mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling a mobile terminal, the method comprising: setting a touch-lock area on a touch screen, wherein the mobile terminal does not respond to any typical user input entered thereto from the touch-lock area and wherein the touch-lock area is set differently according to an operating mode of the mobile terminal; displaying (S530, S810) the touch-lock area such that the touch-lock area is easily distinguishable from a rest of the touch screen; and changing (S820, S830) a size of the touch-lock area in response to a drag input from a boundary of the touch-lock area, characterised in that changing the size of the touch-lock area comprises: in response to a first user input dragging toward outside of the touch-lock area after touching the boundary, enlarging the touch-lock area by an amount corresponding to the dragged distance, and in response to a second user input dragging toward inside of the touch-lock area after touching the boundary, reducing the touch-lock area by an amount corresponding to the dragged distance. setting a touch-lock area on a touch screen, wherein the mobile terminal does not respond to any typical user input entered thereto from the touch-lock area and wherein the touch-lock area is set differently according to an operating mode of the mobile terminal; displaying (S530, S810) the touch-lock area such that the touch-lock area is easily distinguishable from a rest of the touch screen; and changing (S820, S830) a size of the touch-lock area in response to a drag input from a boundary of the touch-lock area, characterised in that changing the size of the touch-lock area comprises: in response to a first user input dragging toward outside of the touch-lock area after touching the boundary, enlarging the touch-lock area by an amount corresponding to the dragged distance, and in response to a second user input dragging toward inside of the touch-lock area after touching the boundary, reducing the touch-lock area by an amount corresponding to the dragged distance. in response to a first user input dragging toward outside of the touch-lock area after touching the boundary, enlarging the touch-lock area by an amount corresponding to the dragged distance, and in response to a second user input dragging toward inside of the touch-lock area after touching the boundary, reducing the touch-lock area by an amount corresponding to the dragged distance.
Wire electrode for spark-erosion cutting having - a core, which contains a metal or a metal alloy, and - a covering layer, surrounding the core, which comprises regions the morphology of which corresponds to block-like particles, which are spatially separated, at least over a portion of their circumference, from each other and/or the core material by cracks, wherein, viewed in a wire cross section perpendicular or parallel to the wire longitudinal axis, the portion amounting to more than 50% of the surface area of a region with the morphology of a block-like particle contains a copper-zinc alloy with a zinc concentration of 58.5 - 67 wt.-%, characterized in that, in a view perpendicular to the wire surface, the proportion of the surface formed by the block-like particles is more than 20% and less than 50% of the entire surface of the wire electrode and the block-like particles the surface area of which in each case lies in the range of 25 - 250 μm 2 in total make up a proportion of more than 50% of the surface area of all block-like particles. - a core, which contains a metal or a metal alloy, and - a covering layer, surrounding the core, which comprises regions the morphology of which corresponds to block-like particles, which are spatially separated, at least over a portion of their circumference, from each other and/or the core material by cracks, wherein, viewed in a wire cross section perpendicular or parallel to the wire longitudinal axis, the portion amounting to more than 50% of the surface area of a region with the morphology of a block-like particle contains a copper-zinc alloy with a zinc concentration of 58.5 - 67 wt.-%, characterized in that, in a view perpendicular to the wire surface, the proportion of the surface formed by the block-like particles is more than 20% and less than 50% of the entire surface of the wire electrode and the block-like particles the surface area of which in each case lies in the range of 25 - 250 μm 2 in total make up a proportion of more than 50% of the surface area of all block-like particles.
Method for switching over from a coasting or freewheeling mode of a motor vehicle with an internal combustion engine and an automatic clutch which is open during the coasting or freewheeling mode, to an overrun deactivation mode, in the case of which the clutch is closed, the internal combustion engine being brought to a rotational speed before the closure of the clutch, at which rotational speed the closure of the clutch induces no or merely low torque changes in the drive train, and, after the closure of the clutch, the fuel supply to the internal combustion engine being reduced in such a way that the switchover from the coasting and freewheeling mode to the overrun deactivation mode as a rule takes place relatively gently, but the driver receives feedback about the change in the driving state, characterized in that, under one or more predefined conditions which correspond to defined driving situations, the increase in the drag torque of the internal combustion engine which acts on the motor vehicle is designed to be so gentle during the switchover from the coasting or freewheeling mode to the overrun deactivation mode that the driver does not perceive it, by the clutch being closed so slowly that the change in the vehicle deceleration during the closure of the clutch does not exceed a preset value, and/or by the fuel supply to the internal combustion engine being reduced so slowly during the closure of the clutch that the change in the vehicle deceleration during the switchover from the coasting or freewheeling mode to the overrun deactivation mode does not exceed the preset value.
