mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for emulation of electronic non-linear audio equipment comprising: an input interface for receiving an audio signal and producing a first signal, a dynamic and non-linear device comprising static non-linear functions, and arranged such that two mode parameters decide which static non-linear function is active, said dynamic and non-linear device being further arranged to operate on said first signal and produce a second signal, a mode estimator arranged to operate on said first signal as input, identify an operating mode for the dynamic and non-linear device and accordingly provide said two mode parameters to an output of said mode estimator being communicatively coupled to said dynamic and non-linear device, and an interface for outputting said second signal as an output audio signal, characterized in that said two mode parameters consist of a first mode parameter related to hysteresis and of a second mode parameter related to input energy, or amplitude, the dynamic and non-linear device being arranged to provide the second signal as a function depending on said first signal and said two mode parameters, the function being continuous in said two mode parameters with said static non-linear functions being tabulated and interpolated, and with said two mode parameters deciding which static non-linear function is operating on the first signal and providing the second signal. an input interface for receiving an audio signal and producing a first signal, a dynamic and non-linear device comprising static non-linear functions, and arranged such that two mode parameters decide which static non-linear function is active, said dynamic and non-linear device being further arranged to operate on said first signal and produce a second signal, a mode estimator arranged to operate on said first signal as input, identify an operating mode for the dynamic and non-linear device and accordingly provide said two mode parameters to an output of said mode estimator being communicatively coupled to said dynamic and non-linear device, and an interface for outputting said second signal as an output audio signal,
A process for the preparation of a triazole derivative compound of formula-1 comprising the following steps: a) reacting the -N'-(2-(benzyloxy)propylidene)formohydrazide compound of formula-16 with ethyl magnesium halide in the presence of bis(trimethylsilyl)acetamide in a suitable solvent to provide N'-((2S,3S)-2-(benzyloxy)pentan-3-yl)formohydrazide compound of formula-17, b) reacting the compound of formula-17 in-situ with phenyl 4-(4-(4-hydroxyphenyl)piperazin-1-yl)phenylcarbamate compound of formula-19 in the presence of a suitable base in a suitable solvent to provide 1-((2S,3S)-2-(benzyloxy)pentan-3-yl)-4-(4-(4-(4-hydroxyphenyl)piperazin-1-yl)phenyl)-1H-1,2,4-triazol-5 -one compound of formula-20, c) condensing the compound of formula-20 with ((3S,5R)-5-((1H-1,2,4-triazol-1-yl)methyl)-5-(2,4-difluorophenyl)tetrahydrofuran-3-yl)methyl-4-methyl benzene sulfonate compound of formula-10 in the presence of a base in a suitable polar aprotic solvent to provide the 4-(4-(4-(4-(((3R,5R)-5-((1H-1,2,4-triazol-1-yl)methyl)-5-(2,4-difluorophenyl)tetrahydrofuran-3-yl)methoxy)phenyl)cyclohexyl)phenyl)-1-((2S,3S)-2-(benzyloxy)pentan-3-yl)-1H-1,2,4-triazol-5 -one compound of formula-21, d) debenzylating the compound of formula-21 with Pd/C under hydrogen pressure in the presence of mineral acid in a suitable alcoholic solvent to provide compound of formula-1, e) optionally, purifying the compound obtained in step-(d) from a suitable solvent to provide pure compound of formula-1. a) reacting the -N'-(2-(benzyloxy)propylidene)formohydrazide compound of formula-16 with ethyl magnesium halide in the presence of bis(trimethylsilyl)acetamide in a suitable solvent to provide N'-((2S,3S)-2-(benzyloxy)pentan-3-yl)formohydrazide compound of formula-17, b) reacting the compound of formula-17 in-situ with phenyl 4-(4-(4-hydroxyphenyl)piperazin-1-yl)phenylcarbamate compound of formula-19 in the presence of a suitable base in a suitable solvent to provide 1-((2S,3S)-2-(benzyloxy)pentan-3-yl)-4-(4-(4-(4-hydroxyphenyl)piperazin-1-yl)phenyl)-1H-1,2,4-triazol-5 -one compound of formula-20, c) condensing the compound of formula-20 with ((3S,5R)-5-((1H-1,2,4-triazol-1-yl)methyl)-5-(2,4-difluorophenyl)tetrahydrofuran-3-yl)methyl-4-methyl benzene sulfonate compound of formula-10 in the presence of a base in a suitable polar aprotic solvent to provide the 4-(4-(4-(4-(((3R,5R)-5-((1H-1,2,4-triazol-1-yl)methyl)-5-(2,4-difluorophenyl)tetrahydrofuran-3-yl)methoxy)phenyl)cyclohexyl)phenyl)-1-((2S,3S)-2-(benzyloxy)pentan-3-yl)-1H-1,2,4-triazol-5 -one compound of formula-21, d) debenzylating the compound of formula-21 with Pd/C under hydrogen pressure in the presence of mineral acid in a suitable alcoholic solvent to provide compound of formula-1, e) optionally, purifying the compound obtained in step-(d) from a suitable solvent to provide pure compound of formula-1.
