mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: an implantable housing; a header mounted to the implantable housing and including a connector block cavity; and a connector block located within the connector block cavity, the connector block including a plastic housing portion, a coil spring, and a metallic termination member connected to the coil spring and exposed outside the plastic housing portion, the metallic termination member including a straight lead-out section and a flat upper connection surface lying flush against an outer surface of the plastic housing portion, characterized in that the metallic termination member includes a curled portion dimensioned to partially enclose the coil spring. an implantable housing; a header mounted to the implantable housing and including a connector block cavity; and a connector block located within the connector block cavity, the connector block including a plastic housing portion, a coil spring, and a metallic termination member connected to the coil spring and exposed outside the plastic housing portion, the metallic termination member including a straight lead-out section and a flat upper connection surface lying flush against an outer surface of the plastic housing portion, characterized in that the metallic termination member includes a curled portion dimensioned to partially enclose the coil spring.
A method for measuring an information transfer limit of a transmission electron microscope by adopting a crystal thin film, of which lattice constants and structure are known, as a specimen to be assessed, and measuring a contrast of observed crystal lattice fringes, wherein: an electron beam is routed to the crystal thin film; two specific waves (g 0, g 1) of the electron beam that are transmitted or diffracted are selected and used to form a lattice image; and while a condition for diffraction of the electron beam to be caused by the specimen, and a condition for selection of the two transmitted or diffracted waves are held intact, a change in the contrast of formed crystal lattice fringes derived from a change in the incident angle of the electron beam falling on the crystal thin film is checked in order to measure the information transfer limit. an electron beam is routed to the crystal thin film; two specific waves (g 0, g 1) of the electron beam that are transmitted or diffracted are selected and used to form a lattice image; and while a condition for diffraction of the electron beam to be caused by the specimen, and a condition for selection of the two transmitted or diffracted waves are held intact, a change in the contrast of formed crystal lattice fringes derived from a change in the incident angle of the electron beam falling on the crystal thin film is checked in order to measure the information transfer limit.
An intervertebral implant for implantation in an intervertebral space between adjacent vertebrae, the implant comprising: - a spacer having a substantially U-shaped body, a superior surface, an inferior surface, a first end, and a second end, wherein the inferior surface and the superior surfaces each have a contact area configured to engage adjacent vertebrae; and - a plate having an upper surface, a lower surface, a first end, a second end, and at least one hole traversing the plate for receiving a fastener; - wherein the plate is coupled to the spacer such that the first end of the spacer engages the first end of the plate and the second end of the spacer engages the second end of the plate, and - wherein the implant is asymmetrical such that a median vertical plane of the implant divides both the spacer and the plate into two asymmetrical halves; wherein the plate has an anterior surface comprising one or more eyebrows projecting past the upper or lower surfaces (62, 64) of the plate, each eyebrow providing passage for one of the at least one holes each designed to accommodate a fastener such as an angled screw, and wherein each of the at least one holes for receiving a fastener traverses the anterior surface of the plate at an angle divergent to a horizontal plane. - a spacer having a substantially U-shaped body, a superior surface, an inferior surface, a first end, and a second end, wherein the inferior surface and the superior surfaces each have a contact area configured to engage adjacent vertebrae; and - a plate having an upper surface, a lower surface, a first end, a second end, and at least one hole traversing the plate for receiving a fastener; - wherein the plate is coupled to the spacer such that the first end of the spacer engages the first end of the plate and the second end of the spacer engages the second end of the plate, and - wherein the implant is asymmetrical such that a median vertical plane of the implant divides both the spacer and the plate into two asymmetrical halves;
A ground collector - with a slot milled into the ground, - with a ground collector device, disposed in the slot, suitable for connecting to a heat pump, - with a first filler material, which fills the slot in the area of the ground collector device, characterized in that - the first filler material has a higher coefficient of permeability (K s) than the coefficient of permeability (K E) of the ground adjacent to the slot in the area of the ground collector device, and - the first filler material has a particle size distribution, wherein the proportion of particle sizes from 0.125 mm to 1 mm predominates. - with a slot milled into the ground, - with a ground collector device, disposed in the slot, suitable for connecting to a heat pump, - with a first filler material, which fills the slot in the area of the ground collector device, characterized in that - the first filler material has a higher coefficient of permeability (K s) than the coefficient of permeability (K E) of the ground adjacent to the slot in the area of the ground collector device, and - the first filler material has a particle size distribution, wherein the proportion of particle sizes from 0.125 mm to 1 mm predominates.
