mhurhangee/ep-ind-claims huggingface dataset:
A compound of formula, or a salt thereof: wherein: R 1 is hydrogen, methyl or -(CH 2) 2 OR 3, R 2 is methyl or -(CH 2) 2 OR 4, or R 1 and R 2, together with the nitrogen atom to which they are attached, are linked to form a 5- or 6-membered heterocyclyl wherein the 6-membered heterocyclyl is optionally substituted by two hydroxy substituents; R 3 and R 4 are each independently hydrogen or methyl; and n is an integer having a value of 5 or 6. R 1 is hydrogen, methyl or -(CH 2) 2 OR 3, R 2 is methyl or -(CH 2) 2 OR 4, or R 1 and R 2, together with the nitrogen atom to which they are attached, are linked to form a 5- or 6-membered heterocyclyl wherein the 6-membered heterocyclyl is optionally substituted by two hydroxy substituents; R 3 and R 4 are each independently hydrogen or methyl; and n is an integer having a value of 5 or 6.
A method for proportional adaption of page performed in a terminal device having a display screen, characterized in that, the method comprises: presetting N preset pages with different dimensions and defining an aspect ratio > 1 from a picture, wherein N is a positive integer greater than or equal to 2 and wherein each preset page has a fixed aspect-ratio; detecting dimensions of the display screen, wherein the dimensions are expressed with width > height and corresponding to an aspect ratio of the display screen > 1; determining one preferred page from the N preset pages by: determining a numerical interval in which the aspect ratio of the display screen falls from a plurality of preset numerical intervals of aspect ratio; and determining a preset page falling within the numerical interval in which the aspect ratio of the display screen falls as the preferred page; and displaying the preferred page on the display screen. presetting N preset pages with different dimensions and defining an aspect ratio > 1 from a picture, wherein N is a positive integer greater than or equal to 2 and wherein each preset page has a fixed aspect-ratio; detecting dimensions of the display screen, wherein the dimensions are expressed with width > height and corresponding to an aspect ratio of the display screen > 1; determining one preferred page from the N preset pages by: determining a numerical interval in which the aspect ratio of the display screen falls from a plurality of preset numerical intervals of aspect ratio; and determining a preset page falling within the numerical interval in which the aspect ratio of the display screen falls as the preferred page; determining a numerical interval in which the aspect ratio of the display screen falls from a plurality of preset numerical intervals of aspect ratio; and determining a preset page falling within the numerical interval in which the aspect ratio of the display screen falls as the preferred page; and displaying the preferred page on the display screen.
A differential assembly comprising: a differential case defining first and second output shaft openings that are coaxially aligned along an axis of rotation of the differential case; a first side gear rotatably mounted within the differential case and having a first outer diameter; a second side gear rotatably mounted within the differential case and having a second outer diameter; a first pinion gear rotatably coupled to a first pinion gear shaft fixed to the differential case, the first pinion gear meshed for rotation with the first side gear during a first meshing event, the first pinion gear being the only gear coupled to the first pinion gear shaft, and the first pinion gear meshing with the first side gear and not the second side gear; and a second pinion gear rotatably coupled to a second pinion gear shaft fixed to the differential case, the second pinion gear meshed for rotation with the second side gear during a second meshing event, the second pinion gear being the only gear coupled to the second pinion gear shaft, and the second pinion gear meshing with the second side gear and not the first side gear; wherein the first and second pinion gears (68, 70) form a torque transfer arrangement configured for transferring torque between the first and second pinion gears (68, 70) and the first and second side gears (60, 62) to rotate the first and second side gears about the axis of rotation; wherein the first and second outer diameters (100, 102) are distinct such that the first and second meshing events are offset in time. a differential case defining first and second output shaft openings that are coaxially aligned along an axis of rotation of the differential case; a first side gear rotatably mounted within the differential case and having a first outer diameter; a second side gear rotatably mounted within the differential case and having a second outer diameter; a first pinion gear rotatably coupled to a first pinion gear shaft fixed to the differential case, the first pinion gear meshed for rotation with the first side gear during a first meshing event, the first pinion gear being the only gear coupled to the first pinion gear shaft, and the first pinion gear meshing with the first side gear and not the second side gear; and a second pinion gear rotatably coupled to a second pinion gear shaft fixed to the differential case, the second pinion gear meshed for rotation with the second side gear during a second meshing event, the second pinion gear being the only gear coupled to the second pinion gear shaft, and the second pinion gear meshing with the second side gear and not the first side gear; wherein the first and second pinion gears (68, 70) form a torque transfer arrangement configured for transferring torque between the first and second pinion gears (68, 70) and the first and second side gears (60, 62) to rotate the first and second side gears about the axis of rotation; wherein the first and second outer diameters (100, 102) are distinct such that the first and second meshing events are offset in time.
