mhurhangee/ep-ind-claims huggingface dataset:
A method for bisulfite conversion of DNA, wherein the bisulfite reaction is conducted at a temperature > 50 °C and with a reaction time ≥ 4.5 h, with the proviso that the temperature is from 57 °C to 65°C at a reaction time between 4.5 h and 5 h, characterised in that the reaction is conducted in the presence of a compound with the following general formula: wherein R 1 = H, COOH, [CH 2 CH 2 CH(CH 3) 3 -CH 3 and R 2 = H, OH, OAc. wherein R 1 = H, COOH, [CH 2 CH 2 CH(CH 3) 3 -CH 3 and R 2 = H, OH, OAc.
A molded article comprising a resin, wherein said molded article has a Hermann's degree of orientation f of 0.006 or more which is determined by the following formula (Formula 1) and the following formula (Formula 2) based on an azimuth angle distribution curve obtained by wide-angle X-ray diffraction measurement and a haze of less than 10%, said resin comprises a structural unit derived from a monomer comprising a carbon-carbon double bond at the end, and a structural unit derived from a polyrotaxane compound, and said polyrotaxane compound comprises cyclic molecules comprising a functional group capable of addition polymerization with the carbon-carbon double bond, a linear molecule clathrated in a skewer shape by the cyclic molecules and blocking groups disposed at the ends of the linear molecule to prevent elimination of the cyclic molecules: [Chemical Formula] ƒ = 3 〈 cos 2 φ 〉 − 1 2 〈 cos 2 φ 〉 = ∫ 0 π / 2 I φ cos 2 φ sin φ d φ ∫ 0 π / 2 I φ sin φ d φ wherein I(φ) represents the luminance at the azimuth angle φ in the azimuth angle distribution curve obtained by wide-angle X-ray diffraction measurement.
A monoclonal antibody or an antigen-binding portion thereof that specifically binds to the region spanning aa 50 - 68 or the region spanning aa 86 - 102 of human MIF, and inhibits human MIF biological function, for use in the treatment of a hyperproliferative disorder.
Method for performing signal processing on a measured response of a target physical entity, which has been measured simultaneously with the provision of an excitation signal to the target physical entity the method being for obtaining characteristics of a target physical entity comprising the steps of: - performing analog signal processing on the measured response to eliminate artefacts that arise from a signal path outside the target physical entity; - determining the characteristics from the signal processed measured response, wherein the analog signal processing step comprises the subtraction of a predetermined signal representative or corresponding to the signal path outside the physical entity to the measured response, characterised in that said predetermined signal is estimated by an initial training phase wherein the signal features originating from the physical entity are filtered out of the measured response, in that a residual artefact in the processed analog signal is estimated and in that an additional training phase is performed if the residual artefact is above a predetermined threshold, defining a new predetermined signal to be used in subsequent stimulation sequences. - performing analog signal processing on the measured response to eliminate artefacts that arise from a signal path outside the target physical entity; - determining the characteristics from the signal processed measured response,
A method comprising: generating a first pressure set point for a valve positioner (200, 300) coupled to an actuator to actuate a valve, the valve positioner (200, 300) including a relay that forms an output pressure to drive the actuator; controlling, with the relay, the output pressure of the positioner towards the first pressure set point to actuate the valve in a stroke direction; defining a target travel position associated with a partial stroke test of the valve; measuring a position of the valve; generating a second pressure set point after the position of the valve reaches the target travel position to actuate the valve in a return direction towards an initial position of the valve associated with the position of the valve before the partial stroke test; controlling, with the relay the output pressure of the positioner (200, 300) towards the second pressure set point; defining a pressure threshold associated with the second pressure set point; defining a threshold displacement of the valve from the initial position; and determining that the valve is stuck while controlling the valve in the return direction if the output pressure passes the pressure threshold associated with the second pressure set point while the position of the valve is outside the threshold displacement from the initial position. generating a first pressure set point for a valve positioner (200, 300) coupled to an actuator to actuate a valve, the valve positioner (200, 300) including a relay that forms an output pressure to drive the actuator; controlling, with the relay, the output pressure of the positioner towards the first pressure set point to actuate the valve in a stroke direction; defining a target travel position associated with a partial stroke test of the valve; measuring a position of the valve; generating a second pressure set point after the position of the valve reaches the target travel position to actuate the valve in a return direction towards an initial position of the valve associated with the position of the valve before the partial stroke test; controlling, with the relay the output pressure of the positioner (200, 300) towards the second pressure set point; defining a pressure threshold associated with the second pressure set point; defining a threshold displacement of the valve from the initial position; and determining that the valve is stuck while controlling the valve in the return direction if the output pressure passes the pressure threshold associated with the second pressure set point while the position of the valve is outside the threshold displacement from the initial position.
