mhurhangee/ep-ind-claims huggingface dataset:
A filter (100, 200, 300a-300c, 400a-400c, 500, 600a-600c, 1330), comprising: a central filter region (102, 202, 302a-302c, 402a-402c, 502, 602a-602c, 1332), the central filter region (102, 202, 302a-302c, 402a-402c, 502, 602a-602c, 1332) to transmit a first wavelength range (λ1); a peripheral filter region (106, 206, 306, 406a-406c, 506, 606, 1336), the peripheral filter region (106, 206, 306, 406a-406c, 506, 606, 1336) to block a second wavelength range (λ2) and transmit the first wavelength range (λ1); and a transition filter region (104, 204, 204a-206c, 304a-304c, 404a-404c, 504, 604a-604c, 1334) between the central and peripheral filter regions, the transition filter region (104, 204, 204a-206c, 304a-304c, 404a-404c, 504, 604a-604c, 1334) to transmit the first wavelength range (λ1) and - if the central filter region is to block the second wavelength range, to transmit the second wavelength range (λ2), or - if the central filter region is to transmit the second wavelength range, to transmit less of the second wavelength range (λ2) than the second wavelength range (λ2) is to be transmitted in the central filter region, and more of the second wavelength range (λ2) than the second wavelength range (λ2) is to be transmitted in the peripheral filter region. a central filter region (102, 202, 302a-302c, 402a-402c, 502, 602a-602c, 1332), the central filter region (102, 202, 302a-302c, 402a-402c, 502, 602a-602c, 1332) to transmit a first wavelength range (λ1); a peripheral filter region (106, 206, 306, 406a-406c, 506, 606, 1336), the peripheral filter region (106, 206, 306, 406a-406c, 506, 606, 1336) to block a second wavelength range (λ2) and transmit the first wavelength range (λ1); and a transition filter region (104, 204, 204a-206c, 304a-304c, 404a-404c, 504, 604a-604c, 1334) between the central and peripheral filter regions, the transition filter region (104, 204, 204a-206c, 304a-304c, 404a-404c, 504, 604a-604c, 1334) to transmit the first wavelength range (λ1) and - if the central filter region is to block the second wavelength range, to transmit the second wavelength range (λ2), or - if the central filter region is to transmit the second wavelength range, to transmit less of the second wavelength range (λ2) than the second wavelength range (λ2) is to be transmitted in the central filter region, and more of the second wavelength range (λ2) than the second wavelength range (λ2) is to be transmitted in the peripheral filter region. - if the central filter region is to block the second wavelength range, to transmit the second wavelength range (λ2), or - if the central filter region is to transmit the second wavelength range, to transmit less of the second wavelength range (λ2) than the second wavelength range (λ2) is to be transmitted in the central filter region, and more of the second wavelength range (λ2) than the second wavelength range (λ2) is to be transmitted in the peripheral filter region.
A cassette for detecting a target nucleic acid, the cassette comprising: a plurality of chambers (30, 90, 230), wherein the chambers are in fluid communication; a plurality of vent pockets (50, 54, 150) connected to said chambers; a heat labile material for sealing one or more of said vent pockets, wherein the heat labile material can be ruptured by a heat source in proximity to the vent pockets; a heat stable material that hermetically seals the cassette, wherein the heat stable material is disposed between the heat source and the heat labile material; and a gasket disposed between said heat labile material and said heat stable material, said gasket forming a sealed space encompassing said plurality of vent pockets, wherein rupturing of the heat labile material opens one or more vent pockets to the sealed space. a plurality of chambers (30, 90, 230), wherein the chambers are in fluid communication; a plurality of vent pockets (50, 54, 150) connected to said chambers; a heat labile material for sealing one or more of said vent pockets, wherein the heat labile material can be ruptured by a heat source in proximity to the vent pockets; a heat stable material that hermetically seals the cassette, wherein the heat stable material is disposed between the heat source and the heat labile material; and a gasket disposed between said heat labile material and said heat stable material, said gasket forming a sealed space encompassing said plurality of vent pockets, wherein rupturing of the heat labile material opens one or more vent pockets to the sealed space.
