mhurhangee/ep-ind-claims huggingface dataset:
A boring bar provided with a wall, an internal recess and a longitudinal axis, characterized in that said boring bar comprises, in its internal recess: - a first electrodynamic actuator comprising coil windings (101, 102) surrounding a moving mass provided with at least one permanent magnet as well as, on either side of the moving mass, at least one spring (120, 121) mounted on the moving mass, the assembly being arranged to define a first direction of actuation perpendicular to the longitudinal axis of the boring bar; - a second electrodynamic actuator provided with coil windings (201, 202) surrounding a moving mass provided with at least one permanent magnet as well as, on either side of the moving mass, at least one spring (220, 221) mounted on the moving mass, the assembly being arranged so as to define a second direction of actuation which is both perpendicular to the first direction of actuation and to the longitudinal axis of the boring bar. - a first electrodynamic actuator comprising coil windings (101, 102) surrounding a moving mass provided with at least one permanent magnet as well as, on either side of the moving mass, at least one spring (120, 121) mounted on the moving mass, the assembly being arranged to define a first direction of actuation perpendicular to the longitudinal axis of the boring bar; - a second electrodynamic actuator provided with coil windings (201, 202) surrounding a moving mass provided with at least one permanent magnet as well as, on either side of the moving mass, at least one spring (220, 221) mounted on the moving mass, the assembly being arranged so as to define a second direction of actuation which is both perpendicular to the first direction of actuation and to the longitudinal axis of the boring bar.
A mounting assembly for mounting a sound-deadening body to a fuselage of an aircraft, the mounting assembly comprising: a mounting bracket configured for attachment to the fuselage; an isolating grommet engaged with the mounting bracket; and a retaining spike engaged with the isolating grommet, the retaining spike configured to engage the sound-deadening body, wherein the isolating grommet supports the retaining spike on the mounting bracket and is configured to diminish transmission of vibration from the fuselage to the retaining spike, and wherein the retaining spike has no direct contact with the mounting bracket, wherein the isolating grommet comprises an elastomeric material configured to isolate the retaining spike from vibrations emanating from the fuselage, wherein the retaining spike includes a detachable alignment member portion, wherein the detachable alignment member portion is disposed at a longitudinal end of the retaining spike, wherein the detachable alignment member portion includes a tapered portion at a longitudinal end of the detachable alignment member portion, characterised in that said detachable alignment member portion further comprises a flange spaced apart from the tapered portion, wherein the flange has a diameter which is greater than a diameter of the tapered portion. a mounting bracket configured for attachment to the fuselage; an isolating grommet engaged with the mounting bracket; and a retaining spike engaged with the isolating grommet, the retaining spike configured to engage the sound-deadening body, wherein the isolating grommet supports the retaining spike on the mounting bracket and is configured to diminish transmission of vibration from the fuselage to the retaining spike, and wherein the retaining spike has no direct contact with the mounting bracket, wherein the isolating grommet comprises an elastomeric material configured to isolate the retaining spike from vibrations emanating from the fuselage, wherein the retaining spike includes a detachable alignment member portion, wherein the detachable alignment member portion is disposed at a longitudinal end of the retaining spike, wherein the detachable alignment member portion includes a tapered portion at a longitudinal end of the detachable alignment member portion, characterised in that said detachable alignment member portion further comprises a flange spaced apart from the tapered portion, wherein the flange has a diameter which is greater than a diameter of the tapered portion.
Use of a dienophile compound for determining a presence and/or a level of an ergosterol-containing organism in a substrate, said determining being effected by contacting at least a portion of the substrate with said dienophile compound, wherein a presence and/or a level of a conjugate of said dienophile compound with ergosterol is indicative for the presence and/or level of an ergosterol-containing organism in the substrate, said dienophile compound being selected from a substituted or unsubstituted 2,3-dihydrophthalazine-1,4-dione and a substituted or unsubstituted [1,2,4]-triazole-3,5-dione.
