mhurhangee/ep-ind-claims huggingface dataset:
A precious metal member (33, 43) consisting of: Ir in an amount of not smaller than 50 mass%; 6.5 mass% to 22 mass% of Rh; 5.2 mass% to 24 mass% of Ru; 0.4 mass% to 3.5 mass% of Ni; optionally, at least one of Pt, Pd, Re and Os; further optionally an oxide (inclusive of a composite oxide) of an element selected from Sr, Y, La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu, Ti, Zr and Hf, in the range of from 0.5 mass% to 3 mass% and any unavoidable impurities. Ir in an amount of not smaller than 50 mass%; 6.5 mass% to 22 mass% of Rh; 5.2 mass% to 24 mass% of Ru; 0.4 mass% to 3.5 mass% of Ni; optionally, at least one of Pt, Pd, Re and Os; further optionally an oxide (inclusive of a composite oxide) of an element selected from Sr, Y, La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu, Ti, Zr and Hf, in the range of from 0.5 mass% to 3 mass% and any unavoidable impurities.
A collapsible, transluminally deliverable embolic protection device for temporarily positioning in the aortic arch for deflection of embolic debris from the ascending aorta to the descending aorta, said device is permanently connected to a transluminal delivery unit extending proximally from a connection point, and having: a frame with a periphery, a blood permeable unit within said periphery for preventing embolic particles from passing therethrough with a blood flow downstream an aortic valve into side vessels of said aortic arch to the brain of a patient; wherein said frame is collapsible along a longitudinal axis, and at least one tissue apposition sustaining unit, for application of a stabilization force offset to said connection point at said device towards an inner wall of said aortic arch, when said device is positioned in said aortic arch for improving stability and peripheral sealing, wherein said tissue apposition sustaining unit is a pushing unit extending from said embolic protection device to a channel of a delivery catheter for providing a pushing force against said frame and blood permeable unit and pressing said periphery to said inner wall. a frame with a periphery, a blood permeable unit within said periphery for preventing embolic particles from passing therethrough with a blood flow downstream an aortic valve into side vessels of said aortic arch to the brain of a patient; wherein said frame is collapsible along a longitudinal axis, and at least one tissue apposition sustaining unit, for application of a stabilization force offset to said connection point at said device towards an inner wall of said aortic arch, when said device is positioned in said aortic arch for improving stability and peripheral sealing, wherein said tissue apposition sustaining unit is a pushing unit extending from said embolic protection device to a channel of a delivery catheter for providing a pushing force against said frame and blood permeable unit and pressing said periphery to said inner wall.
Magnetic separator for separating ferromagnetic particles from an exhaust airstream, comprising a housing, at least one magnet which is arranged inside the housing and past which the exhaust airstream is guided in operation, wherein the housing comprises a housing inlet and a housing outlet for mounting in a tubing of an exhaust airstream, wherein in the housing inlet at least one guiding element (4.1) is arranged, which directs the exhaust airstream toward the magnet in operation, wherein a cross-sectional area of the housing inlet is smaller than a cross-sectional area inside the housing, characterized in that two guiding elements (4.1) are arranged in the housing inlet which in operation divide the exhaust airstream into three partial streams, and that a plurality of magnets are arranged inside the housing offset against each other, i.e. in several rows and columns. characterized in that two guiding elements (4.1) are arranged in the housing inlet which in operation divide the exhaust airstream into three partial streams, and that a plurality of magnets are arranged inside the housing offset against each other, i.e. in several rows and columns.
A central column office chair comprising a backrest, a seat, a supporting structure for supporting the backrest and the seat, and a base support, wherein the supporting structure is pivotably mounted with respect to the base support, and the seat and the backrest are each pivotably mounted with respect to the supporting structure, to permit the supporting structure, the seat and the backrest to each tilt over a predetermined range, to allow the chair to move into and out of a reclined position, wherein the seat is free to pivot over its predetermined range relative to the supporting structure independently of a tilt of the supporting structure relative to the base support, and wherein the backrest is free to pivot over its predetermined range relative to the supporting structure independently of a tilt of the supporting structure relative to the base support.
