mhurhangee/ep-ind-claims huggingface dataset:
A method of determining an interpolated output value for a second color space based on an input value x = (x 1,..., x n) in a first color space of n dimensions, comprising: generating a unit hypercube in the first color space enclosing the input value; imposing a respective discrete boundary condition at least on each of the vertices of the unit hypercube; determining a simplex which is enclosed by the unit hypercube and which encloses the input value, wherein a vertex v n of the respective simplex is one of the vertices of the hypercube; performing iteratively, starting from the input value x = x as a point to be projected, a barycentric projection x ( k) = Bproj k (x ( k -1)) to obtain a respective intermediate point x (k) for k=1,..., K as a new point to be projected, wherein the barycentric projection is from a respective vertex of the simplex through the respective point to be projected onto a boundary of the unit hypercube, until, in a K th iteration, a respective intermediate point is on one of the boundaries on which a boundary condition BC of the boundary conditions is imposed, wherein the respective vertex is different for each of the iterations; and then performing K iterations of a back substitution in order to determine the interpolated output value as y, wherein the k th of the barycentric projections is defined by BProj k x = { p k + x − p k / 1 − x σ k if x ≠ p k x if x = p k with p k = v n − ∑ k − 1 e σ n + 1 − i and k = 1,2,..., n, and e 1, e 2,..., e n are standard basis vectors, and the k th of the K back substitutions is defined by y k − 1 = x σ k k − 1 BC p k + 1 − x σ k k − 1 y k, k = K, K − 1,..., 1 where y K = BC x K generating a unit hypercube in the first color space enclosing the input value; imposing a respective discrete boundary condition at least on each of the vertices of the unit hypercube; determining a simplex which is enclosed by the unit hypercube and which encloses the input value, wherein a vertex v n of the respective simplex is one of the vertices of the hypercube; performing iteratively, starting from the input value x = x as a point to be projected, a barycentric projection x ( k) = Bproj k (x ( k -1)) to obtain a respective intermediate point x (k) for k=1,..., K as a new point to be projected, wherein the barycentric projection is from a respective vertex of the simplex through the respective point to be projected onto a boundary of the unit hypercube, until, in a K th iteration, a respective intermediate point is on one of the boundaries on which a boundary condition BC of the boundary conditions is imposed, wherein the respective vertex is different for each of the iterations; and then performing K iterations of a back substitution in order to determine the interpolated output value as y, wherein the k th of the barycentric projections is defined by BProj k x = { p k + x − p k / 1 − x σ k if x ≠ p k x if x = p k with p k = v n − ∑ k − 1 e σ n + 1 − i and k = 1,2,..., n, and e 1, e 2,..., e n are standard basis vectors, and the k th of the K back substitutions is defined by y k − 1 = x σ k k − 1 BC p k + 1 − x σ k k − 1 y k, k = K, K − 1,..., 1 where y K = BC x K
A battery module comprising: a battery stack where batteries are stacked; and a battery management system, a heat radiation paint coating layer including a heat radiation material is included in at least a portion of a constituting component, wherein the battery is a plate shape battery, and is stack-arranged such that one surface or both surfaces of the battery face an adjacent battery to form the battery stack, and in the battery stack, electrode leads (2a, 2b) of the batteries are connected to each other, the battery management system includes a voltage detection unit that includes a relay, a current sensor that includes a shunt resistance is further included between the battery stack and the battery management system, and the heat radiation paint coating layer is included in at least one of the electrode lead, busbar, relay, shunt and constituting components of battery management system. a battery stack where batteries are stacked; and a battery management system, a heat radiation paint coating layer including a heat radiation material is included in at least a portion of a constituting component, wherein the battery is a plate shape battery, and is stack-arranged such that one surface or both surfaces of the battery face an adjacent battery to form the battery stack, and in the battery stack, electrode leads (2a, 2b) of the batteries are connected to each other, the battery management system includes a voltage detection unit that includes a relay, a current sensor that includes a shunt resistance is further included between the battery stack and the battery management system, and the heat radiation paint coating layer is included in at least one of the electrode lead, busbar, relay, shunt and constituting components of battery management system.
