mhurhangee/ep-ind-claims huggingface dataset:
A therapeutic system, comprising: a) a laser source; comprising a laser, laser optics and a coordinate system for directing the delivery of a therapeutic laser beam from the laser source to an eye of a patient; b) a processor; the processor configured to execute instructions stored in a memory; and, c) a control system; wherein the control system is in communication with the processor and the laser source; d) wherein the memory is configured to have a pre-treatment image of an iris of the eye of the patient and a treatment image of the iris of the eye of the patient; e) wherein the instructions comprise: i) a global correlation algorithm configured to determine a correlation function for registration of the eye based upon the pre-treatment and treatment images; and, ii) wherein the algorithm is configured to determine the correlation function, without singling out particular points in the pre-treatment and treatment images; f) whereby the laser system is configured to align the coordinate system based at least in part upon the correlation function. a) a laser source; comprising a laser, laser optics and a coordinate system for directing the delivery of a therapeutic laser beam from the laser source to an eye of a patient; b) a processor; the processor configured to execute instructions stored in a memory; and, c) a control system; wherein the control system is in communication with the processor and the laser source; d) wherein the memory is configured to have a pre-treatment image of an iris of the eye of the patient and a treatment image of the iris of the eye of the patient; e) wherein the instructions comprise: i) a global correlation algorithm configured to determine a correlation function for registration of the eye based upon the pre-treatment and treatment images; and, ii) wherein the algorithm is configured to determine the correlation function, without singling out particular points in the pre-treatment and treatment images; i) a global correlation algorithm configured to determine a correlation function for registration of the eye based upon the pre-treatment and treatment images; and, ii) wherein the algorithm is configured to determine the correlation function, without singling out particular points in the pre-treatment and treatment images; f) whereby the laser system is configured to align the coordinate system based at least in part upon the correlation function.
A matte coating composition comprising an aqueous dispersion of: a) polymer particles having an average particle size in the range of from 80 nm to 500 nm as measured using a Brookhaven BI90 particle analyzer; b) polymeric organic crosslinked microspheres having a median weight average particle size D 50 in the range of from 1 μm to 20 μm as measured using Disc Centrifuge Photosedimentometer; c) polyethylene wax particles having an average particle size as measured by Malvern Zetasizer Nano-S-90 Particle Size Analyzer in the range of from 0.3 μm to 30 μm; and d) a rheology modifier; wherein, based on the weight of the composition, the concentration of polymer particles is in the range of from 4 to 40 weight percent; the concentration of the polymeric organic crosslinked microspheres is in the range of from 4 to 35 weight percent; the concentration of polyethylene wax particles is in the range from 0.05 to 5 weight percent; and the concentration of the rheology modifier is in the range of from 0.1 to 5 weight percent. a) polymer particles having an average particle size in the range of from 80 nm to 500 nm as measured using a Brookhaven BI90 particle analyzer; b) polymeric organic crosslinked microspheres having a median weight average particle size D 50 in the range of from 1 μm to 20 μm as measured using Disc Centrifuge Photosedimentometer; c) polyethylene wax particles having an average particle size as measured by Malvern Zetasizer Nano-S-90 Particle Size Analyzer in the range of from 0.3 μm to 30 μm; and d) a rheology modifier; wherein, based on the weight of the composition, the concentration of polymer particles is in the range of from 4 to 40 weight percent; the concentration of the polymeric organic crosslinked microspheres is in the range of from 4 to 35 weight percent; the concentration of polyethylene wax particles is in the range from 0.05 to 5 weight percent; and the concentration of the rheology modifier is in the range of from 0.1 to 5 weight percent.
Method for determining a reference dose parameter of a computed tomography imaging, comprising the following method steps: - First receipt (REC-1) of a water equivalent diameter of a slice plane of an examination volume by means of an interface, - First determination (DET-1) of a noise level based on the water equivalent diameter by means of a computer unit, wherein the noise level is an upper threshold value for the noise of a CT image dataset, - Second determination (DET-2) of a reference dose parameter based on the noise level and the water equivalent diameter by means of the computer unit, wherein the reference dose parameter corresponds to a first x-ray dose, which would be absorbed in the slice plane during a recording of a first CT image dataset of the examination volume if the noise of the first CT image dataset corresponds to the noise level, wherein the reference dose parameter is indirectly proportional to a power of the noise level. - First receipt (REC-1) of a water equivalent diameter of a slice plane of an examination volume by means of an interface, - First determination (DET-1) of a noise level based on the water equivalent diameter by means of a computer unit, wherein the noise level is an upper threshold value for the noise of a CT image dataset, - Second determination (DET-2) of a reference dose parameter based on the noise level and the water equivalent diameter by means of the computer unit, wherein the reference dose parameter corresponds to a first x-ray dose, which would be absorbed in the slice plane during a recording of a first CT image dataset of the examination volume if the noise of the first CT image dataset corresponds to the noise level, wherein the reference dose parameter is indirectly proportional to a power of the noise level.
