mhurhangee/ep-ind-claims huggingface dataset:
A product container comprising: a protective housing having a hollow interior (32, 214); a web (14, 112, 150) arranged in the hollow interior (32, 214) of the protective housing, the web (14, 112, 150) including a plurality of degradable pouches (40, 113, 160) removably attached to each other; and the web being formed in a roll or a z-folded configuration with a plurality of folds; characterized in that each of the degradable pouches contains at least one cleaning composition. a protective housing having a hollow interior (32, 214); a web (14, 112, 150) arranged in the hollow interior (32, 214) of the protective housing, the web (14, 112, 150) including a plurality of degradable pouches (40, 113, 160) removably attached to each other; and the web being formed in a roll or a z-folded configuration with a plurality of folds;
An intraluminal ultrasound imaging system, comprising: a processor circuit configured for communication with an intraluminal ultrasound imaging catheter, wherein the processor circuit is configured to: receive a plurality of intraluminal ultrasound images obtained by the intraluminal ultrasound imaging catheter while the intraluminal ultrasound imaging catheter is moved through a body lumen of a patient; determine a longitudinal translation speed of the intraluminal ultrasound imaging catheter based on the plurality of intraluminal ultrasound images and a known time interval between each of plurality of intraluminal ultrasound images; and characterized in that the processor circuit is further configured to output, to a display in communication with the processor circuit, a screen display including a speed indicator based on the longitudinal translation speed, wherein the speed indicator comprises: a shape representative of a range of longitudinal translation speeds; and a marker positioned within the shape and representative of the determined longitudinal translation speed. receive a plurality of intraluminal ultrasound images obtained by the intraluminal ultrasound imaging catheter while the intraluminal ultrasound imaging catheter is moved through a body lumen of a patient; determine a longitudinal translation speed of the intraluminal ultrasound imaging catheter based on the plurality of intraluminal ultrasound images and a known time interval between each of plurality of intraluminal ultrasound images; and characterized in that the processor circuit is further configured to output, to a display in communication with the processor circuit, a screen display including a speed indicator based on the longitudinal translation speed, wherein the speed indicator comprises: a shape representative of a range of longitudinal translation speeds; and a marker positioned within the shape and representative of the determined longitudinal translation speed. a shape representative of a range of longitudinal translation speeds; and a marker positioned within the shape and representative of the determined longitudinal translation speed.
lubricating oil composition comprising: a lubricating base oil including a lubricating base oil component having a kinematic viscosity of 1 to 10 mm 2 /s at 100°C and a %C A of 5 or less, wherein the amount of the lubricating base oil component is 30% by mass or greater based on the total mass of the lubricating base oil; and a viscosity index improver having a weight average molecular weight of 50,000 or greater and a ratio of the weight average molecular weight and PSSI of 1.0 × 10 4 or greater, wherein the amount of the viscosity index improver is 0.1 to 50% by mass based on a total mass of the lubricating oil composition, wherein the viscosity index improver contains one or more structural units of (meth)acrylate represented by the following general formula wherein R 1 represents hydrogen or a methyl group, and R 2 represents a straight or branched hydrocarbon group with 16 or more carbon atoms, and wherein the proportion of the structural unit represented by general formula is 1 to 70% by mole, the lubricating oil composition having a kinematic viscosity of 3 to 9.3 mm 2 /s at 100°C and a ratio of HTHS viscosity at 150 °C to HTHS viscosity at 100°C of 0.52 or greater, wherein the PSSI is the permanent shear stability index that complies with ASTM B 6022-01 and that is calculated in accordance with ASTM D 6278-02, and wherein the HTHS viscosity is the high-temperature high-shear viscosity as measured in accordance with ASTM D 4683. a lubricating base oil including a lubricating base oil component having a kinematic viscosity of 1 to 10 mm 2 /s at 100°C and a %C A of 5 or less, wherein the amount of the lubricating base oil component is 30% by mass or greater based on the total mass of the lubricating base oil; and a viscosity index improver having a weight average molecular weight of 50,000 or greater and a ratio of the weight average molecular weight and PSSI of 1.0 × 10 4 or greater, wherein the amount of the viscosity index improver is 0.1 to 50% by mass based on a total mass of the lubricating oil composition, wherein the viscosity index improver contains one or more structural units of (meth)acrylate represented by the following general formula wherein R 1 represents hydrogen or a methyl group, and R 2 represents a straight or branched hydrocarbon group with 16 or more carbon atoms, and wherein the proportion of the structural unit represented by general formula is 1 to 70% by mole, the lubricating oil composition having a kinematic viscosity of 3 to 9.3 mm 2 /s at 100°C and a ratio of HTHS viscosity at 150 °C to HTHS viscosity at 100°C of 0.52 or greater, wherein the PSSI is the permanent shear stability index that complies with ASTM B 6022-01 and that is calculated in accordance with ASTM D 6278-02, and wherein the HTHS viscosity is the high-temperature high-shear viscosity as measured in accordance with ASTM D 4683.
