mhurhangee/ep-ind-claims huggingface dataset:
Device for measuring the angle of anteversion of the femoral component, the angle of anteversion of the acetabulum and/or of the cotyle and/or the acetabular inclination angle and/or the cotyloid inclination angle for making a hip prosthesis, comprising: - at least one main component mountable on an apical component (3, 30) of a trial neck device or on an implanted femoral prosthesis component; and - engagement means of said main component with said apical component (3, 30) or with said femoral prosthesis component along a longitudinal axis (w-w), characterised in that the device comprises at least one auxiliary component (10, 11, 12) engageable with said main component, said at least one auxiliary component (10, 11, 12) being displaceable with respect to said main component about an axis transversal to said longitudinal axis (w-w), wherein said at least one auxiliary component (10, 11, 12) is pivoted or hinged to said at least one main component. - at least one main component mountable on an apical component (3, 30) of a trial neck device or on an implanted femoral prosthesis component; and - engagement means of said main component with said apical component (3, 30) or with said femoral prosthesis component along a longitudinal axis (w-w), characterised in that the device comprises at least one auxiliary component (10, 11, 12) engageable with said main component, said at least one auxiliary component (10, 11, 12) being displaceable with respect to said main component about an axis transversal to said longitudinal axis (w-w),
An electronic device comprising: - a housing, - a circuit board, - a plurality of holders including mechanical connectors to the housing and to the circuit board and mechanically fixing the circuit board within the housing, and - at least one capacitor which is part of one of the plurality of holders and includes a first electrode, a second electrode and a dielectric arranged between the first and second electrodes (131, 132), the first electrode being electrically connected to a contact on the circuit board, characterised in that the second electrode of the at least one capacitor is electrically connected to the housing, and the dielectric of the at least one capacitor is part of a thermal insulation between the connectors to the circuit board and to the housing. - a housing, - a circuit board, - a plurality of holders including mechanical connectors to the housing and to the circuit board and mechanically fixing the circuit board within the housing, and - at least one capacitor which is part of one of the plurality of holders and includes a first electrode, a second electrode and a dielectric arranged between the first and second electrodes (131, 132), the first electrode being electrically connected to a contact on the circuit board, characterised in that the second electrode of the at least one capacitor is electrically connected to the housing, and the dielectric of the at least one capacitor is part of a thermal insulation between the connectors to the circuit board and to the housing.
A hearing protector with loudspeakers and comprising two closed muffs, each muff comprising a muff section configured and arranged to be disposed at an ear of a user, the muff thereby sealingly abutting against the user's head, whereby there is formed an enclosed space in the muff and around the user's ear, and a covering section at the outside of the muff to form an enclosed volume in flow communication with the ambient surroundings; a loudspeaker disposed in each of the muffs, each loudspeaker having a membrane and a drive unit for driving the loudspeaker, wherein one side of the membrane is turned to face towards the ear of the user and the opposing side is turned to face towards a closed volume which is defined by the membrane, an enclosure, and the drive unit; wherein the enclosure comprises a capsule which is an integrated part of the loudspeaker, and the muff section of the muff has an outer wall facing away from the user's ear and having an aperture in which the capsule of the loudspeaker is sealingly accommodated; and wherein the interior of the enclosure is, via at least one hole or duct provided in a defining wall of the enclosure, in flow communication with the enclosed volume of the covering section which is in turn in flow communication with the ambient surroundings outside the closed space of the muff; and wherein the total area of said at least one hole or duct lies in the range of 5.5 > A > 0.1 mm 2. two closed muffs, each muff comprising a muff section configured and arranged to be disposed at an ear of a user, the muff thereby sealingly abutting against the user's head, whereby there is formed an enclosed space in the muff and around the user's ear, and a covering section at the outside of the muff to form an enclosed volume in flow communication with the ambient surroundings; a loudspeaker disposed in each of the muffs, each loudspeaker having a membrane and a drive unit for driving the loudspeaker, wherein one side of the membrane is turned to face towards the ear of the user and the opposing side is turned to face towards a closed volume which is defined by the membrane, an enclosure, and the drive unit; wherein the enclosure comprises a capsule which is an integrated part of the loudspeaker, and the muff section of the muff has an outer wall facing away from the user's ear and having an aperture in which the capsule of the loudspeaker is sealingly accommodated; and wherein the interior of the enclosure is, via at least one hole or duct provided in a defining wall of the enclosure, in flow communication with the enclosed volume of the covering section which is in turn in flow communication with the ambient surroundings outside the closed space of the muff; and wherein the total area of said at least one hole or duct lies in the range of 5.5 > A > 0.1 mm 2.
