mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing an iodine radioisotopes fraction, in particular of 1-131, comprising the following steps: (i) Alkaline dissolution of enriched uranium targets by obtaining an alkaline slurry containing aluminium salts, uranium and isotopes generated by the fission of enriched uranium and a gaseous phase of Xe-133, (ii) Filtration of said alkaline slurry in order to isolate, on the one hand, a solid phase containing the uranium and, on the other hand, an alkaline solution of molybdate and salts of iodine radioisotopes (iii) Adsorption of said salts of iodine radioisotopes on an alumina resin doped with silver and recovery of said alkaline solution of molybdate depleted of iodine radioisotopes, in particular of 1-131, passing through said alumina resin doped with silver, and (iv) Recovery of said iodine radioisotopes fraction, in particular of 1-131, characterised in that said recovery of said iodine radioisotopes fraction, in particular of 1-131, comprises a washing of the alumina resin doped with silver with a solution of NaOH at a concentration of between 0.2 and 1.5mol/l, preferably between 0.3 and 1mol/l and more preferably of about 0.5mol/l, and an elution of the iodine radioisotopes, in particular of 1-131 by a thiourea solution presenting a thiourea concentration of between 0.5mol/l and 1.5mol/l, preferably of between 0.8 and 1.2mol/l, more preferably of about 1mol/l, with a collection of an eluate containing said iodine radioisotopes, in particular 1-131, in a thiourea solution. (i) Alkaline dissolution of enriched uranium targets by obtaining an alkaline slurry containing aluminium salts, uranium and isotopes generated by the fission of enriched uranium and a gaseous phase of Xe-133, (ii) Filtration of said alkaline slurry in order to isolate, on the one hand, a solid phase containing the uranium and, on the other hand, an alkaline solution of molybdate and salts of iodine radioisotopes (iii) Adsorption of said salts of iodine radioisotopes on an alumina resin doped with silver and recovery of said alkaline solution of molybdate depleted of iodine radioisotopes, in particular of 1-131, passing through said alumina resin doped with silver, and (iv) Recovery of said iodine radioisotopes fraction, in particular of 1-131,
A system, for use with an optical current transducer , the system comprising a sensor including (i) a polarizer unit and (ii) a mirror unit joined to the polarizer unit by a fiber-optic cable ; and an alignment block comprising first groove disposed along a first longitudinal axis and a second groove disposed along a second longitudinal axis , wherein the first groove comprises first and second regions along the longitudinal axis thereof, the first region configured to hold a portion of the cable and having a first width and the second region configured to hold the polarizer unit and having a second width ; wherein the second groove comprises first and second regions along the longitudinal axis thereof, the first region configured to hold a portion of the cable and having a first width that is the same as the first width of the first groove and the second region configured to hold the mirror unit and having a second width that is the same as the second width of the first groove; and wherein the longitudinal axes of the first and second grooves subtend an angle of between 20 and 60 degrees and the mirror unit and the polarizer unit are disposed one of top of the other at the angle subtended by the first and second grooves.
A humidity control system comprising: a cap comprising a retention element at an inner surface of the cap, the inner surface of the cap defining an interior volume of the cap; and a package in the interior volume of the cap, the package comprising a humidity control substance configured to control humidity and a retainer comprising a sealing interface to enclose the humidity control substance, the retainer being configured to engage the retention element, wherein the package and the inner surface of the cap define a shielded volume, characterized in that the package is a porous material which is permeable to vapor but is impervious to liquid, dust, and other particulates such that the shielded volume receives vapor but not liquid, dust, and other particulates in response to the package and the inner surface of the cap enclosing the shielded volume. a cap comprising a retention element at an inner surface of the cap, the inner surface of the cap defining an interior volume of the cap; and a package in the interior volume of the cap, the package comprising a humidity control substance configured to control humidity and a retainer comprising a sealing interface to enclose the humidity control substance, the retainer being configured to engage the retention element, wherein the package and the inner surface of the cap define a shielded volume, characterized in that the package is a porous material which is permeable to vapor but is impervious to liquid, dust, and other particulates such that the shielded volume receives vapor but not liquid, dust, and other particulates in response to the package and the inner surface of the cap enclosing the shielded volume.
