mhurhangee/ep-ind-claims huggingface dataset:
A method of driving an electroluminescent display device comprising a plurality of pixels, wherein the pixels are driven by first and second power supply voltages (ELVDD, ELVSS), the method comprising: generating a current detection signal (CDET) corresponding to an average value of a total current in a voltage control period (tVC) based on the total current provided to the display device, controlling at least one of the first power supply voltage (ELVDD) or the second power supply voltage (ELVSS) based on the current detection signal; and changing the voltage control period (tVC) based on an operation mode of the display device, the display device operating in a two-dimensional mode for displaying a planar image and a three-dimensional mode for displaying a stereoscopic image, wherein changing the voltage control period (tVC) includes: increasing the voltage control period (tVC) when the operation mode is to change from the two-dimensional mode to the three-dimensional mode, and decreasing the voltage control period (tVC) when the operation mode is to change from the three-dimensional mode to the two-dimensional mode, wherein the voltage control period (tVC) of the three-dimensional mode includes a sensing time interval (tSEN) for sensing the total current and a standby time interval (tSTB) after the sensing time interval, and wherein in the three-dimensional mode, the sensing time interval (tSEN) corresponds to a plurality of frame periods and the standby time interval (tSTB) corresponds to at least one frame period. generating a current detection signal (CDET) corresponding to an average value of a total current in a voltage control period (tVC) based on the total current provided to the display device, controlling at least one of the first power supply voltage (ELVDD) or the second power supply voltage (ELVSS) based on the current detection signal; and changing the voltage control period (tVC) based on an operation mode of the display device, the display device operating in a two-dimensional mode for displaying a planar image and a three-dimensional mode for displaying a stereoscopic image, wherein changing the voltage control period (tVC) includes: increasing the voltage control period (tVC) when the operation mode is to change from the two-dimensional mode to the three-dimensional mode, and decreasing the voltage control period (tVC) when the operation mode is to change from the three-dimensional mode to the two-dimensional mode, increasing the voltage control period (tVC) when the operation mode is to change from the two-dimensional mode to the three-dimensional mode, and decreasing the voltage control period (tVC) when the operation mode is to change from the three-dimensional mode to the two-dimensional mode,
A system (200, 300) for treating a fluid, comprising: - a container arranged to receive an amount of the fluid; - a first UV light source contained within the container; - a second UV light source contained within the container, wherein only the second UV light source is an UV mercury based light source; - an electronic drive unit; and - an electrical power supply connected to the electronic drive unit and operatively associated with the first and the second UV light source, the electrical power supply in combination with the electronic drive unit arranged to provide electrical power to the first and the second UV light source for treating the amount of the fluid received within the chamber using at least one of the first and the second UV light source, characterized in that: - the electronic drive unit is arranged to essentially simultaneously activate the first and the second UV light source when treatment of the fluid is starting, and then deactivate the first UV light source at the end of a warm-up period for the second UV light source, and - the first UV light source comprises at least one of a field emission based light source, an UVC Light Emitting Diode, and an Excimer lamp. - a container arranged to receive an amount of the fluid; - a first UV light source contained within the container; - a second UV light source contained within the container, wherein only the second UV light source is an UV mercury based light source; - an electronic drive unit; and - an electrical power supply connected to the electronic drive unit and operatively associated with the first and the second UV light source, the electrical power supply in combination with the electronic drive unit arranged to provide electrical power to the first and the second UV light source for treating the amount of the fluid received within the chamber using at least one of the first and the second UV light source, - the electronic drive unit is arranged to essentially simultaneously activate the first and the second UV light source when treatment of the fluid is starting, and then deactivate the first UV light source at the end of a warm-up period for the second UV light source, and - the first UV light source comprises at least one of a field emission based light source, an UVC Light Emitting Diode, and an Excimer lamp.