A flame retardant composition, comprising: a first polycarbonate polymer having repeating units derived from a monomer having the structure of Formula or Formula: wherein R and R' are C 2 -C 15 alkyl; m, n, p, and q are each 0 or 1, m+n=1, and p+q=1; and E is C 1 -C 15 alkyl; and 0.05 wt% to 0.5 wt% of a flame retardant additive, wherein the flame retardant additive is an alkali metal salt of a perfluorinated C1-C16 alkyl sulfonate, potassium diphenylsulfonate sulfonate, sodium benzene sulfonate, sodium toluene sulfonate, a cyclic siloxane having the formula [ 2 SiO] y wherein R is a monovalent hydrocarbon or fluorinated hydrocarbon having from 1 to 18 carbon atoms and y is a number from 3 to 12. a first polycarbonate polymer having repeating units derived from a monomer having the structure of Formula or Formula: wherein R and R' are C 2 -C 15 alkyl; m, n, p, and q are each 0 or 1, m+n=1, and p+q=1; and E is C 1 -C 15 alkyl; and 0.05 wt% to 0.5 wt% of a flame retardant additive, wherein the flame retardant additive is an alkali metal salt of a perfluorinated C1-C16 alkyl sulfonate, potassium diphenylsulfonate sulfonate, sodium benzene sulfonate, sodium toluene sulfonate, a cyclic siloxane having the formula [ 2 SiO] y wherein R is a monovalent hydrocarbon or fluorinated hydrocarbon having from 1 to 18 carbon atoms and y is a number from 3 to 12.
Nozzle for spraying liquids, having a nozzle housing and a plurality of outlet openings (22, 24) in the nozzle housing, wherein each outlet opening (22, 24) is arranged at the end of an outlet passage (32, 34) through the wall of the nozzle housing, and wherein the plurality of outlet openings (22, 24) is arranged in a circle on the nozzle housing, wherein the nozzle is designed as a dual-substance nozzle having an internal mixing chamber, wherein the mixing chamber has a liquid inlet and a gas inlet, wherein an outlet angle (W1/2, W2/2) which the respective central axis (72, 74) of the outlet passage (32, 34) associated with the outlet opening (22, 24) encloses with a central longitudinal axis of the nozzle housing differs between at least one first and at least one second outlet opening (22, 24), characterized in that the mixing chamber is of annular design, wherein the outlet passages (32, 34) start from the mixing chamber, and in that mouth openings of the outlet passages (32, 34) are located on the inner side of the wall of the nozzle housing on a common imaginary circular line.
A method of producing multi-walled carbon nanotube blended polyvinylidene fluoride (MWCNTs/PVDF) membranes for membrane distillation treatment of saline water using non-solvent induced phase separation (NIPS), said method including mixing two solvents with different solubility parameters, said solvents being triethyl phosphate and N, N-dimethylacetamide (DMAC), mixed in a 1:1 mass ratio, and the use of a dual coagulation bath system comprising a first bath containing a mixture of TEP, DMAC and water and thereafter a second bath containing pure water as a non-solvent to control the formation of membrane pore structures and enhance surface hydrophobicity whereby blended PVDF membranes are produced for application in MD processes.
A network comprising (i) a plurality of spatially separate cement mix operation units, each of which comprises at least one sensor for monitoring at least one characteristic of its operation, and/or a system to manually input at least one characteristic of its operation, (ii) a central processing unit, to which each sensor or the manual system is configured to send its information and which is configured to store and/or process the information, wherein said plurality of spatially separate cement mix operation units is operably connected to said central processing unit, characterised in that the mix operation units comprise at least one mix operation unit in which a cement mix is to be carbonated and wherein the mix operation unit in which the cement mix is to be carbonated is configured to deliver liquid carbon dioxide to the cement mix in such a manner that the liquid carbon dioxide is converted to gaseous and solid carbon dioxide as it is delivered to the cement mix. (i) a plurality of spatially separate cement mix operation units, each of which comprises at least one sensor for monitoring at least one characteristic of its operation, and/or a system to manually input at least one characteristic of its operation, (ii) a central processing unit, to which each sensor or the manual system is configured to send its information and which is configured to store and/or process the information, wherein said plurality of spatially separate cement mix operation units is operably connected to said central processing unit,