A urethane-based adhesive composition for touch panels comprising a urethane-based curable compound; a (meth)acrylic acid ester monomer; and a crosslinkable monomer; wherein the (meth)acrylic acid ester monomer is present in an amount of 5 parts by weight to 100 parts by weight based on 100 parts by weight of the urethane-based curable compound; the crosslinkable monomer is present in an amount of 0.01 parts by weight to 10 parts by weight based on 100 parts by weight of the urethane-based curable compound; the (meth)acrylic acid ester monomer comprises alkyl(meth)acrylate, wherein the alkyl of the alkyl(meth)acrylate comprises a linear or branched C1 to C14 alkyl; the crosslinkable monomer comprises one selected from the group consisting of 2-hydroxyethyl (meth)acrylate, 2-hydroxypropyl (meth)acrylate, 4-hydroxybutyl (meth)acrylate, 6-hydroxyhexyl (meth)acrylate, 8-hydroxyoctyl (meth)acrylate, 2-hydroxyethyleneglycol (meth)acrylate, 2-hydroxypropyleneglycol (meth)acrylate, acrylic acid, methacrylic acid, 2-(meth)acryloyloxy acetic acid, 3-(meth)acryloyloxy propyl acid, 4-(meth)acryloyloxy butyl acid, an acrylic acid dimer, itaconic acid, maleic acid, 2-isocyanatoethyl (meth)acrylate, 3-isocyanatopropyl (meth)acrylate, 4-isocyanatobutyl (meth)acrylate, (meth)acrylamide, N-vinyl pyrrolidone or N-vinyl caprolactam, and combinations thereof; the urethane-based adhesive composition having a glass transition temperature of -20°C to -50°C, wherein a cured product of the urethane-based adhesive composition has a modulus of 50,000 Pa to 70,000 Pa, as measured at 60°C to 80°C, wherein, the glass transition temperature and the modulus are determined according to the methods mentioned in the specification.
An audio device detachably attachable to a pole of a stand, comprising: an abutting section (23, 24) constructed in such a manner that a distal end of the pole abuts against said abutting section (23, 24) when said audio device is attached to the pole; a pressing member constructed to be operable to pivot in a tightening direction and a loosening direction, said pressing member having a pressing surface (41 a) that presses a side surface portion of the pole toward a central axis of the pole as said pressing member is operated to pivot in the tightening direction with said audio device attached to the pole; and a stopping/engaging section (22C-22F, 26, 61, 62) provided opposite from the pressing surface of said pressing member across the central axis, said stopping/engaging section (22C-22F, 26, 61, 62) engaging and supporting the pole pressed by the pressing surface, wherein said pressing member is constructed in such a manner that, as said pressing member is operated to pivot in the tightening direction, a position of the pressing surface pressing a side surface portion of the pole gradually gets closer to the central axis of the pole so that pressing force applied from the pressing surface increases. an abutting section (23, 24) constructed in such a manner that a distal end of the pole abuts against said abutting section (23, 24) when said audio device is attached to the pole; a pressing member constructed to be operable to pivot in a tightening direction and a loosening direction, said pressing member having a pressing surface (41 a) that presses a side surface portion of the pole toward a central axis of the pole as said pressing member is operated to pivot in the tightening direction with said audio device attached to the pole; and a stopping/engaging section (22C-22F, 26, 61, 62) provided opposite from the pressing surface of said pressing member across the central axis, said stopping/engaging section (22C-22F, 26, 61, 62) engaging and supporting the pole pressed by the pressing surface,
Method for verifying the calibration of a system for non-destructively testing at least one part, said non-destructive testing system comprising at least one ultrasound probe, characterized in that it comprises successive steps E1 to E3 consisting: E1/ in performing measurements, with the help of the non-destructive testing system, on at least one so-called perfect reflector, said perfect reflector comprising at least one reference defect, in recording the measurements thus performed, and in creating and analysing an ultrasound map of an entry surface of the perfect reflector; E2/ in defining a virtual ultrasound probe, on the basis of physical data from the ultrasound probe, and associating it with a passband representative of measurements performed in the step E1; and E3/ in modelling a virtual gauge block, representing a part in the material of the part to be tested comprising the reference defects of the perfect reflector, and in creating a virtual map in amplitude and in flight time of a bottom surface of the virtual gauge block, with the help of modelling using as input data characteristics of the part, the virtual probe defined in the step E2 and measurements performed in the step E1, and in analysing said virtual map to deduce characteristics of the calibration of said non-destructive testing system. E1/ in performing measurements, with the help of the non-destructive testing system, on at least one so-called perfect reflector, said perfect reflector comprising at least one reference defect, in recording the measurements thus performed, and in creating and analysing an ultrasound map of an entry surface of the perfect reflector; E2/ in defining a virtual ultrasound probe, on the basis of physical data from the ultrasound probe, and associating it with a passband representative of measurements performed in the step E1; and E3/ in modelling a virtual gauge block, representing a part in the material of the part to be tested comprising the reference defects of the perfect reflector, and in creating a virtual map in amplitude and in flight time of a bottom surface of the virtual gauge block, with the help of modelling using as input data
A device (1a..1i) for destroying a casting core of a cast workpiece (11, 24) and/or for removing parts of a casting core adhering to the workpiece (11, 24), wherein the device (1a..1i) comprises at least one hammer, wherein the at least one hammer is a hydraulic hammer (2, 2a..2f), wherein a clamping device for a workpiece (11, 24) is formed, said clamping device being arranged in the effective region of the at least one hydraulic hammer (2, 2a..2f) or being movable there, characterized in that the clamping device is coupled to a vibrator device or is arranged thereon, and that the clamping device is mounted so as to be rotatable about a horizontal axis of rotation, wherein the device (1a..1i) is designed such that the workpiece (11, 24) can be simultaneously rotated, caused to vibrate and processed using the at least one hydraulic hammer (2, 2a..2f).