A device for monitoring the inhalation of airborne pollutant by a subject, the device comprising: a memory unit and a processing unit configured to obtain measurements of the amount of airborne pollutant around the subject and the amount of air inhaled by the subject, and to combine the obtained measurements to determine a measure of the amount of airborne pollutant inhaled by the subject, characterized in that the processing unit is configured to determine the amount of air inhaled from the obtained measurements and from information on physical characteristics of the subject, wherein the information on physical characteristics of the subject includes a typical inhaled breath volume, wherein the typical inhaled breath volume is obtained from a look-up table including previously calculated air volume corresponding to physical activity measurement, or wherein the look-up table is compiled from data corresponding to a given subject type of the subject, the subject type including at least one of age, gender, profession, body height, body weight, body mass index, lung capacity, and chronic obstructive pulmonary disease (COPD) condition level. a memory unit and a processing unit configured to obtain measurements of the amount of airborne pollutant around the subject and the amount of air inhaled by the subject, and to combine the obtained measurements to determine a measure of the amount of airborne pollutant inhaled by the subject, characterized in that the processing unit is configured to determine the amount of air inhaled from the obtained measurements and from information on physical characteristics of the subject, wherein the information on physical characteristics of the subject includes a typical inhaled breath volume, wherein the typical inhaled breath volume is obtained from a look-up table including previously calculated air volume corresponding to physical activity measurement, or wherein the look-up table is compiled from data corresponding to a given subject type of the subject, the subject type including at least one of age, gender, profession, body height, body weight, body mass index, lung capacity, and chronic obstructive pulmonary disease (COPD) condition level.
Process for coating a tensile member comprising at least the following process steps: - introduction of the tensile member which is in the form of a rope into an immersion bath which contains the coating composition and - short-duration mechanical opening of the rope construction during the coating operation, wherein the mechanical opening is effected through rotating discs (3, 3') in the immersion bath and/or through revolving of the rope around at least one roller (4, 4') in the immersion bath and wherein the short-duration opening is effected over 2 sec to 5 min and - penetration of the coating composition into the opened rope construction, wherein the rope is completely penetrated and - closing the tensile member after the penetration, wherein the coating composition is constructed on the basis of at least one rubber and contains at least one swelling agent, wherein microspheres are employed as the swelling agent. - introduction of the tensile member which is in the form of a rope into an immersion bath which contains the coating composition and - short-duration mechanical opening of the rope construction during the coating operation, wherein the mechanical opening is effected through rotating discs (3, 3') in the immersion bath and/or through revolving of the rope around at least one roller (4, 4') in the immersion bath and wherein the short-duration opening is effected over 2 sec to 5 min and - penetration of the coating composition into the opened rope construction, wherein the rope is completely penetrated and - closing the tensile member after the penetration,
An injection device comprising: a housing; a medicament chamber; a needle guard moveable relative to the housing between an extended position and a retracted position; and a shock absorbing member including a sleeve configured to receive the medicament chamber, the sleeve having a proximal end and a distal end connected by a middle portion, characterized in that the sleeve includes a compressible element between the proximal end and the distal end that is deformable, wherein the compressible element is a single sleeve having one or more longitudinally extending openings. a housing; a medicament chamber; a needle guard moveable relative to the housing between an extended position and a retracted position; and a shock absorbing member including a sleeve configured to receive the medicament chamber, the sleeve having a proximal end and a distal end connected by a middle portion, characterized in that the sleeve includes a compressible element between the proximal end and the distal end that is deformable, wherein the compressible element is a single sleeve having one or more longitudinally extending openings.
Sample media for the analysis of one or more analytes in a fluid test sample which comprises: a carrier; at least one test field on the surface of the carrier including at least one reagent reactive with the one or more analytes and capable of providing a detectable response wherein the carrier is elongated and comprises an absorbent material configured to allow the analyte and labelled antibodies specific thereto to flow through it and along with the fluid test sample and to form analyte/labelled antibody conjugates which can be captured in a specific capture zone thereof and at least one test field is configured to capture either the labelled antibody or the analyte/labelled antibody conjugate and to provide a spectrally detectable response, characterized in that a non-visible bar code formed by at least two distinct non-visible marker fields (60, 60a, 60b) disposed on the carrier, the non-visible marker fields configured to reflect electromagnetic radiation within one or more ranges of non-visible wavelengths to form a coded sequence of reflectances which sequence correlates to information concerning identification of the sample media. a carrier; at least one test field on the surface of the carrier including at least one reagent reactive with the one or more analytes and capable of providing a detectable response wherein the carrier is elongated and comprises an absorbent material configured to allow the analyte and labelled antibodies specific thereto to flow through it and along with the fluid test sample and to form analyte/labelled antibody conjugates which can be captured in a specific capture zone thereof and at least one test field is configured to capture either the labelled antibody or the analyte/labelled antibody conjugate and to provide a spectrally detectable response, characterized in that a non-visible bar code formed by at least two distinct non-visible marker fields (60, 60a, 60b) disposed on the carrier, the non-visible marker fields configured to reflect electromagnetic radiation within one or more ranges of non-visible wavelengths to form a coded sequence of reflectances which sequence correlates to information concerning identification of the sample media.