A headgear for use with a patient interface for supplying a pressurized flow of breathable gas to an airway of a patient and configured to secure the patient interface to a face of the patient, the headgear comprising: a first wrapping panel (102A/B, 202A/B) configured to be disposed against a rear side of a head of the patient, the first wrapping panel having an upper portion structured to be coupled to the patient interface via at least one upper strap portion (113, 213) and a lower portion structured to be coupled to the patient interface via a first lower strap portion (106, 208) passing below an ear of the patient along a first side of the head of the patient when the patient interface is secured to the face of the patient via the headgear; and a second wrapping panel (102B/A, 202B/A) configured to be disposed against a rear side of the head of the patient, the second wrapping panel having an upper portion coupled to the upper portion of the first wrapping panel, the upper portion of the second wrapping panel being structured to be coupled to the patient interface via the at least one upper strap portion (113, 213), and a lower portion structured to be coupled to the patient interface via a second lower strap portion (106, 208) passing below another ear of the patient along a second side of the head of the patient opposite the first side, and wherein a portion of the second wrapping panel overlaps a corresponding portion of the first wrapping panel in an overlap region (104, 204) disposed between the upper and lower portions of each of the first wrapping panel and the second wrapping panel. a first wrapping panel (102A/B, 202A/B) configured to be disposed against a rear side of a head of the patient, the first wrapping panel having an upper portion structured to be coupled to the patient interface via at least one upper strap portion (113, 213) and a lower portion structured to be coupled to the patient interface via a first lower strap portion (106, 208) passing below an ear of the patient along a first side of the head of the patient when the patient interface is secured to the face of the patient via the headgear; and a second wrapping panel (102B/A, 202B/A) configured to be disposed against a rear side of the head of the patient, the second wrapping panel having an upper portion coupled to the upper portion of the first wrapping panel, the upper portion of the second wrapping panel being structured to be coupled to the patient interface via the at least one upper strap portion (113, 213), and a lower portion structured to be coupled to the patient interface via a second lower strap portion (106, 208) passing below another ear of the patient along a second side of the head of the patient opposite the first side, and wherein a portion of the second wrapping panel overlaps a corresponding portion of the first wrapping panel in an overlap region (104, 204) disposed between the upper and lower portions of each of the first wrapping panel and the second wrapping panel.
A control method for controlling a vehicle moving on a track, the vehicle comprising rollers intended for contact on at least one support defining the track, a floor intended for transporting a load, said floor cooperating with the rollers through a set of suspensions, the set of suspensions comprising at least one suspension, the at least one suspension being controlled by at least one force setpoint defining the force exerted by the at least one suspension on the floor, the method being implemented by a control command system and comprising the following steps: a. collection of a pitch parameter of the floor, representative of the pitch rotational acceleration of the floor; b. determination of a longitudinal correction command intended to modify the at least one force setpoint; c. application of the longitudinal correction command to the set of suspensions, the longitudinal correction command being representative of a longitudinal force setpoint differential, said longitudinal differential being applied between two suspensions associated respectively with two rollers disposed longitudinally in the displacement direction of the vehicle, the differential being dependent on the distance between the two rollers and on the pitch parameter of the floor. a. collection of a pitch parameter of the floor, representative of the pitch rotational acceleration of the floor; b. determination of a longitudinal correction command intended to modify the at least one force setpoint; c. application of the longitudinal correction command to the set of suspensions, the longitudinal correction command being representative of a longitudinal force setpoint differential, said longitudinal differential being applied between two suspensions associated respectively with two rollers disposed longitudinally in the displacement direction of the vehicle, the differential being dependent on the distance between the two rollers and on the pitch parameter of the floor.
