mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling operation of a mobile terminal, the method comprising: displaying a first webpage screen that requires input of an authentication number in order to perform a user authentication process; receiving a message including an authentication number in response to a request to receive the authentication number; displaying an indicator indicating a receipt of the message at a portion of the first webpage screen; extracting the authentication number from the received message in response to a specific user input to allow the user authentication process to be performed; the specific user input being an input of touching the indicator indicating receipt of the message; automatically inputting the extracted authentication number to the first webpage screen; automatically inputting on a second webpage screen a preset password when the extracted authentication number is input; performing the user authentication process based on the automatically input authentication number; and automatically deleting the received message after inputting the extracted authentication number to the first webpage screen. displaying a first webpage screen that requires input of an authentication number in order to perform a user authentication process; receiving a message including an authentication number in response to a request to receive the authentication number; displaying an indicator indicating a receipt of the message at a portion of the first webpage screen; extracting the authentication number from the received message in response to a specific user input to allow the user authentication process to be performed; the specific user input being an input of touching the indicator indicating receipt of the message; automatically inputting the extracted authentication number to the first webpage screen; automatically inputting on a second webpage screen a preset password when the extracted authentication number is input; performing the user authentication process based on the automatically input authentication number; and automatically deleting the received message after inputting the extracted authentication number to the first webpage screen.
Catalyst element to be used in a catalyzer assembly as emission control device for gas, comprising a body to which a catalyst core is assembled, and which element comprises gas tight side walls and two opposite ends bordered by edges of the side wall, via which ends gas may be arranged to flow into and out from the catalyst core, characterized in that at the end of the catalyst element the body comprises an extension of its side wall edge folded to extend outwardly from the plane of the side wall.
Computer-implemented method of estimating a full shape of a lens of an eye from measurements of the lens taken in-vivo by optical imaging techniques, the measurements comprising visible portions of the lens through the pupil, the method comprises defining non-visible portions of the lens parting from the in-vivo measurements and using a geometrical model of a lens previously built from ex-vivo measurements, wherein the method comprises: - fitting the in-vivo measurements to a first parametric surface corresponding to an anterior surface of the lens and to a second parametric surface corresponding to a posterior surface of the lens; wherein defining the non-visible portions of the lens comprises: - extrapolating the first and second parametric surfaces to an extent given by a first parameter (α) to define a central region of the lens, the central region including the visible portions and an extrapolated non-visible portion; - using data from a part of the central region of the lens to define an equatorial region of the lens by at least a third parametric surface, the part being given by a second parameter (ρ); wherein the first and second parameters (α, ρ) are given by the geometrical model built from the ex-vivo measurements. wherein the method comprises: - fitting the in-vivo measurements to a first parametric surface corresponding to an anterior surface of the lens and to a second parametric surface corresponding to a posterior surface of the lens; - fitting the in-vivo measurements to a first parametric surface corresponding to an anterior surface of the lens and to a second parametric surface corresponding to a posterior surface of the lens; wherein defining the non-visible portions of the lens comprises: - extrapolating the first and second parametric surfaces to an extent given by a first parameter (α) to define a central region of the lens, the central region including the visible portions and an extrapolated non-visible portion; - using data from a part of the central region of the lens to define an equatorial region of the lens by at least a third parametric surface, the part being given by a second parameter (ρ); - extrapolating the first and second parametric surfaces to an extent given by a first parameter (α) to define a central region of the lens, the central region including the visible portions and an extrapolated non-visible portion; - using data from a part of the central region of the lens to define an equatorial region of the lens by at least a third parametric surface, the part being given by a second parameter (ρ); wherein the first and second parameters (α, ρ) are given by the geometrical model built from the ex-vivo measurements.
A transmission apparatus for distribution of a stream of content by multicast or broadcast, the stream being segmented into segments, a segment comprising one or more fragments, the transmission apparatus comprising: a distribution unit configured to distribute an http response including a part (56, 57, 58) of a fragment and a hypertext transfer protocol, http, header including - a sequence number representing an order of the fragment with respect to other fragments and - a version representing an order of a part of the fragment with respect to other parts of the fragment. a distribution unit configured to distribute an http response including a part (56, 57, 58) of a fragment and a hypertext transfer protocol, http, header including - a sequence number representing an order of the fragment with respect to other fragments and - a version representing an order of a part of the fragment with respect to other parts of the fragment. - a sequence number representing an order of the fragment with respect to other fragments and - a version representing an order of a part of the fragment with respect to other parts of the fragment.