Method for transporting drill pipes to a drill string of a drill rig comprising a plurality of connected drill pipes, the method comprising: - continuously lowering the drill string; - repeatingly lifting single drill pipes one by one from a lower region to an upper region adjacent to an upper end of the drill string by at least two lifting devices (24, 26) in an alternating manner; - repeatingly moving single drill pipes one by one by one or more moving devices from the upper region to a connection region, where the drill pipe can be connected to the upper end of the drill string; and - connecting single drill pipes one by one to the drill string by a screwing device; wherein the repeated lifting of single drill pipes and the repeated moving of single drill pipes are carried out simultaneously. - continuously lowering the drill string; - repeatingly lifting single drill pipes one by one from a lower region to an upper region adjacent to an upper end of the drill string by at least two lifting devices (24, 26) in an alternating manner; - repeatingly moving single drill pipes one by one by one or more moving devices from the upper region to a connection region, where the drill pipe can be connected to the upper end of the drill string; and - connecting single drill pipes one by one to the drill string by a screwing device;
A control valve compensation system for producing both a pre-compensated and a post-compensated valve, comprising: a valve body comprising a plurality of internal flow passageways and a plurality of work ports; a pre-compensation assembly configured to be removably positioned within the valve body, wherein the valve body is adapted to function as a pre-compensated valve when the pre-compensation assembly is positioned within the valve body; a post-compensation assembly configured to be removably positioned within the valve body, wherein the valve body is adapted to function as a post-compensated valve when the post-compensation assembly is positioned within the valve body; and a selectable valve spool adjustably positioned within the valve body and characterized in that the selectable valve spool and the valve body are configured to be operated with each of the pre-compensation assembly and the post-compensation assembly. a valve body comprising a plurality of internal flow passageways and a plurality of work ports; a pre-compensation assembly configured to be removably positioned within the valve body, wherein the valve body is adapted to function as a pre-compensated valve when the pre-compensation assembly is positioned within the valve body; a post-compensation assembly configured to be removably positioned within the valve body, wherein the valve body is adapted to function as a post-compensated valve when the post-compensation assembly is positioned within the valve body; and a selectable valve spool adjustably positioned within the valve body and characterized in that the selectable valve spool and the valve body are configured to be operated with each of the pre-compensation assembly and the post-compensation assembly.
A machine for packaging flexible hoses comprising a packaging station; an operating device, which is mounted in the packaging station to rotate a coil of flexible hose around a rotation axis; and a packaging unit, which is mounted in the packaging station to wrap a plastic film around the coil of flexible hose; and characterized in that the packaging unit comprises an orienting device (18, 19) which is designed to cause the plastic film to oscillate around a fulcrum axis, which is substantially transverse to the rotation axis of the coil of flexible hose; support means for a reel of plastic film, which are mounted to oscillate around said fulcrum axis; and an operating device to impart to the support means an oscillatory motion around said fulcrum axis; the operating device comprising a crank mechanism comprising, in turn, a crank which is mounted to rotate around a further rotation axis that is substantially parallel to the fulcrum axis of the support means, and a connecting rod to turn the rotary motion of the crank into the oscillatory motion of the support means.
A method of producing an adhesive element comprising an adhesive layer, the adhesive layer comprising at least a first zone having a first surface associated with a first set of surface properties and at least one second zone having a second surface constituting at least a part of the adhesive surface of the adhesive element, the second surface being associated with a second set of surface properties differing from the first set of surface properties, wherein material as present in the second surface is obtainable by a heat treatment of material in the first surface, said material comprising a pressure sensitive adhesive composition, said method comprising the steps of: • providing an adhesive element comprising an adhesive layer, • selecting a heat source, • locating the adhesive layer and the heat source in a relationship enabling a heat treatment of the second surface of the adhesive layer, and • heat treating the second surface with the selected heat source for a sufficient time for obtaining the second set of properties. • providing an adhesive element comprising an adhesive layer, • selecting a heat source, • locating the adhesive layer and the heat source in a relationship enabling a heat treatment of the second surface of the adhesive layer, and • heat treating the second surface with the selected heat source for a sufficient time for obtaining the second set of properties.
A decoating kiln, comprising: a rotating drum supported between a first chamber and a second chamber comprising: an entry side for accepting metal scrap and a low-oxygen hot gas; and an exit side for outputting decoated scrap and accepting a high-oxygen hot gas; an exhaust tube positioned within the rotating drum for exhausting a mixture of exhaust gas and entrained scrap; a cyclone coupled to the exhaust tube for separating the entrained scrap from the exhaust gas; an exit port coupled to the cyclone for exhausting the exhaust gas; and a high-oxygen hot gas entry duct in the second chamber configured to allow high-oxygen hot gas to enter rotating drum at the exit end. a rotating drum supported between a first chamber and a second chamber comprising: an entry side for accepting metal scrap and a low-oxygen hot gas; and an exit side for outputting decoated scrap and accepting a high-oxygen hot gas; an entry side for accepting metal scrap and a low-oxygen hot gas; and an exit side for outputting decoated scrap and accepting a high-oxygen hot gas; an exhaust tube positioned within the rotating drum for exhausting a mixture of exhaust gas and entrained scrap; a cyclone coupled to the exhaust tube for separating the entrained scrap from the exhaust gas; an exit port coupled to the cyclone for exhausting the exhaust gas; and a high-oxygen hot gas entry duct in the second chamber configured to allow high-oxygen hot gas to enter rotating drum at the exit end.