A method of controlling the braking of a tractor-trailer combination in which the tractor includes a drive train having an engine and at least one ground-engaging member (14, 16) driveably connected thereto via an adjustable-ratio transmission; at least one ground-engaging member of the tractor (14, 16) includes at least one tractor brake; and at least one ground-engaging member of the trailer (17a, 17b) includes at least one further, trailer brake, the method comprising the steps of determining a reference deceleration value A X_REF derived from (i) the deceleration of the tractor, when considered alone, resulting from braking effort applied via the tractor brake and/or (ii) the deceleration of the tractor, when considered alone, resulting from engine braking; measuring a value A X_MEASURED of the deceleration of the tractor-trailer combination; and comparing in a closed-loop control arrangement the reference and measured deceleration values and establishing therefrom a target value of braking effort of the trailer brake that approximates the braking of the tractor-trailer combination to the braking of the tractor when considered alone; characterized in that the reference deceleration value is calculated in accordance with the expression A X _ REF = F TRACTOR _ BRAKES M TRACTOR wherein A X_REF is the reference deceleration value; F TRACTOR_BRAKES is the brake force generated by the tractor from the braking effort applied via the at least one tractor brake and/or by engine braking; and M TRACTOR is the mass of the tractor omitting the mass of the trailer; and wherein the target value of braking effort of the trailer brake is F TRAILER_BRAKES_CLOSED_LOOP and is related to the reference deceleration value A X_REF by the expression: A X _ REF ≅ F ENGINE _ BRAKES + F TRAILER _ BRAKES _ CLOSED _ LOOP M TRACTOR + M TRAILER = A X _ MEASURED in which additionally A X_MEASURED is a measured value of deceleration of the tractor-trailer combination; F ENGINE_BRAKE is the braking effort resulting from engine braking; and M TRAILER is the mass of the trailer forming part of the combination. A X_MEASURED is a measured value of deceleration of the tractor-trailer combination; F ENGINE_BRAKE is the braking effort resulting from engine braking; and M TRAILER is the mass of the trailer forming part of the combination.
Ceramic multi-layered capacitor comprising - a main body, which has ceramic layers arranged along a layer stacking direction to form a stack, and first and second electrode layers (41, 42) arranged between the ceramic layers, - a first external contact-connection, which is arranged on a first side surface of the main body and is electrically conductively connected to the first electrode layers, and - a second external contact-connection, which is arranged on a second side surface of the main body, said second side surface being situated opposite the first side surface, and is electrically conductively connected to the second electrode layers, wherein - the main body has a width B along the layer stacking direction, - the main body has a height H perpendicular to the first side surface, - the main body has a length L perpendicular to the height H and perpendicular to the layer stacking direction, - wherein B/H ≥ 0.2 holds true, - wherein the main body has third electrode layers, which are electrically conductively connected neither to the first nor to the second external contact-connection (51, 52) and in each case overlap the first and second electrode layers (41, 42), - wherein the multi-layered capacitor has an ESR value of between 3mΩ and 5mΩ during operation at a frequency of between 100 kHz and 1 MHz. - a main body, which has ceramic layers arranged along a layer stacking direction to form a stack, and first and second electrode layers (41, 42) arranged between the ceramic layers, - a first external contact-connection, which is arranged on a first side surface of the main body and is electrically conductively connected to the first electrode layers, and - a second external contact-connection, which is arranged on a second side surface of the main body, said second side surface being situated opposite the first side surface, and is electrically conductively connected to the second electrode layers, wherein - the main body has a width B along the layer stacking direction, - the main body has a height H perpendicular to the first side surface, - the main body has a length L perpendicular to the height H and perpendicular to the layer stacking direction, - wherein B/H ≥ 0.2 holds true, - wherein the main body has third electrode layers, which are electrically conductively connected neither to the first nor to the second external contact-connection (51, 52) and in each case overlap the first and second electrode layers (41, 42), - wherein the multi-layered capacitor has an ESR value of between 3mΩ and 5mΩ during operation at a frequency of between 100 kHz and 1 MHz.
