mhurhangee/ep-ind-claims huggingface dataset:
An emulsion composition comprising: a compound having a diaminopyrimidine skeleton; at least one fatty acid component selected from the group consisting of a fatty acid having a total carbon number of 14 or more and a salt thereof; and an aqueous medium in an amount of 50% by mass or more with respect to a mass of the emulsion composition, a total amount of a monohydric alcohol having a total carbon number of 3 or less and a dihydric alcohol having a total carbon number of 3 or less being less than 10% by mass with respect to the mass of the emulsion composition, and a pH of the emulsion composition being 6.5 or more. a compound having a diaminopyrimidine skeleton; at least one fatty acid component selected from the group consisting of a fatty acid having a total carbon number of 14 or more and a salt thereof; and an aqueous medium in an amount of 50% by mass or more with respect to a mass of the emulsion composition, a total amount of a monohydric alcohol having a total carbon number of 3 or less and a dihydric alcohol having a total carbon number of 3 or less being less than 10% by mass with respect to the mass of the emulsion composition, and a pH of the emulsion composition being 6.5 or more.
A gear shifting apparatus, comprising a primary power transmission unit, a secondary power transmission unit, an intermediate shaft, an intermediate shaft gear, a first clutch unit, a second clutch unit, and a third clutch unit, wherein the intermediate shaft gear is fixedly sleeved on the intermediate shaft, the first clutch unit is disposed between the intermediate shaft and the primary power transmission unit, and the first clutch unit is configured to achieve or break power transmission between the primary power transmission unit and the intermediate shaft; the second clutch unit is disposed between the intermediate shaft and the secondary power transmission unit, the second clutch unit is configured to achieve or break power transmission between the secondary power transmission unit and the intermediate shaft; and the third clutch unit is disposed between the primary power transmission unit and the intermediate shaft gear, and the third clutch unit is configured to achieve or break power transmission between the primary power transmission unit and the intermediate shaft gear; and when the first clutch unit achieves power transmission between the intermediate shaft and the primary power transmission unit, the second clutch unit achieves power transmission between the intermediate shaft and the secondary power transmission unit, and the third clutch unit achieves power transmission between the intermediate shaft gear and the primary power transmission unit, the gear shifting apparatus is in a self-locking state.
A method, comprising: providing an electrochemical test strip with a mediator system that generates a linear faradic response at a low applied potential difference; introducing blood to the mediator system and in contact with electrodes of the test strip; applying an alternating current excitation signal as a potential difference between electrodes of the test strip and across the blood, wherein the alternating current excitation signal includes a low frequency signal and a high frequency signal that has a higher frequency than the low frequency signal; and determining glucose concentration of the blood, wherein said determining glucose concentration includes measuring a low frequency response to the low frequency signal, measuring a high frequency response to the high frequency signal, estimating the glucose concentration based on the low frequency response, and correcting the glucose concentration for one or more error causing variables based on the high frequency response, characterized in that said determining the glucose concentration includes applying the high frequency signal until no significant change in impedance is observed in the high frequency response; observing no significant change in the impedance of the high frequency response; and applying the low frequency signal after said observing no significant change in the impedance of the high frequency response. providing an electrochemical test strip with a mediator system that generates a linear faradic response at a low applied potential difference; introducing blood to the mediator system and in contact with electrodes of the test strip; applying an alternating current excitation signal as a potential difference between electrodes of the test strip and across the blood, wherein the alternating current excitation signal includes a low frequency signal and a high frequency signal that has a higher frequency than the low frequency signal; and determining glucose concentration of the blood, wherein said determining glucose concentration includes measuring a low frequency response to the low frequency signal, measuring a high frequency response to the high frequency signal, estimating the glucose concentration based on the low frequency response, and correcting the glucose concentration for one or more error causing variables based on the high frequency response, characterized in that said determining the glucose concentration includes applying the high frequency signal until no significant change in impedance is observed in the high frequency response; observing no significant change in the impedance of the high frequency response; and applying the low frequency signal after said observing no significant change in the impedance of the high frequency response.
Process for preparing polyhalite-containing fertilizer granules, comprising a press agglomeration of a salt mixture of finely divided polyhalite with finely divided potassium chloride, the mass ratio of finely divided polyhalite to finely divided potassium chloride being in the range from 1:5 to 4:1, wherein K 2 Ca 2 Mg[SO 4] 4 ·2H 2 O and KCl make up at least 80% by weight and more particularly at least 85% by weight of the total mass of the solid constituents contained in the salt mixture used for the press agglomeration.
