mhurhangee/ep-ind-claims huggingface dataset:
Sill assembly, for example for a window or door, said sill assembly comprising a sill and at least one plinth block, wherein said sill comprises a basic sill part and at least one further sill part, for example a stop element or an extension element, wherein said basic sill part and said plinth block comprise mutually cooperating connecting means for connecting the at least one plinth block to the basic sill part, wherein said basic sill part and said at least one further sill part comprise mutually cooperating connecting means for connecting the at least one further sill part to the basic sill part, wherein the mutually cooperating connecting means for connecting the at least one plinth block to the basic sill part and/or the mutually cooperating connecting at means for connecting the at least one further sill part to the basic sill part comprise a recess and a snap projection, wherein the recess is arranged to receive the snap projection, the recess comprising a neck part, which defines a local narrowing of said recess, wherein the snap projection is arranged to be forced by the neck part from a normal, spread position into a squeezed position during connection of the basic sill part to the plinth block and/or the further sill part, and to move back to its spread position after connection thereof, characterized in that said snap projection and/or said neck part is formed by a profile that is attached to one of the basic sill part and the further sill part and the at least one plinth block. wherein said sill comprises a basic sill part and at least one further sill part, for example a stop element or an extension element, wherein said basic sill part and said plinth block comprise mutually cooperating connecting means for connecting the at least one plinth block to the basic sill part, wherein said basic sill part and said at least one further sill part comprise mutually cooperating connecting means for connecting the at least one further sill part to the basic sill part, wherein the mutually cooperating connecting means for connecting the at least one plinth block to the basic sill part and/or the mutually cooperating connecting at means for connecting the at least one further sill part to the basic sill part comprise a recess and a snap projection, wherein the recess is arranged to receive the snap projection, the recess comprising a neck part, which defines a local narrowing of said recess, wherein the snap projection is arranged to be forced by the neck part from a normal, spread position into a squeezed position during connection of the basic sill part to the plinth block and/or the further sill part, and to move back to its spread position after connection thereof, characterized in that said snap projection and/or said neck part is formed by a profile that is attached to one of the basic sill part and the further sill part and the at least one plinth block.
A nanoparticle or nanoparticles' aggregate for therapeutic use in enhancing learning, memorizing or attention in a subject in need thereof, or for use in prevention or treatment of at least one symptom of pathological stress selected from deterioration in learning and memory capacity, in a subject without exposure of the nanoparticle or nanoparticles' aggregate to an electric field nor to any other external activation source, wherein the nanoparticle's or nanoparticles' aggregate's material is selected from a metallic conductor material wherein the metallic element is Ir, Pd, Pt, Au, or any mixture thereof, a semiconductor material with a band gap Eg below 3.0 eV selected from an element from group IVA of the Mendeleev's periodic table, a mixed-metal oxide insulator material with a dielectric constant ε ijk equal to or above 200 and having a band gap Eg equal to or above 3.0 eV when measured at room temperature (25°C) that is a mixed metal oxide selected from BaTiOs, PbTiO 3, KTaNbOs, KTaO 3, SrTiOs and BaSrTiOs, and an insulator material with a dielectric constant ε ijk equal to or below 100 and having a band gap Eg equal to or above 3.0 eV when measured at room temperature (25°C) selected from Al 2 O 3, LaAlOs, La 2 O 3, SiO 2, SnO 2, TazOs, ReO 2, ZrO 2, HfO 2, Y 2 O 3 and carbon diamond, the relative dielectric constant ε ijk being measured between 20°C and 30°C and between 10 2 Hz up to the infrared frequency, wherein i) the median largest size of the core of the nanoparticle or nanoparticles' aggregate of the population is of at least 30 nm when the material is a conductor material, a semiconductor material or an insulator material with a dielectric constant ε ijk equal to or above 200, wherein ii) the core of the nanoparticle or nanoparticles' aggregate is coated with a biocompatible coating providing a neutral or a negative surface charge when measured in a solution of water having a concentration of electrolytes between 0.001 and 0.2 M, a concentration of the nanoparticles' or nanoparticles' aggregates' material between 0.01 and 10 g/L and a pH between 6 and 8, wherein, when the material is a conductor, the biocompatible coating providing a negative surface charge is chosen from an agent providing a phosphate, a citrate, a dicarboxylic acid or a sulphate, wherein, when the biocompatible coating is a polymer, said coating is selected from polyacrylamide, polycarbamide, a biopolymer, a polysaccharide, collagen, polyester, polyether, polyethylene oxide, polyethylene glycol, polyvinyl alcohol, polycaprolactone, polyvinypyrrolidone and polypyrrole, wherein the nanoparticle or nanoparticles' aggregate is not used as carrier of therapeutic compound(s) or drug(s), and wherein "nanoparticles' aggregates" refer to an assemblage of nanoparticles covalently bound to each other.
