mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a foam rubber, comprising foaming a polymer latex, wherein the polymer latex used has a solids content of 60.0 wt% or more, has a volume particle size distribution where a volume cumulative particle size d10, measured using a light scattering diffraction particle size analyzer, is more than 140 nm, and comprises 0.001 to 1.0 part by weight of antifoaming agent relative to 100 parts by weight of polymer in the polymer latex; and the polymer forming the polymer latex is a nitrile group-containing conjugated diene copolymer. wherein the polymer latex used has a solids content of 60.0 wt% or more, has a volume particle size distribution where a volume cumulative particle size d10, measured using a light scattering diffraction particle size analyzer, is more than 140 nm, and comprises 0.001 to 1.0 part by weight of antifoaming agent relative to 100 parts by weight of polymer in the polymer latex; and the polymer forming the polymer latex is a nitrile group-containing conjugated diene copolymer.
Hydraulic damper comprising a damper piston sliding in an inner tube, moving during compression in a so-called front axial direction turned towards a damper bottom, this damper piston supporting towards the front a rod comprising at its end a stop piston entering into an end-of-travel stop tube having fluid outlet holes, characterized in that it comprises on the front face of the stop piston a first hole comprising an outlet at the rear of this stop piston, comprises on the side of the stop piston a second bore comprising an outlet at the rear of this stop piston, and comprises a sliding plug equipped with a delay chamber having a leakage flow, which, in a closed front position, at least one outlet of the bores (20, 22) and in a rear position connects these outlets, the plug being held axially between a front return spring bearing on a fixed part of the plug the damper for returning it to the rear position, and a rear return spring bearing on the damper piston for returning it to the front position.
A method for character selection, comprising the operations of: displaying on-screen a plurality of cells, each cell including a plurality of characters; receiving a first user command from a joystick to select a particular cell of the plurality of cells by moving the joystick in the direction of the desired cell 302; and receiving a second user command to select a particular character of the plurality of characters within the selected cell, wherein the second user command is received from an input device, the input device including said joystick and a plurality of selection buttons (402a-402d), wherein each of the selection buttons has a position corresponding to the position of a particular character of the plurality of characters within a cell, whereby selection of a particular selection button selects the character within the selected cell having a position corresponding to the position of the selected selection button, and the selected cell and the characters included therein are displayed to the user on the screen; wherein the plurality of cells comprises a three by three grid arrangement, and wherein a starting position for a selection cursor is located in a center cell of the three by three grid arrangement prior to receiving the first user command. displaying on-screen a plurality of cells, each cell including a plurality of characters; receiving a first user command from a joystick to select a particular cell of the plurality of cells by moving the joystick in the direction of the desired cell 302; and receiving a second user command to select a particular character of the plurality of characters within the selected cell, wherein the second user command is received from an input device, the input device including said joystick and a plurality of selection buttons (402a-402d), wherein each of the selection buttons has a position corresponding to the position of a particular character of the plurality of characters within a cell, whereby selection of a particular selection button selects the character within the selected cell having a position corresponding to the position of the selected selection button, and the selected cell and the characters included therein are displayed to the user on the screen;
A coupling arrangement for the rotational coupling of a drive element of a pivoting drive of an exhaust-gas flap for the exhaust-gas flow of an internal combustion engine to a pivot shaft that is rotatable about a pivot axis, comprising: - a first coupling element having a coupling region which is to be coupled to a pivot shaft for conjoint rotation about the pivot axis, - a second coupling element having a coupling region which is to be coupled to a drive element for conjoint rotation about the pivot axis, - a preload element for generating a force which acts on the first coupling element and the second coupling element substantially in a peripheral direction with respect to one another and for generating a force which acts in an axial direction between the first coupling element and the second coupling element, wherein one coupling element of the first coupling element and the second coupling element comprises at least two radially outwardly extending rotational coupling projections (46, 48), and the other coupling element of the first coupling element and the second coupling element comprises, in association to each rotational coupling projection (46, 48) of the one coupling element, a rotational coupling cutout (68, 70) which receives the rotational coupling projection (46, 48), wherein each rotational coupling cutout (68, 70) is open axially in the direction away from the coupling region of the other coupling element, characterized in that the one coupling element is held axially on the other coupling element by the preload element so as to prevent the rotational coupling projections (46, 48) from moving out of the rotational coupling cutouts (68, 70) that receive them. - a first coupling element having a coupling region which is to be coupled to a pivot shaft for conjoint rotation about the pivot axis, - a second coupling element having a coupling region which is to be coupled to a drive element for conjoint rotation about the pivot axis, - a preload element for generating a force which acts on the first coupling element and the second coupling element substantially in a peripheral direction with respect to one another and for generating a force which acts in an axial direction between the first coupling element and the second coupling element,