Medico-technical measuring device for measuring a property of a fluid, namely for pressure measurement, comprising - a line which extends along a central longitudinal axis and is configured to guide a fluid, in particular blood, within a longitudinal cavity delimited by a wall; - a sensor unit with a pressure sensor, which is configured to measure a property of the fluid guided in the longitudinal cavity; wherein the sensor unit has an abutting section, which abuts against the external sleeve surface (22.1) of the wall and has a radial section, wherein the line is designed as a flexible hose line and has a radial cavity introduced in the wall in a radial direction, in which cavity the sensor unit is at least partially arranged and is integrated in the wall, such that the pressure sensor is in communication with the fluid, characterized in that the pressure sensor surface is positioned within the wall. - a line which extends along a central longitudinal axis and is configured to guide a fluid, in particular blood, within a longitudinal cavity delimited by a wall; - a sensor unit with a pressure sensor, which is configured to measure a property of the fluid guided in the longitudinal cavity; wherein the sensor unit has an abutting section, which abuts against the external sleeve surface (22.1) of the wall and has a radial section, wherein the line is designed as a flexible hose line and has a radial cavity introduced in the wall in a radial direction, in which cavity the sensor unit is at least partially arranged and is integrated in the wall, such that the pressure sensor is in communication with the fluid, wherein the sensor unit has an abutting section, which abuts against the external sleeve surface (22.1) of the wall and has a radial section, wherein the line is designed as a flexible hose line and has a radial cavity introduced in the wall in a radial direction, in which cavity the sensor unit is at least partially arranged and is integrated in the wall, such that the pressure sensor is in communication with the fluid,
A battery secondary use management system for managing the determination of a secondary use destination of a battery in use from a plurality of secondary use destination candidates by using information of the battery, comprising: an expired use time prediction unit configured (i) to obtain estimated degradation information of the battery in use and (ii) to predict an expired use time of the battery in use on the basis of the estimated degradation information which is acquired; a battery replacement time prediction unit configured (i) configured to obtain estimated degradation information of the batteries used with respect to the plurality of secondary use destination candidates and (ii) to predict battery replacement times of the batteries used with respect to the plurality of secondary use destination candidates on the basis of the obtained estimated degradation information; and a secondary use destination determining unit configured to determine in advance the secondary use destination of the battery in use before expiration of use on the basis of the expired use time of the battery in use predicted by the expired use time prediction unit and the battery replacement times of the plurality of secondary use destination candidates predicted by the battery replacement time prediction unit. an expired use time prediction unit configured (i) to obtain estimated degradation information of the battery in use and (ii) to predict an expired use time of the battery in use on the basis of the estimated degradation information which is acquired; a battery replacement time prediction unit configured (i) configured to obtain estimated degradation information of the batteries used with respect to the plurality of secondary use destination candidates and (ii) to predict battery replacement times of the batteries used with respect to the plurality of secondary use destination candidates on the basis of the obtained estimated degradation information; and a secondary use destination determining unit configured to determine in advance the secondary use destination of the battery in use before expiration of use on the basis of the expired use time of the battery in use predicted by the expired use time prediction unit and the battery replacement times of the plurality of secondary use destination candidates predicted by the battery replacement time prediction unit.
A method for processing video data to derive an optimized transform for use in video compression, the method comprising: performing a clustering on the video data; generating a plurality of N data clusters as a result of the clustering; generating a plurality of N graph laplacian matrices corresponding to the N data clusters from graph information representing pixel relationship information of the data clusters; performing a transform optimization based on the graph laplacian matrices; and generating an optimized transform matrix according to a result of the transform optimization, wherein the transform optimization is performed based on a specified metric, and the specified metric minimizes a squared sum of off-diagonal elements, wherein the optimized transform matrix is obtained by: T ∗ = argmin T | TT t = I ∑ i = 1 N ‖ ddiag TL i T t − TL i T t ‖ F 2 Wherein L i denotes the graph laplacian matrices with i = 1, 2,..., N, the operator ddiag( TL i T t) generates a diagonal matrix from the diagonal components of the matrix TL i T t the matrix I represents the identity matrix, and ∥·∥ F represents the Frobenius norm. performing a clustering on the video data; generating a plurality of N data clusters as a result of the clustering; generating a plurality of N graph laplacian matrices corresponding to the N data clusters from graph information representing pixel relationship information of the data clusters; performing a transform optimization based on the graph laplacian matrices; and generating an optimized transform matrix according to a result of the transform optimization, wherein the transform optimization is performed based on a specified metric, and the specified metric minimizes a squared sum of off-diagonal elements, wherein the optimized transform matrix is obtained by: T ∗ = argmin T | TT t = I ∑ i = 1 N ‖ ddiag TL i T t − TL i T t ‖ F 2 Wherein L i denotes the graph laplacian matrices with i = 1, 2,..., N, the operator ddiag( TL i T t) generates a diagonal matrix from the diagonal components of the matrix TL i T t the matrix I represents the identity matrix, and ∥·∥ F represents the Frobenius norm.
A method of preparing n-butylalcohol, comprising: reacting n-butylaldehyde with cyclohexanol in the presence of a metal catalyst, wherein the reacting includes dehydrogenating with decomposition of the cyclohexanol into cyclohexanone and hydrogen, and reducing the n-butylaldehyde by the hydrogen produced by the decomposition of cyclohexanol. reacting n-butylaldehyde with cyclohexanol in the presence of a metal catalyst, wherein the reacting includes dehydrogenating with decomposition of the cyclohexanol into cyclohexanone and hydrogen, and reducing the n-butylaldehyde by the hydrogen produced by the decomposition of cyclohexanol.
Method for the heat treatment of a metal strip prior to metallic coating, wherein the metal strip is initially heated in a direct fired furnace part using hot flue gases and then annealed in a reducing protective atmosphere in a furnace section comprising at least one muffle, characterised in that the muffle is heated using the flue gases from the direct fired furnace part.