A saddle-shaped random packing element comprising: a pair of laterally spaced, longitudinally elongated, arcuate side members (112, 114) which cooperatively define a curved longitudinal axis therebetween; oppositely extending arched inner and outer rib elements (124, 126) extending from and between said side members (112, 114) to cooperatively define an interior volume therebetween, wherein the total number of said inner and outer rib elements (124, 126) is five; and at least one lesser rib element longitudinally disposed between said inner and outer arched rib elements (124, 126), and at least partly disposed in said interior volume, wherein at least 20 percent of the total surface area of said saddle-shaped random packing element is located within said interior volume. a pair of laterally spaced, longitudinally elongated, arcuate side members (112, 114) which cooperatively define a curved longitudinal axis therebetween; oppositely extending arched inner and outer rib elements (124, 126) extending from and between said side members (112, 114) to cooperatively define an interior volume therebetween, wherein the total number of said inner and outer rib elements (124, 126) is five; and at least one lesser rib element longitudinally disposed between said inner and outer arched rib elements (124, 126), and at least partly disposed in said interior volume, wherein at least 20 percent of the total surface area of said saddle-shaped random packing element is located within said interior volume.
A display apparatus, comprising a projector device, a reflector structure and a light beam diffuser structure, wherein light emitted from the projector device passes through the light beam diffuser structure, is reflected by the reflector structure, and then reaches a first predetermined region; the light beam diffuser structure is configured to diffuse a light beam passing through the light beam diffuser structure without changing chief light of the light beam; the reflector structure comprises a plurality of sub-reflector structures, the plurality of sub-reflector structures are configured to reflect the light emitted from the projector device and the light reflected by the plurality of sub-reflector structures reaches a second predetermined region within the first predetermined region if the light beam diffuser structure is removed from an optical path from the projector device to the first predetermined region, and an area of the second predetermined region is smaller than an area of the first predetermined region; characterized in that the light beam diffuser structure and the reflector structure are stacked, the light emitted from the projector device is incident on the reflector structure after passing through the light beam diffuser structure, and the light reflected by the reflector structure passes through the light beam diffuser structure again and then reaches the first predetermined region. wherein light emitted from the projector device passes through the light beam diffuser structure, is reflected by the reflector structure, and then reaches a first predetermined region; the light beam diffuser structure is configured to diffuse a light beam passing through the light beam diffuser structure without changing chief light of the light beam; the reflector structure comprises a plurality of sub-reflector structures, the plurality of sub-reflector structures are configured to reflect the light emitted from the projector device and the light reflected by the plurality of sub-reflector structures reaches a second predetermined region within the first predetermined region if the light beam diffuser structure is removed from an optical path from the projector device to the first predetermined region, and an area of the second predetermined region is smaller than an area of the first predetermined region; characterized in that the light beam diffuser structure and the reflector structure are stacked, the light emitted from the projector device is incident on the reflector structure after passing through the light beam diffuser structure, and the light reflected by the reflector structure passes through the light beam diffuser structure again and then reaches the first predetermined region.
An imaging apparatus that takes an image of an eyeground by optical coherence tomography, the imaging apparatus comprising: an optical unit configured to concentrate a plurality of measurement light beams incident on an anterior eye segment at a plurality of irradiation positions on the eyeground, and including a scanning unit configured to scan the concentrated plurality of measurement light beams over the eyeground; a tomographic-information acquisition unit configured to acquire tomographic information about the eyeground using the plurality of measurement light beams; and a control unit configured to control the scanning unit so that the plurality of measurement light beams concentrated at the irradiation positions are scanned in a plurality of scanning areas of the eyeground and so that adjacent scanning areas, of the plurality of scanning areas, overlap with each other. an optical unit configured to concentrate a plurality of measurement light beams incident on an anterior eye segment at a plurality of irradiation positions on the eyeground, and including a scanning unit configured to scan the concentrated plurality of measurement light beams over the eyeground; a tomographic-information acquisition unit configured to acquire tomographic information about the eyeground using the plurality of measurement light beams; and a control unit configured to control the scanning unit so that the plurality of measurement light beams concentrated at the irradiation positions are scanned in a plurality of scanning areas of the eyeground and so that adjacent scanning areas, of the plurality of scanning areas, overlap with each other.
