mhurhangee/ep-ind-claims huggingface dataset:
Circuit for actuating a light with at least one LED as the lighting means, wherein the circuit comprises an interface for a temperature sensor and an output for the provision or regulating of a supply current for the at least one LED, wherein the circuit is configured such as to alter the supply current as a function of the temperature being measured at the particular time by the temperature sensor and of a parameter dependent on the duration of operation of the LED, in order to compensate for a change in the light flux from the LED incurred by the temperature and by the ageing of the LED, characterized in that the parameter dependent on the duration of operation of the LED is weighted by the temperature values to which the LED was subjected in operation and/or in the disconnected state, or the parameter dependent on the duration of operation of the LED is determined by the location at which the LED is being operated, in particular dependent on the average temperature at the location and/or an average dark phase, which defines the duration of burning of the LED at that location.
Guided light source, comprising: - at least one quantum box associated with a discoid wave guide to achieve cylindrical propagation of a wave front emitted by the at least one quantum box in the discoid wave guide; - an annular wave guide surrounding said discoid wave guide and having a grating coupler formed on its internal periphery to receive said wave front in normal incidence; - an output wave guide optically coupled to the annular wave guide. - at least one quantum box associated with a discoid wave guide to achieve cylindrical propagation of a wave front emitted by the at least one quantum box in the discoid wave guide; - an annular wave guide surrounding said discoid wave guide and having a grating coupler formed on its internal periphery to receive said wave front in normal incidence; - an output wave guide optically coupled to the annular wave guide.
An automatic measurement point recognition method wherein a measurement point in a cephalometric image is automatically recognized with an arithmetic processor, the method comprising: a step of detecting, from a cephalometric image acquired from a subject, a plurality of peripheral partial regions different from one another that have been predetermined with respect to a feature point of interest, a step of estimating a candidate position of the feature point in each of the peripheral partial regions using a deep learning model trained to learn positions of the feature point in peripheral partial regions, and a step of determining a most likely estimated position of the feature point in the cephalometric image based on the distribution of the candidate positions estimated, and determining that the most likely estimated position is the position of the measurement point. a step of detecting, from a cephalometric image acquired from a subject, a plurality of peripheral partial regions different from one another that have been predetermined with respect to a feature point of interest, a step of estimating a candidate position of the feature point in each of the peripheral partial regions using a deep learning model trained to learn positions of the feature point in peripheral partial regions, and a step of determining a most likely estimated position of the feature point in the cephalometric image based on the distribution of the candidate positions estimated, and determining that the most likely estimated position is the position of the measurement point.
Process for producing keto-isophorone by catalytic oxidation of β-isophorone in the presence of at least one catalyst and hydrogen peroxide in a one-pot synthesis, wherein the oxidation is effected in the presence of at least one phase transfer reagent in a biphasic system consisting of A) at least one organic phase and B) at least one aqueous phase wherein the biphasic system comprises: 1) at least one tungsten polyoxyometallate as catalyst and hydrogen peroxide, and/or 2) a mixture of a) at least one mineral acid, b) hydrogen peroxide, c) at least one metal tungstate. A) at least one organic phase and B) at least one aqueous phase wherein the biphasic system comprises: 1) at least one tungsten polyoxyometallate as catalyst and hydrogen peroxide, and/or 2) a mixture of a) at least one mineral acid, b) hydrogen peroxide, c) at least one metal tungstate. 1) at least one tungsten polyoxyometallate as catalyst and hydrogen peroxide, and/or 2) a mixture of a) at least one mineral acid, b) hydrogen peroxide, c) at least one metal tungstate. a) at least one mineral acid, b) hydrogen peroxide, c) at least one metal tungstate.