An implantable article comprising melt-formed continuous bioabsorbable filaments and melt-formed discontinuous bioabsorbable filaments intermingled to form a porous web wherein said filaments are self-cohered to each other at multiple contact points, wherein said filaments comprise at least one semi-crystalline polymeric component covalently bonded to or blended with at least one amorphous polymeric component, wherein the filaments possess partial to full polymeric component phase immiscibility when in a crystalline state; and wherein said porous web has a percent porosity greater than ninety in the absence of additional components, wherein the porous web is a uniaxially stretched web, and wherein the filaments are abraded through a carding procedure where at least some of the filaments of the web are engaged and separated from each other; and a non-bioabsorbable material releasably attached to a population of said melt-formed filaments.
Electronic timepiece movement (2, 40, 50, 52) equipped with at least one motor (4, 42, 4A, 4B) including a stator and a permanent magnet rotor located in a stator hole, said stator defining at least two magnetic poles (12, 14; 56, 57, 58) respectively including at least two pole shoes (16, 18; 60, 61, 62) extending at the periphery of said hole, said at least two pole shoes being connected to each other by at least one continuous isthmus (20, 22), the motor including at least one coil (28, 28A, 66, 67) respectively mounted around at least one core (26, 26A, 64, 65), characterized in that said at least two pole shoes and said at least one core form together a first part made of ferromagnetic material (8, 8A, 8B, 55), said first part being formed by or including at least one single-piece wafer forming both said at least two pole shoes and said at least one core, and in that an end portion (30, 30A, 30B) of each coil core is connected to at least one corresponding pole shoe by a second part (10, 10A, 10B, 70), defining a base plate or a main plate made of magnetic material, to which said first part is secured and on which elements (44, 46, 44A, 44B) of said electronic timepiece movement are at least partially mounted.
A display panel comprising: a plurality of X-touch electrode lines arranged in parallel to each other in a second direction said second direction being perpendicular to the first direction to receive a plurality of touch driving signals, each of the plurality of X-touch electrode lines (X-TEL1, X-TEL2, X-TEL3, X-TEL4) having a plurality of X-touch electrodes (X-TE11 to X-TE14, X-TE21 to X-TE24, X-TE31 to X-TE34, X-TE41 to X-TE44) arranged spaced apart in a first direction and electrically connected to each other, the plurality of X-touch electrodes interconnected in the first direction by X-touch electrode connection lines (X-CL1, X-CL2, X-CL3, X-CL4) through contact holes; a plurality of Y-touch electrode lines extended, equidistantly in spaces between adjacent X-touch electrodes, in the second direction to transmit a plurality of touch sensing signals; and a plurality of X-touch lines extended in the second direction and alternately connected to the plurality of X-touch electrodes through a plurality of touch contact holes to electrically connect a plurality of X-touch electrodes constituting a same X-touch electrode line to each other; wherein each Nth X-touch electrode of said interconnected X-touch electrodes is connected by inside the touch sensor field and on top of the individual touch electrodes, vertically running X-touch lines to the further outside the touch sensor field horizontally running X-touch lines. a plurality of X-touch electrode lines arranged in parallel to each other in a second direction said second direction being perpendicular to the first direction to receive a plurality of touch driving signals, each of the plurality of X-touch electrode lines (X-TEL1, X-TEL2, X-TEL3, X-TEL4) having a plurality of X-touch electrodes (X-TE11 to X-TE14, X-TE21 to X-TE24, X-TE31 to X-TE34, X-TE41 to X-TE44) arranged spaced apart in a first direction and electrically connected to each other, the plurality of X-touch electrodes interconnected in the first direction by X-touch electrode connection lines (X-CL1, X-CL2, X-CL3, X-CL4) through contact holes; a plurality of Y-touch electrode lines extended, equidistantly in spaces between adjacent X-touch electrodes, in the second direction to transmit a plurality of touch sensing signals; and a plurality of X-touch lines extended in the second direction and alternately connected to the plurality of X-touch electrodes through a plurality of touch contact holes to electrically connect a plurality of X-touch electrodes constituting a same X-touch electrode line to each other; wherein each Nth X-touch electrode of said interconnected X-touch electrodes is connected by inside the touch sensor field and on top of the individual touch electrodes, vertically running X-touch lines to the further outside the touch sensor field horizontally running X-touch lines.
A medical imaging apparatus comprising: a scanner configured to acquire projection data of an object in a plurality of directions; and a data processor configured to generate a volume of interest based on the projection data, generate two-dimensional reprojection images by reprojecting the volume of interest in a plurality of directions, extract feature information from the 2D reprojection images, generate a feature vector by fusing the feature information extracted from the 2D reprojection images corresponding to each direction, and determine whether a certain substance exists in the volume of interest based on the generated feature vector. a scanner configured to acquire projection data of an object in a plurality of directions; and a data processor configured to generate a volume of interest based on the projection data, generate two-dimensional reprojection images by reprojecting the volume of interest in a plurality of directions, extract feature information from the 2D reprojection images, generate a feature vector by fusing the feature information extracted from the 2D reprojection images corresponding to each direction, and determine whether a certain substance exists in the volume of interest based on the generated feature vector.