A ceramic metal circuit board comprising: a ceramic substrate ; first and second metal plates bonded to first and second opposite surfaces, respectively, of the ceramic substrate through respective bonding layers ; a metal film on a surface of the first metal plate opposite the ceramic substrate , the thickness of the metal film being 10 μm or less on average; and at least a part of a surface of the second metal plate opposite the ceramic substrate is not provided with the metal film , characterized in that the ceramic metal circuit board further comprises a semiconductor element or a metal terminal mounted to the part of the surface of the second metal plate that is provided with no metal film , and the maximum height surface roughness Rz of the surface of the first metal plate , the second metal plate , or both, that is provided with the metal film is 1.5 μm or less. a ceramic substrate ; first and second metal plates bonded to first and second opposite surfaces, respectively, of the ceramic substrate through respective bonding layers ; a metal film on a surface of the first metal plate opposite the ceramic substrate , the thickness of the metal film being 10 μm or less on average; and at least a part of a surface of the second metal plate opposite the ceramic substrate is not provided with the metal film , characterized in that the ceramic metal circuit board further comprises a semiconductor element or a metal terminal mounted to the part of the surface of the second metal plate that is provided with no metal film , and the maximum height surface roughness Rz of the surface of the first metal plate , the second metal plate , or both, that is provided with the metal film is 1.5 μm or less.
Floor panel for a raised-access floor, wherein the floor panel's main component is a gypsum material, characterized by at least one edge surface without an edge band or edge finish which, adjacent to the visible surface of the floor panel has an upper segment as well as lower segment , which are both substantially perpendicular to the visible surface , wherein the lower segment is offset by a predetermined spacing towards the central region of the floor panel and a middle segment of the edge is a bevel connecting the upper and the lower segments .
A preparation method for tedizolid compound of the formula below wherein R is selected from the group consisting of hydrogen , benzyl or benzyl substituted by a substituent which is selected from the group consisting of halogen, nitro, C 1 -C 6 alkyl and C 1 -C 6 alkoxy, and R 1 is C 1 -C 6 alkyl or C 1 -C 6 alkyl substituted by halogen; wherein the preparation method comprises reacting the compound having a structure of the formula below wherein X is chlorine, bromine, iodine, or sulfonyloxy such as trifluoromethane sulfonyloxy, methanesulfonyloxy, benzenesulfonyloxy, or benzenesulfonyloxy substituted by one or more substituent(s) which is selected from the group consisting of halogen, C 1 -C 6 alkyl and C 1 -C 6 alkoxy; with the compound having a structure of the formula below under the catalysis of metal catalyst to produce the tedizolid compound by a coupled reaction, and wherein substituent R is as defined above. wherein R is selected from the group consisting of hydrogen , benzyl or benzyl substituted by a substituent which is selected from the group consisting of halogen, nitro, C 1 -C 6 alkyl and C 1 -C 6 alkoxy, and R 1 is C 1 -C 6 alkyl or C 1 -C 6 alkyl substituted by halogen; wherein the preparation method comprises reacting the compound having a structure of the formula below
An amniotic membrane powder composition comprising an amount of (i) total protein in the range of 30 mg/g to 500 mg/g, preferably the total protein is in the range of 50 mg/g to 250 mg/g; (ii) elastin in the range of 4 mg/g to 100 mg/g, preferably the elastin is in the range of 5 mg/g to 60 mg/g; (iii) collagen in the range of 10 mg/g to 800 mg/g, preferably the collagen is in the range of 10 mg/g to 600 mg/g; (iv) glycosaminoglycans in the range of 0.1 mg/g to 5 mg/g, preferably the glycosaminoglycans is in the range of 0.5 mg/g to 2 mg/g; (v) thrombospondin-1 (TSP-1) in the range of 30 μg/g to 1000 μg/g, preferably the thrombospondin-1 (TSP-1) is in the range of 50 μg/g to 400 μg/g. (vi) pentraxin 3 (PTX-3) in the range of 0.1 μg/g to 50 μg/g, preferably the pentraxin 3 (PTX-3) is in the range of 1 μg/g to 20 μg/g; or (vii) tumor necrosis factor-stimulated gene 6 (TSG-6) less than 1.5 ng/g, preferably the TSG-6 is less than 1.0 ng/g, the composition further comprising a scaffold, wherein the scaffold is a hydrogel, wherein the hydrogel comprises PEGDMal. (i) total protein in the range of 30 mg/g to 500 mg/g, preferably the total protein is in the range of 50 mg/g to 250 mg/g; (ii) elastin in the range of 4 mg/g to 100 mg/g, preferably the elastin is in the range of 5 mg/g to 60 mg/g; (iii) collagen in the range of 10 mg/g to 800 mg/g, preferably the collagen is in the range of 10 mg/g to 600 mg/g; (iv) glycosaminoglycans in the range of 0.1 mg/g to 5 mg/g, preferably the glycosaminoglycans is in the range of 0.5 mg/g to 2 mg/g; (v) thrombospondin-1 (TSP-1) in the range of 30 μg/g to 1000 μg/g, preferably the thrombospondin-1 (TSP-1) is in the range of 50 μg/g to 400 μg/g. (vi) pentraxin 3 (PTX-3) in the range of 0.1 μg/g to 50 μg/g, preferably the pentraxin 3 (PTX-3) is in the range of 1 μg/g to 20 μg/g; or (vii) tumor necrosis factor-stimulated gene 6 (TSG-6) less than 1.5 ng/g, preferably the TSG-6 is less than 1.0 ng/g,