A medical plug delivery system, comprising: a medical plug delivery device comprising a housing defining a cavity configured to receive a medical plug wherein the housing comprises a distal adaptor configured to couple to a corresponding connector at a proximal end of an elongate tube in communication with a patient; and wherein the cavity comprises a plug retention section positioned near a distal end of the cavity and having an inside diameter less than an outside diameter of the medical plug so as to frictionally engage the medical plug within the plug retention section near the distal end of the cavity until a distally directed force from a stylet is applied to the medical plug by the stylet contacting the medical plug; characterised in that the plug retention section includes a flow channel adjacent the distal end configured to permit fluid to flow through the cavity when the medical plug is disposed in the distal end. a medical plug delivery device comprising a housing defining a cavity configured to receive a medical plug wherein the housing comprises a distal adaptor configured to couple to a corresponding connector at a proximal end of an elongate tube in communication with a patient; and wherein the cavity comprises a plug retention section positioned near a distal end of the cavity and having an inside diameter less than an outside diameter of the medical plug so as to frictionally engage the medical plug within the plug retention section near the distal end of the cavity until a distally directed force from a stylet is applied to the medical plug by the stylet contacting the medical plug;
A monitoring device for monitoring operating parameters of an integrated circuit, - adapted for generating, by comparison of switching states of input signals (S2, S3) on at least two inputs of a comparison element, a signal on at least one output of said comparison element, which signal indicates that a predetermined threshold of the at least one operating parameter has been undershot or exceeded; wherein - the monitoring device comprises at least two operating parameter-dependent devices (12, 13) which are adapted for generating said input signals (S2, S3) which are time-delayed in their switching behaviour depending on the instantaneous value of the at least one operating parameter; - wherein a clock signal (S1.1) is connected to the two operating parameter-dependent devices (12, 13), said clock signal (S1.1) being divided into two signal paths over which signals are transmitted which serve as a respective input signal for the operating parameter-dependent devices (12, 13); - wherein a delay element is connected in one of the signal paths, which is adapted to generate a predetermined time delay between the input signals (S2, S3) of the comparison element; and - wherein the delay of the delay element has a value such that when the predetermined threshold of the operating parameter is exceeded, one of the input signals (S2, S3) changes its switching state due to the time delay at a time which is predetermined for the comparison element by the clock signal (S1.1), so that the comparison element indicates a disparity and thus an exceeding of the threshold of the at least one operating parameter is signalled. - adapted for generating, by comparison of switching states of input signals (S2, S3) on at least two inputs of a comparison element, a signal on at least one output of said comparison element, which signal indicates that a predetermined threshold of the at least one operating parameter has been undershot or exceeded; wherein - the monitoring device comprises at least two operating parameter-dependent devices (12, 13) which are adapted for generating said input signals (S2, S3) which are time-delayed in their switching behaviour depending on the instantaneous value of the at least one operating parameter; - wherein a clock signal (S1.1) is connected to the two operating parameter-dependent devices (12, 13), said clock signal (S1.1) being divided into two signal paths over which signals are transmitted which serve as a respective input signal for the operating parameter-dependent devices (12, 13); - wherein a delay element is connected in one of the signal paths, which is adapted to generate a predetermined time delay between the input signals (S2, S3) of the comparison element; and - wherein the delay of the delay element has a value such that when the predetermined threshold of the operating parameter is exceeded, one of the input signals (S2, S3) changes its switching state due to the time delay at a time which is predetermined for the comparison element by the clock signal (S1.1), so that the comparison element indicates a disparity and thus an exceeding of the threshold of the at least one operating parameter is signalled.
A wireless power transceiver comprising: a magnetic body formed in a rod shape with a groove in a middle portion of the magnetic body; a solenoid coil wound around the middle portion of the magnetic body in which the groove is formed; a dual coil disposed substantially perpendicular to the solenoid coil and wound around portions located both sides of the groove of the magnetic body in directions opposite to each other, and wherein the magnetic body is formed as a single body. a magnetic body formed in a rod shape with a groove in a middle portion of the magnetic body; a solenoid coil wound around the middle portion of the magnetic body in which the groove is formed; a dual coil disposed substantially perpendicular to the solenoid coil and wound around portions located both sides of the groove of the magnetic body in directions opposite to each other, and wherein the magnetic body is formed as a single body.