Method for detecting insufficient contact pressure between the two contacts of an electrical switching unit, said unit comprising means for resetting the mechanism for controlling the switching unit following closure of the mechanism, said resetting means comprising means for compressing a closure spring intended to bring the mechanism for controlling the unit to a position in which it is ready to close, said resetting means also comprising a motor able to complete the closure manoeuvre of the control mechanism, in the event of incomplete closure by said control mechanism and before carrying out the resetting, said insufficient contact pressure being the result of wear in the mechanism, the kinematic chain, the motor, the parts involved in compressing the closure spring, or in the event of incomplete closure independent of any wear, the method consisting in detecting whether the motor completes the closure and/or whether the resetting torque corresponds to a resetting torque called normal resetting torque, by analysing the envelope curve of current (2, 4) consumed by the motor over time, in order to carry out the resetting following the closure manoeuvre of the control mechanism, and, if the motor completes the closure, deducing therefrom that the wear is the result of wear in the mechanism, in the kinematic chain or in the motor, and/or if the resetting torque corresponds to an abnormal resetting torque, deducing therefrom that the wear corresponds to wear in the motor or in the parts involved in compressing the closure spring, characterized in that the method makes it possible to distinguish between wear in the mechanism, in the kinematic chain, incomplete closure independent of any wear, wear in the motor or in specific parts of the mechanism for compressing the closure spring. the method consisting in detecting whether the motor completes the closure and/or whether the resetting torque corresponds to a resetting torque called normal resetting torque, by analysing the envelope curve of current (2, 4) consumed by the motor over time, in order to carry out the resetting following the closure manoeuvre of the control mechanism, and, if the motor completes the closure, deducing therefrom that the wear is the result of wear in the mechanism, in the kinematic chain or in the motor, and/or if the resetting torque corresponds to an abnormal resetting torque, deducing therefrom that the wear corresponds to wear in the motor or in the parts involved in compressing the closure spring, characterized in that the method makes it possible to distinguish between wear in the mechanism, in the kinematic chain, incomplete closure independent of any wear, wear in the motor or in specific parts of the mechanism for compressing the closure spring.
Switchgear system, especially medium-voltage switchgear system, comprising a plurality of switching devices, cable connections and/or busbars which are arranged in a switchgear cabinet, the one or more switching devices being arranged in a metal-encapsulated container which is filled with insulating gas above a plurality of fuse cassettes containing fuse elements in the switchgear cabinet, characterized in that the container is provided with at least one pressure relief device having a predetermined direction of relief, at least one bulkhead element (22.1 to 22.n) being associated with the fuse cassettes on at least one side facing the direction of relief, the bulkhead element (22.1 to 22.n) arranged in the area of the fuse cassette in the direction of relief of the pressure relief device preventing an escape of hot gases into a fuse compartment by specifically diverting the gases into a discharge channel.
Portable power tool device having at least a driveshaft (12a-u), a drive motor (14a-u), an application tool fastening (16a-u) and at least a bearing unit (18a-u) which is provided to support the driveshaft (12a-u) on a side (20a-u) of the drive motor (14a-u) that is remote from the application tool fastening (16a-u), having a sealing device which is provided to seal off at least a region (24a-u) which is located axially next to the bearing unit (18a-u) and is arranged on a side (20a-u) of the bearing unit (18a-u) that is remote from the application tool fastening (16a-u), characterized in that the sealing device has at least one sealing element (26a-u, 28g) which is formed separately from the bearing unit (18a-u).
A converter device for using single phase input power to provide power to a three phase device, comprising: a phase locked loop portion that uses an estimated direct component and an estimated quadrature component based on the single phase input power, wherein the phase locked loop portion has three phase inputs (44, 46, 48) and wherein, when receiving the single phase input power, one of the three phase inputs (44, 46, 48) is set at zero volts and the other two of the three phase inputs (44, 46, 48) are coupled to leads of the single phase input power. a phase locked loop portion that uses an estimated direct component and an estimated quadrature component based on the single phase input power, wherein the phase locked loop portion has three phase inputs (44, 46, 48) and wherein, when receiving the single phase input power, one of the three phase inputs (44, 46, 48) is set at zero volts and the other two of the three phase inputs (44, 46, 48) are coupled to leads of the single phase input power.
