mhurhangee/ep-ind-claims huggingface dataset:
Energy meter unit with self calibration functions, comprising: At least one first and one second AC or DC current measuring channel (101, 102), defined as one AC or DC double current measuring channel, for measuring the current flowing in a AC or DC power feeding line; At least one first and one second AC or DC voltage measuring channel (101, 102), defined as one AC or DC double voltage measuring channel, for measuring the voltage in the said AC or DC power feeding line; A processing unit having one input for each of the said current and voltage measuring channels (101, 102); The processing unit determining the electric power consumption in the power feeding line from the measured current and voltage values and Means (2, 8) for testing the calibration of the said measuring channels and Means for carrying out a calibration of the said measuring channels as a function of the results of the calibration test, characterized in that Each measuring channel (101, 102) is provided with switching means for cyclically switching each of the said first and second current measuring channels (101, 102) and the said first and second voltage measuring channels (101, 102) alternatively to the power feeding line and to the means for carrying out the calibration test and the calibration of the said channels, thereby being able to carry out the measurements alternatively using one of the two measuring channels (101, 102) of each double measuring channel, while the other measuring channel (102, 101) of each double measuring channel can be subjected for calibration. At least one first and one second AC or DC current measuring channel (101, 102), defined as one AC or DC double current measuring channel, for measuring the current flowing in a AC or DC power feeding line; At least one first and one second AC or DC voltage measuring channel (101, 102), defined as one AC or DC double voltage measuring channel, for measuring the voltage in the said AC or DC power feeding line; A processing unit having one input for each of the said current and voltage measuring channels (101, 102); The processing unit determining the electric power consumption in the power feeding line from the measured current and voltage values and Means (2, 8) for testing the calibration of the said measuring channels and Means for carrying out a calibration of the said measuring channels as a function of the results of the calibration test, characterized in that Each measuring channel (101, 102) is provided with switching means for cyclically switching each of the said first and second current measuring channels (101, 102) and the said first and second voltage measuring channels (101, 102) alternatively to the power feeding line and to the means for carrying out the calibration test and the calibration of the said channels, thereby being able to carry out the measurements alternatively using one of the two measuring channels (101, 102) of each double measuring channel, while the other measuring channel (102, 101) of each double measuring channel can be subjected for calibration.
A method for mounting a battery system to a chassis floor (110; 310; 410) of an electrical vehicle, the battery system being adapted for providing electrical power for driving rolling movement of said electrical vehicle, a plane extending through and parallel to said chassis floor with a first side (111; 311; 411) of said plane facing in a downward direction during use of the electrical vehicle, the method comprising: individually fixing battery modules (140; 340; 440) of a plurality of battery modules to the chassis floor at the first side of said plane, each battery module comprising electrical terminals (133a, 133b; 443a, 443b); subsequently electrically connecting the electrical terminals of the battery modules to each other to form the battery system; and subsequently fixing a cover plate (150; 350; 450) to the chassis floor such that the cover plate covers the battery modules. individually fixing battery modules (140; 340; 440) of a plurality of battery modules to the chassis floor at the first side of said plane, each battery module comprising electrical terminals (133a, 133b; 443a, 443b); subsequently electrically connecting the electrical terminals of the battery modules to each other to form the battery system; and subsequently fixing a cover plate (150; 350; 450) to the chassis floor such that the cover plate covers the battery modules.
A honeycomb catalyst comprising a honeycomb structure and a catalyst, the honeycomb structure comprising porous partition walls defining a plurality of cells to form through channels of a fluid and having a plurality of pores therein, wherein a porosity of the partition walls is from 45 to 70%, and in a cross section perpendicular to an extending direction of the cells, a total area of macro pores having the largest pore diameter of larger than 10 μm is 50% or more with respect to a total area of the pores; the catalyst being loaded onto the surfaces of the pores being contained in the partition walls of the honeycomb structure, wherein in a cross section perpendicular to an extending direction of the cells, a total area of high cavity ratio pores which are the macro pores having a catalyst occupying area of 50% or less among the macro pores is from 15 to 40% with respect to a total area of the pores.
A method for evaluating renal status in a subject, comprising: performing one or more assaysconfigured to detect one or more biomarkers, the one or more biomarkers comprising Tumor necrosis factor receptor superfamily member 10B, on a body fluid sample obtained from the subject to provide an assay result; and correlating the assay result(s) to the renal status of the subject. performing one or more assaysconfigured to detect one or more biomarkers, the one or more biomarkers comprising Tumor necrosis factor receptor superfamily member 10B, on a body fluid sample obtained from the subject to provide an assay result; and correlating the assay result(s) to the renal status of the subject.
