mhurhangee/ep-ind-claims huggingface dataset:
A device for providing a digital subtraction angiogram, comprising: - an interface unit; - a processing unit; - an output unit; wherein the interface unit is configured to provide (i) a cardiac phase image sequence (S a) comprising a plurality of cardiac phase images acquired under conditions where a patient holds his or her breath, (ii) a breathing phase image sequence (S b) comprising a plurality of breathing phase images, and (iii) an intervention image, wherein the intervention image is acquired after injection of contrast agent and is indexed with a first cardiac phase index; wherein the processing unit is configured: • to select a first breathing phase image (M B) in the plurality of breathing phase images which is at a similar breathing phase to the intervention image, wherein the first breathing phase image is indexed with a second cardiac phase index, • to generate a breathing corrected intervention image (D 1) by subtracting the first breathing phase image from the intervention image, • to select a first cardiac phase image corresponding to the second cardiac phase index, to select a second cardiac phase image corresponding to the first cardiac phase index, • to generate a cardiac phase corrected image by subtracting the first cardiac phase image from the second cardiac phase image, • to compensate the cardiac phase corrected image to account for breathing motions, and • to subtract the motion compensated cardiac phase corrected image from the breathing corrected intervention image to provide an angiogram image; and wherein the output unit is configured to display the angiogram image to a user. - an interface unit; - a processing unit; - an output unit; • to select a first breathing phase image (M B) in the plurality of breathing phase images which is at a similar breathing phase to the intervention image, wherein the first breathing phase image is indexed with a second cardiac phase index, • to generate a breathing corrected intervention image (D 1) by subtracting the first breathing phase image from the intervention image, • to select a first cardiac phase image corresponding to the second cardiac phase index, to select a second cardiac phase image corresponding to the first cardiac phase index, • to generate a cardiac phase corrected image by subtracting the first cardiac phase image from the second cardiac phase image, • to compensate the cardiac phase corrected image to account for breathing motions, and • to subtract the motion compensated cardiac phase corrected image from the breathing corrected intervention image to provide an angiogram image; and
Milking installation for animals, comprising: - a plurality of posts (102a-c) planted vertically in the floor and in which between two adjacent posts (102a-c) there is arranged a plurality of containment stalls, each one having an axis aligned with the longitudinal axis of the animal when it is in the containment stall, - for each post (102a-c) a slider (104a-c) mounted with the ability to move in vertical translation along the post (102a-c) between a low position and a high position, and a first drive means (106a-b) designed to move the slider (104a-c), - for each slider (104a-c), a tilting arm (108a-b) mounted with the ability to rotate on the slider (104a-c) between a lowered position and a raised position, and a second drive means (110a-b) designed to move the tilting arm (108a-b), - for each pair of adjacent tilting arms (108a-b), a beam (112a-b) fixed to the two tilting arms (108a-b), - beneath each beam (112a-b) a plurality of girders fixed and suspended beneath the beam (112a-b), - for each girder, a lateral guide borne by the girder and positioned between two adjacent animals in order to separate their heads, and - a control unit intended to control each drive means (106a-b, 110a-b). - a plurality of posts (102a-c) planted vertically in the floor and in which between two adjacent posts (102a-c) there is arranged a plurality of containment stalls, each one having an axis aligned with the longitudinal axis of the animal when it is in the containment stall, - for each post (102a-c) a slider (104a-c) mounted with the ability to move in vertical translation along the post (102a-c) between a low position and a high position, and a first drive means (106a-b) designed to move the slider (104a-c), - for each slider (104a-c), a tilting arm (108a-b) mounted with the ability to rotate on the slider (104a-c) between a lowered position and a raised position, and a second drive means (110a-b) designed to move the tilting arm (108a-b), - for each pair of adjacent tilting arms (108a-b), a beam (112a-b) fixed to the two tilting arms (108a-b), - beneath each beam (112a-b) a plurality of girders fixed and suspended beneath the beam (112a-b), - for each girder, a lateral guide borne by the girder and positioned between two adjacent animals in order to separate their heads, and - a control unit intended to control each drive means (106a-b, 110a-b).
