mhurhangee/ep-ind-claims huggingface dataset:
A closure for an opening in tissue, comprising: a first closure element, the first closure element having a first mesh enclosure, the first mesh enclosure having a first distal narrowed end and a second proximal narrowed end and a central volume, each of the first and second ends (38, 40) being inverted so as to be within the central volume of the first mesh enclosure, each of the first and second ends being surrounded by respective external surfaces of the first mesh enclosure; a second closure element, the second closure element having a second mesh enclosure, the second mesh enclosure having a third distal narrowed end and a fourth proximal narrowed end and a central volume, the third end being inverted so as to be within the central volume of the second mesh enclosure, the third end being surrounded by external surfaces of the second mesh enclosure; a tether joining the first and second closure elements in an initial configuration prior to delivery of the closure elements to the opening, the tether having first and second enlarged ends, wherein the tether extends through the first, second and third narrowed ends so that the first enlarged end of the tether is outside the first closure element adjacent or engaging the first end and the second enlarged end of the tether is within the central volume of the second closure element, wherein the first closure element is adapted to engage a distal side of the tissue having the opening, and the second closure element is adapted to engage a proximal side of the tissue, and the tether is adapted to pass through the opening. a first closure element, the first closure element having a first mesh enclosure, the first mesh enclosure having a first distal narrowed end and a second proximal narrowed end and a central volume, each of the first and second ends (38, 40) being inverted so as to be within the central volume of the first mesh enclosure, each of the first and second ends being surrounded by respective external surfaces of the first mesh enclosure; a second closure element, the second closure element having a second mesh enclosure, the second mesh enclosure having a third distal narrowed end and a fourth proximal narrowed end and a central volume, the third end being inverted so as to be within the central volume of the second mesh enclosure, the third end being surrounded by external surfaces of the second mesh enclosure; a tether joining the first and second closure elements in an initial configuration prior to delivery of the closure elements to the opening, the tether having first and second enlarged ends, wherein the tether extends through the first, second and third narrowed ends so that the first enlarged end of the tether is outside the first closure element adjacent or engaging the first end and the second enlarged end of the tether is within the central volume of the second closure element, wherein the first closure element is adapted to engage a distal side of the tissue having the opening, and the second closure element is adapted to engage a proximal side of the tissue, and the tether is adapted to pass through the opening.
A production apparatus for preparing a metal clad plate in a short process, comprising a base material supply device consisting of an uncoiler, a pinch roll, a shot blasting machine, a welding device, a welding pinch roll, and an induction heating equipment, and comprising: a flow distributor, two molding cooling rolls, a secondary cooling leveling roll, a rolling mill pinch roll, a rolling mill, an online cooling equipment, a leveler, and at least one of a dividing shear and a coiler, wherein there are two base material supply devices that are arranged on both sides of the two molding cooling rolls, the flow distributor is arranged above the molding cooling rolls, and is used to cast molten steel between the two molding cooling rolls to form a molten metal pool, the two molding cooling rolls are used to respectively receive base material strips conveyed from the two base material supply devices, so that each base material strip is immersed into the molten metal pool along the corresponding molding cooling roll and then rolled into a cladding slab, the secondary cooling leveling roll is used to flatten the cladding slab conveyed from the two molding cooling rolls, the rolling mill pinch roll is used to convey the flattened cladding slab, the rolling mill is used to roll the cladding slab conveyed from the rolling mill pinch roll to form a cladding strip, the online cooling equipment is used to cool the cladding strip conveyed from the rolling mill, the leveler is used to level the cooled cladding strip, the dividing shear is used to perform cut-to-length on the leveled cladding strip, and the coiler is used to coil the leveled cladding strip.