A method for preparing a biomolecule-based metal nanostructure, the method comprising the steps of: (a) forming a self-assembled monomolecular layer of a biomolecule on the surface of a metal nanoseed, thereby forming a metal nanoseed-biomolecule complex; and (b) growing a metal ion on the surface of the complex while reducing the metal ion with a reducing agent. (a) forming a self-assembled monomolecular layer of a biomolecule on the surface of a metal nanoseed, thereby forming a metal nanoseed-biomolecule complex; and (b) growing a metal ion on the surface of the complex while reducing the metal ion with a reducing agent.
A method of manufacturing a wind turbine blade of at least 40 metres in length, the method comprising the steps of: curing at least a section of a first wind turbine blade shell in a first blade mould; curing at least a section of a second wind turbine blade shell in a second blade mould; transferring said first and second cured blade shells from said first and second blade moulds to a post-moulding station (90, 100) comprising two blade cradles to receive said first and second cured blade shells, wherein said step of transferring comprises transferring said first cured blade shell to a first blade cradle and transferring said second cured blade shell to a second blade cradle; closing said first and second cured blade shells to form a closed wind turbine blade shell, and bonding said first and second cured blade shells in said closed wind turbine blade shell to form a wind turbine blade, characterized in that the method comprises the step of turning said first cured blade shell relative to said second cured blade shell by hinging the first blade cradle relative to the second blade cradle in said post-moulding station to form a closed wind turbine blade shell, and wherein said step of bonding is performed on said closed wind turbine blade shell to form a wind turbine blade. curing at least a section of a first wind turbine blade shell in a first blade mould; curing at least a section of a second wind turbine blade shell in a second blade mould; transferring said first and second cured blade shells from said first and second blade moulds to a post-moulding station (90, 100) comprising two blade cradles to receive said first and second cured blade shells, wherein said step of transferring comprises transferring said first cured blade shell to a first blade cradle and transferring said second cured blade shell to a second blade cradle; closing said first and second cured blade shells to form a closed wind turbine blade shell, and bonding said first and second cured blade shells in said closed wind turbine blade shell to form a wind turbine blade, characterized in that the method comprises the step of turning said first cured blade shell relative to said second cured blade shell by hinging the first blade cradle relative to the second blade cradle in said post-moulding station to form a closed wind turbine blade shell, and wherein said step of bonding is performed on said closed wind turbine blade shell to form a wind turbine blade.
A wheelset for railway vehicles, comprising two sets of wheel axles, in which each set of wheel axles comprises two wheels, each wheel being located at each side of the wheelset according to a longitudinal axis of the vehicle, wherein the two wheels of each set of wheel axles have independent axes and are linked together by a frame, characterised in that the two frames are connected to one another by an articulation located in correspondence with the longitudinal axis of the vehicle and which allows the transmission of tensile and compressive stress between the frames of the wheelset without modifying the distance between the axles of the pairs of wheels of each set of wheel axles according to a first coordinate axis, X, defined according to the longitudinal axis of the railway vehicle.
A signal transmission method of a transmitting apparatus in a wireless communication system, the method comprising: determining a plurality of phases for a plurality of resource element groups, REGs, in an arbitrary component carrier, CC, to reduce a peak to average power ratio, PAPR, of signals; applying the determined plurality of phases to the signals for the plurality of REGs; and transmitting the signals, to which the determined plurality of phases are applied, simultaneously, based on the plurality of REGs, wherein each of the determined plurality of phases is applied to a signal of a corresponding REG among the plurality of REGs. determining a plurality of phases for a plurality of resource element groups, REGs, in an arbitrary component carrier, CC, to reduce a peak to average power ratio, PAPR, of signals; applying the determined plurality of phases to the signals for the plurality of REGs; and transmitting the signals, to which the determined plurality of phases are applied, simultaneously, based on the plurality of REGs, wherein each of the determined plurality of phases is applied to a signal of a corresponding REG among the plurality of REGs.
An eyewear retention device comprising: a length of resilient cable resiliently biased toward a zero axis deflection orientation and terminating at each end in a retention tube, the retention tube having a temple retention opening for receiving an end portion of an eyeglass temple and a cable aperture, and comprising a tapered portion that tapers toward the cable aperture; and retaining means for retaining the retention tubes on the resilient cable comprising a retention end grommet affixed near each of the ends of the resilient cable to form a stop at each end of the resilient cable.