Switching converter, comprising a secondary-side current regulator and a secondary-side voltage regulator for generating a regulator signal, having a coupling element for transmitting the regulator signal to a primary-side trigger circuit, characterised in that the regulator signal is supplied on the secondary side additionally to a current branch circuit, which consists merely of a resistor and a Zener diode connected in series thereto.
A method (400; 1300) of wireless communication at a serving cell (105-c) comprising: receiving a measurement report from a user equipment, UE (115-b); identifying a time stamp of the measurement report; determining (420; 1305) one or more parameters associated with a discovery reference signal, DRS, transmission window of a neighbor cell (105-d) based at least in part on the time stamp of the measurement report; and transmitting (425; 1310) a message that includes a DRS measurement timing configuration, DMTC, to the UE (115-b), wherein the DMTC is based at least in part on the one or more parameters associated with the DRS transmission window of the neighbor cell (105-d) thereby configuring the UE (105-b) to measure DRS from the serving cell (105-c) and the neighbor cell (105-d) within the DMTC window. receiving a measurement report from a user equipment, UE (115-b); identifying a time stamp of the measurement report; determining (420; 1305) one or more parameters associated with a discovery reference signal, DRS, transmission window of a neighbor cell (105-d) based at least in part on the time stamp of the measurement report; and transmitting (425; 1310) a message that includes a DRS measurement timing configuration, DMTC, to the UE (115-b), wherein the DMTC is based at least in part on the one or more parameters associated with the DRS transmission window of the neighbor cell (105-d) thereby configuring the UE (105-b) to measure DRS from the serving cell (105-c) and the neighbor cell (105-d) within the DMTC window.
A method for use in a locationing entity, the method comprising: sending, to a plurality of signal receiving devices (410, 420, 430), reception instructions comprising characteristics of a evolved universal terrestrial radio access network (E-UTRAN) sounding reference signal - SRS - transmission from a user equipment; receiving, from at least three of the plurality of signal receiving devices, locating information regarding the SRS transmission; and determining a location of the user equipment based at least in part on the received locating information. sending, to a plurality of signal receiving devices (410, 420, 430), reception instructions comprising characteristics of a evolved universal terrestrial radio access network (E-UTRAN) sounding reference signal - SRS - transmission from a user equipment; receiving, from at least three of the plurality of signal receiving devices, locating information regarding the SRS transmission; and determining a location of the user equipment based at least in part on the received locating information.
A module (100; 610, 620, 630, 640) for countercurrent tangential chromatography, comprising: a first input port for receiving an input solution; a first static mixer for mixing the input solution with a recycled solution from a second input port to produce a first mixed output; a stage I tangential flow filter for concentrating the first mixed output to produce stage I retentate, wherein stage I permeate exits the module from the stage I filter via a first output port; a second static mixer for mixing the stage I retentate from the stage I filter and an optional buffer solution from a third input port to produce a second mixed output; and a stage II tangential flow filter in series with the stage I filter for concentrating the second mixed output to produce stage II retentate which exits the module from the stage II filter via a second output port, wherein stage II permeate exits the module from the stage II filter via a third output port, wherein the input solution from the input port flows through the stage I tangential flow filter and the stage II tangential flow filter in a single pass, and recycled solution from the third output port flows countercurrent to the input solution into the second input port. a first input port for receiving an input solution; a first static mixer for mixing the input solution with a recycled solution from a second input port to produce a first mixed output; a stage I tangential flow filter for concentrating the first mixed output to produce stage I retentate, wherein stage I permeate exits the module from the stage I filter via a first output port; a second static mixer for mixing the stage I retentate from the stage I filter and an optional buffer solution from a third input port to produce a second mixed output; and a stage II tangential flow filter in series with the stage I filter for concentrating the second mixed output to produce stage II retentate which exits the module from the stage II filter via a second output port,
A radiator panel for a spacecraft, the radiator panel comprising: two spaced-apart face-sheets including an inside face-sheet and an outside face-sheet, wherein the two spaced-apart face-sheets are constructed of a fiber reinforced composite material, wherein the fiber reinforced composite material includes a first set of fibers and a second set of fibers, and wherein the fibers of the first set differ from the fibers of the second set in at least one characteristic; a honeycomb core positioned between the two spaced-apart face-sheets; and one or more heat pipes extending through the honeycomb core, wherein within a single ply of the fiber reinforced composite material, fibers of the first set are spaced apart on average in the range of 0-30 μm, and wherein within the single ply of the fiber reinforced composite material, fibers of the second set are spaced apart in the range of 50-200 μm. two spaced-apart face-sheets including an inside face-sheet and an outside face-sheet, wherein the two spaced-apart face-sheets are constructed of a fiber reinforced composite material, wherein the fiber reinforced composite material includes a first set of fibers and a second set of fibers, and wherein the fibers of the first set differ from the fibers of the second set in at least one characteristic; a honeycomb core positioned between the two spaced-apart face-sheets; and one or more heat pipes extending through the honeycomb core, wherein within a single ply of the fiber reinforced composite material, fibers of the first set are spaced apart on average in the range of 0-30 μm, and wherein within the single ply of the fiber reinforced composite material, fibers of the second set are spaced apart in the range of 50-200 μm.