A system configured to expose at least a portion of an exposure-limited subject to x-ray radiation, the system comprising: at least one source of radiant energy, where at least a first portion of the radiant energy lies within an x-ray spectrum, and where the source is configured so that the first portion of the radiant energy traverses at least a portion of a scanning volume; a filter situated between the source and the portion of the scanning volume; a conveying apparatus configured to impart relative motion between the exposure-limited subject and the portion of the scanning volume such that the portion of the exposure limited subject passes through the portion of the scanning volume; a conveyance monitor configured to generate conveyance data reflecting at least a conveyance state of the exposure-limited subject; a first radiant energy sensing apparatus configured to sense the first portion of radiant energy from the source and to generate source radiant energy data; a second radiant energy sensing apparatus configured to sense at least a portion of radiant energy attenuated by the exposure-limited subject and configured to generate a signal related to subject dose data; and a dose controller configured to acquire the conveyance data, the source radiant energy data, and the signal related to subject dose data, characterized in that the dose controller is further configured to generate a measure that at least the portion of the exposure-limited subject has acquired a dose of radiant energy above a dose threshold; and wherein the dose of radiant energy is representative of an amount of radiant energy absorbed by the exposure-limited subject. at least one source of radiant energy, where at least a first portion of the radiant energy lies within an x-ray spectrum, and where the source is configured so that the first portion of the radiant energy traverses at least a portion of a scanning volume; a filter situated between the source and the portion of the scanning volume; a conveying apparatus configured to impart relative motion between the exposure-limited subject and the portion of the scanning volume such that the portion of the exposure limited subject passes through the portion of the scanning volume; a conveyance monitor configured to generate conveyance data reflecting at least a conveyance state of the exposure-limited subject; a first radiant energy sensing apparatus configured to sense the first portion of radiant energy from the source and to generate source radiant energy data; a second radiant energy sensing apparatus configured to sense at least a portion of radiant energy attenuated by the exposure-limited subject and configured to generate a signal related to subject dose data; and a dose controller configured to acquire the conveyance data, the source radiant energy data, and the signal related to subject dose data,
A computer-implemented method of modeling a fully labeled synthetic stratigraphic column for populating a reservoir model, comprising the steps of: (a) assigning dynamically a plurality of stratigraphic units to the synthetic stratigraphic column based upon pre-selected geological patterns, prior to assigning coordinates for the synthetic stratigraphic column within the reservoir model; (b) assigning dynamically elastic geological properties to each of the stratigraphic units in the synthetic stratigraphic column based upon pre-selected geological patterns; (c) sampling the synthetic stratigraphic column to provide elastic property logs; (d) converting the elastic property logs to a synthetic seismogram; and (e) matching dynamically the synthetic seismogram to a corresponding seismogram in a set of real seismograms associated with respective spatial coordinates, and once the synthetic seismogram is matched to the corresponding seismogram in the set of real seismograms assigning coordinates for the synthetic stratigraphic column within the reservoir model. (a) assigning dynamically a plurality of stratigraphic units to the synthetic stratigraphic column based upon pre-selected geological patterns, prior to assigning coordinates for the synthetic stratigraphic column within the reservoir model; (b) assigning dynamically elastic geological properties to each of the stratigraphic units in the synthetic stratigraphic column based upon pre-selected geological patterns; (c) sampling the synthetic stratigraphic column to provide elastic property logs; (d) converting the elastic property logs to a synthetic seismogram; and (e) matching dynamically the synthetic seismogram to a corresponding seismogram in a set of real seismograms associated with respective spatial coordinates, and once the synthetic seismogram is matched to the corresponding seismogram in the set of real seismograms assigning coordinates for the synthetic stratigraphic column within the reservoir model.
