mhurhangee/ep-ind-claims huggingface dataset:
Magnetic centre-finding device comprising: • a moving body, called rotor (R'), including a steel crown, comprising a mechanical structure and at least two magnetic yokes (CR11, CR12), and comprising no magnet, • a reference body, called stator (S'), comprising a mechanical structure and at least two magnetic yokes (CS11, CS12), arranged between the two yokes of the rotor, - two crowns of magnets (A11, A12), and two sets of windings (B11, B11', B12, B12') that can be powered by a winding current being assembled on the stator, the two sets of windings being arranged on the two magnetic yokes of the stator between the two crowns of magnets, - at least four air gaps separating said magnetic yokes (CR11, CR12) of the rotor (R') and said magnetic yokes (CS11, CS12) of the stator (S'), - magnetic fluxes (FB11, FB12) created by said windings and magnetic fluxes (FA11, FA12, FA11', FA12') created by said magnets, passing through the air gaps separating said magnetic yokes (CR11, CR12) of the rotor (R') and said magnetic said magnetic yokes (CS11, CS12) of the stator (S'). • a moving body, called rotor (R'), including a steel crown, comprising a mechanical structure and at least two magnetic yokes (CR11, CR12), and comprising no magnet, • a reference body, called stator (S'), comprising a mechanical structure and at least two magnetic yokes (CS11, CS12), arranged between the two yokes of the rotor, - two crowns of magnets (A11, A12), and two sets of windings (B11, B11', B12, B12') that can be powered by a winding current being assembled on the stator, the two sets of windings being arranged on the two magnetic yokes of the stator between the two crowns of magnets, - at least four air gaps separating said magnetic yokes (CR11, CR12) of the rotor (R') and said magnetic yokes (CS11, CS12) of the stator (S'), - magnetic fluxes (FB11, FB12) created by said windings and magnetic fluxes (FA11, FA12, FA11', FA12') created by said magnets, passing through the air gaps separating said magnetic yokes (CR11, CR12) of the rotor (R') and said magnetic said magnetic yokes (CS11, CS12) of the stator (S'). - two crowns of magnets (A11, A12), and two sets of windings (B11, B11', B12, B12') that can be powered by a winding current being assembled on the stator, the two sets of windings being arranged on the two magnetic yokes of the stator between the two crowns of magnets, - at least four air gaps separating said magnetic yokes (CR11, CR12) of the rotor (R') and said magnetic yokes (CS11, CS12) of the stator (S'), - magnetic fluxes (FB11, FB12) created by said windings and magnetic fluxes (FA11, FA12, FA11', FA12') created by said magnets, passing through the air gaps separating said magnetic yokes (CR11, CR12) of the rotor (R') and said magnetic said magnetic yokes (CS11, CS12) of the stator (S').
A device for combined pressure protection and air flow control in the interior of highspeed rail vehicles, wherein the pressure protection and air volume functions are implemented with a common assembly which regulates the free flow cross-section of air intake and/or exhaust openings, depending on the specific operating conditions, wherein the device has a housing which is pressure-tight against pressure surges up to a magnitude of ± 10 kPa, the housing having a recess on its surface located opposite the base surface, to which functionally a flap element is associated, wherein the flap element is supported via an axis extending parallel to its longitudinal direction at both end sections of the axis on the housing and pivotably arranged along this axis, such that the recess can be closed pressure-tight from any position of the flap element, wherein a drive assembly is associated with the flap element, which is operatively connected to an electric drive for exact repeatable positioning of the flap element, such that a closing process starting from any position of the flap element can be performed within ≤ 50 ms and wherein the drive is connected to a mechanical or electrical actuator, which automatically sets a defined end position for the flap element in its de-energized state, characterized in that the flap element has a first areal section on the one side with respect to the axis extending in the longitudinal direction and a second areal section on the other side, wherein the sections (41; 42) are arranged to extend in mutually different planes relative to the axis and wherein the areal sections (41; 42) are configured such that the lower section in the closed position rests against the bottom side of the contour of the pressure-tight housing surrounding the recess and the upper section in the closed position rests on the top side of the contour of the pressure-tight housing surrounding the recess.