A water reservoir for a respiratory pressure therapy device, the water reservoir including a cavity structured to hold a volume of water to humidify a flow of breathable gas supplied by the respiratory pressure therapy device, wherein the water reservoir includes a reservoir lid and a reservoir base, and the water reservoir includes a latch configured to releasably engage with a recessed slot provided in a water reservoir dock of the respiratory pressure therapy device to releasably retain the water reservoir in an operative position, wherein the latch includes a locking lever and a lid connector for securing the latch to the reservoir lid, the locking lever including a retaining protrusion at one end of the locking lever to releasably engage into the recessed slot, wherein the locking lever is supported by resilient support members such that the retaining protrusion is resiliently biased to a locked position, and wherein the locking lever includes a finger/thumb grip at the other end of the locking lever, the finger/thumb grip being configured to be manually depressed to pivot the locking lever and the retaining protrusion from a locked position to an unlocked position. wherein the water reservoir includes a reservoir lid and a reservoir base, and the water reservoir includes a latch configured to releasably engage with a recessed slot provided in a water reservoir dock of the respiratory pressure therapy device to releasably retain the water reservoir in an operative position, wherein the latch includes a locking lever and a lid connector for securing the latch to the reservoir lid, the locking lever including a retaining protrusion at one end of the locking lever to releasably engage into the recessed slot, wherein the locking lever is supported by resilient support members such that the retaining protrusion is resiliently biased to a locked position, and wherein the locking lever includes a finger/thumb grip at the other end of the locking lever, the finger/thumb grip being configured to be manually depressed to pivot the locking lever and the retaining protrusion from a locked position to an unlocked position.
A female urinary catheter deployment device, comprising: a housing extending between proximal and distal ends (26, 28); an inner tip secured to the proximal end of the housing and including a proximal end positioned outside of the housing; an outer tip associated with the proximal end of the housing and movable from a closed condition to an open condition; a catheter at least partially positioned within the housing; and an actuator secured to the catheter and movable with respect to the housing, wherein the outer tip defines a protective enclosure for the proximal end of the inner tip when the outer tip is in the closed condition, the inner tip defines a protective enclosure for a proximal end of the catheter when the outer tip is in the closed condition, a portion of the inner tip extends proximally through the outer tip so as to position the proximal end of the inner tip outside of the outer tip when the outer tip is in the open condition, and the actuator is configured to be moved with respect to the housing to advance the proximal end of the catheter proximally through and out of the proximal end of the inner tip when the outer tip is in the open condition. a housing extending between proximal and distal ends (26, 28); an inner tip secured to the proximal end of the housing and including a proximal end positioned outside of the housing; an outer tip associated with the proximal end of the housing and movable from a closed condition to an open condition; a catheter at least partially positioned within the housing; and an actuator secured to the catheter and movable with respect to the housing, wherein the outer tip defines a protective enclosure for the proximal end of the inner tip when the outer tip is in the closed condition, the inner tip defines a protective enclosure for a proximal end of the catheter when the outer tip is in the closed condition, a portion of the inner tip extends proximally through the outer tip so as to position the proximal end of the inner tip outside of the outer tip when the outer tip is in the open condition, and the actuator is configured to be moved with respect to the housing to advance the proximal end of the catheter proximally through and out of the proximal end of the inner tip when the outer tip is in the open condition. the outer tip defines a protective enclosure for the proximal end of the inner tip when the outer tip is in the closed condition, the inner tip defines a protective enclosure for a proximal end of the catheter when the outer tip is in the closed condition, a portion of the inner tip extends proximally through the outer tip so as to position the proximal end of the inner tip outside of the outer tip when the outer tip is in the open condition, and the actuator is configured to be moved with respect to the housing to advance the proximal end of the catheter proximally through and out of the proximal end of the inner tip when the outer tip is in the open condition.
A method for planning a root canal treatment for a patient, wherein a cavity on a tooth to be treated has already been prepared, a surface of the cavity being measured by means of an optical three-dimensional measurement method and three-dimensional measured data on the cavity being generated, characterized in that a 3-D model of a guide template is planned on the basis of the three-dimensional measurement data thereby generated, the dimensions of the guide template being designed as a counterpart to the prepared cavity, wherein a position and an orientation of at least one root canal (4, 5) are determined on the basis of three-dimensional volume data on the tooth to be treated, wherein at least one guide opening (6, 7) for a tool for exposing the root canal (4, 5) is planned, wherein the guide opening (6, 7) is disposed inside the guide template, so that the guide opening (6, 7) points to an entrance point (8, 10) of the root canal (4, 5) and to a direction of an entrance (9, 11) to the root canal (4, 5).