A process for the production of polyethylene hollow articles, which process comprises charging the polyethylene with one or more NO-acyl hindered amine additives containing one or more groups of formula, filling this mixture into a mold, heating this mold in an oven to above 280°C, such that the additized polyethylene melts, rotating the mold around at least 2 axes, the additized polyethylene spreading to the walls, cooling the mold while still rotating, opening it, and taking the resultant hollow article out, where the group of formula is where Ra is a monoacyl or diacyl radical; R 1 -R 4 are each C 1 -C 6 alkyl; and R 5 and R 6 are each, independently of one another, hydrogen, C 1 -C 6 alkyl or C 6 -C 10 aryl; or R 5 and R 6 are together oxygen. Ra is a monoacyl or diacyl radical; R 1 -R 4 are each C 1 -C 6 alkyl; and R 5 and R 6 are each, independently of one another, hydrogen, C 1 -C 6 alkyl or C 6 -C 10 aryl; or R 5 and R 6 are together oxygen.
A method for determining parameters of eyeglasses lens the method comprising: obtaining an image of a background object, whereby in at least a part (Image-Part-I) of the image at least a part (Obj-Part-I) of the background object is captured as viewed through a lens of a pair of eyeglasses; and analyzing said at least a part (Image-Part-I) of the image and identifying a property of the lens; characterized in that: said property of the lens pertains to spectral filtration properties of the lens associated with at least one of the following: a coating of the lens, a filter of the lens; and wherein said analyzing comprises comparing color characteristics between two parts (Image-Part-I, Image-Part-II) of the background object as captured in the image, whereby one of the two parts (Image-Part-I) being a part of the background object captured in the image through the lens and another one of the two parts (Image-Part-II) being a part of the background object captured in the image not through the lens. obtaining an image of a background object, whereby in at least a part (Image-Part-I) of the image at least a part (Obj-Part-I) of the background object is captured as viewed through a lens of a pair of eyeglasses; and analyzing said at least a part (Image-Part-I) of the image and identifying a property of the lens; characterized in that: said property of the lens pertains to spectral filtration properties of the lens associated with at least one of the following: a coating of the lens, a filter of the lens; and wherein said analyzing comprises comparing color characteristics between two parts (Image-Part-I, Image-Part-II) of the background object as captured in the image, whereby one of the two parts (Image-Part-I) being a part of the background object captured in the image through the lens and another one of the two parts (Image-Part-II) being a part of the background object captured in the image not through the lens. said property of the lens pertains to spectral filtration properties of the lens associated with at least one of the following: a coating of the lens, a filter of the lens; and wherein said analyzing comprises comparing color characteristics between two parts (Image-Part-I, Image-Part-II) of the background object as captured in the image, whereby one of the two parts (Image-Part-I) being a part of the background object captured in the image through the lens and another one of the two parts (Image-Part-II) being a part of the background object captured in the image not through the lens.
Method for producing a coated packaging material, comprising at least the steps of: a) providing a substrate having a base material of cellulose, an outside to face away from a packaging good as well as an inside to face the packaging good, wherein the base material is coated or uncoated paper, coated or uncoated cardboard, or coated or uncoated paperboard; b) coating the inside of the substrate with at least one layer of an aqueous composition including at least polyvinyl alcohol and a cross-linking agent and having a solid content of at most 25 % by wt., wherein as the cross-linking agent at least one alkyl orthosilicate and/or at least one olefinically saturated and/or unsaturated bi-, tri- or multi-functional compound, which can react with the hydroxy groups of the polyvinyl alcohol and includes at least two functional groups selected from carboxylic acid and acid anhydride, is used; c) drying the layer and cross-linking the polyvinyl alcohol with the aid of the cross-linking agent with formation of a barrier layer (22a, 22b) for hydrophobic compounds. a) providing a substrate having a base material of cellulose, an outside to face away from a packaging good as well as an inside to face the packaging good, wherein the base material is coated or uncoated paper, coated or uncoated cardboard, or coated or uncoated paperboard; b) coating the inside of the substrate with at least one layer of an aqueous composition including at least polyvinyl alcohol and a cross-linking agent and having a solid content of at most 25 % by wt., wherein as the cross-linking agent at least one alkyl orthosilicate and/or at least one olefinically saturated and/or unsaturated bi-, tri- or multi-functional compound, which can react with the hydroxy groups of the polyvinyl alcohol and includes at least two functional groups selected from carboxylic acid and acid anhydride, is used; c) drying the layer and cross-linking the polyvinyl alcohol with the aid of the cross-linking agent with formation of a barrier layer (22a, 22b) for hydrophobic compounds.