A method of managing moving icons between a plurality of pages of a home screen by a touch-enabled, mobile device including a touch screen, comprising a control unit configured to control a process of: displaying, by a display unit, in a mode of regular operation control of the home screen, a selected page of the home screen on the touch screen with a content region, the content region including icons, arranged in the page, for applications supporting various functions of said touch enabled, mobile device; entering a home screen editing mode in response to a first user interaction with said touch screen, said first user interaction causing said content region with said icons to be displayed in a reduced format as well as thumbnails representing preview images of individual pages of the home screen are extra displayed on said touch screen; selectively moving an icon of the selected page from said reduced format content region to one of the thumbnails of the pages during the home screen editing mode in response to a second user interaction with the touch screen; and placing the icon on a target page of the home screen corresponding to said one of the thumbnails. displaying, by a display unit, in a mode of regular operation control of the home screen, a selected page of the home screen on the touch screen with a content region, the content region including icons, arranged in the page, for applications supporting various functions of said touch enabled, mobile device; entering a home screen editing mode in response to a first user interaction with said touch screen, said first user interaction causing said content region with said icons to be displayed in a reduced format as well as thumbnails representing preview images of individual pages of the home screen are extra displayed on said touch screen; selectively moving an icon of the selected page from said reduced format content region to one of the thumbnails of the pages during the home screen editing mode in response to a second user interaction with the touch screen; and placing the icon on a target page of the home screen corresponding to said one of the thumbnails.
Swimming pool structure having at least one edge zone including a first surface which delimits and surrounds a main tank for water containment and at least one top wall designed to allow the passage of users from the external towards said tank and from the latter towards the outside, said swimming pool structure also comprising a water collection, filtering and recirculating circuit in the main tank, in which said water collection, filtering and recirculation circuit for collecting water from the main tank and recirculating water in the main tank includes at least one well zone for falling water arranged under the top wall, at least one filter mounted in the well zone and designed to intercept the water falling into it starting from the top wall, said circuit then including recirculation or movement means always placed in the well zone, wherein said water collection, filtering and recirculation circuit comprises at least one recirculation duct of the water conveyed by the recirculation or movement means, which duct opens into the main tank, wherein the recirculation or movement means is a pump and said at least one recirculation duct extends between the outlet of the pump and a discharge opening or through hole extending in a wall or portion of wall between a respective well zone and the tank.
An acoustic array system comprising: a sound field controller including at least one signal processor configured to process an audio signal to provide a first processed signal associated with a first acoustic radiation pattern and to provide a second processed signal associated with a second acoustic radiation pattern; and two or more acoustic transducer arrays daisy-chained, each including at least one signal processor and a plurality of acoustic transducers, the acoustic transducer array configured to receive the first and second processed signals from the sound field controller, produce a first driver signal for each of the acoustic transducers based upon the first processed signal, produce a second driver signal for each of the acoustic transducers based upon the second processed signal, and combine the first and second driver signals for each of the plurality of acoustic transducers to produce a plurality of combined driver signals, one for each of the acoustic transducers, and provide at least one combined driver signal to each of the acoustic transducers, each of the acoustic transducer arrays is configured to communicate with each other via daisy-chain connections (352, 354); and the first acoustic transducer array is configured to communicate with the sound field controller. a sound field controller including at least one signal processor configured to process an audio signal to provide a first processed signal associated with a first acoustic radiation pattern and to provide a second processed signal associated with a second acoustic radiation pattern; and two or more acoustic transducer arrays daisy-chained, each including at least one signal processor and a plurality of acoustic transducers, the acoustic transducer array configured to receive the first and second processed signals from the sound field controller, produce a first driver signal for each of the acoustic transducers based upon the first processed signal, produce a second driver signal for each of the acoustic transducers based upon the second processed signal, and combine the first and second driver signals for each of the plurality of acoustic transducers to produce a plurality of combined driver signals, one for each of the acoustic transducers, and provide at least one combined driver signal to each of the acoustic transducers, each of the acoustic transducer arrays is configured to communicate with each other via daisy-chain connections (352, 354); and the first acoustic transducer array is configured to communicate with the sound field controller.