A catalyst composition comprising: a. a catalyst compound; and b. a metal carboxylate salt, wherein the metal carboxylate salt is essentiall free of carboxylic acids as determined by differential scanning calorimetry according to ASTM D3418 such that the metal carboxylate salt does not exhibit any melting peaks that are less than or equal to 75 °C. a. a catalyst compound; and b. a metal carboxylate salt, wherein the metal carboxylate salt is essentiall free of carboxylic acids as determined by differential scanning calorimetry according to ASTM D3418 such that the metal carboxylate salt does not exhibit any melting peaks that are less than or equal to 75 °C.
A method of manufacturing an electronic device, the method comprising: forming a stack structure by placing a to-be-peeled layer on a substrate, wherein the to-be-peeled layer comprises a thin film and a functional layer, and wherein the thin film is placed on the substrate and the functional layer is placed on the thin film; applying a thermal shock to the stack structure, wherein the applying of the thermal shock comprises cooling the substrate until a temperature of the substrate reaches room temperature within 1 minute after heating the substrate until a temperature of the substrate reaches from 100 °C to 400 °C, and causing a sudden temperature change in the stack structure by carrying out the cooling immediately after the heating is completed; detaching the to-be-peeled layer from the substrate; and transferring the detached to-be-peeled layer to a target substrate, and wherein the thin film comprises metal having a thermal expansion coefficient higher than a thermal expansion coefficient of the substrate, wherein the applying of the thermal shock comprises generating shear stress at an interface between the substrate and the thin film to peel off the thin film from the substrate. forming a stack structure by placing a to-be-peeled layer on a substrate, wherein the to-be-peeled layer comprises a thin film and a functional layer, and wherein the thin film is placed on the substrate and the functional layer is placed on the thin film; applying a thermal shock to the stack structure, wherein the applying of the thermal shock comprises cooling the substrate until a temperature of the substrate reaches room temperature within 1 minute after heating the substrate until a temperature of the substrate reaches from 100 °C to 400 °C, and causing a sudden temperature change in the stack structure by carrying out the cooling immediately after the heating is completed; detaching the to-be-peeled layer from the substrate; and transferring the detached to-be-peeled layer to a target substrate, and wherein the thin film comprises metal having a thermal expansion coefficient higher than a thermal expansion coefficient of the substrate, wherein the applying of the thermal shock comprises generating shear stress at an interface between the substrate and the thin film to peel off the thin film from the substrate.
A timer processing method comprising: determining (S102; S202) to perform timer switching on a virtual local timer used by a virtual processor according to preset timer switching condition(s); determining (S104; S204) a physical processor that runs the virtual processor, and switching a physical local timer currently used by the physical processor to a physical global timer; and performing (S106; S206) a timer configuration for the virtual processor to enable the physical local timer to act as a timer of the virtual processor instead of said virtual local timer; and wherein the physical local timer is a timer delivering clock interrupts only to the physical processor connect thereto, and wherein the physical global timer is a timer delivering clock interrupts to any physical processor. determining (S102; S202) to perform timer switching on a virtual local timer used by a virtual processor according to preset timer switching condition(s); determining (S104; S204) a physical processor that runs the virtual processor, and switching a physical local timer currently used by the physical processor to a physical global timer; and performing (S106; S206) a timer configuration for the virtual processor to enable the physical local timer to act as a timer of the virtual processor instead of said virtual local timer; and wherein the physical local timer is a timer delivering clock interrupts only to the physical processor connect thereto, and wherein the physical global timer is a timer delivering clock interrupts to any physical processor.