A circuit board comprising a substrate which comprises ceramics and an inner layer electrode which comprises a conductive material embedded inside said substrate, wherein: said substrate comprises at least one first dielectric layer which consists of a first dielectric comprising ceramics and at least one second dielectric layer which consists of a second dielectric comprising ceramics, said second dielectric contains 8 mass % or more of a glass net former component, at least one portion of said inner layer electrode has two principal surfaces which are approximately parallel to principal surfaces of said circuit board and a thickness of not less than 50 micrometers in a normal direction of the principal surfaces of said circuit board, at least part of said first dielectric layer and at least part of said second dielectric layer are in contact with each other in said normal direction of the principal surfaces of said circuit board, on at least one of said two principal surfaces which said inner layer electrode has, said inner layer electrode and said second dielectric layer contact with each other, and a ratio t/T of sum total thickness t of said second dielectric layer in contact with said inner layer electrode in a normal direction of the principal surface of said circuit board to sum total thickness T of said first dielectric layer in a normal direction of the principal surface of said circuit board is 0.1 or more. said substrate comprises at least one first dielectric layer which consists of a first dielectric comprising ceramics and at least one second dielectric layer which consists of a second dielectric comprising ceramics, said second dielectric contains 8 mass % or more of a glass net former component, at least one portion of said inner layer electrode has two principal surfaces which are approximately parallel to principal surfaces of said circuit board and a thickness of not less than 50 micrometers in a normal direction of the principal surfaces of said circuit board, at least part of said first dielectric layer and at least part of said second dielectric layer are in contact with each other in said normal direction of the principal surfaces of said circuit board, on at least one of said two principal surfaces which said inner layer electrode has, said inner layer electrode and said second dielectric layer contact with each other, and a ratio t/T of sum total thickness t of said second dielectric layer in contact with said inner layer electrode in a normal direction of the principal surface of said circuit board to sum total thickness T of said first dielectric layer in a normal direction of the principal surface of said circuit board is 0.1 or more.
Housing for a household appliance, which is a refrigerator or freezer, a dishwasher or washing machine, a tumble dryer or oven, having a top side which has front and side edges, wherein the housing has a securing strap (8, 12), characterised in that the at least one securing strap (8, 12) of the housing can be adjusted at at least one of the edges (37, 38) between a position adjoining the housing and a position projecting from the housing.
A method in a network infrastructure for use in sharing a plurality of credential objects of a user account amongst a plurality of mobile devices (195, 197, 201) operative in a wireless network, the method comprising: storing a plurality of encrypted credential objects in association with the user account, each encrypted credential object being encrypted with a credential key; storing a plurality of encrypted forms of the credential key in association with the user account, each encrypted form of the credential key being encrypted with a respective one of a plurality of device keys, each device key being associated with and stored at a respective one of the mobile devices(195, 197, 201); and providing, to the mobile devices (195, 197, 201), access to the encrypted credential key and the encrypted credential objects. storing a plurality of encrypted credential objects in association with the user account, each encrypted credential object being encrypted with a credential key; storing a plurality of encrypted forms of the credential key in association with the user account, each encrypted form of the credential key being encrypted with a respective one of a plurality of device keys, each device key being associated with and stored at a respective one of the mobile devices(195, 197, 201); and providing, to the mobile devices (195, 197, 201), access to the encrypted credential key and the encrypted credential objects.
A method of repairing a defect in a ductile cast iron workpiece, including: machining the workpiece in the area of the defect to remove the defective material and form a chamber opening at a surface of the workpiece; anchoring a receptacle to the workpiece above the chamber, the receptacle is provided with an orifice in communication with the chamber; adding molten iron into the receptacle so that at least part of it flows into the chamber; adding slagging agent into the receptacle; heating the slagging agent and the molten iron with an electrode; and allowing the molten iron and the workpiece to cool down slowly characterised by adding nodulizing agent into the molten iron so as to segregate graphite. machining the workpiece in the area of the defect to remove the defective material and form a chamber opening at a surface of the workpiece; anchoring a receptacle to the workpiece above the chamber, the receptacle is provided with an orifice in communication with the chamber; adding molten iron into the receptacle so that at least part of it flows into the chamber; adding slagging agent into the receptacle; heating the slagging agent and the molten iron with an electrode; and allowing the molten iron and the workpiece to cool down slowly characterised by adding nodulizing agent into the molten iron so as to segregate graphite.
