mhurhangee/ep-ind-claims huggingface dataset:
A method for making pots and pans, equipped with a multi-layer coating of non-stick material, comprising: - the forming of multiple layers (4, 5, 6) of coating on an inner surface of a wall delimiting a cooking cavity by cyclical repetition of a step of applying suitable covering substances and subsequent drying and baking in an oven of said layers (4, 5, 6), at least the final layer of said covering substances being obtained by using a non-stick substance; said method comprising, before the step of applying the substance for forming at least the final layer coating the cooking cavity of the pot, a step of adding as an additive edible oil or grease to the substance to be applied for forming said final layer said method being characterised in that said step of adding the additive is carried out by mixing in the liquid state, and in that said edible oil or grease is of the vegetable type, and in that said edible oil is olive oil. - the forming of multiple layers (4, 5, 6) of coating on an inner surface of a wall delimiting a cooking cavity by cyclical repetition of a step of applying suitable covering substances and subsequent drying and baking in an oven of said layers (4, 5, 6), at least the final layer of said covering substances being obtained by using a non-stick substance; said method comprising, before the step of applying the substance for forming at least the final layer coating the cooking cavity of the pot, a step of adding as an additive edible oil or grease to the substance to be applied for forming said final layer said method being characterised in that said step of adding the additive is carried out by mixing in the liquid state, and in that said edible oil or grease is of the vegetable type, and in that said edible oil is olive oil.
A computer-implemented method for determining a pelvic sagittal rotation of a pelvis from an image of the pelvis, wherein the image was made in an anterior-posterior direction, the method comprising: determining, based on the image, a position of each of a plurality of pelvic landmarks; determining a calibration plane with respect to the pelvis, wherein the calibration plane is perpendicular to the anterior-posterior direction; wherein the method is characterized by the steps of: projecting the plurality of pelvic landmarks onto the calibration plane to generate a calibrated two-dimensional projection; determining a distance between two or more of the plurality of pelvic landmarks in the calibrated two-dimensional projection, wherein the distance is in a direction perpendicular to the anterior-posterior direction; and determining the sagittal rotation of the pelvis based on a predetermined correspondence and the determined distance. determining, based on the image, a position of each of a plurality of pelvic landmarks; determining a calibration plane with respect to the pelvis, wherein the calibration plane is perpendicular to the anterior-posterior direction; wherein the method is characterized by the steps of: projecting the plurality of pelvic landmarks onto the calibration plane to generate a calibrated two-dimensional projection; determining a distance between two or more of the plurality of pelvic landmarks in the calibrated two-dimensional projection, wherein the distance is in a direction perpendicular to the anterior-posterior direction; and determining the sagittal rotation of the pelvis based on a predetermined correspondence and the determined distance. projecting the plurality of pelvic landmarks onto the calibration plane to generate a calibrated two-dimensional projection; determining a distance between two or more of the plurality of pelvic landmarks in the calibrated two-dimensional projection, wherein the distance is in a direction perpendicular to the anterior-posterior direction; and determining the sagittal rotation of the pelvis based on a predetermined correspondence and the determined distance.
An inrush current detection method for a transformer, comprising: sampling at least a part of a current signal of the transformer to obtain a numerical matrix; providing the numerical matrix as an input to an inrush current detection neural network; and calculating and outputting a data vector corresponding to the numerical matrix by the inrush current detection neural network, wherein the data vector indicates whether the current signal is an inrush current, characterized in that, the method further comprising: detecting whether a maximum value in the numerical matrix is greater than a preset enabling threshold; and only when the maximum value in the numerical matrix is greater than or equal to the preset enabling threshold, providing the numerical matrix as an input to the inrush current detection neural network. sampling at least a part of a current signal of the transformer to obtain a numerical matrix; providing the numerical matrix as an input to an inrush current detection neural network; and calculating and outputting a data vector corresponding to the numerical matrix by the inrush current detection neural network, wherein the data vector indicates whether the current signal is an inrush current, characterized in that, the method further comprising: detecting whether a maximum value in the numerical matrix is greater than a preset enabling threshold; and only when the maximum value in the numerical matrix is greater than or equal to the preset enabling threshold, providing the numerical matrix as an input to the inrush current detection neural network. detecting whether a maximum value in the numerical matrix is greater than a preset enabling threshold; and only when the maximum value in the numerical matrix is greater than or equal to the preset enabling threshold, providing the numerical matrix as an input to the inrush current detection neural network.
