mhurhangee/ep-ind-claims huggingface dataset:
A system for assessing a stenosis in a blood vessel, comprising: a first pressure sensing device and a second pressure sensing device positionable within the vessel, wherein the first pressure sensing device is configured to be positioned proximal of the stenosis and the second pressure sensing device is configured to be positioned distal of the stenosis; a processing unit in communication with the first and second pressure sensing devices, the processing unit configured to: obtain proximal pressure measurements measured by the first pressure sensing device for a plurality of heartbeat cycles; obtain distal pressure measurements measured by the second pressure sensing device for the plurality of heartbeat cycles; evaluate the obtained proximal and distal pressure measurements to identify any irregular heartbeat cycles within the plurality of heartbeat cycles; optimize the obtained proximal and distal pressure measurements by removing pressure measurements associated with the irregular heartbeat cycles; calculate a pressure ratio between the optimized distal pressure measurements and the optimized proximal pressure measurements; and output the calculated pressure ratio to a display in communication with the processing unit. a first pressure sensing device and a second pressure sensing device positionable within the vessel, wherein the first pressure sensing device is configured to be positioned proximal of the stenosis and the second pressure sensing device is configured to be positioned distal of the stenosis; a processing unit in communication with the first and second pressure sensing devices, the processing unit configured to: obtain proximal pressure measurements measured by the first pressure sensing device for a plurality of heartbeat cycles; obtain distal pressure measurements measured by the second pressure sensing device for the plurality of heartbeat cycles; evaluate the obtained proximal and distal pressure measurements to identify any irregular heartbeat cycles within the plurality of heartbeat cycles; optimize the obtained proximal and distal pressure measurements by removing pressure measurements associated with the irregular heartbeat cycles; calculate a pressure ratio between the optimized distal pressure measurements and the optimized proximal pressure measurements; and output the calculated pressure ratio to a display in communication with the processing unit. obtain proximal pressure measurements measured by the first pressure sensing device for a plurality of heartbeat cycles; obtain distal pressure measurements measured by the second pressure sensing device for the plurality of heartbeat cycles; evaluate the obtained proximal and distal pressure measurements to identify any irregular heartbeat cycles within the plurality of heartbeat cycles; optimize the obtained proximal and distal pressure measurements by removing pressure measurements associated with the irregular heartbeat cycles; calculate a pressure ratio between the optimized distal pressure measurements and the optimized proximal pressure measurements; and output the calculated pressure ratio to a display in communication with the processing unit.
An indicator sign comprising: a housing; a graphic displayed on a surface of the housing; and a cover affixed to the surface of the housing, wherein an outer surface of the cover comprises a photoluminescent material, wherein the cover comprises one or more void areas that correspond to the graphic such that the graphic is visible through the void areas, and wherein the photoluminescent outer surface produces a negative image of the graphic in contrast with the void areas. a housing; a graphic displayed on a surface of the housing; and a cover affixed to the surface of the housing, wherein an outer surface of the cover comprises a photoluminescent material, wherein the cover comprises one or more void areas that correspond to the graphic such that the graphic is visible through the void areas, and wherein the photoluminescent outer surface produces a negative image of the graphic in contrast with the void areas.
Explosion-proof assembly, with at least one carrier which has a carrier face on which at least one electrical and/or electronic component is arranged, with at least one covering body which has at least one receiving chamber for one or more of the electrical and/or electronic components respectively, wherein the at least one receiving chamber has an opening only on the side facing the carrier face, wherein an annular contact face is provided surrounding the opening of each receiving chamber, characterised in that the explosion-proof assembly is furthermore formed with an elastic coupling element which has a first coupling face standing in superficial contact with the contact face and which has a second coupling face standing in superficial contact with the carrier face, wherein the elastic coupling element completely surrounds the opening and exerts a coupling force which pushes the covering body and carrier away from each other, and with a plug-in connecting device and/or locking connecting device which is arranged on at least one covering body and/or on at least one carrier and which maintains a force-fit and/or form-fit connection between the at least one covering body and the at least one carrier against the coupling force of the coupling element, so that an explosion-proof connection exists between the at least one covering body and the at least one carrier, wherein the encapsulation for the at least one component, formed by the at least one covering body with the assigned carrier and the elastic coupling element arranged in-between, achieves an explosion protection according to the requirements of a cast encapsulation (Ex-m) or a pressure-resistant encapsulation (Ex-d).