A computer-implemented method for determining a periodicity of a physiological signal, comprising: Providing a plurality of target periodicities from a discrete range of probable periodicities of interest for a physiological signal; Filtering the plurality of target periodicities of the physiological signal using a bandpass filter to generate signal samples, wherein a lower cutoff frequency of the bandpass filter is below a minimum periodicity of the plurality of target periodicities and an upper cutoff frequency of the bandpass filter is above a maximum periodicity of the plurality of target periodicities; Converting the signal samples into binary values, comprising: converting each signal sample to a Boolean by comparing the signal sample to zero, wherein the signal sample is given a value of True if the signal sample is greater than zero and a value of False otherwise; and representing the signal sample by a single bit according to its Boolean; Calculating an autocorrelation based on the binary values; and Determining a periodicity of the physiological signal based on the calculated autocorrelation; wherein determining a periodicity of the physiological signal based on the calculated autocorrelation comprises: Finding a first peak of the calculated autocorrelation in a direction from a shortest lag to a longest lag; and Defining the first peak as the periodicity of the physiological signal. Providing a plurality of target periodicities from a discrete range of probable periodicities of interest for a physiological signal; Filtering the plurality of target periodicities of the physiological signal using a bandpass filter to generate signal samples, wherein a lower cutoff frequency of the bandpass filter is below a minimum periodicity of the plurality of target periodicities and an upper cutoff frequency of the bandpass filter is above a maximum periodicity of the plurality of target periodicities; Converting the signal samples into binary values, comprising: converting each signal sample to a Boolean by comparing the signal sample to zero, wherein the signal sample is given a value of True if the signal sample is greater than zero and a value of False otherwise; and representing the signal sample by a single bit according to its Boolean; Calculating an autocorrelation based on the binary values; and Determining a periodicity of the physiological signal based on the calculated autocorrelation; wherein determining a periodicity of the physiological signal based on the calculated autocorrelation comprises: Finding a first peak of the calculated autocorrelation in a direction from a shortest lag to a longest lag; and Defining the first peak as the periodicity of the physiological signal. Finding a first peak of the calculated autocorrelation in a direction from a shortest lag to a longest lag; and Defining the first peak as the periodicity of the physiological signal.
A method of enhancing operational aspects of a vehicle, the method comprising: determining that a time integral of a control variable exceeds a threshold value, the control variable used to deflect a control surface of the vehicle; and when the time integral of the control variable exceeds the threshold value: setting a limit for the control variable used to deflect the control surface, the limit set as a function of either an unfavorable flight condition, UFC, or a target angle of attack, α, and also set as a function of a rate of change of angle of attack, α̇, and preventing a control variable command received from a pilot from exceeding the limit for the control variable. determining that a time integral of a control variable exceeds a threshold value, the control variable used to deflect a control surface of the vehicle; and when the time integral of the control variable exceeds the threshold value: setting a limit for the control variable used to deflect the control surface, the limit set as a function of either an unfavorable flight condition, UFC, or a target angle of attack, α, and also set as a function of a rate of change of angle of attack, α̇, and preventing a control variable command received from a pilot from exceeding the limit for the control variable. setting a limit for the control variable used to deflect the control surface, the limit set as a function of either an unfavorable flight condition, UFC, or a target angle of attack, α, and also set as a function of a rate of change of angle of attack, α̇, and preventing a control variable command received from a pilot from exceeding the limit for the control variable.