A parachute deployment system for parachutes (102; 206; 404; 450; 606; 634; 734) used to recover aircraft (100; 200; 400) in times of emergency, the parachute deployment system comprising: an interface configured to receive sensor information; a parachute load limiting device (202; 300, 302; 402); and a parachute load limiting device state controller, wherein the parachute load limiting device state controller is operative to set a state of the parachute load limiting device to a disengaged state associated with a corresponding first amount of load or an engaged state associated with a corresponding second amount of load based at least in part on the sensor information; and wherein the parachute load limiting device state controller comprises a severing tool (104, 604, 700) located in an aircraft the parachute deployment system is configured to recover and wherein the parachute load limiting device state controller is operative to set the state of the parachute load limiting device to the disengaged state by activating the severing tool prior to parachute deployment or alternatively to set the state of the parachute load limiting device to the engaged state by not activating the severing tool until after parachute deployment. an interface configured to receive sensor information; a parachute load limiting device (202; 300, 302; 402); and a parachute load limiting device state controller, wherein the parachute load limiting device state controller is operative to set a state of the parachute load limiting device to a disengaged state associated with a corresponding first amount of load or an engaged state associated with a corresponding second amount of load based at least in part on the sensor information; and wherein the parachute load limiting device state controller comprises a severing tool (104, 604, 700) located in an aircraft the parachute deployment system is configured to recover and wherein the parachute load limiting device state controller is operative to set the state of the parachute load limiting device to the disengaged state by activating the severing tool prior to parachute deployment or alternatively to set the state of the parachute load limiting device to the engaged state by not activating the severing tool until after parachute deployment.
A method for improving the performance of a motor vehicle (100; 110) which has an engine and an exhaust system with a catalyst, wherein the catalyst is arranged downstream of a fluid injector arranged to supply the exhaust gas system with a liquid solution containing urea, which method comprises the steps of: - determining whether a predetermined operating state of said vehicle (100; 110) is fulfilled, comprising determining whether the vehicle (100; 110) has been run statically during a certain time (Δ Ta; Δ Tb), which pertains to a situation in which there is increased risk of urea coating formation in the exhaust system; and - applying, if said operating state is fulfilled, at least one measure to counter said coating formation, characterised by the step of - determining whether the standard deviation (sa) and/or the variance (s 2 a) for the engine's speed (rpm) is below a predetermined value (L1a) during a certain time ( ΔTa), and/or - determining whether the standard deviation (sb) and/or the variance (s 2 b) for the vehicle's load (Tq) are/is below a predetermined value (L1b) during a certain time (Δ Tb). - determining whether a predetermined operating state of said vehicle (100; 110) is fulfilled, comprising determining whether the vehicle (100; 110) has been run statically during a certain time (Δ Ta; Δ Tb), which pertains to a situation in which there is increased risk of urea coating formation in the exhaust system; and - applying, if said operating state is fulfilled, at least one measure to counter said coating formation, characterised by the step of - determining whether the standard deviation (sa) and/or the variance (s 2 a) for the engine's speed (rpm) is below a predetermined value (L1a) during a certain time ( ΔTa), and/or - determining whether the standard deviation (sb) and/or the variance (s 2 b) for the vehicle's load (Tq) are/is below a predetermined value (L1b) during a certain time (Δ Tb).
A dual trap mass analyzer for a mass spectrometer, comprising: a first two-dimensional quadrupole ion trap having an interior region maintained during operation of the mass spectrometer at a first pressure of between 66.66mPa and 1333.22mPa (5x10 -4 and 1x10 -2 Torr), the first ion trap being configured to receive, confine, and cool ions; a second two-dimensional quadrupole ion trap positioned adjacently to the first ion trap and having an interior region maintained during operation of the mass spectrometer at a second pressure of between 1.33mPa and 26.66mPa (1x10 -5 and 2x10 -4 Torr), the second ion trap being configured to receive and confine ions transferred from the first two-dimensional ion trap and to mass sequentially eject the ions to a detector during an analytical scan for acquisition of a mass spectrum whilst the second ion trap is maintained at the said second pressure; and at least one ion optic element 265) disposed between the first and second ion traps configured to control the transfer of ions therebetween. a first two-dimensional quadrupole ion trap having an interior region maintained during operation of the mass spectrometer at a first pressure of between 66.66mPa and 1333.22mPa (5x10 -4 and 1x10 -2 Torr), the first ion trap being configured to receive, confine, and cool ions; a second two-dimensional quadrupole ion trap positioned adjacently to the first ion trap and having an interior region maintained during operation of the mass spectrometer at a second pressure of between 1.33mPa and 26.66mPa (1x10 -5 and 2x10 -4 Torr), the second ion trap being configured to receive and confine ions transferred from the first two-dimensional ion trap and to mass sequentially eject the ions to a detector during an analytical scan for acquisition of a mass spectrum whilst the second ion trap is maintained at the said second pressure; and at least one ion optic element 265) disposed between the first and second ion traps configured to control the transfer of ions therebetween.