A method for use in an apparatus fort grouping a smart device in a smart home system, comprising: determining a preset target group corresponding to the smart device according to recorded historic operation information of the smart device; and grouping the smart device according to the preset target group, the method being characterized in that the step of determining a preset target group corresponding to the smart device according to recorded historic operation information of the smart device comprises: analyzing the historic operation information, and determining user's operation habit information of the smart device according to an analyzed result; predicting a location of the smart device according to time information in the operation habit information; and determining the preset target group corresponding to the smart device according to the location of the smart device. determining a preset target group corresponding to the smart device according to recorded historic operation information of the smart device; and grouping the smart device according to the preset target group, the method being characterized in that the step of determining a preset target group corresponding to the smart device according to recorded historic operation information of the smart device comprises: analyzing the historic operation information, and determining user's operation habit information of the smart device according to an analyzed result; predicting a location of the smart device according to time information in the operation habit information; and determining the preset target group corresponding to the smart device according to the location of the smart device. analyzing the historic operation information, and determining user's operation habit information of the smart device according to an analyzed result; predicting a location of the smart device according to time information in the operation habit information; and determining the preset target group corresponding to the smart device according to the location of the smart device.
Method for the temperature control of a sample, with the steps of - providing the sample on a carrier substrate, and - supplying a tempering medium to a rear side of the carrier substrate, wherein the temperature of the sample is changed abruptly, wherein - the tempering medium is brought into contact with the rear side of the carrier substrate in the supercritical state and with a pressure which is higher than the atmospheric pressure, characterised in that - the sample is provided and tempered on the front side of the carrier substrate at atmospheric pressure. - providing the sample on a carrier substrate, and - supplying a tempering medium to a rear side of the carrier substrate, wherein the temperature of the sample is changed abruptly, wherein - the tempering medium is brought into contact with the rear side of the carrier substrate in the supercritical state and with a pressure which is higher than the atmospheric pressure, - the sample is provided and tempered on the front side of the carrier substrate at atmospheric pressure.
Processing station for structural aircraft components having a centring arrangement for a component carrier, in particular for a mounting frame for structural aircraft components, having a centring pin, a centring receptacle for the centring pin, and a rotary drive for rotating the centring pin about a longitudinal axis of the centring pin, so that the centring pin can be brought into centring engagement with the centring receptacle as a result of the rotation, wherein the centring pin has a closing contour and the centring receptacle has a mating contour (7a, b) for establishing the centring engagement.
A centrifugal separator comprising a rotatably arranged upwardly extending first element with elongate elements connected thereto and an upwardly extending rotatably arranged second element, wherein the first element and the second element n are approximately concentrically arranged with respect to each other around an upwardly extending rotation axis resulting in an inner element and an outer element providing a separation chamber therebetween, wherein the outer element is removable with respect to the inner element and wherein the elongate elements extend from the first element towards the second element, wherein at least a part of the elongate element comprises at least one protrusion, wherein the elongate elements are at a distance with respect to each other, characterized in that said distance between the elongate elements is the same over the elongate element, also at the position of the at least one protrusion.
A centrifugal refrigerant compressor control system comprising: a first impeller and a second impeller connected to a shaft, the first and second impellers (16, 18) being provided in a main refrigerant flow path; a flow regulator provided in a recirculation flow path; a magnetic bearing system supporting the shaft, the magnetic bearing system including a sensing element configured to produce an output relating to a shaft position; and a controller configured to receive the output from the sensing element, and to command an adjustment of the flow regulator and optionally a speed of the shaft in response to the output from the sensing element; wherein the recirculation flow path is provided such that flow is extracted from the main refrigerant flow path downstream of the second impeller, and is reintroduced into the main refrigerant flow path downstream of the first impeller. a first impeller and a second impeller connected to a shaft, the first and second impellers (16, 18) being provided in a main refrigerant flow path; a flow regulator provided in a recirculation flow path; a magnetic bearing system supporting the shaft, the magnetic bearing system including a sensing element configured to produce an output relating to a shaft position; and a controller configured to receive the output from the sensing element, and to command an adjustment of the flow regulator and optionally a speed of the shaft in response to the output from the sensing element; wherein the recirculation flow path is provided such that flow is extracted from the main refrigerant flow path downstream of the second impeller, and is reintroduced into the main refrigerant flow path downstream of the first impeller.