A method for reducing significantly or eliminating relaxation oscillations in a singly resonant continuous wave intra-cavity OPO, the method comprising using a gain-medium for generating pump radiation in the intra-cavity OPO, the gain-medium being such that a lifetime τ u of its upper laser state, in the absence of stimulated emission, is of the order of or less than the smaller of: (i) a lifetime τ p of the pump radiation in a cavity (18, 28) of a pump-laser, or (ii) a lifetime τ s of that component of down-converted radiation that is resonant in a cavity (18, 22 or 18, 22, 26) of the OPO wherein the conditions for reducing significantly or eliminating relaxation oscillations are determined from the cubic equation: α 3 + 1 + k τ u α 2 + k τ p k + 1 τ u + 1 τ s α + k k + 1 τ u τ s τ p = 0 for the variable α, where α is written as: α = α r + iα i wherein the conditions for the relaxation oscillations to be critically or greater than critically damped are: π α r 2 α i ≥ 1, where α r is negative, ( 1+k) is the number of times above OPO threshold that the intra-cavity OPO is excited by the pump laser, and where a population in a lower laser level of the gain-medium is negligible. (i) a lifetime τ p of the pump radiation in a cavity (18, 28) of a pump-laser, or (ii) a lifetime τ s of that component of down-converted radiation that is resonant in a cavity (18, 22 or 18, 22, 26) of the OPO
A machine implemented method for presenting a web page of a first party website, the web page including a resource from a third party domain, the method comprising: maintaining one or more data stores (111, 219, 223, 225, 227, 303, 313, 319) capable of storing local data in a device, the local data including usage tracking data accessible via one or more data access operations on the data stores; wherein data access operations return statuses that indicate when the data access operations are completed; receiving a data access request from the third party domain, the data access request including a request for performing desired data access operations on the usage tracking data; configuring data access operations, thereby providing configured data access operations, such that the third party domain (101, 103) is blocked from access to the usage tracking data of the device; wherein the configured data access operations are configured to return the statuses indicating that the desired data access operations are completed while the third party domain is blocked from access to the usage tracking data of the device; loading the resource from the third party domain for the web page (301, 311) based on the resource, wherein the loading of the resource invokes the desired data access operations configured for accessing the blocked usage tracking data; and performing the desired data access operations on the data stores according to the configuration for the loading of the resource, wherein the resource is successfully loaded while the third party domain is blocked from access to usage tracking data. maintaining one or more data stores (111, 219, 223, 225, 227, 303, 313, 319) capable of storing local data in a device, the local data including usage tracking data accessible via one or more data access operations on the data stores; wherein data access operations return statuses that indicate when the data access operations are completed; receiving a data access request from the third party domain, the data access request including a request for performing desired data access operations on the usage tracking data; configuring data access operations, thereby providing configured data access operations, such that the third party domain (101, 103) is blocked from access to the usage tracking data of the device; wherein the configured data access operations are configured to return the statuses indicating that the desired data access operations are completed while the third party domain is blocked from access to the usage tracking data of the device; loading the resource from the third party domain for the web page (301, 311) based on the resource, wherein the loading of the resource invokes the desired data access operations configured for accessing the blocked usage tracking data; and performing the desired data access operations on the data stores according to the configuration for the loading of the resource, wherein the resource is successfully loaded while the third party domain is blocked from access to usage tracking data.
Method of regulation of the angular position of hollow bodies in an installation for production of containers by forming thermoplastic material preforms in which the hollow bodies are moved in single file along a production itinerary by individual support members (38, 88), each of which is equipped with means for causing the hollow body to turn about its axis, the method including a first step of measuring an angular offset (α) of at least one particular hollow body relative to a reference angular position in a particular measurement zone (107B, 107C, 107D) of the production itinerary, characterized in that it includes a second step of compensation of the angular position of the subsequent hollow bodies in a compensation zone (112A, 112B, 112C) upstream of said measurement zone (107B, 107C, 107D) during which the angular orientation of the subsequent hollow bodies is modified by an updated compensation angle (α1) that is a function of the angular offset (α) measured for the at least one particular hollow body in the first step and that is a function of a current compensation angle (α0) in such a manner as to reduce the angular offset (α) of the hollow bodies in said measurement zone (107B, 107C, 107D).