A graded index type optical fiber comprising a core component and a cladding component disposed around the outer periphery of the core component, wherein the core component includes a polymer as a predominant constituent component whose structural units are monomers including 55 to 100 wt% chlorostyrene and 0 to 45 wt% methyl methacrylate, a center part of the core component including 100 weight parts of the polymer and 2 to 8 weight parts dopant selected from at least one of diphenyl sulfone, a diphenyl sulfone derivative, diphenyl sulfide, diphenyl sufoxide, dibenzothiophene, dithiane derivative, triphenyl phosphate, tricresyl phosphate, 9-bromophenanthrene, benzyl benzoate, benzyl n-butyl phthalate, diphenyl phthalate, biphenyl, diphenyl methane, and the cladding component includes a polymer as a predominant constituent component whose structural units are monomers including at least 35 wt% methyl methacrylate and at least one compound selected from the group consisting of styrene, α-methyl styrene and N-cyclohexylmaleimide.
A printing unit with a doctor blade chamber and a rotatable roller where the roller extends partially into the doctor blade chamber for receiving ink from the doctor blade chamber during operation, wherein a gasket is provided for sealing between the doctor blade chamber and the roller, where the gasket at one side includes at least one sealing surface, the sealing surface having a width substantially corresponding to the width of the doctor blade chamber and a thickness in longitudinal direction of the roller, the thickness delimited by a first edge and a second edge at the sealing surface, wherein the gasket at its opposing side includes an elastomeric edge for sealing abutment against the roller, wherein the elastomeric edge is offset in longitudinal direction of the roller/doctor blade chamber relative to at least one of the edges that delimit the thickness on the sealing surface, characterized in that a surface extends from at least one of the edges delimiting the thickness on the sealing surface and to an area at the elastomeric edge /roller, where the surface is inclining, corresponding to being angled less than 90° in relation to the sealing surface or the longitudinal direction of the roller/doctor blade chamber, is concave and/or is convex, wherein the gasket has a non-symmetric cross sectional shape, where the surface constitutes a first leg comprising a backside, where said backside is supported by a second leg.
A method for detecting changes of position of a shaftless spinning rotor of an open-end spinning machine in a cavity of an active magnetic bearing, in which the position of the spinning rotor is detected by a system of sensors (A, B) and on basis of the detected changes in the position of the spinning rotor is adjusted controlling of the active magnetic bearing in order to eliminate undesirable changes in the position of the spinning rotor in the cavity of the active magnetic bearing, wherein continuously is detected radial shifting of the spinning rotor and simultaneously is continuously detected inclination of the spinning rotor, whereupon according to the detected changes in the position of the spinning rotor is determined shifting and/or inclination of the spinning rotor which is used for subsequent adjustment of the controlling of position of the spinning rotor in the active magnetic bearing, whereby both radial shifting and inclination of the spinning rotor are each detected by at least two pairs of sensors (A1, A2, B1, B2) of the distance of monitored surface of the spinning rotor, whereby pairs of sensors (A1, A2) for detecting radial shifting of the spinning rotor detect changes of distances (X1, X2) of the cylindrical wall of the spinning rotor from the sensors (A1, A2), characterized in that pairs of sensors (B1, B2) for detecting inclination of the spinning rotor detect a change of the distances (Y1, Y2) of the wall of the spinning rotor, which is perpendicular to the rotation axis of the spinning rotor, from the sensors (B1, B2) arranged against this wall.
A computer-implemented method for detecting graphical elements in a user interface, UI, comprising: receiving, by a designer application, a selection of an activity in a robotic process automation, RPA, workflow to be configured to perform graphical element detection using a unified target technique; receiving, by the designer application, modifications to the unified target technique for the activity; and configuring the activity based on the modifications, by the designer application, wherein the unified target technique is configured to employ a plurality of graphical element detection techniques, which are series of execution unified target techniques or parallel execution unified target techniques or a combination of an initial execution target technique and delayed parallel execution unified target techniques; for the series execution, each series graphical element detection technique is executed individually one at a time in an order, and for parallel execution, each parallel graphical element detection technique is executed at the same time, and for the combination of the initial execution target technique and delayed parallel execution unified target techniques, a delay is received, by the design application, to specify for how long to wait to execute the parallel techniques after execution of the initial execution target technique. receiving, by a designer application, a selection of an activity in a robotic process automation, RPA, workflow to be configured to perform graphical element detection using a unified target technique; receiving, by the designer application, modifications to the unified target technique for the activity; and configuring the activity based on the modifications, by the designer application, wherein the unified target technique is configured to employ a plurality of graphical element detection techniques, which are series of execution unified target techniques or parallel execution unified target techniques or a combination of an initial execution target technique and delayed parallel execution unified target techniques; for the series execution, each series graphical element detection technique is executed individually one at a time in an order, and for parallel execution, each parallel graphical element detection technique is executed at the same time, and for the combination of the initial execution target technique and delayed parallel execution unified target techniques, a delay is received, by the design application, to specify for how long to wait to execute the parallel techniques after execution of the initial execution target technique.