Floor scrubbing machine of the kind comprising: - a body housing a supplying tank containing a suitable cleaning liquid and a collection tank intended to collect the polluted cleaning liquid after use, - a cleaning tool which is mounted on the bottom wall of said body and connected to said supplying tank, - collecting and sucking means which are mounted on the bottom wall of said body and connected to said collection tank, e - electrical supply means, said floor scrubbing machine comprising at least - a high pressure water jet cleaning unit, comprising a water jet dispensing nozzle, a piping connecting said supplying tank to said water jet dispensing nozzle and pressurization means for pressurizing the cleaning liquid coming from said supplying tank and directed to said water jet dispensing nozzle; - a wet vacuum cleaning unit, comprising a suction head, a piping connecting said suction head to said collection tank and suction means for creating vacuum conditions allowing said cleaning liquid to be sucked from said suction head to said collection tank; characterized in that the floor scrubbing machine further comprises a steam cleaning unit comprising a boiler, connected to said supplying tank and provided with heating means, a steam dispensing nozzle and a piping connecting said boiler to said steam dispensing nozzle. - a body housing a supplying tank containing a suitable cleaning liquid and a collection tank intended to collect the polluted cleaning liquid after use, - a cleaning tool which is mounted on the bottom wall of said body and connected to said supplying tank, - collecting and sucking means which are mounted on the bottom wall of said body and connected to said collection tank, e - electrical supply means, - a high pressure water jet cleaning unit, comprising a water jet dispensing nozzle, a piping connecting said supplying tank to said water jet dispensing nozzle and pressurization means for pressurizing the cleaning liquid coming from said supplying tank and directed to said water jet dispensing nozzle; - a wet vacuum cleaning unit, comprising a suction head, a piping connecting said suction head to said collection tank and suction means for creating vacuum conditions allowing said cleaning liquid to be sucked from said suction head to said collection tank;
A method of processing position information indicative of an object position of an audio object, wherein the processing is performed using an MPEG-H 3D Audio decoder, wherein the object position is usable for rendering of the audio object, the method comprising: obtaining listener orientation information indicative of an orientation of a listener's head; obtaining listener displacement information indicative of a displacement of the listener's head relative to a nominal listening position, via an MPEG-H 3D Audio decoder input interface; determining the object position from the position information; modifying the object position based on the listener displacement information by applying a translation to the object position; and further modifying the modified object position based on the listener orientation information, wherein when the listener displacement information is indicative of a displacement of the listener's head from the nominal listening position by a small positional displacement, the small positional displacement having an absolute value of 0.5 meter or less than 0.5 meter, a distance between the modified audio object position and a listening position after displacement of the listener's head is kept equal to an original distance between the audio object position and the nominal listening position. obtaining listener orientation information indicative of an orientation of a listener's head; obtaining listener displacement information indicative of a displacement of the listener's head relative to a nominal listening position, via an MPEG-H 3D Audio decoder input interface; determining the object position from the position information; modifying the object position based on the listener displacement information by applying a translation to the object position; and further modifying the modified object position based on the listener orientation information, wherein
An antenna system with kilometric, hectometric or decametric surface waves, comprising: - at least one antenna (24, 24a, 24b, 24n) adapted to emit and/or receive a radiation in an operating wavelength λ 0, with vertical or elliptical polarization and emitting a radiation, said at least one antenna (24, 24a, 24b, 24n) being connected to a conductive medium having a substantially horizontal surface; - at least one wire parasite (30, 30a, 30b, 30n) electrically isolated from each antenna of said at least one antenna (24, 24a, 24b, 24n) and arranged in the vicinity of at least one antenna of said at least one antenna (24, 24a, 24b, 24n) so as to be able to radiate thanks to the current induced by said radiation of this at least one antenna (24, 24a, 24b, 24n), said at least one wire parasite extending in one direction forming an angle comprised between -10° and 10° with the surface of the conductive medium; the antenna system being characterized in that: - said at least one antenna (24, 24a, 24b, 24n) is electrically short in the vertical plane, such that it has a vertical footprint less than a quarter of the operating wavelength, - said at least one wire parasite (30, 30a, 30b, 30n) has an electrical length selected so that the radiation of said at least one antenna (24, 24a, 24b, 24n) and the radiation of said at least one wire parasite (30, 30a, 30b, 30n) are in phase opposition and almost of the same amplitude. - at least one antenna (24, 24a, 24b, 24n) adapted to emit and/or receive a radiation in an operating wavelength λ 0, with vertical or elliptical polarization and emitting a radiation, said at least one antenna (24, 24a, 24b, 24n) being connected to a conductive medium having a substantially horizontal surface; - at least one wire parasite (30, 30a, 30b, 30n) electrically isolated from each antenna of said at least one antenna (24, 24a, 24b, 24n) and arranged in the vicinity of at least one antenna of said at least one antenna (24, 24a, 24b, 24n) so as to be able to radiate thanks to the current induced by said radiation of this at least one antenna (24, 24a, 24b, 24n), said at least one wire parasite extending in one direction forming an angle comprised between -10° and 10° with the surface of the conductive medium; - said at least one antenna (24, 24a, 24b, 24n) is electrically short in the vertical plane, such that it has a vertical footprint less than a quarter of the operating wavelength, - said at least one wire parasite (30, 30a, 30b, 30n) has an electrical length selected so that the radiation of said at least one antenna (24, 24a, 24b, 24n) and the radiation of said at least one wire parasite (30, 30a, 30b, 30n) are in phase opposition and almost of the same amplitude.