A camshaft assembly capable of being rotatably supported on a cylinder head of an internal combustion engine, said camshaft assembly comprising: a driven sprocket configured to connect said camshaft assembly connected to a crankshaft; two or more cam portion(s) (201, 202); at least one intake flange connected to at least one of said two or more cam portion(s) (201, 202); and at least one exhaust flange connected to at least one other of said two or more cam portion; a mechanical phasing assembly capable of performing phase shift of at least one flange (220, 225) with respect to said driven sprocket depending on a speed of rotation of said camshaft assembly; and wherein said mechanical phasing assembly includes at least one radially preloaded mass member, said mass member capable of performing phase shift of at least one of said at least one intake flange and said at least one of said exhaust flange with respect to said driven sprocket depending on said speed of rotation of said camshaft assembly an axial-load member preloaded in axial direction for exerting axial load on the mass member. a driven sprocket configured to connect said camshaft assembly connected to a crankshaft; two or more cam portion(s) (201, 202); at least one intake flange connected to at least one of said two or more cam portion(s) (201, 202); and at least one exhaust flange connected to at least one other of said two or more cam portion; a mechanical phasing assembly capable of performing phase shift of at least one flange (220, 225) with respect to said driven sprocket depending on a speed of rotation of said camshaft assembly; and wherein said mechanical phasing assembly includes at least one radially preloaded mass member, said mass member capable of performing phase shift of at least one of said at least one intake flange and said at least one of said exhaust flange with respect to said driven sprocket depending on said speed of rotation of said camshaft assembly an axial-load member preloaded in axial direction for exerting axial load on the mass member.
Leg pulling device having a traction device for exerting a pulling force on a leg of a patient, a supporting device, and two guide carriages (9, 10) perpendicular to each other, wherein the supporting device can be arranged relative to the traction device such that the supporting device supports the patient counter to the pulling force exerted by the traction device, wherein the supporting device and/or the traction device have/has at least one sensor, with which at least one force or at least one pressure exerted on the patient by the supporting device upon actuation of the traction device can be measured, and the supporting device can be mounted on a lying surface by means of two mutually perpendicular guide carriages (9; 10), wherein the guide carriages (9; 10) are oriented in those directions in which the force components can be measured by force sensors (13; 14).
Mn-Mg ferrite particles having an average particle size of 1 to 2000 nm and having a spherical shape with an average degree of sphericity of 1 to 1.2, wherein the ferrite particles contain 13 to 25 % by weight of Mn, 1 to 3.5 % by weight of Mg, and 43 to 57 % by weight of Fe.
A method for purifying a polypeptide comprising a histidine-tag comprising the following steps: - applying a solution comprising the polypeptide with a histidine-tag to a hydrophobic interaction chromatography material, and - recovering the polypeptide comprising a histidine-tag with a solution comprising imidazole or an imidazole-derivative from the hydrophobic interaction chromatography material and thereby purifying the polypeptide comprising a histidine-tag. - applying a solution comprising the polypeptide with a histidine-tag to a hydrophobic interaction chromatography material, and - recovering the polypeptide comprising a histidine-tag with a solution comprising imidazole or an imidazole-derivative from the hydrophobic interaction chromatography material and thereby purifying the polypeptide comprising a histidine-tag.
A process for separating heavy metals from phosphoric starting material comprising the following steps: (i) heating the starting material to a temperature of 600 to 1.200°C in a first reactor and withdrawing combustion gas; (ii) using the combustion gas of step (i) to preheat an alkaline source; and (iii) transferring the heated starting material of step (i) and the heated alkaline source of step (ii) to a second reactor, adding an elemental carbon source, heating to a temperature of 700 to 1.100°C and withdrawing process gas and a product stream. (i) heating the starting material to a temperature of 600 to 1.200°C in a first reactor and withdrawing combustion gas; (ii) using the combustion gas of step (i) to preheat an alkaline source; and (iii) transferring the heated starting material of step (i) and the heated alkaline source of step (ii) to a second reactor, adding an elemental carbon source, heating to a temperature of 700 to 1.100°C and withdrawing process gas and a product stream.