A catalytic wall-flow monolith for use in an emission treatment system, wherein the monolith comprises a porous substrate and a three-way catalyst, wherein the TWC is distributed substantially throughout the porous substrate and wherein the TWC comprises: (i) alumina; (ii) one or more platinum group metals; and (iii) an oxygen storage component, wherein the OSC comprises ceria or one or more mixed oxides comprising cerium and is present in a ratio by weight of OSC to alumina of from 70:30 to 85:15. (i) alumina; (ii) one or more platinum group metals; and (iii) an oxygen storage component,
A die package comprising a die having a plurality of connection pads, a plurality of leads (12, 14) having a metal core with a defined core diameter, two or more dielectric layers of different composition including polyvinyl alcohol surrounding the metal core having defined dielectric thicknesses, and an outer metal layer deposited over the dielectric layers, respectively, at least one first connection pad held in a mold compound covering the die and the plurality of leads (12, 14) connected to at least one metal core, and at least one second connection pad held in the mold compound covering the die and the plurality of leads (12, 14) connected to at least one metal core, wherein the first connection pad is connected to the metal core of a first lead with a first metal core diameter, and the second connection pad is connected to the metal core of a second lead with a second metal core diameter, the metal core diameters differing in diameter. a die having a plurality of connection pads, a plurality of leads (12, 14) having a metal core with a defined core diameter, two or more dielectric layers of different composition including polyvinyl alcohol surrounding the metal core having defined dielectric thicknesses, and an outer metal layer deposited over the dielectric layers, respectively, at least one first connection pad held in a mold compound covering the die and the plurality of leads (12, 14) connected to at least one metal core, and at least one second connection pad held in the mold compound covering the die and the plurality of leads (12, 14) connected to at least one metal core, wherein the first connection pad is connected to the metal core of a first lead with a first metal core diameter, and the second connection pad is connected to the metal core of a second lead with a second metal core diameter, the metal core diameters differing in diameter.
An apparatus for monitoring the position of one or more aircraft, comprising: a first receiver device configured to receive first aircraft position information, over a digital data link, from a first radio frequency source located onboard the aircraft at a first periodicity, via one or more ground stations; a second receiver device configured to receive second aircraft position information broadcasted from a second radio frequency source located onboard the aircraft at a second periodicity, via one or more ground stations; a buffer configured to receive the first and second aircraft position information from the first and second receiver devices respectively; a processor configured to receive and filter the buffered first and second aircraft position information; and to smooth the filtered aircraft position information and to output the smoothed aircraft position information such that it can be overlaid onto electronic geographical mapping data; characterised in that the processor is configured to filter the first and second aircraft position information such that the quantity of position information data smoothed for a given aircraft is within a given limit for a given time period; and in that the processor is configured to filter the aircraft position information based on the relative positional accuracy and the relative temporal accuracy of the respective sources that the aircraft position information is received from. a first receiver device configured to receive first aircraft position information, over a digital data link, from a first radio frequency source located onboard the aircraft at a first periodicity, via one or more ground stations; a second receiver device configured to receive second aircraft position information broadcasted from a second radio frequency source located onboard the aircraft at a second periodicity, via one or more ground stations; a buffer configured to receive the first and second aircraft position information from the first and second receiver devices respectively; a processor configured to receive and filter the buffered first and second aircraft position information; and to smooth the filtered aircraft position information and to output the smoothed aircraft position information such that it can be overlaid onto electronic geographical mapping data; characterised in that the processor is configured to filter the first and second aircraft position information such that the quantity of position information data smoothed for a given aircraft is within a given limit for a given time period; and in that the processor is configured to filter the aircraft position information based on the relative positional accuracy and the relative temporal accuracy of the respective sources that the aircraft position information is received from.
A method for a base station to transmit a reference signal to a user equipment using 8 layers or less, the method comprising: transmitting data of the 8 layers or less through a data region of a downlink subframe; and transmitting Dedicated Reference Signals, DRSs, of the 8 layers or less in specific Orthogonal Frequency Division Multiplexing, OFDM, symbols of the downlink subframe, wherein the downlink subframe comprises 14 OFDM symbols, wherein the DRSs of the 8 layers or less are divided into a first group and a second group, the method being characterized in that DRSs of the first group are multiplexed according to a Code Division Multiplexing, CDM, at one resource element and DRSs of the second group are multiplexed according to the CDM at one resource element of the specific OFDM symbols, and in that the code division multiplexed DRSs of the first group and the code division multiplexed DRSs of the second group are arranged at intervals of 3 subcarriers in a 3rd OFDM symbol, an 8th OFDM symbol and a 12th OFDM symbol in the downlink subframe. transmitting data of the 8 layers or less through a data region of a downlink subframe; and transmitting Dedicated Reference Signals, DRSs, of the 8 layers or less in specific Orthogonal Frequency Division Multiplexing, OFDM, symbols of the downlink subframe, wherein the downlink subframe comprises 14 OFDM symbols, wherein the DRSs of the 8 layers or less are divided into a first group and a second group, the method being characterized in that DRSs of the first group are multiplexed according to a Code Division Multiplexing, CDM, at one resource element and DRSs of the second group are multiplexed according to the CDM at one resource element of the specific OFDM symbols, and in that the code division multiplexed DRSs of the first group and the code division multiplexed DRSs of the second group are arranged at intervals of 3 subcarriers in a 3rd OFDM symbol, an 8th OFDM symbol and a 12th OFDM symbol in the downlink subframe.