Blocking apparatus (10, 10b), in particular for a fire damper (114, 120), comprising: - a holding apparatus, - a receiving element which is rotatably mounted in the holding apparatus about an axis of rotation and has a through-opening, the through-axis of which is coaxial or parallel to the axis of rotation, - a wrap spring (130, 130b) of the blocking apparatus (10, 10b) which is held mechanically prestressed in the holding apparatus, and of which at least one winding is arranged around the receiving element, and containing - at least one thermocouple (140, 142), made of a material having a lower melting temperature than the material having the lowest melting temperature in the holding apparatus and/or than the melting temperature of the material of the wrap spring (130, 130b), - wherein the at least one thermocouple (140, 142) holds at least one end (132, 134) of the wrap spring (130, 130b) with respect to the holding apparatus in the prestressed state in such a way that the receiving element can be freely rotated in both drive directions (160, 170) about the axis of rotation and that the receiving element is blocked in one of the two drive directions in the relaxed state of the wrap spring (130, 130b) and in the triggered state of the at least one thermal fuse (140, 142). - a holding apparatus, - a receiving element which is rotatably mounted in the holding apparatus about an axis of rotation and has a through-opening, the through-axis of which is coaxial or parallel to the axis of rotation, - a wrap spring (130, 130b) of the blocking apparatus (10, 10b) which is held mechanically prestressed in the holding apparatus, and of which at least one winding is arranged around the receiving element, and containing - at least one thermocouple (140, 142), made of a material having a lower melting temperature than the material having the lowest melting temperature in the holding apparatus and/or than the melting temperature of the material of the wrap spring (130, 130b), - wherein the at least one thermocouple (140, 142) holds at least one end (132, 134) of the wrap spring (130, 130b) with respect to the holding apparatus in the prestressed state in such a way that the receiving element can be freely rotated in both drive directions (160, 170) about the axis of rotation and that the receiving element is blocked in one of the two drive directions in the relaxed state of the wrap spring (130, 130b) and in the triggered state of the at least one thermal fuse (140, 142).
A piezoelectric power generating device (1, 2, 3, 4) comprising: a piezoelectric element having a first surface that is positioned on one side in a first direction (x) and a second surface that is positioned on the other side in the first direction (x) and opposes the first surface; a stopper having a first contact surface (21 a) that is in contact with the first surface; and a lever including a contact portion that includes a second contact surface (31 a) that is in contact with the second surface and including a displacement portion that is positioned further toward the one side in the first direction (x) than the second surface and than the first surface, the lever being arranged in such a manner as to be rotatable relative to the stopper around a rotation axis extending in a second direction (y) that is perpendicular to the first direction (x), wherein the lever is arranged in such a manner that the second contact surface presses the second surface when the displacement portion rotates relative to the stopper around the rotation axis, and wherein the lever is rotatably supported by the stopper, and further wherein the displacement portion is disposed in an area inside the stopper in the second direction (y). a piezoelectric element having a first surface that is positioned on one side in a first direction (x) and a second surface that is positioned on the other side in the first direction (x) and opposes the first surface; a stopper having a first contact surface (21 a) that is in contact with the first surface; and a lever including a contact portion that includes a second contact surface (31 a) that is in contact with the second surface and including a displacement portion that is positioned further toward the one side in the first direction (x) than the second surface and than the first surface, the lever being arranged in such a manner as to be rotatable relative to the stopper around a rotation axis extending in a second direction (y) that is perpendicular to the first direction (x), wherein the lever is arranged in such a manner that the second contact surface presses the second surface when the displacement portion rotates relative to the stopper around the rotation axis, and wherein the lever is rotatably supported by the stopper, and further wherein the displacement portion is disposed in an area inside the stopper in the second direction (y).
Chain lubricant or belt lubricant for the water-reduced lubrication of conveyor belts for bottles, cans, and other containers and boxes, with a silicone oil that has a viscosity of 70-200 cSt at room temperature, and with a multi-functional amine and at least one adjuvant selected from the group consisting of anionic, nonionic, cationic and/or amphoteric surfactants, as emulsion in the aqueous phase; where the amine is selected from amine salts in which the cation includes primary, secondary, tertiary and/or quaternary amines, and the anion as an organic radical is a surfactant, with a molecular weight of more than 350, preferably more than 400, and the chain lubricant or belt lubricant has - 5 - 95 wt. aqueous phase, - 0.01 - 30 wt.-% Silicone oil, - 0.01- 40 wt.-% multi-functional amine and - 0.01 - 25 wt.-% surfactant. - 5 - 95 wt. aqueous phase, - 0.01 - 30 wt.-% Silicone oil, - 0.01- 40 wt.-% multi-functional amine and - 0.01 - 25 wt.-% surfactant.