A method of detecting a consumption status of liquid contained in a liquid container, characterized by comprising steps of: preparing a detection device including a base plate having an opening, a vibrating plate provided on the base plate to cover the opening, a piezoelectric element (160, 164, 166) provided on the vibrating plate and a cavity formed by the opening of the base plate and a portion of a surface of the vibrating plate that faces the opening, and attaching said detection device on a desired position of the liquid container so that the cavity contacts the liquid; measuring a residual vibration of said detection device; and detecting the consumption status of the liquid contained in the liquid container on the basis of a result of the measurement of the residual vibration. preparing a detection device including a base plate having an opening, a vibrating plate provided on the base plate to cover the opening, a piezoelectric element (160, 164, 166) provided on the vibrating plate and a cavity formed by the opening of the base plate and a portion of a surface of the vibrating plate that faces the opening, and attaching said detection device on a desired position of the liquid container so that the cavity contacts the liquid; measuring a residual vibration of said detection device; and detecting the consumption status of the liquid contained in the liquid container on the basis of a result of the measurement of the residual vibration.
A composite oxide catalyst for preparing butadiene, comprising a metal composite oxide and AlPO 4, wherein the AlPO 4 is comprised in an amount of 5 to 30 % by weight based on 100 % by weight of the composite oxide catalyst, wherein the metal composite oxide is represented by Formula 1 below: [Formula 1] Mo a Bi b C c D d E e O f wherein C is one or more of trivalent cationic metals, D is one or more divalent cationic metals, E is one or more of monovalent cationic metals, and, when a is 12, b is 0.01 to 2, c is 0.001 to 2, d is 5 to 12, e is 0 to 1.5, and f is determined to adjust a valence with other ingredients, and wherein, in the composite oxide catalyst, a mole ratio of Mo metal to Al metal is 12:0.5 to 3.
A transformer condition monitoring system comprising: a light source configured to produce an emitted light beam; a plurality of optical sensors configured to be positioned at a plurality of separate locations on a transformer and to receive the emitted light beam from the light source, wherein each of the plurality of optical sensors is configured to generate one or more product light beams from the emitted light beam, the plurality of optical sensors comprising at least one vibration sensor, at least one voltage sensor, and at least one current sensor; a detector positioned to receive the one or more product light beams generated from each of the plurality of optical sensors, the detector configured to measure intensity values of the one or more product light beams for each of the plurality of optical sensors; and a computing device coupled to the detector, the computing device comprising a processor and a memory coupled to the processor, wherein the processor executes programmed instructions stored in the memory to determine, based on the measured intensity values for the one or more product light beams for each of the plurality of optical sensors, at least a displacement value, a current value, and a voltage value for the transformer. a light source configured to produce an emitted light beam; a plurality of optical sensors configured to be positioned at a plurality of separate locations on a transformer and to receive the emitted light beam from the light source, wherein each of the plurality of optical sensors is configured to generate one or more product light beams from the emitted light beam, the plurality of optical sensors comprising at least one vibration sensor, at least one voltage sensor, and at least one current sensor; a detector positioned to receive the one or more product light beams generated from each of the plurality of optical sensors, the detector configured to measure intensity values of the one or more product light beams for each of the plurality of optical sensors; and a computing device coupled to the detector, the computing device comprising a processor and a memory coupled to the processor, wherein the processor executes programmed instructions stored in the memory to determine, based on the measured intensity values for the one or more product light beams for each of the plurality of optical sensors, at least a displacement value, a current value, and a voltage value for the transformer.