A vehicle with a gear lever arrangement which - has a gear lever support on which a gear lever • is mounted to be pivotable in a transverse direction of the vehicle and • to be pivotable in a longitudinal direction of the vehicle, wherein - a converter is provided which is mounted on the gear lever support to be pivotable about a pivot axis running in the transverse direction and which is coupled with the gear lever by means of a coupling means (11, 12), in such a way that a pivoting movement of the gear lever in the transverse direction is converted into a pivoting movement of the converter about the pivot axis, - a first cable mechanism is provided which has a first cable which is coupled with the gear lever in such a way that pivoting of the gear lever in the longitudinal direction of the vehicle is converted into displacement of the first cable, and - a second cable mechanism is provided which has a second cable which is connected to the converter in such a way that pivoting of the converter is converted into displacement of the second cable, characterised in that • a damper mass is provided which is supported on the converter via a spring means, wherein • the damper mass is arranged to be pivotable. - has a gear lever support on which a gear lever • is mounted to be pivotable in a transverse direction of the vehicle and • to be pivotable in a longitudinal direction of the vehicle, wherein • is mounted to be pivotable in a transverse direction of the vehicle and • to be pivotable in a longitudinal direction of the vehicle, wherein - a converter is provided which is mounted on the gear lever support to be pivotable about a pivot axis running in the transverse direction and which is coupled with the gear lever by means of a coupling means (11, 12), in such a way that a pivoting movement of the gear lever in the transverse direction is converted into a pivoting movement of the converter about the pivot axis, - a first cable mechanism is provided which has a first cable which is coupled with the gear lever in such a way that pivoting of the gear lever in the longitudinal direction of the vehicle is converted into displacement of the first cable, and - a second cable mechanism is provided which has a second cable which is connected to the converter in such a way that pivoting of the converter is converted into displacement of the second cable, • a damper mass is provided which is supported on the converter via a spring means, wherein • the damper mass is arranged to be pivotable.
A wound dressing composition comprising: (a) oxidized regenerated cellulose; and (b) poly(hexamyethylene biguanide) (PHMB), at a level of from about 0.005wt% to about 0.02wt% by weight of the composition, preferably from about 0.008wt% to about 0.012wt% by weight of the composition. (a) oxidized regenerated cellulose; and (b) poly(hexamyethylene biguanide) (PHMB), at a level of from about 0.005wt% to about 0.02wt% by weight of the composition, preferably from about 0.008wt% to about 0.012wt% by weight of the composition.
A hydroponic cultivation system, comprising: a plurality of long seedbeds, seedlings of a plant being transplanted to the seedbeds; a hanging part that hangs each of the plurality of seedbeds while the plurality of seedbeds are arranged in a predetermined horizontal direction from a planting side of the seedlings to a harvesting side of the seedlings; and a transport mechanism that transports the plurality of seedbeds in the predetermined horizontal direction while widening spaces between the seedbeds in the predetermined horizontal direction in a stepwise manner, characterized in that the long seedbeds are cultivation cylinders hanged in one column, that the transport mechanism includes one screw formed to have a pitch that is increased in a stepwise manner toward the predetermined horizontal direction, the screw including grooves, upper ends of the seedbeds being capable of engaging with the grooves, and that end portions of ridges of the screw on the planting side include cutouts that are capable of slidably inserting upper ends of a predetermined number of seedbeds to be newly planted in the predetermined horizontal direction collectively and causing the seedbeds to engage with the grooves. a plurality of long seedbeds, seedlings of a plant being transplanted to the seedbeds; a hanging part that hangs each of the plurality of seedbeds while the plurality of seedbeds are arranged in a predetermined horizontal direction from a planting side of the seedlings to a harvesting side of the seedlings; and a transport mechanism that transports the plurality of seedbeds in the predetermined horizontal direction while widening spaces between the seedbeds in the predetermined horizontal direction in a stepwise manner, characterized in that the long seedbeds are cultivation cylinders hanged in one column, that the transport mechanism includes one screw formed to have a pitch that is increased in a stepwise manner toward the predetermined horizontal direction, the screw including grooves, upper ends of the seedbeds being capable of engaging with the grooves, and that end portions of ridges of the screw on the planting side include cutouts that are capable of slidably inserting upper ends of a predetermined number of seedbeds to be newly planted in the predetermined horizontal direction collectively and causing the seedbeds to engage with the grooves.