A radiation source system with (i) a radiation source comprising - a first zone that emits radiation and - at least a second zone that emits radiation, and (ii) an image capturing system that is configured to automatically carry out a method featuring the steps: (a) capturing a radiation source with a sufficiently constant radiation density in terms of time with the image capturing system so that a primary image is obtained, (b) capturing this radiation source with column shift so that a column shift image is obtained, (c) capturing this radiation source with row shift, so that a row shift image is obtained (d) calculating a correction factor matrix from the primary image, the column shift image and the row shift image wherein the correction factor matrix contains correction parameters that describe a local distribution of a radiation property of the radiation source or, characterised in that (iii) the image capturing system is connected to the radiation source for regulating individual zones of the radiation source to a predetermined local distribution of a radiation property. (i) a radiation source comprising - a first zone that emits radiation and - at least a second zone that emits radiation, and - a first zone that emits radiation and - at least a second zone that emits radiation, and (ii) an image capturing system that is configured to automatically carry out a method featuring the steps: (a) capturing a radiation source with a sufficiently constant radiation density in terms of time with the image capturing system so that a primary image is obtained, (b) capturing this radiation source with column shift so that a column shift image is obtained, (c) capturing this radiation source with row shift, so that a row shift image is obtained (d) calculating a correction factor matrix from the primary image, the column shift image and the row shift image wherein the correction factor matrix contains correction parameters that describe a local distribution of a radiation property of the radiation source or, characterised in that (a) capturing a radiation source with a sufficiently constant radiation density in terms of time with the image capturing system so that a primary image is obtained, (b) capturing this radiation source with column shift so that a column shift image is obtained, (c) capturing this radiation source with row shift, so that a row shift image is obtained (d) calculating a correction factor matrix from the primary image, the column shift image and the row shift image wherein the correction factor matrix contains correction parameters that describe a local distribution of a radiation property of the radiation source or, (iii) the image capturing system is connected to the radiation source for regulating individual zones of the radiation source to a predetermined local distribution of a radiation property.
A sensor probe, comprising: a Rogowski coil forming a loop having first and second leads at opposing ends of the loop, the loop having a central region configured to receive a conductor; and a non-contact sensor coupled to the Rogowski coil, the non-contact sensor including a non-contact sensor element and a clamp having a pair of clamping jaws, the pair of clamping jaws being configured to hold the conductor in the central region of the loop formed by the Rogowski coil, wherein the non-contact sensor element is configured to press against the conductor to sense an electrical characteristic of the conductor; wherein the sensor probe is characterised in that the non-contact sensor is configured to be separated from the Rogowski coil in a separated state, wherein the non-contact sensor and the Rogowski coil are operable in the separated state. a Rogowski coil forming a loop having first and second leads at opposing ends of the loop, the loop having a central region configured to receive a conductor; and a non-contact sensor coupled to the Rogowski coil, the non-contact sensor including a non-contact sensor element and a clamp having a pair of clamping jaws, the pair of clamping jaws being configured to hold the conductor in the central region of the loop formed by the Rogowski coil, wherein the non-contact sensor element is configured to press against the conductor to sense an electrical characteristic of the conductor; wherein the sensor probe is characterised in that the non-contact sensor is configured to be separated from the Rogowski coil in a separated state, wherein the non-contact sensor and the Rogowski coil are operable in the separated state.
An antiplaque oral formulation, consisting of: a chelating agent selected from ethylenediamine tetraacetic acid (EDTA), ethylene glycol tetraacetic acid (EGTA), cyclohexanediamine tetraacetic acid (CDTA), hydroxyethylethylenediamine triacetic acid (HEDTA), diethylenetriamine pentaacetic acid (DTPA), dimercaptopropane sulfonic acid (DMPS), dimercaptosuccinic acid (DMSA), aminotrimethylene phosphonic acid (ATPA), citric acid, acetic acid and acceptable salts thereof, and any combinations thereof, a transport enhancer that is methylsulfonylmethane; a thickening agent in an amount sufficient for the formulation to have a viscosity above 10,000 cps; an orally acceptable vehicle or base for the formulation; and one or more additives selected from polishing agents, surfactants, humectants, solvents, sweeteners, tooth hardeners, anti-tartar agents, anti-calculus agents, flavoring agents, antibacterial agents, coloring agents, isotonic agents, buffering agents and preservatives, wherein the chelating agent and the transport enhancer are present in a proportion effective to bring about a significant plaque reduction as measured by the Loe-Sillness index on the teeth of a user of the oral formulation following at least two weeks of twice-daily application, wherein the percentage of chelator is about 0.1% to 40% and the percentage of transport enhancer in the formulation is about 0.1% to 80% by weight, respectively, and wherein the oral formulation is in the form of a paste or gel. a chelating agent selected from ethylenediamine tetraacetic acid (EDTA), ethylene glycol tetraacetic acid (EGTA), cyclohexanediamine tetraacetic acid (CDTA), hydroxyethylethylenediamine triacetic acid (HEDTA), diethylenetriamine pentaacetic acid (DTPA), dimercaptopropane sulfonic acid (DMPS), dimercaptosuccinic acid (DMSA), aminotrimethylene phosphonic acid (ATPA), citric acid, acetic acid and acceptable salts thereof, and any combinations thereof, a transport enhancer that is methylsulfonylmethane; a thickening agent in an amount sufficient for the formulation to have a viscosity above 10,000 cps; an orally acceptable vehicle or base for the formulation; and one or more additives selected from polishing agents, surfactants, humectants, solvents, sweeteners, tooth hardeners, anti-tartar agents, anti-calculus agents, flavoring agents, antibacterial agents, coloring agents, isotonic agents, buffering agents and preservatives, wherein the chelating agent and the transport enhancer are present in a proportion effective to bring about a significant plaque reduction as measured by the Loe-Sillness index on the teeth of a user of the oral formulation following at least two weeks of twice-daily application, wherein the percentage of chelator is about 0.1% to 40% and the percentage of transport enhancer in the formulation is about 0.1% to 80% by weight, respectively, and wherein the oral formulation is in the form of a paste or gel.