A compound represented by the following formula I, an optical isomer thereof or a pharmaceutically acceptable salt thereof: Wherein, X is a Heterocycloalkyl selected from the group consisting of {wherein Z and W are each independently C or N, at least one of Z and W is N, a, b, c and d are each independently 1, 2 or 3, and R 3, R 4, R 5 and R 6 are each independently -H or -C 1 -C 4 alkyl}; Y is C or N; A and B are each independently -C 1 -C 4 alkyl, -C 6 -C 10 aryl, -C 3 -C 12 heteroaryl, -C 3 -C 10 cycloalkyl, -C 2 -C 10 heterocycloalkyl, or -C 3 -C 10 cycloalkenyl {wherein one or more hydrogen atoms of the -C 1 -C 4 alkyl may be substituted with -OH or halogen, and the -C 6 -C 10 aryl, -C 3 -C 12 heteroaryl, -C 3 -C 10 cycloalkyl, -C 2 -C 10 heterocycloalkyl and -C 3 -C 10 cycloalkenyl may be each independently unsubstituted or substituted with -OH, -C 1 -C 4 alkyl, -OC 1 -C 4 alkyl, -CF 3 or halogen at one or more hydrogen atoms thereof}; Q is C=O or SO 2; R 1 is -H or -C 1 -C 4 alkyl; R 2 is -H, -OH, -C 1 -C 4 alkyl, -C 1 -C 4 alkylhydroxy, halogen or null {provided that when Y is C, R 2 is -H, -OH, -C 1 -C 4 alkyl or -C 1 -C 4 alkylhydroxy, and when Y is N, R 2 is null}; and n is 1, 2, 3 or 4. X is a Heterocycloalkyl selected from the group consisting of {wherein Z and W are each independently C or N, at least one of Z and W is N, a, b, c and d are each independently 1, 2 or 3, and R 3, R 4, R 5 and R 6 are each independently -H or -C 1 -C 4 alkyl}; Y is C or N; A and B are each independently -C 1 -C 4 alkyl, -C 6 -C 10 aryl, -C 3 -C 12 heteroaryl, -C 3 -C 10 cycloalkyl, -C 2 -C 10 heterocycloalkyl, or -C 3 -C 10 cycloalkenyl {wherein one or more hydrogen atoms of the -C 1 -C 4 alkyl may be substituted with -OH or halogen, and the -C 6 -C 10 aryl, -C 3 -C 12 heteroaryl, -C 3 -C 10 cycloalkyl, -C 2 -C 10 heterocycloalkyl and -C 3 -C 10 cycloalkenyl may be each independently unsubstituted or substituted with -OH, -C 1 -C 4 alkyl, -OC 1 -C 4 alkyl, -CF 3 or halogen at one or more hydrogen atoms thereof}; Q is C=O or SO 2; R 1 is -H or -C 1 -C 4 alkyl; R 2 is -H, -OH, -C 1 -C 4 alkyl, -C 1 -C 4 alkylhydroxy, halogen or null {provided that when Y is C, R 2 is -H, -OH, -C 1 -C 4 alkyl or -C 1 -C 4 alkylhydroxy, and when Y is N, R 2 is null}; and n is 1, 2, 3 or 4.
A method, in which an emulsion is absorbed into wood by means of pressure difference, characterized in that the emulsion consists of 5-50 wt.% of a reaction product of a fatty acid obtained from a natural oil with a polyalcohol, and optionally a natural rosin, - one or more emulgators selected from non-ionic emulgators and anionic emulgators, wherein the concentration of emulgators in the emulsion is 1-12 wt-%, and - water, and - optionally one or several pH regulators, - optionally one or several preservatives for emulsion selected from 1,2-benzisothiazol-3 -one, N-butyl benzisothiazolone, 2-octyl-2H-isothiazol-3-one, 2,2-ditiobis(N-methyl)benzamide, methyl isothiazolinone, zinc pyritione and iodine propynyl butyl carbamate, - optionally one or several physically acting wood preservatives selected from polyvalent metal salts, - optionally one or several siccatives selected from cobalt and zirconium salts - optionally one or several colouring agent(s). - one or more emulgators selected from non-ionic emulgators and anionic emulgators, wherein the concentration of emulgators in the emulsion is 1-12 wt-%, and - water, and - optionally one or several pH regulators, - optionally one or several preservatives for emulsion selected from 1,2-benzisothiazol-3 -one, N-butyl benzisothiazolone, 2-octyl-2H-isothiazol-3-one, 2,2-ditiobis(N-methyl)benzamide, methyl isothiazolinone, zinc pyritione and iodine propynyl butyl carbamate, - optionally one or several physically acting wood preservatives selected from polyvalent metal salts, - optionally one or several siccatives selected from cobalt and zirconium salts - optionally one or several colouring agent(s).