A tower pantry for a refrigerator, comprising: a guide mechanism mountable on a bottom of an opened space inside a refrigerating room; a basket attached to the guide mechanism and configured to move forward and backward on the guide mechanism; frames that are fastened to corners of the basket and that extend vertically from the basket; and a frame cover fastened on the frames and defining a space that is configured to accommodate a beverage container in the basket, wherein the guide mechanism includes a rail fixable to the bottom of the opened space inside the refrigerating room, and a slide fastened to the basket and configured to slide along the rail, characterized in that holes are respectively formed at both end portions of the slide, and the basket attaches to the slide based on shafts that pass through corners of the basket and that are fastened into the holes, and wherein the shafts passing through the corners of the basket are vertically fastened to the frames. a guide mechanism mountable on a bottom of an opened space inside a refrigerating room; a basket attached to the guide mechanism and configured to move forward and backward on the guide mechanism; frames that are fastened to corners of the basket and that extend vertically from the basket; and a frame cover fastened on the frames and defining a space that is configured to accommodate a beverage container in the basket, wherein the guide mechanism includes a rail fixable to the bottom of the opened space inside the refrigerating room, and a slide fastened to the basket and configured to slide along the rail, characterized in that holes are respectively formed at both end portions of the slide, and the basket attaches to the slide based on shafts that pass through corners of the basket and that are fastened into the holes, and wherein the shafts passing through the corners of the basket are vertically fastened to the frames.
A method, comprising: loading degradable hydrogel beads onto a sequencing flow cell under conditions sufficient for capture of the degradable hydrogel beads on a surface of the sequencing flow cell, wherein: the degradable hydrogel beads contain sequencing libraries prepared from encapsulated genetic material; or the degradable hydrogel beads contain encapsulated genetic material, and the method further comprises preparing sequencing libraries in the captured degradable hydrogel beads from the genetic material; and loading a liquid diffusion barrier onto the sequencing flow cell that surrounds the hydrogel beads; and degrading the captured hydrogel beads in the presence of the liquid diffusion barrier to inhibit diffusion of the sequencing libraries beyond a diameter of the corresponding hydrogel bead and to allow transport and seeding of the sequencing libraries to the surface of the sequencing flow cell in relative close proximity of a footprint of the corresponding hydrogel bead. loading degradable hydrogel beads onto a sequencing flow cell under conditions sufficient for capture of the degradable hydrogel beads on a surface of the sequencing flow cell, wherein: the degradable hydrogel beads contain sequencing libraries prepared from encapsulated genetic material; or the degradable hydrogel beads contain encapsulated genetic material, and the method further comprises preparing sequencing libraries in the captured degradable hydrogel beads from the genetic material; and the degradable hydrogel beads contain sequencing libraries prepared from encapsulated genetic material; or the degradable hydrogel beads contain encapsulated genetic material, and the method further comprises preparing sequencing libraries in the captured degradable hydrogel beads from the genetic material; and loading a liquid diffusion barrier onto the sequencing flow cell that surrounds the hydrogel beads; and degrading the captured hydrogel beads in the presence of the liquid diffusion barrier to inhibit diffusion of the sequencing libraries beyond a diameter of the corresponding hydrogel bead and to allow transport and seeding of the sequencing libraries to the surface of the sequencing flow cell in relative close proximity of a footprint of the corresponding hydrogel bead.
A bottle carrier (1, 1A, 100) for carrying plural bottles having a collared neck, comprising a plurality of connected bottle holders for each holding a bottle along an axis of extension, characterized in that each bottle holder comprises at least three resilient arms (19, 21) defining a holding space and configured to engage and hold the neck of the bottle and to support the bottle by the collar, wherein the arms (19, 21) are arranged to provide the bottle neck access into the holding space in radial direction, in particular for snapping the bottle holder onto the bottle neck by relative movement in radial direction, and to provide an effectively radially inward holding force onto the bottle neck, wherein at least one of the bottle holders comprises an integrated cap lifter (31, 35). each bottle holder comprises at least three resilient arms (19, 21) defining a holding space and configured to engage and hold the neck of the bottle and to support the bottle by the collar, wherein the arms (19, 21) are arranged to provide the bottle neck access into the holding space in radial direction, in particular for snapping the bottle holder onto the bottle neck by relative movement in radial direction, and to provide an effectively radially inward holding force onto the bottle neck, wherein at least one of the bottle holders comprises an integrated cap lifter (31, 35).