A computer-implemented method performed by an organization, the method comprising: intercepting, by an auto-login component of the organization, a request from a client device of the organization to access a remote third-party application; generating, by the auto-login component, a substitute URL that specifies a remote login service and includes at least a domain name and path of the intercepted request and an identifier of the remote third-party application; sending, by the auto-login component, the substitute URL to a remote login service at a remote server outside a network domain of the organization; receiving, from the remote login service by a browser of the client device, a redirect request to the remote login service, the redirect request including the identifier of the remote third-party application; responsive to receiving the redirect request, redirecting, by the browser, to the remote login service; receiving, from the remote login service, based on the identifier of the remote third-party application, a uniform resource locator of a start page of the remote third-party application and a session cookie generated by the remote third-party application and indicating that the client device is logged into the remote third-party application; and automatically requesting, by the browser, the start page of the remote third-party application, the request for the start page including the session cookie. intercepting, by an auto-login component of the organization, a request from a client device of the organization to access a remote third-party application; generating, by the auto-login component, a substitute URL that specifies a remote login service and includes at least a domain name and path of the intercepted request and an identifier of the remote third-party application; sending, by the auto-login component, the substitute URL to a remote login service at a remote server outside a network domain of the organization; receiving, from the remote login service by a browser of the client device, a redirect request to the remote login service, the redirect request including the identifier of the remote third-party application; responsive to receiving the redirect request, redirecting, by the browser, to the remote login service; receiving, from the remote login service, based on the identifier of the remote third-party application, a uniform resource locator of a start page of the remote third-party application and a session cookie generated by the remote third-party application and indicating that the client device is logged into the remote third-party application; and automatically requesting, by the browser, the start page of the remote third-party application, the request for the start page including the session cookie.
A compound of the Formula: or a pharmaceutically acceptable salt thereof; wherein: Ring A is an optionally substituted aryl or heteroaryl; R 1 is unsubstituted C 1-3 alkyl; R 2 is absent or hydrogen; R 3 is hydrogen, or -CH 2 OR 3A, wherein R 3A is hydrogen, C 1-6 alkyl, C 2-6 alkenyl, C 2-6 alkynyl, aryl, heteroaryl, or C 3-6 carbocyclyl; ----- represents a single or double bond, wherein when one ----- is a double bond, the other ----- is a single bond. Ring A is an optionally substituted aryl or heteroaryl; R 1 is unsubstituted C 1-3 alkyl; R 2 is absent or hydrogen; R 3 is hydrogen, or -CH 2 OR 3A, wherein R 3A is hydrogen, C 1-6 alkyl, C 2-6 alkenyl, C 2-6 alkynyl, aryl, heteroaryl, or C 3-6 carbocyclyl; ----- represents a single or double bond, wherein when one ----- is a double bond, the other ----- is a single bond.
A solid pharmaceutical composition comprising a salt of (5-methyl-2-oxo-1,3-dioxol-4-yl)methyl 2-ethoxy-1-{[2'-(5-oxo-4,5-dihydro-1,2,4-oxadiazol-3-yl)biphenyl-4-yl]methyl}-1H-benzimidazole-7-carboxylate, and a pH control agent having a pH of 2 to 5 and being monosodium fumarate or a combination of fumaric acid and sodium hydroxide.