A sleeve for a cryogenic straw, the sleeve comprising an RFID tag, characterised in that: the sleeve has an elongate hollow tubular body which is rigid and open at both ends and the RFID tag is attached to the body by an outer tubing and the outer tubing is heat shrink tubing.
A method for preparing a composition of matter, the composition of matter comprising: rice grains, which have been partially milled, wherein milling removes between 82% (w/w dry basis) and 92% (w/w dry basis) of the bran and germ from the rice grains, and, on the surface of the rice grains, a coating comprising rice bran having an average particle size of less than 200 μm, and a binding agent, wherein the total bran comprises greater than 7% (w/w dry basis) of the composition and wherein the binding agent comprises between 0.05% (w/w dry basis) and 3.0% (w/w dry basis) of the composition, the method comprising a slurry coating procedure that simultaneously coats and dries to form the composition, wherein the coating procedure comprises intermittent heat drying. rice grains, which have been partially milled, wherein milling removes between 82% (w/w dry basis) and 92% (w/w dry basis) of the bran and germ from the rice grains, and, on the surface of the rice grains, a coating comprising rice bran having an average particle size of less than 200 μm, and a binding agent, wherein the total bran comprises greater than 7% (w/w dry basis) of the composition and wherein the binding agent comprises between 0.05% (w/w dry basis) and 3.0% (w/w dry basis) of the composition, the method comprising a slurry coating procedure that simultaneously coats and dries to form the composition, wherein the coating procedure comprises intermittent heat drying.
Indicator system comprising a composition which comprises at least one NCO-reactive compound and at least one polyisocyanate, and comprising at least one proton source and at least one indicator dye, the at least one indicator dye having at least one xanthene skeleton, for indicating the curing of the composition by change in color of the at least one indicator dye, characterized in that the at least one indicator dye has a first color after contacting with the uncured composition and in the cured composition is colorless.
A door actuating device, comprising a housing, at least one drive unit, which is disposed in the housing and may be coupled to a door leaf, and at least one spring force accumulator, which is in operative connection with the drive unit, and which includes a spring, which is disposed under spring pre-tension, wherein the spring pre-tension of the spring is realized by means of a spring adjustment of a door actuating device, which comprises at least one closing screw connectable to the housing, and an adjusting nut, wherein a cylinder oriented towards the spring is configured at the closing screw, at which cylinder the adjusting nut is linearly guided, wherein a setting element, which is guided through the closing screw and which at least portion-wise may be brought into non-positive and/or positive engagement with the cylinder and abuts against the adjusting nut, serves for setting the spring pre-tension, wherein the adjusting nut comprises a spring support, which rests at least portion-wise against the spring, characterized in that a female thread is configured at least portion-wise in the cylinder, which thread may be brought into positive engagement with a thread, which, at least portion-wise, is configured at the setting element.
Rudder blade characterized by a modular structure, wherein the rudder blade comprises at least two prefabricated rudder blade segments (10, 11, 12, 13) and is assembled from the at least two prefabricated rudder blade segments (10, 11, 12, 13), wherein the rudder blade has a main section for connection to a rudder stock and a front rudder blade section with a leading edge, wherein the main section is a first rudder blade segment and wherein the front rudder blade section is a second rudder blade segment, wherein the main section consists of a different material and is produced by a different production method than the front rudder blade section, characterized in that the front rudder blade section has a surface with bionic structures, wherein the bionic structures are configured for reducing a flow resistance.
Machine for wrapping palletized loads, comprising at least one device for applying cover sheets on said palletized loads, said machine comprising an advancement line for advancing said palletized loads along a specific advancement direction between an inlet and outlet that are opposite each other, and at least one winding apparatus adapted to wind a wrapping film around the lateral surface of said palletized load, said device comprising at least one support for at least one palletized load, each of the palletized loads arriving on the support, being moved along said specific advancement direction, means for unwinding at least one reel of cover film from which a plurality of sheets to be applied on the palletized loads can be obtained, and at least one applicator member adapted to one-by-one position the cover sheets obtained from said reel on the top of respective palletized loads, said applicator member comprising at least one robotic arm having at least one operative end with which at least one grip member is associated, said grip member being adapted to pick up each cover sheet unwound from said reel at least one edge, and to position it on the top of a respective palletized load, said robotic arm comprising a base, opposite the operative end, positioned alongside the support of the palletized load, characterized in that said robotic arm, bearing said sheet, accompanies the advancement of said loads on said line and applies the sheet on the top of said palletized load while the latter is still moving, or applies said sheet on the top of said palletized load with the lateral winding already started and at a certain point stopped, by means of said winding apparatus, in order to allow the application of said sheet.