An extinguishing chamber (100, 110, 120, 130, 140) of magnetic blow-out type for an electrical breaking device (200, 300), said extinguishing chamber comprising a magnetic field source, a magnetic carcass (3, 40) and a breaking region in which an electric arc is liable to form notably when a breaking pole belonging to a breaking device (200, 300) is opened, said field source being arranged to generate a magnetic field intended to move said electric arc in order to stretch it and accelerate its cooling and its extinguishing, and said carcass (3, 40) being arranged to channel said magnetic field, said breaking pole comprising a fixed contact and a movable contact which moves with respect to said fixed contact between a closed position and an open position on a path defining a breaking plane, and said breaking region extending at least in said breaking plane, characterized in that said extinguishing chamber (100, 110, 120, 130, 140) has a mostly symmetrical form with respect to a median plane which coincides with said breaking plane, in that said field source is arranged in the near vicinity of and opposite said breaking region and is oriented to generate magnetic field vectors which are essentially parallel to said breaking plane, in that said carcass (3, 40) surrounds said breaking region and said field source and comprises a window which is open toward the outside in order to allow the passage of said movable contact, and in that said carcass (3, 40) is stood up against said field source and closes in front thereof so as to create an air gap in the magnetic circuit formed by said field source and said carcass (3, 40) and to thus maximize the magnetic field that passes through said breaking region.
A drafting system for drafting fiber bundles for an air-jet spinning machine, the drafting system having a frame for the drafting system, a plurality of drivable bottom rollers (5, 6, 8) and top rollers (11, 12, 13), each bottom roller (5, 6, 8) being mounted in a bearing point on the frame, each bottom roller (5, 6, 8) being associated with a top roller (11, 12, 13) and the bottom and top rollers (5, 6, 8, 11, 12, 13) forming an inlet roller pair, at least one middle roller pair and a discharge roller pair, a load carrier being pivotably disposed in a pivot bearing on the frame, the load carrier comprising pressure elements for loading the top rollers (11, 12, 13) and holding elements for holding and lifting top rollers (11, 12) when the load carrier pivots open, a receptacle for a spinning nozzle being arranged on the frame in order to dispose the spinning nozzle immediately after the discharge roller pair, characterized in that the discharge top roller is mounted in a bearing connected to the bearing point of the associated discharge bottom roller in one piece or at least firmly to one another and that the discharge top roller is loaded by the load carrier but not attached to the load carrier so that said discharge top roller remains in the bearing thereof when the load carrier pivots open. the drafting system having a frame for the drafting system, a plurality of drivable bottom rollers (5, 6, 8) and top rollers (11, 12, 13), each bottom roller (5, 6, 8) being mounted in a bearing point on the frame, each bottom roller (5, 6, 8) being associated with a top roller (11, 12, 13) and the bottom and top rollers (5, 6, 8, 11, 12, 13) forming an inlet roller pair, at least one middle roller pair and a discharge roller pair, a load carrier being pivotably disposed in a pivot bearing on the frame, the load carrier comprising pressure elements for loading the top rollers (11, 12, 13) and holding elements for holding and lifting top rollers (11, 12) when the load carrier pivots open, a receptacle for a spinning nozzle being arranged on the frame in order to dispose the spinning nozzle immediately after the discharge roller pair, characterized in that the discharge top roller is mounted in a bearing connected to the bearing point of the associated discharge bottom roller in one piece or at least firmly to one another and that the discharge top roller is loaded by the load carrier but not attached to the load carrier so that said discharge top roller remains in the bearing thereof when the load carrier pivots open.
A central column for a toroidal field coil of a tokamak plasma chamber, the central column comprising: a tubular support member extending vertically along a central axis of the central column made from material with high compressive strength; current carrying elements of the toroidal field coil located radially outward of the tubular support member; a coolant channel within the tubular support member; and electrical insulation around each current carrying element; wherein the tubular support member is in structural contact with the current carrying elements so as to support them radially against compressive Lorentz stress, characterized in that the central column further comprises cooling ribs in thermal contact with the electrical insulation and extending through the tubular support member into the coolant channel. a tubular support member extending vertically along a central axis of the central column made from material with high compressive strength; current carrying elements of the toroidal field coil located radially outward of the tubular support member; a coolant channel within the tubular support member; and electrical insulation around each current carrying element; wherein the tubular support member is in structural contact with the current carrying elements so as to support them radially against compressive Lorentz stress, characterized in that the central column further comprises cooling ribs in thermal contact with the electrical insulation and extending through the tubular support member into the coolant channel.
Desvenlafaxine salts with ions selected from sugar acids and a vitamin, or hydrates or solvates thereof, wherein said sugar acids are selected from hexuronic, hexonic, hexaric and glucuronic acids and wherein said vitamin is orotic acid.