A method for adjusting color during active 3D projection using a digital light processing projector, the method for adjusting color comprising: covering one of a plurality of segment ranges of a color wheel one by one, wherein the digital light processing projector is used in collaboration with a pair of active 3D glasses, and the segment range is calculated according to a rotation frequency of the color wheel and a switching time for alternately switching lenses of the active 3D glasses; measuring a plurality of color temperatures corresponding to the plurality of segment ranges of the color wheel by measuring the color temperature of a light source passing through the color wheel after each of the segment ranges is covered; comparing each of the color temperatures with a standard color temperature, for choosing one of the color temperatures closest to the standard color temperature; and taking the segment range corresponding to the color temperature closest to the standard color temperature as a correctional covering segment. covering one of a plurality of segment ranges of a color wheel one by one, wherein the digital light processing projector is used in collaboration with a pair of active 3D glasses, and the segment range is calculated according to a rotation frequency of the color wheel and a switching time for alternately switching lenses of the active 3D glasses; measuring a plurality of color temperatures corresponding to the plurality of segment ranges of the color wheel by measuring the color temperature of a light source passing through the color wheel after each of the segment ranges is covered; comparing each of the color temperatures with a standard color temperature, for choosing one of the color temperatures closest to the standard color temperature; and taking the segment range corresponding to the color temperature closest to the standard color temperature as a correctional covering segment.
A method of producing a plant-based oil-in-water emulsion comprising the steps of providing an ingredient composition which is free from dairy protein, said composition comprising 1.5 to 5 wt. %, preferably 2 to 5 wt. % proteins, wherein the protein consists of plant protein only, wherein the plant protein comprises pea protein, 0.5 to 10.5 wt%, preferably 1.5 to 7.5 wt% of oil, and having a pH of 5.3 - 6.7, preferably 5.6 - 6.6, optionally adding divalent cations to provide a concentration of 1 - 5 mM free divalent cations in the ingredient composition, optionally adding monovalent cations to provide a concentration of 1 - 20 mM free monovalent cations in the ingredient composition and homogenizing and subsequently heat treating the ingredient composition to a temperature of 80°- 100°C for a period of 0.5 - 15 min or an ultra high temperature heat treatment above 135°C for 3 to 30 s to form agglomerated proteins comprising plant proteins and oil, and shearing the composition during or after the heat treatment to reduce the size of the agglomerated proteins, the agglomerates having a size of 1 to 50 μm (microns) D(4,3) mean diameter as measured by laser diffraction after the shearing, wherein the agglomerate particle size distribution is measured using Mastersizer 3000 from Malvern Instruments, UK, where for the measurements a sample will be dispersed in the Hydro SM measuring cell until an obscuration rate of 9-10% is obtained and then analysed in the Mastersizer. providing an ingredient composition which is free from dairy protein, said composition comprising 1.5 to 5 wt. %, preferably 2 to 5 wt. % proteins, wherein the protein consists of plant protein only, wherein the plant protein comprises pea protein, 0.5 to 10.5 wt%, preferably 1.5 to 7.5 wt% of oil, and having a pH of 5.3 - 6.7, preferably 5.6 - 6.6, optionally adding divalent cations to provide a concentration of 1 - 5 mM free divalent cations in the ingredient composition, optionally adding monovalent cations to provide a concentration of 1 - 20 mM free monovalent cations in the ingredient composition and homogenizing and subsequently heat treating the ingredient composition to a temperature of 80°- 100°C for a period of 0.5 - 15 min or an ultra high temperature heat treatment above 135°C for 3 to 30 s to form agglomerated proteins comprising plant proteins and oil, and shearing the composition during or after the heat treatment to reduce the size of the agglomerated proteins, the agglomerates having a size of 1 to 50 μm (microns) D(4,3) mean diameter as measured by laser diffraction after the shearing, wherein the agglomerate particle size distribution is measured using Mastersizer 3000 from Malvern Instruments, UK, where for the measurements a sample will be dispersed in the Hydro SM measuring cell until an obscuration rate of 9-10% is obtained and then analysed in the Mastersizer.