A vent system for use with a patient interface during respiratory therapy of a patient with a therapy flow of gas pressurized above ambient pressure, the vent system providing a vent flow of gas to discharge gas exhaled by the patient from a pressurized volume, the vent flow of gas being continuous during the respiratory therapy, the vent system comprising: a vent housing comprising a base having at least one first orifice extending through the base to allow gas to be discharged to atmosphere from the pressurized volume; at least one second orifice to allow gas to be discharged to atmosphere from the pressurized volume; a vent housing connector having a second orifice configured to direct the therapy flow of gas to the patient interface; a heat and moisture exchanger comprising an HME housing and an HME material within the HME housing; and a membrane positioned adjacent to the base, wherein the vent housing and the vent housing connector are configured to be connected to, at least in part, form a cavity, and wherein the HME is positioned in the cavity when the vent system is assembled, wherein the HME housing is removably connected to the vent housing with a snap-fit, wherein the pressurized volume is in fluid communication with atmosphere through the at least one first orifice and the at least one second orifice throughout a therapeutic pressure range, and wherein the membrane is elastically deformable due to pressure within the pressurized volume to apportion the vent flow of gas between the at least one first orifice and the at least one second orifice throughout the therapeutic pressure range. a vent housing comprising a base having at least one first orifice extending through the base to allow gas to be discharged to atmosphere from the pressurized volume; at least one second orifice to allow gas to be discharged to atmosphere from the pressurized volume; a vent housing connector having a second orifice configured to direct the therapy flow of gas to the patient interface; a heat and moisture exchanger comprising an HME housing and an HME material within the HME housing; and a membrane positioned adjacent to the base, wherein the vent housing and the vent housing connector are configured to be connected to, at least in part, form a cavity, and wherein the HME is positioned in the cavity when the vent system is assembled, wherein the HME housing is removably connected to the vent housing with a snap-fit, wherein the pressurized volume is in fluid communication with atmosphere through the at least one first orifice and the at least one second orifice throughout a therapeutic pressure range, and wherein the membrane is elastically deformable due to pressure within the pressurized volume to apportion the vent flow of gas between the at least one first orifice and the at least one second orifice throughout the therapeutic pressure range.
A device, comprising: a rigid body having a first face and a second face, and defining within said first face: a first cavity having an outlet, a second cavity, and a third cavity, a first flow path connecting the outlet of the first cavity and the second cavity, said first flow path comprising a constricted region between said first cavity and said first flow path, and a second flow path connecting the second cavity and the third cavity, the second flow path comprising a barrier region having a top surface which is above the level of said first flow path; a wall member secured to at least a portion of the first face of the rigid body, said wall member disposed over the first cavity, the second cavity, and the third cavity, thereby defining a first chamber, a second chamber, and a third chamber, the third chamber having a width and a length, wherein the length is greater than the width; and one or more inlet ports in direct communication with at least the first chamber and the third chamber. a rigid body having a first face and a second face, and defining within said first face: a first cavity having an outlet, a second cavity, and a third cavity, a first flow path connecting the outlet of the first cavity and the second cavity, said first flow path comprising a constricted region between said first cavity and said first flow path, and a second flow path connecting the second cavity and the third cavity, the second flow path comprising a barrier region having a top surface which is above the level of said first flow path; a wall member secured to at least a portion of the first face of the rigid body, said wall member disposed over the first cavity, the second cavity, and the third cavity, thereby defining a first chamber, a second chamber, and a third chamber, the third chamber having a width and a length, wherein the length is greater than the width; and one or more inlet ports in direct communication with at least the first chamber and the third chamber. a first cavity having an outlet, a second cavity, and a third cavity, a first flow path connecting the outlet of the first cavity and the second cavity, said first flow path comprising a constricted region between said first cavity and said first flow path, and a second flow path connecting the second cavity and the third cavity, the second flow path comprising a barrier region having a top surface which is above the level of said first flow path; a wall member secured to at least a portion of the first face of the rigid body, said wall member disposed over the first cavity, the second cavity, and the third cavity, thereby defining a first chamber, a second chamber, and a third chamber, the third chamber having a width and a length, wherein the length is greater than the width; and one or more inlet ports in direct communication with at least the first chamber and the third chamber.