A converter device comprising: a rectifier circuit configured to rectify an AC voltage output from an AC power supply; a booster circuit including a plurality of reactors (5a, 5b, 5c), a plurality of switching elements (6a, 6b, 6c), and a plurality of backflow prevention elements configured to boost an output voltage of the rectifier circuit; a smoothing capacitor configured to smooth an output voltage of the booster circuit; a current detection circuit configured to detect a value I dc of a current that flows between the rectifier circuit and the booster circuit; a first filter circuit having a first filter time constant; a second filter circuit having a second filter time constant shorter than the first filter time constant; and a control unit configured to control an operation of the plurality of switching elements (6a, 6b, 6c) by inputting the current value I dc detected by the current detection circuit to the control unit via the first filter circuit and the second filter circuit, wherein the control unit is further configured to, before running a normal control sequence, turn on the plurality of switching elements (6a, 6b, 6c) in a defined order at a predetermined power phase of the booster circuit for a predetermined number of seconds in order to lead a current via each phase, and thus to determine whether there is an open-phase in one of the reactors (5a, 5b, 5c) by determining whether the current value, input via the second filter circuit when the plurality of switching elements (6a, 6b, 6c) are turned on sequentially, does not fall within a predetermined current range. a rectifier circuit configured to rectify an AC voltage output from an AC power supply; a booster circuit including a plurality of reactors (5a, 5b, 5c), a plurality of switching elements (6a, 6b, 6c), and a plurality of backflow prevention elements configured to boost an output voltage of the rectifier circuit; a smoothing capacitor configured to smooth an output voltage of the booster circuit; a current detection circuit configured to detect a value I dc of a current that flows between the rectifier circuit and the booster circuit; a first filter circuit having a first filter time constant; a second filter circuit having a second filter time constant shorter than the first filter time constant; and a control unit configured to control an operation of the plurality of switching elements (6a, 6b, 6c) by inputting the current value I dc detected by the current detection circuit to the control unit via the first filter circuit and the second filter circuit, wherein the control unit is further configured to, before running a normal control sequence, turn on the plurality of switching elements (6a, 6b, 6c) in a defined order at a predetermined power phase of the booster circuit for a predetermined number of seconds in order to lead a current via each phase, and thus to determine whether there is an open-phase in one of the reactors (5a, 5b, 5c) by determining whether the current value, input via the second filter circuit when the plurality of switching elements (6a, 6b, 6c) are turned on sequentially, does not fall within a predetermined current range.
A method for inspecting internal components of a compressor of a gas turbine engine, comprising: removably coupling an image recording assembly to a rotor blade of the compressor of the gas turbine engine, the image recording assembly being inserted into the compressor through a borescope hole or additional holes manufactured in the compressor; rotating the image recording assembly around a shaft of the gas turbine engine; recording images of stationary components disposed circumferentially around the shaft, wherein the stationary components comprise stator vanes and wherein recording images of the stationary components comprises recording images using cameras of the image recording assembly, without removal of a housing of the compressor; illuminating the stationary components via a light source of the image recording assembly; storing the images in a storage device of the image recording assembly; characterized in that the image recording assembly includes multiple cameras oriented in different directions, wherein the number of cameras used is determined so as to obtain substantially 100% image coverage of the stator vanes disposed adjacent to the rotor blade. removably coupling an image recording assembly to a rotor blade of the compressor of the gas turbine engine, the image recording assembly being inserted into the compressor through a borescope hole or additional holes manufactured in the compressor; rotating the image recording assembly around a shaft of the gas turbine engine; recording images of stationary components disposed circumferentially around the shaft, wherein the stationary components comprise stator vanes and wherein recording images of the stationary components comprises recording images using cameras of the image recording assembly, without removal of a housing of the compressor; illuminating the stationary components via a light source of the image recording assembly; storing the images in a storage device of the image recording assembly; characterized in that the image recording assembly includes multiple cameras oriented in different directions, wherein the number of cameras used is determined so as to obtain substantially 100% image coverage of the stator vanes disposed adjacent to the rotor blade.