A method of diagnosing Mycobacterium tuberculosis infection in a human, or of determining whether a human has been exposed to Mycobacterium tuberculosis, comprising: (i) contacting T-cells from said human with one or more of (a) a peptide having the sequence shown in SEQ ID NO 20 (b) a peptide having or comprising the sequence of at least 8 consecutive amino acids of the sequence shown in SEQ ID NO 20; or (c) a peptide having at least 70% amino acid identity with a sequence of at least 8 consecutive amino acids of the sequence shown in SEQ ID NO 20, wherein the peptide is capable of binding to a T-cell receptor which recognises a peptide as defined in (a) or (b) and contacting T-cells from said human with T-cells with at least one Mycobacterium tuberculosis T-cell antigen, wherein the at least one antigen is ESAT-6 or fragments thereof which are at least 8 amino acids long or CFP10 or fragments thereof which are at least 8 amino acids long but not both ESAT-6 and CFP10; and (ii) determining whether any of the said T-cells recognise said peptide, wherein steps (i) and (ii) are carried out in vitro. (i) contacting T-cells from said human with one or more of (a) a peptide having the sequence shown in SEQ ID NO 20 (b) a peptide having or comprising the sequence of at least 8 consecutive amino acids of the sequence shown in SEQ ID NO 20; or (c) a peptide having at least 70% amino acid identity with a sequence of at least 8 consecutive amino acids of the sequence shown in SEQ ID NO 20, wherein the peptide is capable of binding to a T-cell receptor which recognises a peptide as defined in (a) or (b) and contacting T-cells from said human with T-cells with at least one Mycobacterium tuberculosis T-cell antigen, wherein the at least one antigen is ESAT-6 or fragments thereof which are at least 8 amino acids long or CFP10 or fragments thereof which are at least 8 amino acids long but not both ESAT-6 and CFP10; and (a) a peptide having the sequence shown in SEQ ID NO 20 (b) a peptide having or comprising the sequence of at least 8 consecutive amino acids of the sequence shown in SEQ ID NO 20; or (c) a peptide having at least 70% amino acid identity with a sequence of at least 8 consecutive amino acids of the sequence shown in SEQ ID NO 20, wherein the peptide is capable of binding to a T-cell receptor which recognises a peptide as defined in (a) or (b) and contacting T-cells from said human with T-cells with at least one Mycobacterium tuberculosis T-cell antigen, wherein the at least one antigen is ESAT-6 or fragments thereof which are at least 8 amino acids long or CFP10 or fragments thereof which are at least 8 amino acids long but not both ESAT-6 and CFP10; and (ii) determining whether any of the said T-cells recognise said peptide, wherein steps (i) and (ii) are carried out in vitro.
A thermal transfer sheet, comprising a transfer layer provided on at least a part of one surface of a substrate, wherein the transfer layer has a multilayer structure formed by stacking two or more layers including a heat seal layer and an anti-blocking layer, the heat seal layer among the layers constituting the transfer layer is positioned closest to the substrate, the anti-blocking layer among the layers constituting the transfer layer is positioned farthest from the substrate, the heat seal layer contains one or both of (i) a polyester having a glass transition temperature (Tg) of 55°C or more and a number average molecular weight (Mn) of 15000 or less, and (ii) a polyester having a glass transition temperature (Tg) of less than 55°C, wherein the anti-blocking layer contains a resin component having a glass transition temperature (Tg) of 55°C or more and a number average molecular weight (Mn) of 20000 or less, and wherein the anti-blocking layer contains a coloring agent. a transfer layer provided on at least a part of one surface of a substrate, wherein the transfer layer has a multilayer structure formed by stacking two or more layers including a heat seal layer and an anti-blocking layer, the heat seal layer among the layers constituting the transfer layer is positioned closest to the substrate, the anti-blocking layer among the layers constituting the transfer layer is positioned farthest from the substrate, the heat seal layer contains one or both of (i) a polyester having a glass transition temperature (Tg) of 55°C or more and a number average molecular weight (Mn) of 15000 or less, and (ii) a polyester having a glass transition temperature (Tg) of less than 55°C, wherein the anti-blocking layer contains a resin component having a glass transition temperature (Tg) of 55°C or more and a number average molecular weight (Mn) of 20000 or less, and wherein the anti-blocking layer contains a coloring agent.
An aircraft multi-functional composite structure, comprising: a composite structure having a first channel; a filler material located in the first channel; a first barrier material associated with walls of a second channel in the filler material; and a number of channels in addition to the second channel in the filler material, wherein a second barrier material covers the walls of the number of channels wherein: the first barrier material provides a waveguide. a composite structure having a first channel; a filler material located in the first channel; a first barrier material associated with walls of a second channel in the filler material; and a number of channels in addition to the second channel in the filler material, wherein a second barrier material covers the walls of the number of channels wherein: the first barrier material provides a waveguide. the first barrier material provides a waveguide.