A method of fabricating a gradient refractive index, GRIN, lens comprising: co-extruding a first polymer material having a first refractive index and a second polymer material having a second refractive index different than the first refractive index to form multilayered polymer composite films; assembling the multilayered polymer composite films into a multilayer composite GRIN sheet; and shaping the multilayered composite GRIN sheet into an aspherical GRIN lens, wherein the gradient refractive index is aspherical, characterized in that the lens has a parabolic refractive index gradient, wherein the lens defines an oblate ellipse that has a first half-parabolic GRIN distribution and a prolate ellipse that has a second half-parabolic GRIN distribution through the lens thickness direction, wherein the refractive index decreases or increases in a direction towards the periphery of the lens. co-extruding a first polymer material having a first refractive index and a second polymer material having a second refractive index different than the first refractive index to form multilayered polymer composite films; assembling the multilayered polymer composite films into a multilayer composite GRIN sheet; and shaping the multilayered composite GRIN sheet into an aspherical GRIN lens, wherein the gradient refractive index is aspherical, characterized in that the lens has a parabolic refractive index gradient, wherein the lens defines an oblate ellipse that has a first half-parabolic GRIN distribution and a prolate ellipse that has a second half-parabolic GRIN distribution through the lens thickness direction, wherein the refractive index decreases or increases in a direction towards the periphery of the lens.
A pneumatic tire having a sound absorbing member applied to a tire inner surface via a sealant layer , wherein the sound absorbing member is formed by a laminate consisting of two or more sound absorbing layers (8a-8j) each made of a nonwoven fabric wherein the sound absorbing member is formed by a laminating consisting of 10 to 200 sound absorbing layers each having a thickness ranging from 10 μm to 2 mm wherein: the sound absorbing member includes one or more cut portions each extending in a width direction, being orthogonal to a circumferential direction, of the sound absorbing member; and the one or more cut portions extend from an innermost surface in a tire radial direction of the sound absorbing member toward a tire outer surface side. the sound absorbing member includes one or more cut portions each extending in a width direction, being orthogonal to a circumferential direction, of the sound absorbing member; and the one or more cut portions extend from an innermost surface in a tire radial direction of the sound absorbing member toward a tire outer surface side.
A method for recognizing at least one fault in a machining process, comprising: machining a workpiece by moving a machining tool and the workpiece relative to each other, capturing an image (B) of an area to be monitored on the workpiece , which comprises an interaction area of the machining tool with the workpiece , and evaluating the image (B) of the area to be monitored in order to detect at least one fault in the machining process, wherein, for the purpose of recognizing the fault when evaluating the image (B), the presence or absence of a local intensity drop (ΔI) in an intensity profile (I) within the interaction area along a feed direction (V) of the machining process is detected, characterized in that the detection of the local intensity drop (ΔI) at a machining position (B X,Y ) is assigned to a position-dependent fault in the machining process at the machining position (B X,Y ). machining a workpiece by moving a machining tool and the workpiece relative to each other, capturing an image (B) of an area to be monitored on the workpiece , which comprises an interaction area of the machining tool with the workpiece , and evaluating the image (B) of the area to be monitored in order to detect at least one fault in the machining process, wherein, for the purpose of recognizing the fault when evaluating the image (B), the presence or absence of a local intensity drop (ΔI) in an intensity profile (I) within the interaction area along a feed direction (V) of the machining process is detected, characterized in that the detection of the local intensity drop (ΔI) at a machining position (B X,Y ) is assigned to a position-dependent fault in the machining process at the machining position (B X,Y ).
A method for wireless communication, comprising: receiving, at a mobile device, a message from a radio base station for initiating a random access procedure on a random access channel, wherein the message includes a subcarrier indication; selecting a random access channel resource using a sum of a) an index of a first subcarrier allocated to the random access channel, and b) the subcarrier indication modulo a number of subcarriers allocated to the random access channel under a current coverage level; and transmitting a random access signal using the selected random access channel resource for the random access procedure. receiving, at a mobile device, a message from a radio base station for initiating a random access procedure on a random access channel, wherein the message includes a subcarrier indication; selecting a random access channel resource using a sum of a) an index of a first subcarrier allocated to the random access channel, and b) the subcarrier indication modulo a number of subcarriers allocated to the random access channel under a current coverage level; and transmitting a random access signal using the selected random access channel resource for the random access procedure. a) an index of a first subcarrier allocated to the random access channel, and b) the subcarrier indication modulo a number of subcarriers allocated to the random access channel under a current coverage level; and transmitting a random access signal using the selected random access channel resource for the random access procedure.