A guide system for supply lines for a handling apparatus, in particular for an industrial robot, comprising a base and a chain-like or hose-like carrier member with circular cross-section, in or on which the supply lines can be arranged, wherein the carrier member is arranged guided for length compensation purposes in a compensating portion in two runs (6, 7) connected together by way of a direction-changing bend with respective end connecting points, a first connecting point which is stationary relative to the base of the guide system and a second connecting point which is movable relative to the base, the second connecting point is reciprocable relative to the first connecting point over a displacement travel (v) between a deflection position in which the carrier member is extended and a return position in which the carrier member is retracted, and the guide system having a return device for returning the carrier member into the return position, the return device having a direction-changing guide with a direction-changing element at which the direction-changing bend is supported laterally for guidance thereof over the displacement travel (v), the direction-changing element is arranged reciprocably in variable-position relationship with at least one travel component in the direction of the displacement travel (v) relative to the base between the deflection position and the return position, and has a lateral guide surface for the direction-changing bend, which surface extends at least approximately perpendicularly to a bend plane in which the direction-changing bend is arranged, characterised in that the direction-changing element is in the form of a direction-changing roller, which is mounted perpendicularly to the bend plane rotatably relative to the base and against which the direction-changing bend rests laterally with a centre angle of 180°, that the return device has a linear guide rail for the direction-changing roller and that the lateral guide surface of the direction-changing roller is of concave semi-circular cross-section corresponding to the circular cross-section of the carrier member.
Drill sleeve for a dental drill, the drill sleeve being essentially hollow cylindrical and having a circular inner surface for guiding the dental drill and an outer surface intended to be inserted into a template, wherein the outer surface of the drill sleeve comprises at least one longitudinal flattened area and the drill sleeve has, in the at least one longitudinal flattened area, a smaller wall thickness than in the other areas of the drill sleeve, characterized in that the outer surface comprises several longitudinal projections in addition to the flattened area and in that the longitudinal projections are interrupted by at least one essentially circular groove.
A laminate comprising a display plate, a light shielding film provided on the display plate and an anti-reflection structure having a fine uneven structure on a surface thereof, wherein, a part of the light shielding film has a non-light shielding portion without a light shielding film; the anti-reflection structure is formed in the non-light shielding portion through an adhesion layer, and the fine uneven structure has an uneven period that is equal to or less than a wavelength of visible light; and a color difference (ΔE) between a reflected light by the light shielding film and a reflected light by the anti-reflection structure expressed in a formula shown below is equal to or less than 1.5. ΔE = a 1 − a 2 2 + b 1 − b 2 2 (where a 1 and b 1 represent a ∗ and b ∗ values of the light reflected by the light shielding film in the CIE1976 (L ∗ a ∗ b ∗) color system, and a 2 and b 2 represent a ∗ and b ∗ values of the light reflected by the anti-reflection structure in the CIE1976 (L ∗ a ∗ b ∗) color system.) a part of the light shielding film has a non-light shielding portion without a light shielding film; the anti-reflection structure is formed in the non-light shielding portion through an adhesion layer, and the fine uneven structure has an uneven period that is equal to or less than a wavelength of visible light; and a color difference (ΔE) between a reflected light by the light shielding film and a reflected light by the anti-reflection structure expressed in a formula shown below is equal to or less than 1.5. ΔE = a 1 − a 2 2 + b 1 − b 2 2 (where a 1 and b 1 represent a ∗ and b ∗ values of the light reflected by the light shielding film in the CIE1976 (L ∗ a ∗ b ∗) color system, and a 2 and b 2 represent a ∗ and b ∗ values of the light reflected by the anti-reflection structure in the CIE1976 (L ∗ a ∗ b ∗) color system.)
A flow control system for kick prevention during well drilling, the system comprising: a conduit defining a channel configured to accommodate a drill pipe and a flow of a returning drilling fluid; a sensor array configured to detect a flow rate of the returning drilling fluid; and characterised by a flow control device comprising a first holding element and a second holding element configured to hold the drill pipe in the conduit and defining a plurality of respective holes (29,30) to control the flow rate of the returning drilling fluid in the conduit in response to an event detected by the sensor array, the flow control device being proximate to the sensor array. a conduit defining a channel configured to accommodate a drill pipe and a flow of a returning drilling fluid; a sensor array configured to detect a flow rate of the returning drilling fluid; and characterised by a flow control device comprising a first holding element and a second holding element configured to hold the drill pipe in the conduit and defining a plurality of respective holes (29,30) to control the flow rate of the returning drilling fluid in the conduit in response to an event detected by the sensor array, the flow control device being proximate to the sensor array.
A unitary composition comprising tenofovir DF, efavirenz and emtricitabine and a surfactant whereby the tenofovir DF is in a first component and the efavirenz and the surfactant are in a second component, wherein the first and second components are physically discrete, and wherein the total amount of efavirenz, emtricitabine and tenofovir DF is greater than about 60% by weight of the composition.