Flat designed luminous display arrangement with light-emitting means for illuminating a foil for the display of a motive applied on a display surface, wherein the light-emitting means is formed as at least one lightcoupling unit (8a;8b), arranged sideward to a light duct forming transparent foil, wherein the light such reflected over the adjacent edge region is inducted into the foil (7 to spread out homogenously within the foil, wherein for generation of the display area, a reflection raster is provided arranged opposite to the display to achieve a lightcoupling, characterized in that the reflection raster is a field inducing a diffuse reflecting, which field is applied by screen printing,, whereby the light within the foil is reflected and is coupled out of the foil in a diffuse manner at the opposite side in the area of the display surface, wherein the motive is arranged on the display surface of the foil with at least partly transparent foil, or wherein a second, the at least partly transparent motive including covering film is arranged on the foil and the motive is covered on the display area with a semitransparent colour coat for realizing a disappearing effect.
Device (1, 1", 1′′′) for manufacturing a crystal from a melt of a raw material, comprising: a crucible (2', 2", 2′′′) for receiving the melt having a first section (4', 4") including a first cross-sectional area and having a second section (6`) for receiving a seed crystal and including a second cross-sectional area, wherein the second cross-sectional area is smaller than the first cross-sectional area and the first and the second section are et- connected with each other directly or via a third section (8, 8') which tapers from the first to the second section, in order to allow a crystallization starting from the seed crystal within a directed temperature field into the solidifying melt, wherein the first section (4', 4") of the crucible (2', 2", 2′′′) has central axis, and the second section (6`) is arranged to be laterally offset (v) from the central axis of the first section (4', 4"), wherein the second section (6, 6') has a length (k`) along a direction of its central axis, wherein the length amounts to between 50 mm and 90 mm, and the second section is at least partially formed in cylindrical shape and has an inner diameter of 15 mm or less. a crucible (2', 2", 2′′′) for receiving the melt having a first section (4', 4") including a first cross-sectional area and having a second section (6`) for receiving a seed crystal and including a second cross-sectional area, wherein the second cross-sectional area is smaller than the first cross-sectional area and the first and the second section are et- connected with each other directly or via a third section (8, 8') which tapers from the first to the second section, in order to allow a crystallization starting from the seed crystal within a directed temperature field into the solidifying melt, wherein the first section (4', 4") of the crucible (2', 2", 2′′′) has central axis, and the second section (6`) is arranged to be laterally offset (v) from the central axis of the first section (4', 4"), wherein the second section (6, 6') has a length (k`) along a direction of its central axis, wherein the length amounts to between 50 mm and 90 mm, and the second section is at least partially formed in cylindrical shape and has an inner diameter of 15 mm or less.
A pivot sliding door assembly for a vehicle with a door leaf for the opening and closing of a door opening and with a rotary column assembly for moving the door leaf between a closed position and a displacement position, wherein the rotary column assembly has a pivotable rotary column for moving the door leaf and a rotary column lever for coupling the rotary column with the door leaf, wherein the door leaf has a linear bearing, into which a guiding element of the rotary column lever engages for the linear guidance of the door leaf in a displacement direction, wherein the door leaf, in the closed position, closes off the door opening and, in the displacement position for opening the door opening, can be displaced along the displacement direction, and wherein the rotary column lever has a Y-direction fixing device which, for fixing the door leaf in the displacement direction, is in engagement with the door leaf in the closed position of the door leaf, characterized in that the door leaf has an opening for receiving the Y-direction fixing device, that for engagement with the door leaf the Y-direction fixing device is moved into the opening by an actuation of the rotary column lever, that the Y-direction fixing device has a hook for the engagement with the door leaf, and that on engagement of the Y-direction fixing device, the hook engages behind an engagement edge of the opening for pressing on of the door leaf along an X-direction.
