. SiO 2 in an amount from 70.6 to 78.2% by weight of the total composition, Al 2 O 3 in an amount from 18.6 to 26.2% by weight of the total composition, MgO in an amount from 3.1 to 10.7% by weight of the total composition, CaO in an amount from 0.0 to 7.6% by weight of the total composition, Li 2 O in an amount from 0.1 to 5.0% by weight of the total composition, and Na 2 O is present in an amount from 0.0 to 0.2% by weight of the total composition.
A liquid, gel or semi-solid pharmaceutical composition comprising: from 1% to 25% of naloxone base by the total mass of the composition; and from 50% to 99% of one or more non-aqueous solvents selected from the group consisting of oleic acid, liquid polyethylene glycol, propylene glycol, and ethanol, or mixtures thereof, by the total mass of the composition; wherein the composition is free of water; wherein the naloxone base is completely and homogeneously dissolved in the one or more non-aqueous solvents, and wherein the composition is a sublingual or buccal dosage form. from 1% to 25% of naloxone base by the total mass of the composition; and from 50% to 99% of one or more non-aqueous solvents selected from the group consisting of oleic acid, liquid polyethylene glycol, propylene glycol, and ethanol, or mixtures thereof, by the total mass of the composition; wherein the composition is free of water; wherein the naloxone base is completely and homogeneously dissolved in the one or more non-aqueous solvents, and
A backup power system, comprising: a battery; a charging circuit electrically connected to the battery; power storage configured to be charged by the charging circuit; a first load electrically connected to the power storage; a second load electrically connected to the power storage; and a controller configured to control the charging circuit, wherein the controller detects at least one of an input current at the charging circuit and a charging voltage at the power storage in response to a start signal input to the controller, the controller causes the input current at the charging circuit to increase at a first rate of change in response to the start signal, when the controller detects an increase in the charging voltage at the power storage up to a first voltage at which driving of the first load is possible, the controller causes the charging circuit to cause the input current at the charging circuit to increase at a second rate of change lower than the first rate of change, and the charging circuit is controlled by the controller to cause the input current to increase at the second rate of change, and the charging voltage at the power storage increases up to a second voltage at which driving of both the first load and the second load is possible. a battery; a charging circuit electrically connected to the battery; power storage configured to be charged by the charging circuit; a first load electrically connected to the power storage; a second load electrically connected to the power storage; and a controller configured to control the charging circuit, wherein the controller detects at least one of an input current at the charging circuit and a charging voltage at the power storage in response to a start signal input to the controller, the controller causes the input current at the charging circuit to increase at a first rate of change in response to the start signal, when the controller detects an increase in the charging voltage at the power storage up to a first voltage at which driving of the first load is possible, the controller causes the charging circuit to cause the input current at the charging circuit to increase at a second rate of change lower than the first rate of change, and the charging circuit is controlled by the controller to cause the input current to increase at the second rate of change, and the charging voltage at the power storage increases up to a second voltage at which driving of both the first load and the second load is possible.
Detection device for detecting objects during a charging operation of electrically operated devices, wherein the detection device comprises at least one signal generator which supplies an alternating current voltage to an electrical circuit (4, 6) having at least one detection coil and/or at least one capacitor, and with a sensor device which detects at least one electrical variable which is characteristic for this electrical circuit, wherein the characteristic variable for the electrical circuit (4, 6) is selected from a group of variables, which are a damping of the resonant circuit, a power loss, a return loss, a resonant frequency or a change in the resonant frequency, characterised in that these characteristic variables are obtained on the basis of scattering parameter measurements of the electrical circuit (4, 6) by the sensor device, and further wherein the characteristic variable is one which changes in the presence of a further object and in particular in the presence of an object to be detected, so that the presence of the objects is detected by the detection device, wherein the sensor device thus allows the recognition of living objects, and further wherein in a charging operation decoupling capacitors block induced voltages, so that no interfering voltages reach the directional coupler, and so that in this way a sensor operation is also enabled during the charging state.