A power tool comprising: a housing; an output shaft supported by the housing for rotation about an axis; a battery terminal selectively operable to receive a DC power supply from a battery; a receptacle arranged to selectively connect and disconnect with an AC power source external to the power tool, the receptacle operable to receive an AC power supply from the AC power source when the AC power source is connected with the receptacle; a motor operable in a first power mode in response to receipt of the DC power supply to rotatably drive the output shaft and operable in a second power mode in response to receipt of the AC power supply to rotatably drive the output shaft; and a mechanical interlock movable between a first position in which the interlock physically blocks the receptacle to inhibit a flow of the AC power supply to the motor and a second position in which the interlock physically blocks the battery terminal to inhibit a flow of the DC power supply to the motor. a housing; an output shaft supported by the housing for rotation about an axis; a battery terminal selectively operable to receive a DC power supply from a battery; a receptacle arranged to selectively connect and disconnect with an AC power source external to the power tool, the receptacle operable to receive an AC power supply from the AC power source when the AC power source is connected with the receptacle; a motor operable in a first power mode in response to receipt of the DC power supply to rotatably drive the output shaft and operable in a second power mode in response to receipt of the AC power supply to rotatably drive the output shaft; and a mechanical interlock movable between a first position in which the interlock physically blocks the receptacle to inhibit a flow of the AC power supply to the motor and a second position in which the interlock physically blocks the battery terminal to inhibit a flow of the DC power supply to the motor.
A compound selected from the formula or or salts or solvates thereof for use in preventing or treating a HIV-infection and/or a disease associated with a HIV-infection.
A pneumatic tire comprising: a tread portion having a designated installing direction to a vehicle to define an outboard tread edge and an inboard tread edge (Tel), the tread portion comprising an inboard portion defined between the inboard tread edge and a tire equator and an outboard portion defined between the outboard tread edge and the tire equator; the inboard portion being provided with a circumferentially and continuously extending first main groove, a circumferentially and continuously extending second main groove arranged between the first main groove and the inboard tread edge (Tel), and a plurality of first lateral grooves extending axially inwardly from the inboard tread edge (Tel); an axial distance from the tire equator to a centerline of the second main groove being in a range of from 0.35 to 0.75 times of a width of the inboard portion; wherein the outboard portion is not provided with any circumferentially and continuously extending main grooves, characterized in that the first lateral grooves terminate without reaching the second main groove. a tread portion having a designated installing direction to a vehicle to define an outboard tread edge and an inboard tread edge (Tel), the tread portion comprising an inboard portion defined between the inboard tread edge and a tire equator and an outboard portion defined between the outboard tread edge and the tire equator; the inboard portion being provided with a circumferentially and continuously extending first main groove, a circumferentially and continuously extending second main groove arranged between the first main groove and the inboard tread edge (Tel), and a plurality of first lateral grooves extending axially inwardly from the inboard tread edge (Tel); an axial distance from the tire equator to a centerline of the second main groove being in a range of from 0.35 to 0.75 times of a width of the inboard portion; wherein the outboard portion is not provided with any circumferentially and continuously extending main grooves, characterized in that the first lateral grooves terminate without reaching the second main groove.
A user equipment, UE, (101, 400) including a transceiver, the UE (101, 400) being configured to: perform cell selection or reselection and camp on a first cell in a first frequency wherein the first cell is the serving cell; determine that proximity services are supported in a second frequency; characterized in that the UE (101,400) is further configured to: perform cell selection or reselection on the second frequency to establish proximity service communication with the first cell or a second cell on the second frequency while camping on the first cell on the first frequency; maintain wide area network operation on the first cell using the first frequency while receiving proximity service support from the first cell or the second cell on the second frequency, wherein the UE is capable of multiple receive and transmit chains; and start device-to-device communication on the second frequency and send, with the transceiver, a device-to-device message in the second frequency, wherein the device-to-device message comprises one of a device-to-device discovery message and a device-to-device communication message. perform cell selection or reselection and camp on a first cell in a first frequency wherein the first cell is the serving cell; determine that proximity services are supported in a second frequency; characterized in that the UE (101,400) is further configured to: perform cell selection or reselection on the second frequency to establish proximity service communication with the first cell or a second cell on the second frequency while camping on the first cell on the first frequency; maintain wide area network operation on the first cell using the first frequency while receiving proximity service support from the first cell or the second cell on the second frequency, wherein the UE is capable of multiple receive and transmit chains; and start device-to-device communication on the second frequency and send, with the transceiver, a device-to-device message in the second frequency, wherein the device-to-device message comprises one of a device-to-device discovery message and a device-to-device communication message. perform cell selection or reselection on the second frequency to establish proximity service communication with the first cell or a second cell on the second frequency while camping on the first cell on the first frequency; maintain wide area network operation on the first cell using the first frequency while receiving proximity service support from the first cell or the second cell on the second frequency, wherein the UE is capable of multiple receive and transmit chains; and start device-to-device communication on the second frequency and send, with the transceiver, a device-to-device message in the second frequency, wherein the device-to-device message comprises one of a device-to-device discovery message and a device-to-device communication message.