A wave-propelled vehicle, configured to float at the free surface of a body of fluid, the vehicle comprising a hull; the hull comprising an upper hull portion comprising at least one hydrofoil portion, the upper hull portion comprising that portion of the hull being defined by an upper extent 114 and a lower extent 116 of the 'dynamic immersion' of the hull and therefore being arranged to periodically plunge through the free surface of the body of fluid under the action of surface waves of the body of fluid and being divided by the plane of the free surface of the body of fluid at equilibrium, and a lower hull portion defined as that portion of the hull below the lower extent 116 of a dynamic immersion comprising a hydrofoil structure comprising at least one hydrofoil portion, the hydrofoil structure being substantially non-planar, providing a vertically directed concavity when viewed from the front or rear of the vehicle; wherein at least one, or both, of: a) the hydrofoil structure of the lower hull portion is substantially rigid; and b) one or more than one hydrofoil portion of the at least one hydrofoil portion of the upper hull portion forms a majority of the volume of the upper hull portion. an upper hull portion comprising at least one hydrofoil portion, the upper hull portion comprising that portion of the hull being defined by an upper extent 114 and a lower extent 116 of the 'dynamic immersion' of the hull and therefore being arranged to periodically plunge through the free surface of the body of fluid under the action of surface waves of the body of fluid and being divided by the plane of the free surface of the body of fluid at equilibrium, and a lower hull portion defined as that portion of the hull below the lower extent 116 of a dynamic immersion comprising a hydrofoil structure comprising at least one hydrofoil portion, the hydrofoil structure being substantially non-planar, providing a vertically directed concavity when viewed from the front or rear of the vehicle; wherein at least one, or both, of: a) the hydrofoil structure of the lower hull portion is substantially rigid; and b) one or more than one hydrofoil portion of the at least one hydrofoil portion of the upper hull portion forms a majority of the volume of the upper hull portion. a) the hydrofoil structure of the lower hull portion is substantially rigid; and b) one or more than one hydrofoil portion of the at least one hydrofoil portion of the upper hull portion forms a majority of the volume of the upper hull portion.
Siphon, comprising: - a housing with at least a bottom, a top and a wall extending between the bottom and top, wherein a feed opening is arranged in the top, wherein the housing further comprises an outlet opening, a downward hanging edge, which is arranged around the feed opening and an intermediate wall standing upright from the bottom, wherein the upper edge of the upright intermediate wall lies above the bottom of the downward hanging edge and wherein an opening is arranged in the upright intermediate wall, characterized in that the intermediate wall encloses the downward hanging edge, wherein a horizontal tube part is arranged with one end to the opening and with the other end to the downward hanging edge and wherein a plug is arranged in the horizontal tube part. - a housing with at least a bottom, a top and a wall extending between the bottom and top, wherein a feed opening is arranged in the top, wherein the housing further comprises an outlet opening, a downward hanging edge, which is arranged around the feed opening and an intermediate wall standing upright from the bottom, wherein the upper edge of the upright intermediate wall lies above the bottom of the downward hanging edge and wherein an opening is arranged in the upright intermediate wall, characterized in that the intermediate wall encloses the downward hanging edge, wherein a horizontal tube part is arranged with one end to the opening and with the other end to the downward hanging edge and wherein a plug is arranged in the horizontal tube part.
A process for preparing a formulation F for reducing nitrification, said formulation F comprising from 10 to 50 % by weight of 3,4-dimethyl-1H-pyrazole phosphate, from 10 to 50 % by weight of phosphoric acid, and from 10 to 60 % by weight of water, in each case based on the total weight of formulation F, wherein the process comprises the step of mixing a solution S comprising from 10 to 22 % by weight of 3,4-dimethyl-1H-pyrazole phosphate, from 58 to 70 % by weight of 3,4-dimethyl-1H-pyrazole, and from 10 to 30 % by weight of water, in each case based on the total weight of the solution S, with water and phosphoric acid. from 10 to 50 % by weight of 3,4-dimethyl-1H-pyrazole phosphate, from 10 to 50 % by weight of phosphoric acid, and from 10 to 60 % by weight of water, in each case based on the total weight of formulation F, wherein the process comprises the step of mixing a solution S comprising from 10 to 22 % by weight of 3,4-dimethyl-1H-pyrazole phosphate, from 58 to 70 % by weight of 3,4-dimethyl-1H-pyrazole, and from 10 to 30 % by weight of water, in each case based on the total weight of the solution S, from 10 to 22 % by weight of 3,4-dimethyl-1H-pyrazole phosphate, from 58 to 70 % by weight of 3,4-dimethyl-1H-pyrazole, and from 10 to 30 % by weight of water, in each case based on the total weight of the solution S, with water and phosphoric acid.