A foreign matter detection device mounted on a non-contact power supply system that supplies power in a non-contact manner from a power supply unit to a power reception unit, the foreign matter detection device comprising: a magnetic field sensor for detecting an amount of magnetic flux that changes due to foreign matter existing between the power supply unit and the power reception unit; and a magnetic field generation unit that includes at least one magnetic field generation coil unit (11, 11A, 11B1, 11B2, 11C1, 11C2, 11D1, 11D2, 11E, 11F1, 11F2, 11H, 11K1, 11K2, 11L1, 11L2, 11U1, 11U2, 11V1, 11V2, 11Y1, 11Y2), and generates a magnetic field for driving the magnetic field sensor, wherein the non-contact power supply system includes the power supply unit having a power supply coil and the power reception unit having a power reception coil, characterized in that the magnetic field generation unit is provided separately from the power supply unit and the power reception unit, the magnetic field generation unit is disposed at a location in which a magnetic field component in a normal line direction of the plane including the at least one magnetic field generation coil unit (11, 11A, 11B1, 11B2, 11C1, 11C2, 11D1, 11D2, 11E, 11F1, 11F2, 11H, 11K1, 11K2, 11L1, 11L2, 11U1, 11U2, 11V1, 11V2, 11Y1, 11Y2) is relatively small or zero, out of a magnetic field formed by the power supply coil and the power reception coil. a magnetic field sensor for detecting an amount of magnetic flux that changes due to foreign matter existing between the power supply unit and the power reception unit; and a magnetic field generation unit that includes at least one magnetic field generation coil unit (11, 11A, 11B1, 11B2, 11C1, 11C2, 11D1, 11D2, 11E, 11F1, 11F2, 11H, 11K1, 11K2, 11L1, 11L2, 11U1, 11U2, 11V1, 11V2, 11Y1, 11Y2), and generates a magnetic field for driving the magnetic field sensor, wherein the non-contact power supply system includes the power supply unit having a power supply coil and the power reception unit having a power reception coil, characterized in that the magnetic field generation unit is provided separately from the power supply unit and the power reception unit, the magnetic field generation unit is disposed at a location in which a magnetic field component in a normal line direction of the plane including the at least one magnetic field generation coil unit (11, 11A, 11B1, 11B2, 11C1, 11C2, 11D1, 11D2, 11E, 11F1, 11F2, 11H, 11K1, 11K2, 11L1, 11L2, 11U1, 11U2, 11V1, 11V2, 11Y1, 11Y2) is relatively small or zero, out of a magnetic field formed by the power supply coil and the power reception coil.
A thermoplastic molding composition comprising A) from 10 to 50% by weight of at least one polyarylene ether having an average of at most 0.5 phenolic end groups per polymer chain and having no carboxy groups, B) from 5 to 44.5% by weight of at least one polyphenylene sulfide, C) from 10 to 65% by weight of at least one fibrous and/or particulate filler, D) from 0.5 to 20% by weight of an elastic graphite with elasticity of from 60 to 130%, E) from 0 to 20% by weight of at least one polyarylene ether comprising carboxy groups, F) from 0 to 20% by weight of at least one polyarylene ether having an average of at least 1.5 phenolic end groups per polymer chain and having no carboxy groups, and G) from 0 to 40% by weight of at least one additive where the sum of the propotions by weight of components A) to G) is 100% by weight, based on the molding composition. A) from 10 to 50% by weight of at least one polyarylene ether having an average of at most 0.5 phenolic end groups per polymer chain and having no carboxy groups, B) from 5 to 44.5% by weight of at least one polyphenylene sulfide, C) from 10 to 65% by weight of at least one fibrous and/or particulate filler, D) from 0.5 to 20% by weight of an elastic graphite with elasticity of from 60 to 130%, E) from 0 to 20% by weight of at least one polyarylene ether comprising carboxy groups, F) from 0 to 20% by weight of at least one polyarylene ether having an average of at least 1.5 phenolic end groups per polymer chain and having no carboxy groups, and G) from 0 to 40% by weight of at least one additive
A telemetry system for the movement analysis of a downhill ski during use, which comprises: at least one mobile detection unit which is adapted to be attached on the downhill ski, and is adapted to measure, continuously or cyclically, a series of physical quantities that include momentary acceleration and/or inclination of the detection unit; and a remote electronic apparatus that communicates wirelessly with said detection unit so as to receive a data stream containing the measurements carried out by each detection unit, and is moreover provided with a user interface that is configured so as to display values indicative of the physical quantities measured by said mobile detection unit; said telemetry system being characterised in that said mobile detection unit has a plate-like structure and is adapted to be attached onto the back of said ski, so as to form the raised anchoring base where the ski binding device is to be attached.