A process for the manufacture of vinyl propionate comprising the following stages: a) fermentation of renewable starting materials and optionally purification in order to produce at least one alcohol chosen from ethanol and mixtures of alcohols comprising ethanol; b) dehydration of the alcohol obtained in order to produce, in a first reactor, at least one alkene chosen from ethylene and mixtures of alkenes comprising ethylene and optionally purification of the ethylene; c) production of acrylic acid from renewable starting materials, d) hydrogenation of the acrylic acid in the presence of molecular hydrogen in order to produce propanoic acid, e) introduction, into a third reactor, of the ethylene obtained on conclusion of stage b) and of the propanoic acid obtained on conclusion of stage d), and implementation of the reaction for the acyloxylation of the ethylene, f) isolation and optionally purification of the vinyl propionate obtained on conclusion of stage e). a) fermentation of renewable starting materials and optionally purification in order to produce at least one alcohol chosen from ethanol and mixtures of alcohols comprising ethanol; b) dehydration of the alcohol obtained in order to produce, in a first reactor, at least one alkene chosen from ethylene and mixtures of alkenes comprising ethylene and optionally purification of the ethylene; c) production of acrylic acid from renewable starting materials, d) hydrogenation of the acrylic acid in the presence of molecular hydrogen in order to produce propanoic acid, e) introduction, into a third reactor, of the ethylene obtained on conclusion of stage b) and of the propanoic acid obtained on conclusion of stage d), and implementation of the reaction for the acyloxylation of the ethylene, f) isolation and optionally purification of the vinyl propionate obtained on conclusion of stage e).
A mobile cloud system comprising: a plurality of panels elevated above ground level, each one of said plurality of panels comprising a sheet of material formed of, laminated with or covered by means for converting solar energy to electrical energy, wherein adjacent ones of said panels are interconnected; one or more anchors; and one or more anchoring cables extending between said anchors and said plurality of panels, wherein said panels are tethered together by connecting cables to form a generally horizontally-extending grid pattern, characterized in that said sheet is a sheet of flexible material and in that at least some of said panels at least partially overlap. a plurality of panels elevated above ground level, each one of said plurality of panels comprising a sheet of material formed of, laminated with or covered by means for converting solar energy to electrical energy, wherein adjacent ones of said panels are interconnected; one or more anchors; and one or more anchoring cables extending between said anchors and said plurality of panels, wherein said panels are tethered together by connecting cables to form a generally horizontally-extending grid pattern, characterized in that said sheet is a sheet of flexible material and in that at least some of said panels at least partially overlap.
Grinding disc comprising - a grinding layer - which is formed from grinding grains bound by means of a binding agent, - which has a grinding layer diameter D S, - which forms a first outer side and a second outer side, - a first reinforcing fabric - which is embedded in the grinding layer on the first outer side, - which has a first fabric diameter D A1, wherein: D A1 ≥ 0.8·D S, - a second reinforcing fabric - which is embedded in the grinding layer on the second outer side, - which has a second fabric diameter D A2, wherein: D A2 ≥ 0.8·D S, characterized in that at least one fabric (W 1 to W 4) is arranged on at least one of the reinforcing fabrics (6, 8), and in that the at least one fabric (W 1 to W 4) has a respective diameter D i, wherein: D i < D A1 and D i < D A2. - a grinding layer - which is formed from grinding grains bound by means of a binding agent, - which has a grinding layer diameter D S, - which forms a first outer side and a second outer side, - which is formed from grinding grains bound by means of a binding agent, - which has a grinding layer diameter D S, - which forms a first outer side and a second outer side, - a first reinforcing fabric - which is embedded in the grinding layer on the first outer side, - which has a first fabric diameter D A1, wherein: D A1 ≥ 0.8·D S, - which is embedded in the grinding layer on the first outer side, - which has a first fabric diameter D A1, wherein: D A1 ≥ 0.8·D S, - a second reinforcing fabric - which is embedded in the grinding layer on the second outer side, - which has a second fabric diameter D A2, wherein: D A2 ≥ 0.8·D S, characterized in that at least one fabric (W 1 to W 4) is arranged on at least one of the reinforcing fabrics (6, 8), and in that the at least one fabric (W 1 to W 4) has a respective diameter D i, wherein: D i < D A1 and D i < D A2. - which is embedded in the grinding layer on the second outer side, - which has a second fabric diameter D A2, wherein: D A2 ≥ 0.8·D S, characterized in that at least one fabric (W 1 to W 4) is arranged on at least one of the reinforcing fabrics (6, 8), and in that the at least one fabric (W 1 to W 4) has a respective diameter D i, wherein: D i < D A1 and D i < D A2.