A molecular sieve material having, in its as-calcined form, an X-ray diffraction pattern including the following peaks in Table 1: Table 1 d-spacing Å) Relative Intensity [100 x I/I(o)] 17.5-16.3 60-100 10.6-10.1 5-50 9.99-9.56 20-70 6.23-6.06 1-10 5.84-5.69 1-10 5.54-5.40 1-10 4.29-4.21 1-10 3.932-3.864 1-10 3.766-3.704 5-40 3.735-3.674 1-10 3.657-3.598 1-10 3.595-3.539 1-20
Hockey stick comprising a shaft, a hook, a back face a front face, two side edges (4, 5) spacing the back and front faces, and one or more inlays of an elastomeric material characterized in that at least one of the one or more inlays comprises an inlay main body of varying thickness extending over a part of a side edge, and two side webs (12, 13) extending from the inlay main body over at least a part of the back or front face, wherein the first side web extends over at least a part of the front face of the hockey stick, and the second side web extends over at least a part of the back face of the hockey stick, wherein the inlay main body comprises a thickness which gradually reduces in the direction of the side webs (12, 13).
Method for increasing safety when operating a vehicle after an automatic braking intervention, having the following steps: • detecting the execution of an automatic braking intervention, and • detecting the ending of the automatic braking intervention, characterized by • changing the operating parameters of a parking aid system of the vehicle in order to avoid a subsequent collision with an object by using the parking aid warning. • detecting the execution of an automatic braking intervention, and • detecting the ending of the automatic braking intervention, • changing the operating parameters of a parking aid system of the vehicle in order to avoid a subsequent collision with an object by using the parking aid warning.
A gyratory crusher shell lifting tool adapted for lifting a gyratory crusher shell, said lifting tool comprising: a generally vertical central bar, a lower hub arranged at a lower end of the central bar, an upper hub arranged at the central bar above the lower hub, at least a first lifting leg and a second lifting leg that are provided with a respective outwardly directed lifting portion adapted to come into contact with an inner periphery of a gyratory crusher shell, wherein each of the first and second lifting legs (12, 16) are mounted to the upper hub and being journalled therein to be turnable in a vertical direction relative to the upper hub, and wherein each lifting leg (12, 16) is journalled to a respective link (38, 42) extending to the lower hub, said respective link (38, 42) being adapted to move the respective outwardly directed lifting portion of the respective leg (12, 16) away from the central bar when at least one of the lower and upper hubs (6, 9) is moved in the direction of the other one of the lower and upper hubs (6, 9); characterized by: at least one locking mechanism arranged on at least one of the upper and lower hubs (9, 6) to releasably fix and prevent upward and downward movement of at least one of the upper and lower hubs (9, 6) relative to the central bar. a generally vertical central bar, a lower hub arranged at a lower end of the central bar, an upper hub arranged at the central bar above the lower hub, at least a first lifting leg and a second lifting leg that are provided with a respective outwardly directed lifting portion adapted to come into contact with an inner periphery of a gyratory crusher shell, wherein each of the first and second lifting legs (12, 16) are mounted to the upper hub and being journalled therein to be turnable in a vertical direction relative to the upper hub, and wherein each lifting leg (12, 16) is journalled to a respective link (38, 42) extending to the lower hub, said respective link (38, 42) being adapted to move the respective outwardly directed lifting portion of the respective leg (12, 16) away from the central bar when at least one of the lower and upper hubs (6, 9) is moved in the direction of the other one of the lower and upper hubs (6, 9); characterized by: at least one locking mechanism arranged on at least one of the upper and lower hubs (9, 6) to releasably fix and prevent upward and downward movement of at least one of the upper and lower hubs (9, 6) relative to the central bar. at least one locking mechanism arranged on at least one of the upper and lower hubs (9, 6) to releasably fix and prevent upward and downward movement of at least one of the upper and lower hubs (9, 6) relative to the central bar.
A method for producing polycarbonate-based polymer microparticles, wherein an emulsion is formed in a system in which a polycarbonate-based polymer, a polymer different from said polycarbonate-based polymer and an organic solvent are dissolved and mixed together and which causes phase separation into two phases of a solution phase having said polycarbonate-based polymer as its main component and a solution phase having said polymer different from said polycarbonate-based polymer as its main component, and thereafter, a poor solvent for said polycarbonate-based polymer is brought into contact with said emulsion at a temperature of 80°C or higher, thereby precipitating microparticles of said polycarbonate-based polymer.