A process for preparing a mineral melt in a cupola furnace, wherein the cupola furnace comprises at least two temperature zones, including a hot zone at the base of the furnace and an oxidation zone above the hot zone, (i) the furnace is equipped with at least one tuyere providing a source of oxygen in the oxidation zone; (ii) the furnace comprises at least one plasma torch that uses as carrier gas nitrogen, carbon monoxide, carbon dioxide, or a mixture thereof, and provides plasma heating in the hot zone; (iii) greater than 50% of the furnace heating energy is provided by the plasma torch; (iv) the temperature in the oxidation zone is below 1,400 °C; (v) the temperature in the hot zone is greater than the temperature in the oxidation zone (vi) water is substantially excluded from any zone of the furnace where the temperature is above 750 °C; and wherein mineral material is supplied to the furnace and is melted to form the mineral melt that collects in the base of the furnace, and wherein the process produces off-gas. the cupola furnace comprises at least two temperature zones, including a hot zone at the base of the furnace and an oxidation zone above the hot zone, (i) the furnace is equipped with at least one tuyere providing a source of oxygen in the oxidation zone; (ii) the furnace comprises at least one plasma torch that uses as carrier gas nitrogen, carbon monoxide, carbon dioxide, or a mixture thereof, and provides plasma heating in the hot zone; (iii) greater than 50% of the furnace heating energy is provided by the plasma torch; (iv) the temperature in the oxidation zone is below 1,400 °C; (v) the temperature in the hot zone is greater than the temperature in the oxidation zone (vi) water is substantially excluded from any zone of the furnace where the temperature is above 750 °C; and (i) the furnace is equipped with at least one tuyere providing a source of oxygen in the oxidation zone; (ii) the furnace comprises at least one plasma torch that uses as carrier gas nitrogen, carbon monoxide, carbon dioxide, or a mixture thereof, and provides plasma heating in the hot zone; (iii) greater than 50% of the furnace heating energy is provided by the plasma torch; (iv) the temperature in the oxidation zone is below 1,400 °C; (v) the temperature in the hot zone is greater than the temperature in the oxidation zone (vi) water is substantially excluded from any zone of the furnace where the temperature is above 750 °C; and wherein mineral material is supplied to the furnace and is melted to form the mineral melt that collects in the base of the furnace, and wherein the process produces off-gas.
Apparatus for adjusting or stabilizing the body temperature of a patient, comprising: at least one temperature sensor adapted to measure a temperature of infusion fluid, a control unit comprising input channels for reading in sensor readings from said temperature sensor and for reading in measurement data representing the patient's body temperature and comprising means for controlling, depending on said measurement data, a volume flow of infusion fluid, at least two proximal tubes (4a, 4b) and a distal tube such that volume flows (3a, 3b) of at least two infusion fluids entering the proximal tubes (4a, 4b) result in a common volume flow in the distal tube, wherein said at least one temperature sensor includes a temperature sensor adapted to measure a temperature in said distal tube and/or at least two temperature sensors (7a, 7b) for measuring the temperatures of said at least two infusion fluids, and said control unit comprises means for controlling, depending on said measurement data, flow proportions of the volume flows (3a, 3b) of the infusion fluids. at least one temperature sensor adapted to measure a temperature of infusion fluid, a control unit comprising input channels for reading in sensor readings from said temperature sensor and for reading in measurement data representing the patient's body temperature and comprising means for controlling, depending on said measurement data, a volume flow of infusion fluid, at least two proximal tubes (4a, 4b) and a distal tube such that volume flows (3a, 3b) of at least two infusion fluids entering the proximal tubes (4a, 4b) result in a common volume flow in the distal tube, wherein said at least one temperature sensor includes a temperature sensor adapted to measure a temperature in said distal tube and/or at least two temperature sensors (7a, 7b) for measuring the temperatures of said at least two infusion fluids, and said control unit comprises means for controlling, depending on said measurement data, flow proportions of the volume flows (3a, 3b) of the infusion fluids.
A handy-stick type vacuum cleaner comprising: a first part including a dust collecting member (110, 600); a second part including a suction motor and a handle; and a third part positioned between the first part and the second part such that the first part is rotatable about the third part with respect to the second part. a first part including a dust collecting member (110, 600); a second part including a suction motor and a handle; and a third part positioned between the first part and the second part such that the first part is rotatable about the third part with respect to the second part.