A device for automatically changing grinding discs, comprising a stacking device for a plurality of grinding discs as well as at least one guide element for vertically mutually aligning the openings in the grinding discs parallel to a common central axis, wherein the guide element is eccentrically arranged relative to the central axis, further comprising an instrument head with a rotationally mounted grinding disc receiving part for a grinding disc, said instrument head being arranged at a manipulation device for performing a grinding motion, characterized in that a positioning element is provided on the central axis of the stacking device for positioning the instrument head with the grinding disc receiving part formed thereon, wherein the positioning element and the guide element are mounted in a floating manner at the stacking device and in that a central opening is formed in the instrument head for receiving the positioning element so that a positioning of the instrument on the positioning element occurs in a simplified manner through the floating mounting of the positioning element and of the guide element even when the instrument head does not impact the positioning element exactly centrally, because the position of the instrument head with the grinding disc receiving part can be balanced via the floating mounting. wherein the guide element is eccentrically arranged relative to the central axis, further comprising an instrument head with a rotationally mounted grinding disc receiving part for a grinding disc, said instrument head being arranged at a manipulation device for performing a grinding motion, characterized in that a positioning element is provided on the central axis of the stacking device for positioning the instrument head with the grinding disc receiving part formed thereon, wherein the positioning element and the guide element are mounted in a floating manner at the stacking device and in that a central opening is formed in the instrument head for receiving the positioning element so that a positioning of the instrument on the positioning element occurs in a simplified manner through the floating mounting of the positioning element and of the guide element even when the instrument head does not impact the positioning element exactly centrally, because the position of the instrument head with the grinding disc receiving part can be balanced via the floating mounting.
Method for the preparation of an impregnated zeolite, comprising (a) preparing an aqueous solution containing 2 to 15% by weight of at least one hygroscopic mineral salt having an enthalpy of dehydration ΔH dehydration of at least 1200 KJ/Kg (b) impregnating a hydrated zeolite with the aqueous solution prepared in step (a), (c) evaporating any water from the aqueous solution in contact with the zeolite, (d) drying the impregnated zeolite obtained in step (c), by heating to a temperature between 120 °C and 250 °C for a duration of at least 10 hours, the hydrated zeolite being a zeolite that has been in contact for at least 4 hours at a temperature of 25 °C with an atmosphere having a relative humidity of at least 60%. (a) preparing an aqueous solution containing 2 to 15% by weight of at least one hygroscopic mineral salt having an enthalpy of dehydration ΔH dehydration of at least 1200 KJ/Kg (b) impregnating a hydrated zeolite with the aqueous solution prepared in step (a), (c) evaporating any water from the aqueous solution in contact with the zeolite, (d) drying the impregnated zeolite obtained in step (c), by heating to a temperature between 120 °C and 250 °C for a duration of at least 10 hours,
A Computer Aided Diagnosis apparatus (100, 300), comprising: a display; a memory configured to store instructions; and at least one processor, that upon executing the stored instructions, configured: to detect one or more regions of interest (ROIs) from the current image among sequentially received images; to determine whether at least one ROI, that is erroneously detected, from the one or more detected ROIs exists based on an ROI size transition model, in response to the one or more ROIs being detected from the current image; to predict at least one ROI in the current image using the ROI size transition model, in response to the ROI not being detected from the current image; and to control the display to output visual information indicating at least one remaining ROI except for the at least one erroneously detected ROI among the one or more detected ROIs, or indicating the at least one predicted ROI. a display; a memory configured to store instructions; and at least one processor, that upon executing the stored instructions, configured: to detect one or more regions of interest (ROIs) from the current image among sequentially received images; to determine whether at least one ROI, that is erroneously detected, from the one or more detected ROIs exists based on an ROI size transition model, in response to the one or more ROIs being detected from the current image; to predict at least one ROI in the current image using the ROI size transition model, in response to the ROI not being detected from the current image; and to control the display to output visual information indicating at least one remaining ROI except for the at least one erroneously detected ROI among the one or more detected ROIs, or indicating the at least one predicted ROI. to detect one or more regions of interest (ROIs) from the current image among sequentially received images; to determine whether at least one ROI, that is erroneously detected, from the one or more detected ROIs exists based on an ROI size transition model, in response to the one or more ROIs being detected from the current image; to predict at least one ROI in the current image using the ROI size transition model, in response to the ROI not being detected from the current image; and to control the display to output visual information indicating at least one remaining ROI except for the at least one erroneously detected ROI among the one or more detected ROIs, or indicating the at least one predicted ROI.