Film stretching machine, comprising two tracks, each having a first rail on which clamps move, closing at an adjustment point of their pitch, and a second rail on which articulated carriages move, in a chain driven by a toothed drive wheel, respectively to two consecutive clamps, the machine having an indexing mechanism for the pitch adjustment point of the clamps, the indexing mechanism is formed, on the one hand, by a toothed indexing wheel, which is arranged downstream in the direction of movement of the chain at the pitch adjustment point of the clamps and is driven at the same peripheral speed as the drive wheel, and, on the other hand, by a roller of the carriage engaging in a tooth space of the indexing wheel when the clamp which is furthest downstream in the direction of movement of the chain at the pitch adjustment point of the clamps, and which corresponds to this carriage, is at the pitch adjustment point of the clamps.
A directional coupler operable at microwave and RF frequencies comprising: a main transmission line supporting transverse electromagnetic,TEM, or quasi-TEM wave mode propagation, wherein the main transmission line is a main slab line comprising spaced, opposed conductor planes (152;154) and a main center conductor; a coupled transmission line supporting TEM or quasi-TEM wave mode propagation, the coupled transmission line adjacent to and oriented at an angle with respect to the main transmission line, wherein the coupled transmission line is a coupled coaxial line comprising a center coaxial conductor and an outer conductor; a coupling hole formed through conductive shielding between the main and coupled lines, the coupling hole formed at an intersection region between the main and coupled lines, the coupling hole comprising a hole formed in the coaxial outer conductor at the intersection region. a main transmission line supporting transverse electromagnetic,TEM, or quasi-TEM wave mode propagation, wherein the main transmission line is a main slab line comprising spaced, opposed conductor planes (152;154) and a main center conductor; a coupled transmission line supporting TEM or quasi-TEM wave mode propagation, the coupled transmission line adjacent to and oriented at an angle with respect to the main transmission line, wherein the coupled transmission line is a coupled coaxial line comprising a center coaxial conductor and an outer conductor; a coupling hole formed through conductive shielding between the main and coupled lines, the coupling hole formed at an intersection region between the main and coupled lines, the coupling hole comprising a hole formed in the coaxial outer conductor at the intersection region.
Shelf for a refrigerator, comprising a carrier plate and an overflow protection, wherein the upper side of the carrier plate has a middle region for storage of containers, and the overflow protection is arranged around the middle region, characterized in that the overflow protection is configured in the form of a hydrophobic layer on the carrier plate in a first sub-portion, and comprises a frame element in a second sub-portion adjoining the first sub-portion, wherein the overflow protection completely encloses the middle region of the carrier plate, wherein the overflow protection has a front portion at the front side of the shelf, a rear portion at the rear side of the shelf and two lateral portions at the sides of the shelf, and wherein the lateral portions are configured as a hydrophobic layer substantially over the entire length thereof, and the front portion and/or the rear portion comprise/comprises a frame element substantially over the entire length thereof, wherein the frame element is at the same time configured as a grip part for pulling out the shelf, or as a rear shelf delimitation, or wherein the lateral portions of the overflow protection comprise a frame element substantially over the entire length thereof, and the front portion and/or the rear portion are/is configured as a hydrophobic layer substantially over the entire length thereof, wherein the lateral frame elements are at the same time used to guide and mount the shelf.
An image forming apparatus, comprising: a communication interface unit which receives print data; an image forming unit which prints the received print data; a volatile memory which, if the received print data is data that needs to be stored, stores the received print data; a non-volatile memory; and a controller, characterised in that, if a power-off command regarding the image forming apparatus is input, the controller is configured to back up print data stored in the volatile memory in a storage medium connectable to the image forming apparatus and convert an operation mode of the image forming apparatus to a power-off mode, wherein the controller, if the image forming apparatus is turned on, restores print data backed up in the storage medium to the volatile memory, and wherein if the image forming apparatus is booted, the controller is configured to determine whether there is back-up data regarding print data by checking whether a back-up flag informing existence of back-up data regarding print data is set in the non-volatile memory. a communication interface unit which receives print data; an image forming unit which prints the received print data; a volatile memory which, if the received print data is data that needs to be stored, stores the received print data; a non-volatile memory; and a controller, characterised in that, if a power-off command regarding the image forming apparatus is input, the controller is configured to back up print data stored in the volatile memory in a storage medium connectable to the image forming apparatus and convert an operation mode of the image forming apparatus to a power-off mode, wherein the controller, if the image forming apparatus is turned on, restores print data backed up in the storage medium to the volatile memory, and wherein if the image forming apparatus is booted, the controller is configured to determine whether there is back-up data regarding print data by checking whether a back-up flag informing existence of back-up data regarding print data is set in the non-volatile memory.