A method for producing cobalt sulfate from a chloride solution containing cobalt and impurities including any one or more of calcium, magnesium, and sodium, the method comprising producing cobalt sulfate by subjecting the chloride solution containing cobalt to a solvent extraction process composed of the following Step 1 to Step 3: Step 1 of bringing an extracting solvent which contains an extractant at a proportion of 10% to 30% by volume, into contact with the chloride solution containing cobalt at a pH of 4.0 to 5.0 to extract cobalt from the chloride solution containing cobalt, and thereby forming a cobalt-retaining organic phase; Step 2 of mixing the cobalt-retaining organic phase obtained in the Step 1 with a cleaning liquid containing cobalt while a liquid volume ratio (O/A1) of the cobalt-retaining organic phase to the cleaning liquid containing cobalt is maintained within a range of 5.0 to 10.0 and a pH is maintained 4.0 to 4.5, to cause the impurities included in the cobalt-retaining organic phase to transfer into the cleaning liquid containing cobalt, and thereby forming a cobalt-retaining organic phase after cleaning; and Step 3 of adding dilute sulfuric acid as a stripped starting liquid to the cobalt-retaining organic phase after cleaning in the Step 2 so as to obtain a pH of 0.5 to 1.0, thereby bringing the cobalt-retaining organic phase after cleaning into contact with the dilute sulfuric acid, and thus forming a cobalt sulfate solution. Step 1 of bringing an extracting solvent which contains an extractant at a proportion of 10% to 30% by volume, into contact with the chloride solution containing cobalt at a pH of 4.0 to 5.0 to extract cobalt from the chloride solution containing cobalt, and thereby forming a cobalt-retaining organic phase; Step 2 of mixing the cobalt-retaining organic phase obtained in the Step 1 with a cleaning liquid containing cobalt while a liquid volume ratio (O/A1) of the cobalt-retaining organic phase to the cleaning liquid containing cobalt is maintained within a range of 5.0 to 10.0 and a pH is maintained 4.0 to 4.5, to cause the impurities included in the cobalt-retaining organic phase to transfer into the cleaning liquid containing cobalt, and thereby forming a cobalt-retaining organic phase after cleaning; and Step 3 of adding dilute sulfuric acid as a stripped starting liquid to the cobalt-retaining organic phase after cleaning in the Step 2 so as to obtain a pH of 0.5 to 1.0, thereby bringing the cobalt-retaining organic phase after cleaning into contact with the dilute sulfuric acid, and thus forming a cobalt sulfate solution.
Cut-depth limiting device for portable power tools, comprising a power tool housing, comprising at least one cut-depth guide unit, and comprising at least one stop unit, which has at least one stop element that, for the purpose of limiting a depth of cut, strikes a stop region of the power tool housing and has a capability to move, relative to the cut-depth guide unit, along a cut-depth guide path of the cut-depth guide unit, the cut-depth limiting device having at least one stop movement unit, which is provided to allow a further capability of the stop element to move, relative to the cut-depth guide unit, translationally along and/or rotationally about a movement axis, at least when in an operating state, characterized in that the cut-depth guide unit comprises at least one cut-depth guide element, which is mounted so as to be movable relative to a guide rail element of the cut-depth guide unit and on which the stop element is mounted so as to be movable relative to the cut-depth guide element.
A pressure regulating device adapted to be interposed between a pressurized fluid supply and a fluid receiving space into which the pressurized fluid is discharged at a regulated reduced pressure, said device comprising a housing having a means for coupling to the pressurized fluid supply in a sealed manner, and a diaphragm chamber adapted to communicate with the fluid receiving space through a fluid discharging passage and being separated from said pressurized fluid supply by a barrier wall having a central port extending therethrough, and a diaphragm assembly having an elastic diaphragm connected to a throttle head by a stem, said stem extending through said central port to define a flow passage therein, and said diaphragm being secured along its periphery to said housing, wherein said housing is made of a rigid gas-tight plastic material, and wherein said diaphragm, said stem and said throttle head are integrated into one piece as a diaphragm assembly, said integrated piece being made of a gas-tight elastomeric material, characterised in that in its initial position, the diaphragm rests on a planar upper surface of said barrier wall. a means for coupling to the pressurized fluid supply in a sealed manner, and a diaphragm chamber adapted to communicate with the fluid receiving space through a fluid discharging passage and being separated from said pressurized fluid supply by a barrier wall having a central port extending therethrough, and an elastic diaphragm connected to a throttle head by a stem, said stem extending through said central port to define a flow passage therein, and said diaphragm being secured along its periphery to said housing,
A method of producing a rolling contact member (11, 12, 13, 21, 23, 31, 32, 33, 34) in a rolling bearing (1, 2, 3), said rolling contact member (11, 12, 13, 21, 23, 31, 32, 33, 34) being one of a race member (11, 12, 21, 31, 32, 33) and a rolling element (13, 23, 34) disposed in contact with said race member (11, 12, 21, 31, 32, 33) on an annular raceway, comprising the steps of: preparing a powdery source material that contains as a main component a β -sialon represented by a compositional formula of Si 6-z Al z O z N 8-Z and satisfying 0.1 ≤ z ≤ 3.5 and has a remainder formed of an impurity; shaping said powdery source material generally into a geometry of said rolling contact member (11, 12, 13, 21, 23, 31, 32, 33, 34) to provide a shaped body; and sintering said shaped body at a pressure equal to or smaller than 1 MPa, further comprising the steps of forming a surface of said shaped body before sintering said shaped body, and working a surface of said shaped body sintered, to remove a portion including said surface, the step of working removing said shaped body by a thickness equal to or smaller