A can bodymaker comprising: a tool pack including a reciprocating ram and a die pack, the die pack having at least one die ring, the reciprocating ram including a punch mounted thereon; wherein said at least one die ring has an opening sized to allow the punch to pass therethrough; and the ram being positioned so that the punch reciprocates through the die pack; characterised in that the bodymaker further comprises: a compressed gas system structured to deliver a gas to at least one nozzle assembly; and at least one nozzle assembly disposed adjacent to the die ring, the at least one nozzle assembly including an outlet, the at least one nozzle assembly outlet structured to direct a gas toward at least one of the ram and the at least one die ring; wherein the at least one nozzle assembly outlet is structured to direct the gas in a path; and wherein the path is one of a circular path or spiral path. a tool pack including a reciprocating ram and a die pack, the die pack having at least one die ring, the reciprocating ram including a punch mounted thereon; wherein said at least one die ring has an opening sized to allow the punch to pass therethrough; and the ram being positioned so that the punch reciprocates through the die pack; characterised in that the bodymaker further comprises: a compressed gas system structured to deliver a gas to at least one nozzle assembly; and at least one nozzle assembly disposed adjacent to the die ring, the at least one nozzle assembly including an outlet, the at least one nozzle assembly outlet structured to direct a gas toward at least one of the ram and the at least one die ring; wherein the at least one nozzle assembly outlet is structured to direct the gas in a path; and wherein the path is one of a circular path or spiral path. a compressed gas system structured to deliver a gas to at least one nozzle assembly; and at least one nozzle assembly disposed adjacent to the die ring, the at least one nozzle assembly including an outlet, the at least one nozzle assembly outlet structured to direct a gas toward at least one of the ram and the at least one die ring; wherein the at least one nozzle assembly outlet is structured to direct the gas in a path; and wherein the path is one of a circular path or spiral path.
A radio terminal having a carrier aggregation function of communicating with a radio station by using a plurality of radio resources that correspond respectively to a plurality of cells, the radio terminal comprising: a plurality of synchronization timers that are used to determine whether uplink signals are in synchronization, wherein the plurality of synchronization timers include at least a first synchronization timer provided at least for a primary cell in the plurality of cells and a second synchronization timer provided at least for a secondary cell in the plurality of cells that is not the primary cell; and control means configured not to perform uplink-signal transmission on any cells when the first synchronization timer stops even when the second synchronization timer is running; and wherein the control means is configured to permit the second synchronization timer to run even when the first synchronization timer has expired, characterized in that the control means is further configured to immediately enable uplink-signal transmission on the secondary cell without uplink signal resynchronization on the secondary cell in a case where the second synchronization timer is continuously running when the first synchronization timer is restarted. a plurality of synchronization timers that are used to determine whether uplink signals are in synchronization, wherein the plurality of synchronization timers include at least a first synchronization timer provided at least for a primary cell in the plurality of cells and a second synchronization timer provided at least for a secondary cell in the plurality of cells that is not the primary cell; and control means configured not to perform uplink-signal transmission on any cells when the first synchronization timer stops even when the second synchronization timer is running; and wherein the control means is configured to permit the second synchronization timer to run even when the first synchronization timer has expired, characterized in that the control means is further configured to immediately enable uplink-signal transmission on the secondary cell without uplink signal resynchronization on the secondary cell in a case where the second synchronization timer is continuously running when the first synchronization timer is restarted.
A caliper device used together with a brake shoe to retard rotation of a rotor, comprising: a brake arm configured to be swung relative to a main body by a driving mechanism and move the brake shoe between a brake position and a non-brake position; a friction mechanism arranged to increase friction against a swinging movement of the brake arm relative to the main body; and an arm pivot shaft coupling the brake arm swingably to the main body, wherein the friction mechanism includes a friction member arranged to generate an arm holding friction force to impede the swinging movement of the brake arm relative to the main body, characterized in that the friction member of the friction mechanism is arranged to sliding-contact one of the arm pivot shaft or the main body to generate the arm holding friction force. a brake arm configured to be swung relative to a main body by a driving mechanism and move the brake shoe between a brake position and a non-brake position; a friction mechanism arranged to increase friction against a swinging movement of the brake arm relative to the main body; and an arm pivot shaft coupling the brake arm swingably to the main body, wherein the friction mechanism includes a friction member arranged to generate an arm holding friction force to impede the swinging movement of the brake arm relative to the main body, characterized in that the friction member of the friction mechanism is arranged to sliding-contact one of the arm pivot shaft or the main body to generate the arm holding friction force.