A device adapted to control a switching power supply circuit, the switching power supply circuit includes a pair of input terminals (P1, P2), a pair of output terminals (P3, P4), a first chopper circuit and a second chopper circuit which are parallel connected to each other between said pair of input terminals (P1, P2) and said pair of output terminals (P3, P4) and each of which performs a chopping operation, the control device comprising: a mode controller operable to shift an operation mode of said first chopper circuit and said second chopper circuit from a first mode to a second mode via a third mode as an electric power in said first chopper and said second chopper increases; and an operation controller characterized in that said operation controller is configured to cause in a first mode said first chopper to constantly perform chopping operation and said second chopper to constantly suspend chopping operation; wherein the operation controller is operable to cause in a second mode said first chopper and said second chopper to constantly perform said chopping operation; the operation controller is configured to cause in a third mode said first chopper and said second chopper to alternately perform said chopping operation; and said mode controller is configured to shift said operation mode of said first chopper circuit and said second chopper circuit from said first mode to said second mode via said third mode as the electric power of the first chopper circuit and the second chopper circuit increases; a mode controller operable to shift an operation mode of said first chopper circuit and said second chopper circuit from a first mode to a second mode via a third mode as an electric power in said first chopper and said second chopper increases; and an operation controller characterized in that said operation controller is configured to cause in a first mode said first chopper to constantly perform chopping operation and said second chopper to constantly suspend chopping operation; wherein the operation controller is operable to cause in a second mode said first chopper and said second chopper to constantly perform said chopping operation; the operation controller is configured to cause in a third mode said first chopper and said second chopper to alternately perform said chopping operation; and said mode controller is configured to shift said operation mode of said first chopper circuit and said second chopper circuit from said first mode to said second mode via said third mode as the electric power of the first chopper circuit and the second chopper circuit increases;
Method for providing a referencing element to an optical lens member, the method comprising: - an optical lens member providing step S1, during which an optical lens member is provided, the optical lens member comprising a first optical surface comprising a surface design associated with a first reference system and a second optical surface to be manufactured, the first and second optical surfaces (11, 12) are connected by an external periphery surface, wherein the first reference system comprises a main axis Z perpendicular to a main plane (X, Y) defined by two axes X, Y perpendicular to each other and to the main axis Z and includes translational parameters TX, TY and TZ along each axis X, Y, Z and rotational parameters RX, RY and RZ about each of the axis X, Y, Z defining the position of each optical surface of the lens member in the first reference system, - a measuring step S2 during which the first optical surface of the optical lens member is measured and the first reference system is determined, wherein the reference system is determined according to the shape and orientation of the first optical surface, - a referencing step S3 during which a referencing element is added to the optical lens member, wherein the referencing element identifies the first reference system. - an optical lens member providing step S1, during which an optical lens member is provided, the optical lens member comprising a first optical surface comprising a surface design associated with a first reference system and a second optical surface to be manufactured, the first and second optical surfaces (11, 12) are connected by an external periphery surface, wherein the first reference system comprises a main axis Z perpendicular to a main plane (X, Y) defined by two axes X, Y perpendicular to each other and to the main axis Z and includes translational parameters TX, TY and TZ along each axis X, Y, Z and rotational parameters RX, RY and RZ about each of the axis X, Y, Z defining the position of each optical surface of the lens member in the first reference system, - a measuring step S2 during which the first optical surface of the optical lens member is measured and the first reference system is determined, wherein the reference system is determined according to the shape and orientation of the first optical surface, - a referencing step S3 during which a referencing element is added to the optical lens member, wherein the referencing element identifies the first reference system.