A method of measuring intracranial pressure of a mammalian subject, comprising the steps of: a. transmitting at least one ultrasound pulse at a target within a cranium of said subject; b. detecting reflected signal(s) from the transmitted ultrasound pulse; c. creating an echopulsogram based on the detected reflected signal(s) and characterised by; d. selecting a portion of the EPG corresponding to the third ventricule e. employing the reflected signal(s) to calculate the ICP, using the formula ICP = Σtanh ⁢ ʺΣ I × W + bʺ ⁢ W + b wherein I is an input matrix of all the data points from the selected portion of the EPG, W is a weight matrix obtained through a training process, and b is an assigned random bias constant; wherein steps (d) and (e) are performed by a computer. a. transmitting at least one ultrasound pulse at a target within a cranium of said subject; b. detecting reflected signal(s) from the transmitted ultrasound pulse; c. creating an echopulsogram based on the detected reflected signal(s) and characterised by; d. selecting a portion of the EPG corresponding to the third ventricule e. employing the reflected signal(s) to calculate the ICP, using the formula ICP = Σtanh ⁢ ʺΣ I × W + bʺ ⁢ W + b wherein I is an input matrix of all the data points from the selected portion of the EPG, W is a weight matrix obtained through a training process, and b is an assigned random bias constant; wherein steps (d) and (e) are performed by a computer.
A device comprising: - a first flow channel for inhalation; - a body part comprising an inner volume (3,4), wherein a first space of the inner volume is adapted to be filled with liquid, - a second space of the inner volume being arranged to receive steam forming in the first space of the inner volume, whereby the first flow channel is arranged in a flow connection with the second space of the inner volume; - means comprising a first valve for conveying a gas flow from the steam space of the inner volume via the first flow channel to the outside of the device during inhalation; - a second flow channel arranged in a flow connection with the first space of the inner volume adapted to provide exhaled air into the liquid; and - means comprising a second valve for conveying the exhaled gas flow from the outside of the device via the second flow channel to the first space of the inner volume to increase pressure in the inner volume (3,4), characterized in that the device further comprises: - at least one sensor for measuring a flow and a temperature of an inhaled airflow and preferably also an exhaled airflow, - means for calculating an index based on said measurements, and - means for adjusting the flow of the inhaled and/or exhaled airflow manually and/or automatically based on the index. - a first flow channel for inhalation; - a body part comprising an inner volume (3,4), wherein a first space of the inner volume is adapted to be filled with liquid, - a second space of the inner volume being arranged to receive steam forming in the first space of the inner volume, whereby the first flow channel is arranged in a flow connection with the second space of the inner volume; - means comprising a first valve for conveying a gas flow from the steam space of the inner volume via the first flow channel to the outside of the device during inhalation; - a second flow channel arranged in a flow connection with the first space of the inner volume adapted to provide exhaled air into the liquid; and - means comprising a second valve for conveying the exhaled gas flow from the outside of the device via the second flow channel to the first space of the inner volume to increase pressure in the inner volume (3,4), - at least one sensor for measuring a flow and a temperature of an inhaled airflow and preferably also an exhaled airflow, - means for calculating an index based on said measurements, and - means for adjusting the flow of the inhaled and/or exhaled airflow manually and/or automatically based on the index.
Armor layer of a protective structure for sea and/or river construction work comprising several protective blocks, each block having a central core with an upper portion and a lower portion, the lower portion of the central core being surrounded by a circular protuberance with lateral faces and the central core, via at least one of the lateral faces, being able to butt against at least one of the lateral faces of a circular protuberance of an adjacent block, in which the circular protuberance of each block forms, with the lower base of the core, a lower surface of the block, said lower surface being flat.
An impact tool comprising: a housing (20, 30): a motor having a rotation shaft, the motor being accommodated in the housing and generating a rotational drive force when powered; a reciprocating motion converter configured to convert the rotational drive force of the motor to a reciprocating motion reciprocating in directions perpendicular to the rotation shaft of the motor; a tool bit attached to one end portion of the housing and driven by the reciprocating motion of the reciprocating motion converter; a handle positioned at another end portion of the housing and including a grip; and a counterweight mechanism operable to reduce vibrations generated attendant to the reciprocating motion, the counterweight mechanism being disposed in a section of the housing; characterized in that the counterweight mechanism is disposed between the grip and the center of gravity of the impact tool. a housing (20, 30): a motor having a rotation shaft, the motor being accommodated in the housing and generating a rotational drive force when powered; a reciprocating motion converter configured to convert the rotational drive force of the motor to a reciprocating motion reciprocating in directions perpendicular to the rotation shaft of the motor; a tool bit attached to one end portion of the housing and driven by the reciprocating motion of the reciprocating motion converter; a handle positioned at another end portion of the housing and including a grip; and a counterweight mechanism operable to reduce vibrations generated attendant to the reciprocating motion, the counterweight mechanism being disposed in a section of the housing; characterized in that the counterweight mechanism is disposed between the grip and the center of gravity of the impact tool. a motor having a rotation shaft, the motor being accommodated in the housing and generating a rotational drive force when powered; a reciprocating motion converter configured to convert the rotational drive force of the motor to a reciprocating motion reciprocating in directions perpendicular to the rotation shaft of the motor; a tool bit attached to one end portion of the housing and driven by the reciprocating motion of the reciprocating motion converter; a handle positioned at another end portion of the housing and including a grip; and a counterweight mechanism operable to reduce vibrations generated attendant to the reciprocating motion, the counterweight mechanism being disposed in a section of the housing; characterized in that the counterweight mechanism is disposed between the grip and the center of gravity of the impact tool.