Breaker for high current or voltage applications for switching or interrupting a high current on/off with high efficiency and fast intervention times, for instance in industrial and/or railways applications said breaker comprising: - a casing; - a base portion in the casing, said base portion supporting: - an activating mechanism for switching means including a holding mechanism (20, 22) and a release mechanism; - an intermediate switching or breaking contact portion, including fixed contacts and movable contacts, and - a top arc chute extinguishing portion covering said intermediate switching or breaking contact portion, characterized in that: said arc chute extinguishing portion is moveable with respect to said switching or breaking contact portion and is provided with external polar expansions that are coupled on both main sides of the breaker; further polar expansions being electrically coupled to said external polar expansions and linked to said intermediate switching or breaking contact portion as fixed part of the breaker. - a casing; - a base portion in the casing, said base portion supporting: - an activating mechanism for switching means including a holding mechanism (20, 22) and a release mechanism; - an intermediate switching or breaking contact portion, including fixed contacts and movable contacts, and - a top arc chute extinguishing portion covering said intermediate switching or breaking contact portion, said arc chute extinguishing portion is moveable with respect to said switching or breaking contact portion and is provided with external polar expansions that are coupled on both main sides of the breaker; further polar expansions being electrically coupled to said external polar expansions and linked to said intermediate switching or breaking contact portion as fixed part of the breaker.
A coupling tool for use with a screw head, said tool comprising a rod having at one end a truncated cone-like surface, a protuberance having at one end a base portion located adjacent said surface and at the other end a pole, said protuberance being substantially spherically-shaped and further having meridional grooves having a curved concave transverse section, separated from one another by spherical lunes having a curved convex external surface which is coincident with the protuberance surface, with said grooves and lunes extending from said base and terminating close to said pole, said truncated cone-like surface is dimensioned, so that it acts as an external stop against the screw head, when a threading or unthreading operation is carried out with an inclination of the tool.
A trajectory frame for use with a surgical system, comprising: a base having a patient access aperture formed therein, wherein the base is configured to be secured to a body of a patient; a yoke movably mounted to the base and rotatable about a roll axis; a platform movably mounted to the yoke and rotatable about a pitch axis; an elongated guide secured to the platform, wherein the guide comprises opposite proximal and distal end portions, wherein the guide distal end portion is positioned proximate the patient access aperture, wherein the guide comprises a bore therethrough that extends from the proximal end portion to the distal end portion, and at least one device received by the guide within the bore, wherein the at least one device is removably secured to the guide, characterised in that the at least one device that is received within the bore is an elongate tracking probe mount (1160; 1190m) holding a tracking probe (1162; 1190) with reflective members (1164; 1194) arranged in a fixed geometric relationship relative to each other, and wherein the reflective members are configured to be detectable by a camera-based tracking system (10N/10T) wherein the tracking probe mount (1160; 1190m) and the trajectory frame comprise image fiducials detectable in CT and/or MRI images to thereby allow a circuit to calculate an intrabody trajectory using two different methods, one calculated using image interrogation of images with the image fiducials and another calculated using a camera-based system with the reflective members. a base having a patient access aperture formed therein, wherein the base is configured to be secured to a body of a patient; a yoke movably mounted to the base and rotatable about a roll axis; a platform movably mounted to the yoke and rotatable about a pitch axis; an elongated guide secured to the platform, wherein the guide comprises opposite proximal and distal end portions, wherein the guide distal end portion is positioned proximate the patient access aperture, wherein the guide comprises a bore therethrough that extends from the proximal end portion to the distal end portion, and at least one device received by the guide within the bore, wherein the at least one device is removably secured to the guide, characterised in that the at least one device that is received within the bore is an elongate tracking probe mount (1160; 1190m) holding a tracking probe (1162; 1190) with reflective members (1164; 1194) arranged in a fixed geometric relationship relative to each other, and wherein the reflective members are configured to be detectable by a camera-based tracking system (10N/10T) wherein the tracking probe mount (1160; 1190m) and the trajectory frame comprise image fiducials detectable in CT and/or MRI images to thereby allow a circuit to calculate an intrabody trajectory using two different methods, one calculated using image interrogation of images with the image fiducials and another calculated using a camera-based system with the reflective members.
A method for enabling debuggability of user script code developed for running in a host application comprising a debugger by transforming the user script code into debuggable code (1052; 1104), comprising: creating traceback methods that call back into the host application to allow the host application to cooperatively operate and update its user-interface in response to user interface events; instrumenting the user script code with script code debugging features selected by a user, comprising a call to a traceback method, said instrumenting comprising transforming the user script code by injecting a call to a traceback method, at one or more potential stopping points in the user script code that are used for debugging, wherein the call is injected prior to respective functions, and/or statement in functions of the user script code; and combining two or more separate script code debugging features in the user script code by using a common helper function that combines respective debugging features into a single transform. creating traceback methods that call back into the host application to allow the host application to cooperatively operate and update its user-interface in response to user interface events; instrumenting the user script code with script code debugging features selected by a user, comprising a call to a traceback method, said instrumenting comprising transforming the user script code by injecting a call to a traceback method, at one or more potential stopping points in the user script code that are used for debugging, wherein the call is injected prior to respective functions, and/or statement in functions of the user script code; and combining two or more separate script code debugging features in the user script code by using a common helper function that combines respective debugging features into a single transform.