A loudspeaker system comprising: a line array assembly comprising: a plurality of electro-acoustic transducers arranged along a vertical axis; and a base for supporting the line array assembly, the base housing electronics for powering the line array assembly, wherein the loudspeaker system further comprises a receptacle supported by the base for receiving a portion of the line array assembly, wherein the base, the receptacle, and the line array assembly together define a flow path to facilitate a convective air flow to pass between the base and the line array assembly for cooling the electronics. a plurality of electro-acoustic transducers arranged along a vertical axis; and a base for supporting the line array assembly, the base housing electronics for powering the line array assembly, wherein the loudspeaker system further comprises a receptacle supported by the base for receiving a portion of the line array assembly, wherein the base, the receptacle, and the line array assembly together define a flow path to facilitate a convective air flow to pass between the base and the line array assembly for cooling the electronics.
A method for detecting blood pressure, the method comprising: acquiring a photoplethysmography, PPG, signal; deriving a secondary differential signal of the PPG signal; calculating a difference between a local maximum value and a local minimum value in intervals of the secondary differential signal as a convex-to-concave difference, CCD, value; extracting a feature from the PPG signal based on the calculated CCD values, wherein the extracting comprises extracting characteristic points (T1, T2, T3, P1, P2, P3) from the photoplethysmography, PPG, signal based on the calculated CCD values, and wherein the extracted characteristic points (T1, T2, T3, P1, P2, P3) are used to extract the feature; and detecting blood pressure using the extracted feature. acquiring a photoplethysmography, PPG, signal; deriving a secondary differential signal of the PPG signal; calculating a difference between a local maximum value and a local minimum value in intervals of the secondary differential signal as a convex-to-concave difference, CCD, value; extracting a feature from the PPG signal based on the calculated CCD values, wherein the extracting comprises extracting characteristic points (T1, T2, T3, P1, P2, P3) from the photoplethysmography, PPG, signal based on the calculated CCD values, and wherein the extracted characteristic points (T1, T2, T3, P1, P2, P3) are used to extract the feature; and detecting blood pressure using the extracted feature.
A user equipment, UE, configured to operate in an evolved universal mobile telecommunication system terrestrial radio access, EUTRAN, radio access technology, RAT, being configured to apply performance requirements for increased frequency layer monitoring divided into two performance groups, denoted as normal-performance and reduced-performance groups, which result in a normal-performance group of frequency layers and a reduced-performance group of frequency layers, comprising: a communication module configured to: for each frequency layer associated with the UE of a total number, N freq, of frequency layers to be measured by the UE other than a primary frequency layer and one or more secondary frequency layers, assign that frequency layer to one of the normal-performance group or the reduced-performance group, wherein a number of frequency layers in the normal-performance group plus a number of frequency layers in the reduced-performance group is equal to N freq, wherein N freq is an integer greater than eight, wherein each frequency layer is one of an inter-frequency layer or an inter-RAT frequency layer, wherein the number of frequency layers in the normal-performance group is configured at the UE by a signal from a base station, BS and wherein each frequency layer associated with the UE does not comprise a serving frequency layer between the UE and the BS; and perform a configured measurement type on each frequency layer assigned to the normal-performance group according to a measurement gap repetition period, MGRP, and according to a number of measurement gaps derived from the MGRP and the number of frequency layers in the normal-performance group. for each frequency layer associated with the UE of a total number, N freq, of frequency layers to be measured by the UE other than a primary frequency layer and one or more secondary frequency layers, assign that frequency layer to one of the normal-performance group or the reduced-performance group, wherein a number of frequency layers in the normal-performance group plus a number of frequency layers in the reduced-performance group is equal to N freq, wherein N freq is an integer greater than eight, wherein each frequency layer is one of an inter-frequency layer or an inter-RAT frequency layer, wherein the number of frequency layers in the normal-performance group is configured at the UE by a signal from a base station, BS and wherein each frequency layer associated with the UE does not comprise a serving frequency layer between the UE and the BS; and perform a configured measurement type on each frequency layer assigned to the normal-performance group according to a measurement gap repetition period, MGRP, and according to a number of measurement gaps derived from the MGRP and the number of frequency layers in the normal-performance group.