Apparatus for damaging weeds, having a plunger which is arranged so as to be movable between a first and a second plunger position, and which has a plunger end region for applying pressure to a weed in order to mechanically damage the weed, wherein the plunger is mounted in a translationally movable manner in a bearing unit which comprises one or more plain bearings, characterized in that the plunger has a plunger channel which is and/or can be connected fluidically to a provided compressed-gas delivery unit in order for the plunger end region of the plunger to be cleaned by means of a compressed gas.
A door provided with a framework which is at least substantially manufactured from building elements and two cover plates (32,34) which are provided on either side of the framework, the building elements comprising wood, such as a beam or board, wherein the building elements are composed of at least two wood layers of wood (2.1-2.3) and at least one fire prevention layer (4.1-4.4) of a fire prevention material, wherein the at least one fire prevention layer is included between the at least two wood layers and wherein the fire prevention material is a solid material which does not burn at a temperature that is lower than 850 °C and which, in free condition, expands in volume by at least a factor 2, preferably by at least a factor 3 and more preferably by at least a factor 5 as a result of a temperature rise of the fire prevention material with a fire that has reached the fire prevention material, characterized in that the building elements are provided with at least three wood layers (2.1-2.5) and at least two fire prevention layers (4.1-4.4), wherein each wood layer (2.1-2.5) adjoins at least one of the fire prevention layers (4-1-4.4), while the at least three wood layers (2.1-2.5) and the at least two fire prevention layers (4.1-4.4) each extend in planes (X,Y) which are at least substantially perpendicular to the cover plates of the door.
A herbicidal composition comprising synergistically effective amounts of pyridate or its salt and at least one sulfonylurea compound selected from the group consisting of flazasulfuron, trifloxysulfuron, chlorimuron and its alkyl ester, halosulfuron and its alkyl ester, and their salts.
An inlet device for feeding bulk material, comprising a device for determining an amount of bulk material, comprising: (a) a pivoting device which is designed to adopt different angle positions about a pivot axis, (b) an angle measuring device for measuring the angle position of the pivoting device about the pivot axis, and (c) a contact surface which is connected to the pivoting device at a distance from the pivot axis and designed to contact a surface of a cone (22, 22') of bulk material, wherein the inlet device further comprises: an inlet plate and an accumulating plate, wherein the size of a gap between the inlet plate and the accumulating plate is adjustable, a lifting and lowering device for lifting and lowering the inlet plate, and a control device for controlling the size of the gap and/or for controlling the lifting and lowering device on the basis of the measured angle position. (a) a pivoting device which is designed to adopt different angle positions about a pivot axis, (b) an angle measuring device for measuring the angle position of the pivoting device about the pivot axis, and (c) a contact surface which is connected to the pivoting device at a distance from the pivot axis and designed to contact a surface of a cone (22, 22') of bulk material, an inlet plate and an accumulating plate, wherein the size of a gap between the inlet plate and the accumulating plate is adjustable, a lifting and lowering device for lifting and lowering the inlet plate, and a control device for controlling the size of the gap and/or for controlling the lifting and lowering device on the basis of the measured angle position.
A system for measuring a mechanical property of a sea floor sediment at full ocean depth, comprising an overwater monitoring unit and an underwater measurement device, wherein the underwater measurement device comprises an observation platform and a measuring mechanism carried on the observation platform; the observation platform comprises a frame-type body and a floating body, a height measuring device, a floating ball cabin, a counterweight, a release mechanism, and an underwater acoustic communication device mounted on the frame-type body; wherein the measuring mechanism comprises one or more of a cone penetration measuring mechanism, a spherical penetration measuring mechanism, and a vane shear measuring nechanism for measuring the mechanical property of the sea floor sediment, and / or a sampling mechanism for collecting a sample of the sea floor sediment, characterised in that the system further comprises a wing panel and a leveling mechanism, wherein the height measuring device is configured to detect the height of the underwater measurement device away from the sea floor; the floating ball cabin is in the shape of a floating ball, for sealing a system circuit while providing buoyancy; the system circuit is configured to communicate with the overwater monitoring unit through the underwater acoustic communication device, for uploading the height of the underwater measurement device away from the sea floor and measurement data of the mechanical property; the overwater monitoring unit is configured to issue a slow-descent instruction when the height of the underwater measurement device away from the sea floor reaches a set height, to control the wing panel to open outward relative to the frame-type body to reduce the descent rate of the underwater measurement device; the system circuit is configured to control the leveling mechanism to adjust the attitude of the frame-type body, when the underwater measurement device reaches the sea floor, so that the frame-type body stands on the sea floor sediment stably; the overwater monitoring unit is configured to issues a jettisoning instruction, when the measurement operation is completed, to control the release mechanism to discard the counterweight, and control the wing panel to close, so that the underwater measurement device ascends to the surface under the buoyancy of the floating body.