Cosmetic composition in the form of an emulsion for topical application to keratin materials, in particular the skin, comprising, in a physiologically acceptable medium: (i) at least one dispersion of bismuth oxychloride in 2-ethylhexyl hydroxystearate, and (ii) at least one soft-focus agent, and (iii) at least one phenyl silicone oil. (i) at least one dispersion of bismuth oxychloride in 2-ethylhexyl hydroxystearate, and (ii) at least one soft-focus agent, and (iii) at least one phenyl silicone oil.
A forming section comprises a first and a second wire loop which form a twin-wire zone, which comprises and in which are arranged at least one dewatering element (12a, 50) by means of which initial dewatering is performed from pulp suspension fed by the headbox, and at least one dewatering device (100a, 100b) following said at least one dewatering element (12a, 50) in the travel direction of the web, which dewatering device (100a, 100b) comprises a stationary support shaft on which support elements (111, 112, 113, 114) are supported at a distance from each other, an impermeable belt loop which is led to circle around the stationary support shaft supported by said support elements (111, 112, 113, 114), wherein said at least one dewatering device (100a, 100b) further comprises at least one curvilinear dewatering zone (Z4, Z30) over which the wires (11, 21) are led to travel supported by the belt loop, whereby the degree of curvature of the curve of the at least one curvilinear dewatering zone (Z4, Z30) increases in the travel direction of the belt such that increasing dewatering pressure is applied to the pulp suspension travelling between the wires (11, 21) on said at least one curvilinear dewatering zone (Z4, Z30), which increasing dewatering pressure is dependent on a tension of the wires (11, 21) and a radius of curvature (RI, R2) of said at least one curvilinear dewatering zone (Z4, Z30), characterised in that said at least one curvilinear dewatering zone (Z4, Z30) is preceded by two dewatering zones (Z2, Z3; Z10, Z20) prevailing in opposite directions.
An anti-intrusion detecting system, to be applied to a door or a window for generating an alarm condition as said door or window is moved away from a preset closed position thereof, to said door or window being applied magnetic field generating means and magnetic field sensing means, said magnetic field generating means and said magnetic field sensing means constituting a pair of a magnetic field generator part and a magnetic field sensor part, said system comprising an electronic microcontroller card (S') mounted in said sensor part and at least a magnet mounted in said magnet part, said card including moreover said magnetic field sensing or sensor means, said magnetic field sensing means including at least a magnetic contactless potentiometric position sensor adapted to detect a North/South orientation of said magnetic field, thereby a variation of said orientation of said magnetic field compared to a rest condition is adapted to generate an alarm, and said electronic card comprising a microcontroller which continuously reads the values recorded instant by instant by the magnetic rotary position sensor, thereby, if a variation of the magnetic field orientation compared to the rest condition is recorded, the microcontroller will generate an alarm which, being sent to a central unit, will provide a possibility of performing proper anti-intrusion measures, said magnetic field sensing means further comprising a HALL effect sensor adapted to record the magnetic field strength, thereby at least one of said magnetic field orientation variation and/or said variation compared to a rest condition of the magnetic field strength compared to said rest condition will generate an alarm.