A method of manufacturing a sole structure (30, 30a, 30b) for an article of footwear, the method comprising steps of: providing a mold with a first mold portion and a second mold portion that cooperatively define a cavity with a shape of the sole structure; inserting a first sole element being a plate (40, 40a, 40b) into a portion of the cavity formed by the first mold portion; inserting a second sole element being an outsole (60, 60a, 60b) into a portion of the cavity formed by the second mold portion; locating a polymer material between the first sole element and the second sole element; and shaping the polymer material against surfaces of the first sole element, the second sole element, and the cavity to form a fluid-filled chamber (50, 50a, 50b) from the polymer material, wherein the first sole element includes a plurality of projections (44, 44a, 44b), and the second sole element includes a plurality of projections (64, 64a, 64b), and the step of shaping includes forming the polymer material to extend around the projections (44, 44a, 44b, 64, 64a, 64b). providing a mold with a first mold portion and a second mold portion that cooperatively define a cavity with a shape of the sole structure; inserting a first sole element being a plate (40, 40a, 40b) into a portion of the cavity formed by the first mold portion; inserting a second sole element being an outsole (60, 60a, 60b) into a portion of the cavity formed by the second mold portion; locating a polymer material between the first sole element and the second sole element; and shaping the polymer material against surfaces of the first sole element, the second sole element, and the cavity to form a fluid-filled chamber (50, 50a, 50b) from the polymer material, wherein the first sole element includes a plurality of projections (44, 44a, 44b), and the second sole element includes a plurality of projections (64, 64a, 64b), and the step of shaping includes forming the polymer material to extend around the projections (44, 44a, 44b, 64, 64a, 64b).
A method for preparing a milk sample, the method comprising the steps of: providing a milk sample containing at least a first constituent and a second constituent, and centrifuging the milk sample to obtain a plurality of sample parts including at least a first sample part of a first volume, in which first sample part the first constituent is contained, and a second sample part of a second volume, in which second sample part the second constituent is contained, providing a solution, removing at least one of the sample parts from the milk sample, thereby retaining a remaining sample part of the plurality of sample parts, mixing the remaining sample part and the solution to form a sample mixture in which the remaining sample part is distributed, and discharging the sample mixture, characterised by that: the step of providing the milk sample is followed by a step of isolating the milk sample in a space formed by a first fill chamber, defining the first volume, and a second fill chamber, defining of the second volume, and the step of providing the solution is followed by a step of isolating the solution in a space formed by a first mixing chamber, defining a volume equal to the first volume, and a second mixing chamber, defining a volume equal to the second volume, and wherein the step of removing one of the sample parts comprises displacing at least one of the second fill chamber and the first mixing camber to communicate with each other. providing a milk sample containing at least a first constituent and a second constituent, and centrifuging the milk sample to obtain a plurality of sample parts including at least a first sample part of a first volume, in which first sample part the first constituent is contained, and a second sample part of a second volume, in which second sample part the second constituent is contained, providing a solution, removing at least one of the sample parts from the milk sample, thereby retaining a remaining sample part of the plurality of sample parts, mixing the remaining sample part and the solution to form a sample mixture in which the remaining sample part is distributed, and the step of providing the milk sample is followed by a step of isolating the milk sample in a space formed by a first fill chamber, defining the first volume, and a second fill chamber, defining of the second volume, and the step of providing the solution is followed by a step of isolating the solution in a space formed by a first mixing chamber, defining a volume equal to the first volume, and a second mixing chamber, defining a volume equal to the second volume, and wherein the step of removing one of the sample parts comprises displacing at least one of the second fill chamber and the first mixing camber to communicate with each other.
A method of transmitting resource allocation information by a base station in a wireless communication system, the method comprising: generating second resource allocation information scheduling a second bandwidth; transmitting, to a user equipment, UE, the second resource allocation information through a first bandwidth; and transmitting, to the UE, through the second bandwidth, a data channel scheduled by the second resource allocation information, wherein the second resource allocation information is generated with the same bit size as a bit size of first resource allocation information which is used for scheduling the first bandwidth. generating second resource allocation information scheduling a second bandwidth; transmitting, to a user equipment, UE, the second resource allocation information through a first bandwidth; and transmitting, to the UE, through the second bandwidth, a data channel scheduled by the second resource allocation information, wherein the second resource allocation information is generated with the same bit size as a bit size of first resource allocation information which is used for scheduling the first bandwidth.
Cradle designed to hold a device, in particular a telephone handset, comprising a base heaving a rear support surface designed to rest on a receiving surface and at least one front surface and a support having at least one rear surface in contact with said front surface of the base and front longitudinal means for receiving the device, the base and the support having additional coupling and articulation means (15, 16) making it possible to pivot the support relative to the base, according to an axis which is not perpendicular to the rear surface of the base, such that between two extreme positions, said front receiving means of the device have two different inclinations relative to the rear surface of the base; said receiving means of the support comprising a front receiving channel of the device which is delimited at one end by a bearing stop of the foot of the handset, characterised by the fact that it comprises a removable faceplate, said faceplate and the support comprising additional coupling means such that in a coupled position, the faceplate and the channel delimit a receiving body for the part of the device adjacent to its foot.