A method of correcting an effect of cycle slips in an optical communications system, the method comprising steps of: receiving an optical signal through the communications system, the signal comprising SYNC bursts having a predetermined periodicity and a plurality of known symbols at predetermined locations between successive SYNC bursts; partitioning the received optical signal into data blocks, wherein each data block encompasses at least data symbols and a set of check symbols corresponding to the plurality of known symbols at predetermined locations between a respective pair of successive SYNC bursts in the optical signal; processing each data block to detect a cycle slip, and, when a cycle slip is detected: examining the set of check symbols of the data block to identify a first slipped check symbol; and applying a phase correction to data symbols of the data block lying between the first slipped check symbol and an end of the data block. receiving an optical signal through the communications system, the signal comprising SYNC bursts having a predetermined periodicity and a plurality of known symbols at predetermined locations between successive SYNC bursts; partitioning the received optical signal into data blocks, wherein each data block encompasses at least data symbols and a set of check symbols corresponding to the plurality of known symbols at predetermined locations between a respective pair of successive SYNC bursts in the optical signal; processing each data block to detect a cycle slip, and, when a cycle slip is detected: examining the set of check symbols of the data block to identify a first slipped check symbol; and applying a phase correction to data symbols of the data block lying between the first slipped check symbol and an end of the data block. examining the set of check symbols of the data block to identify a first slipped check symbol; and applying a phase correction to data symbols of the data block lying between the first slipped check symbol and an end of the data block.
A foldable intraocular lens, IOL, for placement in an evacuated capsular bag of an eye, said IOL comprising: a) an optic having opposite anterior and posterior surfaces (12, 14) defining a geometric center and a periphery; b) at least two haptics (30, 32-35) having an elongated section (32b-35b) and terminating in a free end (32a-35a), said free end (32a-35a) extending in an anterior direction at a second angle with respect to said elongated section (32b-35b), characterized in that said haptics (30, 32-35) each extend from said periphery, each of said haptics (30, 32-35) have a thickness that decreases from the optic to the free end (32a-35a); said haptics (30, 32-35) extend in the anterior direction at a first angle with respect to the optic; wherein when a radial compressive force is applied to the free ends (32a-35a), the haptics (30, 32-35) are configured to flex in the anterior direction, and each of the free ends (32a-35a) of said haptics (30, 32-35) is configured to flex in a respective plane that extends generally perpendicular to the plane in which optic lies, wherein the optic remains aligned along the optical axis of the eye. a) an optic having opposite anterior and posterior surfaces (12, 14) defining a geometric center and a periphery; b) at least two haptics (30, 32-35) having an elongated section (32b-35b) and terminating in a free end (32a-35a), said free end (32a-35a) extending in an anterior direction at a second angle with respect to said elongated section (32b-35b), characterized in that said haptics (30, 32-35) each extend from said periphery, each of said haptics (30, 32-35) have a thickness that decreases from the optic to the free end (32a-35a); said haptics (30, 32-35) extend in the anterior direction at a first angle with respect to the optic;
An oral care composition comprising: (a) zinc citrate dihydrate; and (b) a surface-active organophosphate compound, wherein the surface-active organophosphate compound is represented by the following general structure: wherein at least one of Z 1, Z 2, and Z 3 is an organic moiety selected from the group consisting of C1-C22 linear or branched alkyls and alkenyls, optionally substituted by one or more phosphate groups; alkoxylated C1-C22 alkyls and alkenyls; saccharides; polysaccharides; polyols; and polyethers. (a) zinc citrate dihydrate; and (b) a surface-active organophosphate compound, wherein the surface-active organophosphate compound is represented by the following general structure: wherein at least one of Z 1, Z 2, and Z 3 is an organic moiety selected from the group consisting of C1-C22 linear or branched alkyls and alkenyls, optionally substituted by one or more phosphate groups; alkoxylated C1-C22 alkyls and alkenyls; saccharides; polysaccharides; polyols; and polyethers.
A process for preparing Melflufen, compound of formula or a salt thereof, the process comprising: a. Reacting a compound of formula with compound of formula to prepare compound of formula, Prot means nitrogen protective group; R 1, R 2, R 3, R 4 means C 1 -C 3 alkyl; b. Converting compound of formula into Melflufen, compound of formula or a salt thereof. a. Reacting a compound of formula with compound of formula to prepare compound of formula, Prot means nitrogen protective group; R 1, R 2, R 3, R 4 means C 1 -C 3 alkyl; Prot means nitrogen protective group; R 1, R 2, R 3, R 4 means C 1 -C 3 alkyl; b. Converting compound of formula into Melflufen, compound of formula or a salt thereof.