A device, for adaptively actuating a brake system (56, 60) of a rail vehicle by means of an anti-skid control function, that prevents the locking of a wheel of the rail vehicle in unfavourable adhesion conditions in the wheel-rail contact in that the anti-skid control function controls the brake system (56, 60) in accordance with a predetermined first and second slip parameter range, the first slip parameter range being a macro-slip range with a relatively high permissible slip range and the second slip parameter range being a micro-slip range with a relatively low permissible slip range, characterised in that the device comprises: - maximum force-determining means for determining a maximum braking force available in the micro-slip range; - braking force-determining means (303, 304) for determining an average braking force of the brake system (56, 60) achieved in the slip range at a given point in time; - comparison means for comparing the determined average braking force in the macro-slip range with the maximum available braking force in the micro-slip range; and - slip range-setting means (301, 307) for setting the macro-slip range and the micro-slip range; - the device being designed to actuate the slip range-setting means (301, 307) in response to a comparison result of the comparison means indicating an insufficient slipping effect in the macro-slip range in order to bring about a transition from the macro-slip range into the micro-slip range, or in response to a comparison result of the comparison means indicating a sufficient slipping effect in the macro-slip range in order to bring about a transition from the micro-slip range to the macro-slip range. - maximum force-determining means for determining a maximum braking force available in the micro-slip range; - braking force-determining means (303, 304) for determining an average braking force of the brake system (56, 60) achieved in the slip range at a given point in time; - comparison means for comparing the determined average braking force in the macro-slip range with the maximum available braking force in the micro-slip range; and - slip range-setting means (301, 307) for setting the macro-slip range and the micro-slip range; - the device being designed to actuate the slip range-setting means (301, 307) in response to a comparison result of the comparison means indicating an insufficient slipping effect in the macro-slip range in order to bring about a transition from the macro-slip range into the micro-slip range, or in response to a comparison result of the comparison means indicating a sufficient slipping effect in the macro-slip range in order to bring about a transition from the micro-slip range to the macro-slip range.
A linear apparatus for forming the can openings, comprising a working tabletop; two rows of necking machining stations are arranged on the working tabletop along two linear lines parallel to each other, a can body positioning groove for positioning a can body is formed in each necking machining station, and the can body positioning grooves are arranged in parallel in terms of the axes of the can bodies positioned in the can body positioning grooves; a vacuum adsorption hole is formed in the interior of each can body positioning groove, a vacuum chamber is arranged below the working tabletop, and the vacuum chamber communicates with the vacuum adsorption holes; a necking machining device is correspondingly arranged on each necking machining station, the necking machining devices are positioned between the can body positioning grooves on the two rows of necking machining stations, and characterized in that the necking machining devices on the two rows of necking machining stations are in one-to-one correspondence; each necking machining device comprises a necking internal mold, a necking external mold sleeving the exterior of the necking internal mold, an external mold punch connected with the necking internal mold and an internal mold punch connected with the necking internal mold; two disc cams are arranged between a pair of necking machining devices correspondingly in the two rows of necking machining stations, the two disc cams are isometric disc cams, in the two isometric disc cams, one isometric disc cam corresponds to and is in transmission connection with the external mold punches in the two necking machining devices, and the other isometric disc cam corresponds to and is in transmission connection with the internal mold punches in the two necking machining devices; moreover, the disc cams sleeve a cam shaft, one end of the cam shaft is in transmission connection with a motor, and each necking external mold and the corresponding necking internal mold of the two necking machining devices correspondingly on the two rows of necking machining stations are simultaneously driven by the motor to move and return towards the can body inside the can body positioning groove of the respective necking machining station through the disc cams; and the linear apparatus for forming the can openings also comprises a moving device, and the moving device acts on the can bodies positioned in the can body positioning grooves and is used for moving the can bodies on the stations backward by one station.
A loop surface fastener in which numerous looped engaging elements formed from loop yarns inserted in parallel to ground warp yarns are provided upright on one side of a base fabric formed from ground warp yarns and ground weft yarns, wherein all the following requirements 1) to 3) are satisfied: 1) the density of the looped engaging elements is in a range of 100 to 200/cm 2, characterized in that 2) the loop yarn is a multi-filament yarn formed by bundling 5 to 9 filaments of 30 to 45 decitex, 3) loop surfaces of the looped engaging elements are substantially facing in the same direction and the loop surface facing direction is a ground weft yarn direction. 1) the density of the looped engaging elements is in a range of 100 to 200/cm 2, characterized in that 2) the loop yarn is a multi-filament yarn formed by bundling 5 to 9 filaments of 30 to 45 decitex, 3) loop surfaces of the looped engaging elements are substantially facing in the same direction and the loop surface facing direction is a ground weft yarn direction.
A method of controlling a motor of a rotating shaft apparatus configured to rotate about a horizontal or inclined rotational axis, characterized by the steps of: positioning the rotating shaft apparatus at at least two rotational positions; measuring a stopping load torque acting on the rotating shaft apparatus at each of the rotational positions; calculating an unbalance torque based on the measured stopping load torques; and controlling the motor of the rotating shaft apparatus based on the unbalance torque. positioning the rotating shaft apparatus at at least two rotational positions; measuring a stopping load torque acting on the rotating shaft apparatus at each of the rotational positions; calculating an unbalance torque based on the measured stopping load torques; and controlling the motor of the rotating shaft apparatus based on the unbalance torque.