A method performed by one or more computers, the method comprising: obtaining an input sequence; processing the input sequence using a first LSTM neural network to convert the input sequence into an alternative representation for the input sequence; and processing the alternative representation for the input sequence using a second LSTM neural network to generate a target sequence for the input sequence; wherein the input sequence comprises a sequence of graphemes and the target sequence comprises a plurality of outputs arranged according to an output order, the plurality of outputs providing a phoneme representation of the sequence of graphemes; wherein processing the alternative representation for the input sequence using the second LSTM neural network comprises: processing the alternative representation using the second LSTM neural network only once by initializing a hidden state of the second LSTM neural network to the alternative representation for the input sequence; and updating the hidden state based upon a selected candidate output and the current hidden state. obtaining an input sequence; processing the input sequence using a first LSTM neural network to convert the input sequence into an alternative representation for the input sequence; and processing the alternative representation for the input sequence using a second LSTM neural network to generate a target sequence for the input sequence; wherein the input sequence comprises a sequence of graphemes and the target sequence comprises a plurality of outputs arranged according to an output order, the plurality of outputs providing a phoneme representation of the sequence of graphemes; processing the alternative representation using the second LSTM neural network only once by initializing a hidden state of the second LSTM neural network to the alternative representation for the input sequence; and updating the hidden state based upon a selected candidate output and the current hidden state.
A liposomal composition, comprising: a membrane, comprising: a first phospholipid; cholesterol; a second phospholipid, the second phospholipid being derivatized with a polymer; and a third phospholipid, the third phospholipid being a phospholipid-polymer-aromatic compound conjugate, the aromatic compound in the phospholipid-polymer-aromatic compound conjugate being represented by one of Formulas I, II, III, IV, V, VI, or VII: wherein: R, R 1, R 2, R 1 ', and R 2 ' are independently H, F, Cl, Br, I, alkyl, aryl, OH, O-alkyl, O-aryl, NH 2, NH-alkyl, N-dialkyl, carboxyl, sulfonyl, carbamoyl, or glycosyl; and a, b, c, d, e are independently C, N, O, or S; and a nonradioactive magnetic resonance imaging contrast enhancing agent at least one of encapsulated by or bound to the membrane. a membrane, comprising: a first phospholipid; cholesterol; a second phospholipid, the second phospholipid being derivatized with a polymer; and a third phospholipid, the third phospholipid being a phospholipid-polymer-aromatic compound conjugate, the aromatic compound in the phospholipid-polymer-aromatic compound conjugate being represented by one of Formulas I, II, III, IV, V, VI, or VII: wherein: R, R 1, R 2, R 1 ', and R 2 ' are independently H, F, Cl, Br, I, alkyl, aryl, OH, O-alkyl, O-aryl, NH 2, NH-alkyl, N-dialkyl, carboxyl, sulfonyl, carbamoyl, or glycosyl; and a, b, c, d, e are independently C, N, O, or S; and a first phospholipid; cholesterol; a second phospholipid, the second phospholipid being derivatized with a polymer; and a third phospholipid, the third phospholipid being a phospholipid-polymer-aromatic compound conjugate, the aromatic compound in the phospholipid-polymer-aromatic compound conjugate being represented by one of Formulas I, II, III, IV, V, VI, or VII: wherein: R, R 1, R 2, R 1 ', and R 2 ' are independently H, F, Cl, Br, I, alkyl, aryl, OH, O-alkyl, O-aryl, NH 2, NH-alkyl, N-dialkyl, carboxyl, sulfonyl, carbamoyl, or glycosyl; and a, b, c, d, e are independently C, N, O, or S; and R, R 1, R 2, R 1 ', and R 2 ' are independently H, F, Cl, Br, I, alkyl, aryl, OH, O-alkyl, O-aryl, NH 2, NH-alkyl, N-dialkyl, carboxyl, sulfonyl, carbamoyl, or glycosyl; and a, b, c, d, e are independently C, N, O, or S; and a nonradioactive magnetic resonance imaging contrast enhancing agent at least one of encapsulated by or bound to the membrane.