A system for the reprogramming an ECU (Electronic Control Unit) in a vehicle via digital radio, wherein it comprises: - a first means adapted to encrypt audio files with reprogramming software files for reprogramming an ECU in a vehicle, generating a first encrypted packet PE1; - second means adapted to encrypt in parallel data files and vehicle information files containing ECU identification data adding a header, thereby generating a second encrypted packet PE2; - means adapted for mixing said first and second encrypted packets PE1, PE2 via digital radio technology and for transmitting them simultaneously from a radio broadcast station, by means of a digital radio signal; - means adapted for receiving said first and second encrypted packets PE1, PE2, via a digital radio receiver comprised in the vehicle; - memory means adapted for storing said first and second encrypted packets PE1, PE2 in the vehicle; - means adapted for demodulating the received digital radio signal and separating the first encrypted packet PE1 from the second encrypted packet PE2; - means adapted for decrypting said first and second encrypted packets PE1, PE2, and separating the audio files from the software files, and the data files from the vehicle information files, and also adapted for retransmitting said files (2, 3, 5, 6) within a bus of an ECU that receives said first and second encrypted packages PE1, PE2, through an internal network of the vehicle, so that all ECUs (ECU1,..., ECUn) of the vehicle can receive the retransmitted files (2, 3, 4, 5, 6) simultaneously, and further adapted such that, after the ECU to be reprogrammed responds to the transmitted files (3, 5), said ECU auto-reprograms with the software files received in an application memory. - a first means adapted to encrypt audio files with reprogramming software files for reprogramming an ECU in a vehicle, generating a first encrypted packet PE1; - second means adapted to encrypt in parallel data files and vehicle information files containing ECU identification data adding a header, thereby generating a second encrypted packet PE2; - means adapted for mixing said first and second encrypted packets PE1, PE2 via digital radio technology and for transmitting them simultaneously from a radio broadcast station, by means of a digital radio signal; - means adapted for receiving said first and second encrypted packets PE1, PE2, via a digital radio receiver comprised in the vehicle; - memory means adapted for storing said first and second encrypted packets PE1, PE2 in the vehicle; - means adapted for demodulating the received digital radio signal and separating the first encrypted packet PE1 from the second encrypted packet PE2; - means adapted for decrypting said first and second encrypted packets PE1, PE2, and separating the audio files from the software files, and the data files from the vehicle information files,
A vertical falling film heat transfer tube for falling film evaporation of spent liquor, the heat transfer tube having: - a heating medium surface arranged to be heated by a heating medium; and - a falling film surface opposite and facing away from said heating medium surface, which falling film surface is arranged to have spent liquor containing lignin and other dissolved components from cellulosic material and/or inorganics from the cellulosic material and chemicals used passing over it as a falling film while evaporating solvent from the falling film and thus increasing the dry matter content; said heat transfer tube being made from a steel sheet material, e.g. an iron based high alloy stainless steel material with an alloy content above 16.00% for Chromium and above 1% for Nickel, preferably corresponding to corrosion resistant steel qualities at least like AISI 316 or AISI 304 characterized in that the falling film surface of the heat transfer tube is equipped with one or several welds forming a multitude of weld ridges (WR; WR 1, WR 2) spaced apart along the longitudinal axis of the heat transfer tube such that the distance along the longitudinal axis of the heat transfer tube between adjacent weld ridges is within the range of 0-250 mm; said weld ridges (WR; WR 1, WR 2) having a height (h; h 2) in the range of 0.3-5.0 mm; said weld ridges (WR; WR 1, WR 2) having a width (w; w 2) in the range of 0.5-15 mm; and said weld ridges (WR; WR 1, WR 2) having an inclination angle (α; α 1 α 2) versus a plane orthogonal to a longitudinal axis of the heat transfer tube in a range of 0-70 degrees. - a heating medium surface arranged to be heated by a heating medium; and - a falling film surface opposite and facing away from said heating medium surface, which falling film surface is arranged to have spent liquor containing lignin and other dissolved components from cellulosic material and/or inorganics from the cellulosic material and chemicals used passing over it as a falling film while evaporating solvent from the falling film and thus increasing the dry matter content; said heat transfer tube being made from a steel sheet material, e.g. an iron based high alloy stainless steel material with an alloy content above 16.00% for Chromium and above 1% for Nickel, preferably corresponding to corrosion resistant steel qualities at least like AISI 316 or AISI 304 characterized in that
Wheel for floor care appliances, such as vacuum cleaners or the like, to allow smooth and easy moving of the appliance over a supporting structure, such as a floor, comprising an axis of rotation, a wheel body and a tread surface, characterized in that the wheel also comprises a gas cushion layer, in form of a shell structure of a resilient material, which defines several, separate gas cells (8, 13) filled with gas.
A composition comprising at least one thermoplastic polyurethane, at least one metal hydroxide, and at least one phosphorus-containing flame retardant, where the thermoplastic polyurethane is a thermoplastic polyurethane based on at least one diisocyanate and on at least one polyesterdiol, and has a weight-average molar mass in the range from 50 000 g/mol to 200 000 g/mol, measured by means of GPC, where the composition comprises at least one phyllosilicate or hydrotalcite, or a mixture thereof.