A multicore optical fiber of an uncoupled type, comprising: a plurality of cores extending along a predetermined direction; and a cladding covering each of the plurality of cores, wherein each of the plurality of cores includes alkali metal having a predetermined concentration which contributes to reduction in a transmission loss, and the cladding includes a diffusion center position corresponding to a center position of an alkali metal doped region, a distance Λ core-cladding between the diffusion center position and a center position of the core adjacent to the diffusion center position in the plurality of cores is 45 μm or less, characterized in that: the plurality of cores and the cladding contain the same alkali metal having an atomic number equal to or less than that of potassium; and where optical power of light propagating through a specific core n of the plurality of cores is set to P n, optical power of light propagating through any one core m of remaining all cores is set to P m, and a power coupling coefficient h between the core n and the core m is defined by the following expression: h = 1 P m − P n dP n dz, a core pitch is set so that a sum h _total of the power coupling coefficients h from the remaining all cores to the specific core is 2.3 × 10 -4 /km or less. a plurality of cores extending along a predetermined direction; and a cladding covering each of the plurality of cores, each of the plurality of cores includes alkali metal having a predetermined concentration which contributes to reduction in a transmission loss, and the cladding includes a diffusion center position corresponding to a center position of an alkali metal doped region, a distance Λ core-cladding between the diffusion center position and a center position of the core adjacent to the diffusion center position in the plurality of cores is 45 μm or less, characterized in that: the plurality of cores and the cladding contain the same alkali metal having an atomic number equal to or less than that of potassium; and where optical power of light propagating through a specific core n of the plurality of cores is set to P n, optical power of light propagating through any one core m of remaining all cores is set to P m, and a power coupling coefficient h between the core n and the core m is defined by the following expression: h = 1 P m − P n dP n dz, a core pitch is set so that a sum h _total of the power coupling coefficients h from the remaining all cores to the specific core is 2.3 × 10 -4 /km or less. the plurality of cores and the cladding contain the same alkali metal having an atomic number equal to or less than that of potassium; and where optical power of light propagating through a specific core n of the plurality of cores is set to P n, optical power of light propagating through any one core m of remaining all cores is set to P m, and a power coupling coefficient h between the core n and the core m is defined by the following expression: h = 1 P m − P n dP n dz, a core pitch is set so that a sum h _total of the power coupling coefficients h from the remaining all cores to the specific core is 2.3 × 10 -4 /km or less.
A transmitting apparatus comprising: a data generation unit to generate data symbols that are to be arranged in a single carrier block transmitted by a beam emitted in a specific direction; a zero generation unit to generate zero symbols having signal values of zero; an output control section to receive input of the data symbols and the zero symbols, and output either the data symbols or the zero symbols by the single carrier block on a basis of a timing at which a direction of emission of the beam is switched; a static sequence generation unit to generate static sequence symbols having signal values of a static sequence; a multiplexing unit to divide the static sequence symbols and generate a pre-interpolation block by arranging respective ones of the divided static sequence symbols at a head and a tail of the symbols output from the output control section by the single carrier block; wherein the divided static sequence symbols are inserted at the same positions in the generated pre-interpolation block including the data symbols and the generated pre-interpolation block including the zero symbols; and a signal conversion section to perform a Fourier transform, the interpolation, and an inverse Fourier transform on the pre-interpolation block and output the single carrier block. a data generation unit to generate data symbols that are to be arranged in a single carrier block transmitted by a beam emitted in a specific direction; a zero generation unit to generate zero symbols having signal values of zero; an output control section to receive input of the data symbols and the zero symbols, and output either the data symbols or the zero symbols by the single carrier block on a basis of a timing at which a direction of emission of the beam is switched; a static sequence generation unit to generate static sequence symbols having signal values of a static sequence; a multiplexing unit to divide the static sequence symbols and generate a pre-interpolation block by arranging respective ones of the divided static sequence symbols at a head and a tail of the symbols output from the output control section by the single carrier block; wherein the divided static sequence symbols are inserted at the same positions in the generated pre-interpolation block including the data symbols and the generated pre-interpolation block including the zero symbols; and a signal conversion section to perform a Fourier transform, the interpolation, and an inverse Fourier transform on the pre-interpolation block and output the single carrier block.
A quick-mount crank-pedal mechanism for a bicycle, comprising: a crank rod; a crank bearing; a spring protrusion, provided at a tip of the crank rod; and a clamping slot, provided on the crank bearing; characterized in that the tip of the crank rod and the crank bearing are coaxially aligned with a common axis; a pedal of the bicycle coupled to the crank bearing is rotated by 90 degrees counterclockwise around the common axis so that the spring protrusion is clamped into the clamping slot. a crank rod; a crank bearing; a spring protrusion, provided at a tip of the crank rod; and a clamping slot, provided on the crank bearing; characterized in that the tip of the crank rod and the crank bearing are coaxially aligned with a common axis; a pedal of the bicycle coupled to the crank bearing is rotated by 90 degrees counterclockwise around the common axis so that the spring protrusion is clamped into the clamping slot.