A composition for use in the treatment or prevention of asthma comprising an antibody comprising a (i) VH 13C5 CDR Set comprising residues 31 - 37 of SEQ ID NO:46, residues 52-67 of SEQ ID NO:46, and residues 100-112 of SEQ ID NO:46; and (ii) a VL 13C5 CDR Set comprising residues 24-34 of SEQ ID NO:47, residues 50-56 of SEQ ID NO:47, and residues 89-97 of SEQ ID NO:47.
An aspiration circuit for a fluidics system for selectively controlling aspiration, comprising: an aspiration line operatively connected to a surgical instrument, an aspiration exhaust line operatively connected to a waste receptacle; an aspiration vent line connected at a first end to the aspiration line; a selectively variable vent valve operatively connected to the aspiration vent line, wherein the variable vent valve may be selectively moved to selectively change aspiration pressure within the aspiration line, an irrigation line operatively connected to the surgical instrument; an irrigation pressure sensor, wherein the irrigation pressure sensor is operatively connected to the irrigation line, and an actuator, the actuator being operatively connected to the vent valve, wherein the irrigation pressure sensor and the actuator are connected to a controller, and characterised in that the controller uses the irrigation pressure sensor to detect an occlusion break onset and is operative to initiate the actuator to move the vent valve to minimize the occlusion break onset by reducing the aspiration pressure within the aspiration line; wherein the vent valve is a rotary valve that further comprises an input opening, an output opening and a channel that connects the input opening to the output opening; wherein the vent valve may be selectively rotated to selectively position the channel in at least partial communication with the aspiration vent line. an aspiration line operatively connected to a surgical instrument, an aspiration exhaust line operatively connected to a waste receptacle; an aspiration vent line connected at a first end to the aspiration line; a selectively variable vent valve operatively connected to the aspiration vent line, wherein the variable vent valve may be selectively moved to selectively change aspiration pressure within the aspiration line, an irrigation line operatively connected to the surgical instrument; an irrigation pressure sensor, wherein the irrigation pressure sensor is operatively connected to the irrigation line, and an actuator, the actuator being operatively connected to the vent valve, wherein the irrigation pressure sensor and the actuator are connected to a controller, and characterised in that the controller uses the irrigation pressure sensor to detect an occlusion break onset and is operative to initiate the actuator to move the vent valve to minimize the occlusion break onset by reducing the aspiration pressure within the aspiration line; wherein the vent valve is a rotary valve that further comprises an input opening, an output opening and a channel that connects the input opening to the output opening; wherein the vent valve may be selectively rotated to selectively position the channel in at least partial communication with the aspiration vent line.
An optical radiation-providing module for a skin treatment device for personal use, the module operating in pulsed or continuous operation mode and comprising: - a source of optical radiation, - a reflector configured to reflect optical radiation emitted by the source to a target segment of skin, - cooling means operatively adapted to form an air flow along the source of optical radiation and cool said source of optical radiation, and - at least one protective window, characterized in that the reflector is a tubular or prismatic case configured to have openings located about the apex of the reflector and allowing air passage inside the reflector in a direction perpendicular to the source of optical radiation, the reflector further comprising air exhaust openings located at the open butt ends of the reflector; and in that it further comprises - at least one additional window mounted in parallel to the protective window; and - a slanted lamp electrode mounted on an air intake side of the optical radiation source, wherein said slanted lamp electrode is operative to induce cooling air flow between the two windows (408, 1030) so as to provide thermal isolation between the module and skin. - a source of optical radiation, - a reflector configured to reflect optical radiation emitted by the source to a target segment of skin, - cooling means operatively adapted to form an air flow along the source of optical radiation and cool said source of optical radiation, and - at least one protective window, - at least one additional window mounted in parallel to the protective window; and - a slanted lamp electrode mounted on an air intake side of the optical radiation source,
A building comprising on the one hand a building structure including a roof which extends in a horizontal plane P and which includes a plurality of crossbeams (130a, 130b) disposed parallel to each other and on the other hand a system for displacing a net stretched between two net posts making it possible to hold the net (i) in a waiting position in which the net is disposed against the roof and (ii) in a use position in which the net is perpendicular to the roof, the displacement system comprising means for holding the net in the waiting position positioned on the underside of the roof and means for holding the net in the use position positioned on the underside of the roof, characterized in that the means for holding the net in the use position are electromagnetic attraction means (214, 214').