A detector for determining a position of at least one object, the detector having - at least two optical sensors (118, 120, 176), each optical sensor (118, 120, 176) having a light-sensitive area (122, 124), wherein each light-sensitive area (122, 124) has a geometrical center (182, 184), wherein the geometrical centers (182, 184) of the optical sensors (118, 120, 176) are spaced apart from an optical axis of the detector by different spatial offsets, wherein each optical sensor (118, 120, 176) is configured to generate a sensor signal in response to an illumination of its respective light-sensitive area (122, 124) by a light beam propagating from the object to the detector; and - at least one evaluation device being configured for determining at least one longitudinal coordinate z of the object by combining the at least two sensor signals, wherein each of the sensor signals comprises at least one information of at least one area of the beam profile of at least one beam profile of the light beam; characterized in that the light-sensitive areas (122, 124) are arranged such that a first sensor signal comprises information of a first area of the beam profile and a second sensor signal comprises information of a second area of the beam profile, wherein the first area of the beam profile and the second area of the beam profile are one or both of adjacent or overlapping regions, wherein the first area of the beam profile comprises essentially edge information of the beam profile and the second area of the beam profile comprises essentially center information of the beam profile, wherein the evaluation device is configured for deriving at least one quotient signal Q by one or more of dividing the sensor signals, dividing multiples of the sensor signals or dividing linear combinations of the sensor signals, and wherein the evaluation device is further configured for determining the longitudinal coordinate by evaluating the quotient signal Q. - at least two optical sensors (118, 120, 176), each optical sensor (118, 120, 176) having a light-sensitive area (122, 124), wherein each light-sensitive area (122, 124) has a geometrical center (182, 184), wherein the geometrical centers (182, 184) of the optical sensors (118, 120, 176) are spaced apart from an optical axis of the detector by different spatial offsets, wherein each optical sensor (118, 120, 176) is configured to generate a sensor signal in response to an illumination of its respective light-sensitive area (122, 124) by a light beam propagating from the object to the detector; and - at least one evaluation device being configured for determining at least one longitudinal coordinate z of the object by combining the at least two sensor signals, wherein each of the sensor signals comprises at least one information of at least one area of the beam profile of at least one beam profile of the light beam;
A crimping drum for a pressing tool for processing strips of interconnected wire ferrules, comprising a housing having a movement axis and a die part arranged thereon, which die part has a nest to accommodate a wire ferrule of the strip, characterized in that the die part is mounted resiliently in a die receptacle of the housing.
A detector inlet for providing a sample to an analytical apparatus for detecting a substance of interest, the detector inlet comprising: a plenum for allowing passage of a flow of a gaseous fluid, the plenum comprising a sampling volume; a sampling inlet arranged in the plenum wherein the sampling inlet comprises a pinhole inlet arranged to collect samples of the gaseous fluid from the sampling volume and to provide the samples to the analytical apparatus, wherein the flow carries particulates; and a flow director arranged to create circulatory flow of the gaseous fluid around the plenum, said circulatory flow encircling the sampling inlet thereby to vary a spatial distribution of the particulates carried by the fluid to increase a relative proportion of the particulates carried past the sampling inlet without entering the sampling volume. a plenum for allowing passage of a flow of a gaseous fluid, the plenum comprising a sampling volume; a sampling inlet arranged in the plenum wherein the sampling inlet comprises a pinhole inlet arranged to collect samples of the gaseous fluid from the sampling volume and to provide the samples to the analytical apparatus, wherein the flow carries particulates; and a flow director arranged to create circulatory flow of the gaseous fluid around the plenum, said circulatory flow encircling the sampling inlet thereby to vary a spatial distribution of the particulates carried by the fluid to increase a relative proportion of the particulates carried past the sampling inlet without entering the sampling volume.
A method of producing a dental restoration, comprising the steps of: - producing a pillared support structure on the dental restoration which is arranged on a building panel and extends from the building panel to the dental restoration; and - producing a lattice structure for reinforcing the support structure which is arranged laterally adjacent to the support structure. - producing a pillared support structure on the dental restoration which is arranged on a building panel and extends from the building panel to the dental restoration; and - producing a lattice structure for reinforcing the support structure which is arranged laterally adjacent to the support structure.
A compound of formula: X-A-Y wherein A is a bond, a sulphur atom or a group of formula -SO- or -SO 2 -, wherein X is selected from the following structures or and wherein Y has the following formula wherein one hydrogen atom is replaced by the bond to A or X or a pharmaceutically acceptable salt, solvate or hydrate or a pharmaceutically acceptable formulation thereof. wherein A is a bond, a sulphur atom or a group of formula -SO- or -SO 2 -, wherein X is selected from the following structures or and wherein Y has the following formula wherein one hydrogen atom is replaced by the bond to A or X or a pharmaceutically acceptable salt, solvate or hydrate or a pharmaceutically acceptable formulation thereof.