than 150 μm, wherein a rolling contact surface of the rolling contact member is included in a portion having a high density layer (11B, 11D, 12B, 12D, 13B, 13D, 21B, 21D, 23B, 23D, 31B, 31D, 32B, 32D, 33B, 33D, 34B, 34D) higher in density than an inner portion (11C, 12C, 13C, 21C, 23C, 31C, 32C, 33C, 34C), and said high density layer has a surface included in a portion having a higher density layer (11D, 12D, 13D, 21D, 23D, 31D, 32D, 33D, 34D) higher in density than another portion of said high density layer. preparing a powdery source material that contains as a main component a β -sialon represented by a compositional formula of Si 6-z Al z O z N 8-Z and satisfying 0.1 ≤ z ≤ 3.5 and has a remainder formed of an impurity; shaping said powdery source material generally into a geometry of said rolling contact member (11, 12, 13, 21, 23, 31, 32, 33, 34) to provide a shaped body; and sintering said shaped body at a pressure equal to or smaller than 1 MPa, further comprising the steps of forming a surface of said shaped body before sintering said shaped body, and working a surface of said shaped body sintered, to remove a portion including said surface, the step of working removing said shaped body by a thickness equal to or smaller than 150 μm, wherein a rolling contact surface of the rolling contact member is included in a portion having a high density layer (11B, 11D, 12B, 12D, 13B, 13D, 21B, 21D, 23B, 23D, 31B, 31D, 32B, 32D, 33B, 33D, 34B, 34D) higher in density than an inner portion (11C, 12C, 13C, 21C, 23C, 31C, 32C, 33C, 34C), and said high density layer has a surface included in a portion having a higher density layer (11D, 12D, 13D, 21D, 23D, 31D, 32D, 33D, 34D) higher in density than another portion of said high density layer.
A fastening mechanism comprising a male component and a female component; the female component comprising a bore arranged to receive the male component; and a locking member protruding across the bore; the male component defining a groove, extending at least partially around an outer surface of the male component and arranged, at a first position of the female component relative to the male component, to receive the locking member; and a cutaway, extending from the groove and arranged, at a second position of the female component relative to the male component, to receive the locking member. the female component comprising a bore arranged to receive the male component; and a locking member protruding across the bore; a bore arranged to receive the male component; and a locking member protruding across the bore; the male component defining a groove, extending at least partially around an outer surface of the male component and arranged, at a first position of the female component relative to the male component, to receive the locking member; and a cutaway, extending from the groove and arranged, at a second position of the female component relative to the male component, to receive the locking member. a groove, extending at least partially around an outer surface of the male component and arranged, at a first position of the female component relative to the male component, to receive the locking member; and a cutaway, extending from the groove and arranged, at a second position of the female component relative to the male component, to receive the locking member.
Lock for a retractable helmet chinguard, the lock comprising a control button that can be actuated by a user from an initial position of the button corresponding to a blocking of the chinguard and means for blocking the lock in the initial position, the lock being configured such that an action of the user on the control button places the blocking means in a release position enabling a retracting movement of the chinguard, characterised in that the blocking means are configured such that the release position remains stable after releasing the action of the user on the button and during the return into the initial position of said button and wherein the blocking means comprise a tipper, said tipper being mobile in order to go from a configuration in contact with a latch in the initial position, to a configuration without contact with the latch in the release position.
A method for stabilizing a nuclear material, the method comprising: loading the nuclear material into an electroreducer, the electroreducer including a first molten salt electrolyte and a reducer cathode assembly configured to hold the nuclear material; reducing the nuclear material in the first molten salt electrolyte of the electroreducer to produce a reduced material in the reducer cathode assembly; accumulating a reducer waste in the first molten salt electrolyte; loading the reduced material into an electrorefiner, the electrorefiner including a second molten salt electrolyte, a refiner cathode assembly, and a refiner anode assembly configured to hold the reduced material; electrolytically dissolving the reduced material in the second molten salt electrolyte of the electrorefiner to produce a purified metal product on the refiner cathode assembly; accumulating a first refiner waste in the second molten salt electrolyte and a second refiner waste in the refiner anode assembly; and converting the reducer waste from the electroreducer and the first refiner waste from the electrorefiner into a ceramic waste form. loading the nuclear material into an electroreducer, the electroreducer including a first molten salt electrolyte and a reducer cathode assembly configured to hold the nuclear material; reducing the nuclear material in the first molten salt electrolyte of the electroreducer to produce a reduced material in the reducer cathode assembly; accumulating a reducer waste in the first molten salt electrolyte; loading the reduced material into an electrorefiner, the electrorefiner including a second molten salt electrolyte, a refiner cathode assembly, and a refiner anode assembly configured to hold the reduced material; electrolytically dissolving the reduced material in the second molten salt electrolyte of the electrorefiner to produce a purified metal product on the refiner cathode assembly; accumulating a first refiner waste in the second molten salt electrolyte and a second refiner waste in the refiner anode assembly; and converting the reducer waste from the electroreducer and the first refiner waste from the electrorefiner into a ceramic waste form.