Launch device for a missile, comprising: a launching tube, extending in a longitudinal direction, for receiving the missile, which has an exit opening at a first end; and an acceleration means arranged in the region of a second end of the launching tube and having a gas generator, which can be activated to generate a gas mass flow, and a sack, which is formed from a textile fabric, is coupled via an end opening to a diffusor of the gas generator, and can be inflated, by the gas mass flow which can be generated using the gas generator, to accelerate the missile along the longitudinal direction, a cross section of the sack in an inflated state tapering along the longitudinal direction from the end opening to a minimum cross section and increasing again until an end located opposite the end opening. a launching tube, extending in a longitudinal direction, for receiving the missile, which has an exit opening at a first end; and an acceleration means arranged in the region of a second end of the launching tube and having a gas generator, which can be activated to generate a gas mass flow, and a sack, which is formed from a textile fabric, is coupled via an end opening to a diffusor of the gas generator, and can be inflated, by the gas mass flow which can be generated using the gas generator, to accelerate the missile along the longitudinal direction, a cross section of the sack in an inflated state tapering along the longitudinal direction from the end opening to a minimum cross section and increasing again until an end located opposite the end opening.
Composition comprising: a. coenzyme Q10 at a concentration of 0.3 to 1.0% w/v with respect to the final composition, b. at least one compound of general formula, where: n is an integer between 1 and 4; R 1 is a straight or branched (C 1 -C 4) alkyl group; R 2 is hydrogen, straight or branched (C 1 -C 4) alkyl, a -C(=O)O-Ra group or a -C(=O)-N -Ra group, wherein Ra is a straight or branched (C 1 -C 4) alkyl group; and R 3 is a hydrogen or a straight or branched (C 1 -C 4) alkyl group; at a concentration of 1 to 5% w/v with respect to the final composition and c. at least one antioxidant selected from the list comprising tocopherol, ascorbic acid, sodium ascorbate, tartaric acid, butylhydroxyanisole, citric acid, vitamin A and vitamin E, at a concentration of 0.25 to 0.75% w/v with respect to the final composition. a. coenzyme Q10 at a concentration of 0.3 to 1.0% w/v with respect to the final composition, b. at least one compound of general formula, where: n is an integer between 1 and 4; R 1 is a straight or branched (C 1 -C 4) alkyl group; R 2 is hydrogen, straight or branched (C 1 -C 4) alkyl, a -C(=O)O-Ra group or a -C(=O)-N -Ra group, wherein Ra is a straight or branched (C 1 -C 4) alkyl group; and R 3 is a hydrogen or a straight or branched (C 1 -C 4) alkyl group; at a concentration of 1 to 5% w/v with respect to the final composition and n is an integer between 1 and 4; R 1 is a straight or branched (C 1 -C 4) alkyl group; R 2 is hydrogen, straight or branched (C 1 -C 4) alkyl, a -C(=O)O-Ra group or a -C(=O)-N -Ra group, wherein Ra is a straight or branched (C 1 -C 4) alkyl group; and R 3 is a hydrogen or a straight or branched (C 1 -C 4) alkyl group; c. at least one antioxidant selected from the list comprising tocopherol, ascorbic acid, sodium ascorbate, tartaric acid, butylhydroxyanisole, citric acid, vitamin A and vitamin E, at a concentration of 0.25 to 0.75% w/v with respect to the final composition.
Electronic interface housing with printed circuit board(s) of an electrical heating device for heating an airflow passing through it, the electronic interface housing being configured to house electronic components for controlling at least one heating element fitted to the electrical heating device, including the printed circuit board, the electronic interface housing comprising at least one rib (56, 58) in contact with the printed circuit board at a contact zone, characterized in that the printed circuit board comprises at least one water discharge opening (82, 84) in the contact zone.