A voice recognition method of an electronic device, the method being performed by a processor of the electronic device (401a; 401b; 401c; 501), the method comprising: converting (602; 709; 809) an utterance of a user into an audio signal; obtaining (604; 713; 813) text data corresponding to the audio signal; the method being characterised by: transmitting (606; 717-719; 817-819) the text data to a first NLU server associated with a first application and a second NLU server associated with a second application; respectively (608; 721; 821) receiving a first control message and a second control message from the first NLU server and the second NLU server as a result of analyzing the text data; selecting (610; 725; 825) one of the first control message or the second control message, depending on a specified condition; and providing (612; 727-733; 827-833) the selected control message to an application associated with an NLU server transmitting the selected control message. converting (602; 709; 809) an utterance of a user into an audio signal; obtaining (604; 713; 813) text data corresponding to the audio signal; the method being characterised by: transmitting (606; 717-719; 817-819) the text data to a first NLU server associated with a first application and a second NLU server associated with a second application; respectively (608; 721; 821) receiving a first control message and a second control message from the first NLU server and the second NLU server as a result of analyzing the text data; selecting (610; 725; 825) one of the first control message or the second control message, depending on a specified condition; and providing (612; 727-733; 827-833) the selected control message to an application associated with an NLU server transmitting the selected control message. transmitting (606; 717-719; 817-819) the text data to a first NLU server associated with a first application and a second NLU server associated with a second application; respectively (608; 721; 821) receiving a first control message and a second control message from the first NLU server and the second NLU server as a result of analyzing the text data; selecting (610; 725; 825) one of the first control message or the second control message, depending on a specified condition; and providing (612; 727-733; 827-833) the selected control message to an application associated with an NLU server transmitting the selected control message.
A method for configuring a secondary cell in a dual connectivity, DC, mode by a user equipment, UE, the method comprising: connecting to a primary cell and the secondary cell based on configurations received from a network; characterised by: identifying at least one of a reference signal received power, RSRP, of the UE for the secondary cell, or a block error ratio, BLER, for the secondary cell; performing at least one of a first comparison of the RSRP and a first threshold for a first duration, or a second comparison of the BLER and a second threshold for the first duration; releasing connection with the secondary cell based on at least one of a first result of the first comparison or a second result of the second comparison; and blocking transmission of a measurement report for the secondary cell for a second duration in response to releasing of the connection with the secondary cell. identifying at least one of a reference signal received power, RSRP, of the UE for the secondary cell, or a block error ratio, BLER, for the secondary cell; performing at least one of a first comparison of the RSRP and a first threshold for a first duration, or a second comparison of the BLER and a second threshold for the first duration; releasing connection with the secondary cell based on at least one of a first result of the first comparison or a second result of the second comparison; and blocking transmission of a measurement report for the secondary cell for a second duration in response to releasing of the connection with the secondary cell.
A method for detecting and optionally quantifying exposure to ionizing radiation, comprising the steps: (a) providing a dianhydrohexitol or dianhydrohexitol-containing composition, wherein the dianhydrohexitol is one or more of isosorbide, isomannide and isoidide; (b) exposing the dianhydrohexitol or dianhydrohexitol-containing composition to ionizing radiation, thereby effecting a colour change in the dianhydrohexitol; (c) detecting the colour change in the dianhydrohexitol or dianhydrohexitol-containing composition; and optionally (d) quantifying the dose of ionizing radiation absorbed by the dianhydrohexitol or dianhydrohexitol-containing composition on the basis of the colour change. (a) providing a dianhydrohexitol or dianhydrohexitol-containing composition, wherein the dianhydrohexitol is one or more of isosorbide, isomannide and isoidide; (b) exposing the dianhydrohexitol or dianhydrohexitol-containing composition to ionizing radiation, thereby effecting a colour change in the dianhydrohexitol; (c) detecting the colour change in the dianhydrohexitol or dianhydrohexitol-containing composition; and optionally (d) quantifying the dose of ionizing radiation absorbed by the dianhydrohexitol or dianhydrohexitol-containing composition on the basis of the colour change.
An outboard motor unit comprising: a first outboard motor including a first cowling, a first engine housed in the first cowling, and a supercharger that is provided inside the first cowling and is configured to supply compressed air to the first engine; a second outboard motor including a second cowling and a second engine housed in the second cowling; and an air passage through which the air compressed by the supercharger of the first outboard motor is supplied to the second engine of the second outboard motor. a first outboard motor including a first cowling, a first engine housed in the first cowling, and a supercharger that is provided inside the first cowling and is configured to supply compressed air to the first engine; a second outboard motor including a second cowling and a second engine housed in the second cowling; and an air passage through which the air compressed by the supercharger of the first outboard motor is supplied to the second engine of the second outboard motor.
A winder (22, 35) for winding film trims for packaging machines, comprising a drive, a winding mandrel and at least two winding rolls (25a, 25b), wherein the winder (22, 35) comprises an adjustment device for adjusting a torque threshold above which slip occurs between the respective winding rolls (25a, 25b) and the winding mandrel and/or between the individual winding rolls (25a, 25b), wherein the adjustment device comprises at least two cooperating permanent magnets (37a, 37b, 38a, 38b, and the permanent magnets (37a, 37b and 38a, 38b) are adapted to be adjusted relative to one another in the axial direction of the winding mandrel.