A method (M100, M200, M300, M400) of preparing an emergency call on a mobile device, the method comprising: detecting (T100) that a user of the mobile device has initiated an emergency call; obtaining (T200) an indication of a current geographical location of the mobile device; and selecting (T300) an emergency number to be called for the emergency call in response to the detecting, and based on the obtained indication, characterized in that : the method further comprises: switching (T400) the mobile device from a first radio access technology, RAT, to a second RAT in response to the detecting, wherein a type of the second RAT is circuit-switched, and using (T500) the second RAT and the selected emergency number to place the emergency call. detecting (T100) that a user of the mobile device has initiated an emergency call; obtaining (T200) an indication of a current geographical location of the mobile device; and selecting (T300) an emergency number to be called for the emergency call in response to the detecting, and based on the obtained indication, characterized in that : the method further comprises: switching (T400) the mobile device from a first radio access technology, RAT, to a second RAT in response to the detecting, wherein a type of the second RAT is circuit-switched, and using (T500) the second RAT and the selected emergency number to place the emergency call. switching (T400) the mobile device from a first radio access technology, RAT, to a second RAT in response to the detecting, wherein a type of the second RAT is circuit-switched, and using (T500) the second RAT and the selected emergency number to place the emergency call.
A driving force control device for a vehicle including a drive source that is connected to a drive wheel (FR, FL) of the vehicle via a speed reduction mechanism and a drive shaft , and is configured to generate a torque for braking or driving the drive wheel (FR, FL), and a drive wheel speed detection unit configured to detect a rotational speed of the drive wheel (FR, FL), the driving force control device comprising: a vehicle body speed calculation unit configured to calculate a vehicle body speed of the vehicle; a slip ratio calculation unit configured to calculate, based on the calculated vehicle body speed and the detected drive wheel speed, a slip ratio of the drive wheel (FR, FL); and a slip suppression control unit configured to reduce, when the calculated slip ratio is a predetermined slip ratio, a driving torque of the drive source to suppress a slip state of the drive wheel (FR, FL), characterized in that the predetermined slip ratio is set to an area of the slip ratio smaller than a slip ratio corresponding to a peak value of a road surface friction coefficient in a characteristic of the road surface friction coefficient with respect to the slip ratio of the drive wheel (FR, FL), and the slip suppression control unit is configured to control the slip ratio of the drive wheel (FR, FL) within said area of the slip ratio smaller than the slip ratio corresponding to a peak value by reducing the driving torque of the drive source when the calculated slip ratio is the predetermined slip ratio. a vehicle body speed calculation unit configured to calculate a vehicle body speed of the vehicle; a slip ratio calculation unit configured to calculate, based on the calculated vehicle body speed and the detected drive wheel speed, a slip ratio of the drive wheel (FR, FL); and a slip suppression control unit configured to reduce, when the calculated slip ratio is a predetermined slip ratio, a driving torque of the drive source to suppress a slip state of the drive wheel (FR, FL), characterized in that the predetermined slip ratio is set to an area of the slip ratio smaller than a slip ratio corresponding to a peak value of a road surface friction coefficient in a characteristic of the road surface friction coefficient with respect to the slip ratio of the drive wheel (FR, FL), and the slip suppression control unit is configured to control the slip ratio of the drive wheel (FR, FL) within said area of the slip ratio smaller than the slip ratio corresponding to a peak value by reducing the driving torque of the drive source when the calculated slip ratio is the predetermined slip ratio.
A cooling device comprising a heat insulating body ; a door hinged to the body ; a dispenser adapted to an inner wall of the door , having a cover with an upper part fixing to a mouth part of a tank of the dispenser and a peripheral snap-on part integrated with the upper part , wherein the snap-on part of the cover interlaced to the peripheral mouth part of the tank in a manner to provide sealing comprises a peripheral inner wall , a peripheral outer wall formed parallel to the peripheral inner wall in order to tightly fit the cover on the mouth part of the tank , and a snap-on gap formed between the peripheral inner wall and the peripheral outer wall , characterized in that the peripheral outer wall of the tank cover is having a declining slope surface and a rising slope surface providing to grip to the mouth part of the tank , wherein the snap-on part of the cover is manufactured from a hard, non-elastic plastic material, and wherein the mouth part of the tank is manufactured from a hard, non-elastic plastic material.