A method of replacing a battery in an elevator system, characterized in that the method comprises: triggering a discharge request to an elevator control, discharging a first battery in the elevator system in response to the discharge request, removing the discharged first battery from the elevator system, installing a second battery as a replacement for the removed first battery. triggering a discharge request to an elevator control, discharging a first battery in the elevator system in response to the discharge request, removing the discharged first battery from the elevator system, installing a second battery as a replacement for the removed first battery.
A vehicle glove box latch (104, 904) for a vehicle glove box, the vehicle glove box latch (104, 904) comprising: a housing (300, 910, 1010, 1802) that is configured to be connected to a vehicle glove box; a user operated paddle (400, 1012, 1808) that is pivotably connected to a paddle (400, 1012, 1808) mounting portion of the housing (300, 910, 1010, 1802), the paddle (400, 1012, 1808) configured for movement between a home position and a deployed position; a rotor (500, 914, 1014, 1804, 1902) that is pivotably connected to a rotor (500, 914, 1014, 1804, 1902) mounting portion of the housing (300, 910, 1010, 1802); at least one pawl (112, 114, 120, 127,1006, 100, 1908) coupled to the rotor (500, 914, 1014, 1804, 1902) and having an end that is configured to be engaged with an opening in the vehicle to which the vehicle glove box is mounted; and a lock barrel (600, 920) mounted to the housing (300, 910, 1010, 1802) for locking and unlocking the vehicle glove box latch (104, 904), wherein, in a locked state of the lock barrel (600, 920) the at least one pawl (112, 114, 120, 127,1006, 100, 1908) cannot be disengaged from the opening in the vehicle, and in an unlocked state of the lock barrel (600, 920), the at least one pawl (112, 114, 120, 127,1006, 100, 1908) can be disengaged from the opening in the vehicle using the paddle (400, 1012, 1808) for opening the vehicle glove box; wherein the lock barrel (600, 920), the rotor (500, 914, 1014, 1804, 1902) and the rotor (500, 914, 1014, 1804, 1902) mounting portion of the housing (300, 910, 1010, 1802) are concentrically aligned along an axis. a housing (300, 910, 1010, 1802) that is configured to be connected to a vehicle glove box; a user operated paddle (400, 1012, 1808) that is pivotably connected to a paddle (400, 1012, 1808) mounting portion of the housing (300, 910, 1010, 1802), the paddle (400, 1012, 1808) configured for movement between a home position and a deployed position; a rotor (500, 914, 1014, 1804, 1902) that is pivotably connected to a rotor (500, 914, 1014, 1804, 1902) mounting portion of the housing (300, 910, 1010, 1802); at least one pawl (112, 114, 120, 127,1006, 100, 1908) coupled to the rotor (500, 914, 1014, 1804, 1902) and having an end that is configured to be engaged with an opening in the vehicle to which the vehicle glove box is mounted; and a lock barrel (600, 920) mounted to the housing (300, 910, 1010, 1802) for locking and unlocking the vehicle glove box latch (104, 904), wherein, in a locked state of the lock barrel (600, 920) the at least one pawl (112, 114, 120, 127,1006, 100, 1908) cannot be disengaged from the opening in the vehicle, and in an unlocked state of the lock barrel (600, 920), the at least one pawl (112, 114, 120, 127,1006, 100, 1908) can be disengaged from the opening in the vehicle using the paddle (400, 1012, 1808) for opening the vehicle glove box; wherein the lock barrel (600, 920), the rotor (500, 914, 1014, 1804, 1902) and the rotor (500, 914, 1014, 1804, 1902) mounting portion of the housing (300, 910, 1010, 1802) are concentrically aligned along an axis.