A light emitting element comprising: a substrate; a semiconductor laminate placed above the substrate, the semiconductor laminate comprising a second semiconductor layer, an active layer and a first semiconductor layer laminated in this order from the substrate; and a first electrode and a second electrode placed between the substrate and the semiconductor laminate, wherein the semiconductor laminate is divided in a plurality of semiconductor blocks (19A, 19B) by a groove, wherein the first electrode includes protrusions that are provided in each of the plurality of semiconductor blocks (19A, 19B) and that penetrate the second semiconductor layer and the active layer to be connected to the first semiconductor layer, and wherein the second electrode is connected to the second semiconductor layer in each of the plurality of semiconductor blocks (19A, 19B) and has an external connector that is exposed on the bottom of the groove; characterised in that the second electrode has two or more of the external connectors, the external connectors are placed on one and the other longitudinal end of the groove respectively, and a width of the groove is narrower than a diameter or a width of the external connectors. a substrate; a semiconductor laminate placed above the substrate, the semiconductor laminate comprising a second semiconductor layer, an active layer and a first semiconductor layer laminated in this order from the substrate; and a first electrode and a second electrode placed between the substrate and the semiconductor laminate, wherein the semiconductor laminate is divided in a plurality of semiconductor blocks (19A, 19B) by a groove, wherein the first electrode includes protrusions that are provided in each of the plurality of semiconductor blocks (19A, 19B) and that penetrate the second semiconductor layer and the active layer to be connected to the first semiconductor layer, and wherein the second electrode is connected to the second semiconductor layer in each of the plurality of semiconductor blocks (19A, 19B) and has an external connector that is exposed on the bottom of the groove; characterised in that the second electrode has two or more of the external connectors, the external connectors are placed on one and the other longitudinal end of the groove respectively, and a width of the groove is narrower than a diameter or a width of the external connectors.
Method of monitoring the discharge in a plasma process comprising the steps: a. supplying a plasma process with a periodic power supply signal; b. determining a first power supply signal waveform within a first time interval (Δt) within a first period of the power supply signal; c. determining a second power supply signal waveform (31, 51) within a second time interval (Δt) within a second period of the power supply signal, wherein the second time interval (Δt) is at a position in the second period which corresponds to the position of the first time interval (Δt) within the first period; d. comparing the second power supply signal waveform (31, 51) of the second time interval with the first power supply signal waveform of the first time interval or a reference signal waveform (50, 60), and determining a first comparison result; characterized in that e. if the first comparison result corresponds to a given first comparison result, time shifting one of the second power supply signal waveform (31, 51) in the second time interval (Δt), the first power supply waveform in the first time interval (Δt) or the reference signal waveform (50, 60), and comparing the time shifted signal with one of the signal waveforms that were not time shifted, thereby obtaining a second comparison result. a. supplying a plasma process with a periodic power supply signal; b. determining a first power supply signal waveform within a first time interval (Δt) within a first period of the power supply signal; c. determining a second power supply signal waveform (31, 51) within a second time interval (Δt) within a second period of the power supply signal, wherein the second time interval (Δt) is at a position in the second period which corresponds to the position of the first time interval (Δt) within the first period; d. comparing the second power supply signal waveform (31, 51) of the second time interval with the first power supply signal waveform of the first time interval or a reference signal waveform (50, 60), and determining a first comparison result; characterized in that e. if the first comparison result corresponds to a given first comparison result, time shifting one of the second power supply signal waveform (31, 51) in the second time interval (Δt), the first power supply waveform in the first time interval (Δt) or the reference signal waveform (50, 60), and comparing the time shifted signal with one of the signal waveforms that were not time shifted, thereby obtaining a second comparison result.