A computer implemented method, performed by one or more smart contract instances executing on a blockchain system, and for dynamic capability-based access control by creating a capability where a capability is a secure reference to an object, where the capability is stored on the blockchain system, the method comprising: (a) receiving a request from a sender to create a capability for the object, the sender being a user process that initiates a capabilities operation; (b) determining existence of the capability for the object for the sender; (c) creating the capability for the object for the sender if the capability for the object for the sender is determined not to exist; and (d) storing the capability on the blockchain system for the object for the sender, wherein the capability can be used to dynamically determine access control for the object. (a) receiving a request from a sender to create a capability for the object, the sender being a user process that initiates a capabilities operation; (b) determining existence of the capability for the object for the sender; (c) creating the capability for the object for the sender if the capability for the object for the sender is determined not to exist; and (d) storing the capability on the blockchain system for the object for the sender, wherein the capability can be used to dynamically determine access control for the object.
A tracking device for tracking an object, the tracking device comprising: - a body having at least one engagement member (122, 124) adapted to engage with the object; - a tracking arrangement arranged to track the object engaged with the body, wherein the tracking arrangement includes an antenna disposed adjacent to the body; and - a tracking arrangement chamber for housing the tracking arrangement; characterised in that the antenna is arranged to conform with an outer contour of the body. - a body having at least one engagement member (122, 124) adapted to engage with the object; - a tracking arrangement arranged to track the object engaged with the body, wherein the tracking arrangement includes an antenna disposed adjacent to the body; and - a tracking arrangement chamber for housing the tracking arrangement;
Locking device for a door or a window, comprising a main lock for actuation and at least one secondary lock coupled to the main lock by means of a drive rod, the secondary lock having a latch bolt and a pivot bolt, the pivot bolt having, as a pivot bolt drive, a spring which acts on the pivot bolt, by means of which spring the pivot bolt is preloaded in a position in which it is pivoted into the secondary lock, the pivot bolt being coupled to the latch bolt in such a way that when the latch bolt reaches a partially extended limit position when extending out of the secondary lock, the pivot bolt, released and driven by the spring, is pivoted into a position in which it is pivoted out of the secondary lock, the pivot bolt, when it is pivoted out, being decoupled from the drive rod, characterized in that the pivot bolt has a coupling lever which is pivotably mounted on the pivot bolt and by means of which the pivot bolt is coupled to the spring.
A plug-in connector for disconnecting and connecting at least one electrical contact for charging a battery unit of a motor vehicle, comprising: at least one electrically conductive contact element having a contact region at a first end region of the electrically conductive contact element for detachably electrically connecting to a corresponding contact element, and having a terminal region at a second end region of the electrically conductive contact element for connecting to at least one electrical conductor, the second end region being opposite the first end region; and at least one temperature sensor element (15, 15') for detecting a temperature of the electrically conductive contact element, the temperature sensor element (15, 15') comprising a substrate (19, 19') that has a first and a second terminal element (25a, 25a', 25b) arranged thereon, a flip-chip measuring element (17, 17') and a first conductor track portion (27a, 27a'), a first terminal (29a, 29a') of the flip-chip measuring element (17, 17') being electrically connected to the first terminal element (25a, 25a') via the first conductor track portion (27a, 27a'), characterized in that the temperature sensor element (15, 15') is arranged on the second end region of the electrically conductive contact element, and in that the first conductor track portion (27a, 27a') is designed as a heat brake. at least one electrically conductive contact element having a contact region at a first end region of the electrically conductive contact element for detachably electrically connecting to a corresponding contact element, and having a terminal region at a second end region of the electrically conductive contact element for connecting to at least one electrical conductor, the second end region being opposite the first end region; and at least one temperature sensor element (15, 15') for detecting a temperature of the electrically conductive contact element, the temperature sensor element (15, 15') comprising a substrate (19, 19') that has a first and a second terminal element (25a, 25a', 25b) arranged thereon, a flip-chip measuring element (17, 17') and a first conductor track portion (27a, 27a'), a first terminal (29a, 29a') of the flip-chip measuring element (17, 17') being electrically connected to the first terminal element (25a, 25a') via the first conductor track portion (27a, 27a'), characterized in that the temperature sensor element (15, 15') is arranged on the second end region of the electrically conductive contact element, and in that the first conductor track portion (27a, 27a') is designed as a heat brake.