Process for the production of coated mouldings, in which a moulding material is injected into an injection mould and cooled to give a moulding, the injection mould is changed so that a space forms between that surface of the moulding which is to be coated and the inner surface of the injection mould, the resulting space is filled by injection moulding with a reactive mixture, and the reactive mixture is first thermally cured; and wherein the reactive mixture comprises at least 40% by weight of (meth)acrylates having at least two double bonds and at least one thermal initiator, and the moulding material comprises at least one polymer which is selected from the group consisting of polymethyl methacrylate, polymethylmethacrylimide, polymethyl methacrylate copolymer, polystyrene copolymer and polycarbonate, characterized in that the reactive mixture comprises at least one photoinitiator and, after thermal curing, is cured by irradiation.
Acetyl L-carnitine, or a salt thereof, for use in the prevention of a central nervous system disorder by increasing neurogenesis, selected from the group consisting of Shy-Drager syndrome, Lewy body disease, and spinal ischemia, wherein said increased neurogenesis decreases the occurrence of said disorders.
A slide staining system comprising a microwave heating system, said microwave heating system comprising: a non-modal interplate microwave applicator (200, 300) comprising at least two applicator plates (202, 203, 302, 303) configured to receive a biological sample on a microscope slide to be heated by microwaves radiated with a wavelength λ from the applicator between the plates, wherein the microwave applicator is configured to generate an electromagnetic field between the applicator plates for applying microwave energy to the biological sample on the microscope slide, wherein the strength of the electric field at the biological sample on the microscope slide does not depend on standing wave modes and wherein the at least two applicator plates are separated with a distance d that is λ/2 or less; and a microwave source connected to the non-modal interplate microwave applicator. a non-modal interplate microwave applicator (200, 300) comprising at least two applicator plates (202, 203, 302, 303) configured to receive a biological sample on a microscope slide to be heated by microwaves radiated with a wavelength λ from the applicator between the plates, wherein the microwave applicator is configured to generate an electromagnetic field between the applicator plates for applying microwave energy to the biological sample on the microscope slide, wherein the strength of the electric field at the biological sample on the microscope slide does not depend on standing wave modes and wherein the at least two applicator plates are separated with a distance d that is λ/2 or less; and a microwave source connected to the non-modal interplate microwave applicator.
An outer blade cutting wheel comprising a base in the form of an annular thin disc of cemented carbide having a Young's modulus of 450 to 700 GPa, having an outer diameter of 80 to 200 mm defining an outer periphery, an inner diameter of 30 to 80 mm, and a thickness of 0.1 to 1.0 mm, and a blade section on the outer periphery of the base, said blade section comprising diamond and/or CBN abrasive grains pre-coated with a magnetic material, a metal or alloy bond formed by electroplating or electroless plating, bonding the abrasive grains together and to the base, and characterised by resin infiltrated between the abrasive grains and between the abrasive grains and the base, said resin being thermoplastic resin having a melting point of up to 350°C, or thermoset resin obtained by curing a liquid thermosetting resin composition having a curing temperature of up to 350°C, whereby the blade section has a gradient of deformation stress against deformation distance in a range of 100 to 10,000 N/mm, said gradient being as determined by - mounting the cutting wheel horizontally on a jig, sandwiched between circular iron plates 5 mm thick such that only the blade section is exposed; - at a position spaced 0.3 mm outwardly from the outer periphery of the base, pressing the blade section in the thickness direction at a linear speed of 1 mm/min using a probe having a contact area of length equal to the radial protrusion of the blade section minus 0.3 mm and of width 10 mm, - measuring the stress reaction versus travel distance of the probe, continuing the pressing until the blade section is ruptured; - plotting the measurement on a graph; - computing the gradient of the graph at a region of the probe travel where the graph exhibits linearity, that is, where the stress is proportional to the travel distance of the probe. - mounting the cutting wheel horizontally on a jig, sandwiched between circular iron plates 5 mm thick such that only the blade section is exposed; - at a position spaced 0.3 mm outwardly from the outer periphery of the base, pressing the blade section in the thickness direction at a linear speed of 1 mm/min using a probe having a contact area of length equal to the radial protrusion of the blade section minus 0.3 mm and of width 10 mm, - measuring the stress reaction versus travel distance of the probe, continuing the pressing until the blade section is ruptured; - plotting the measurement on a graph; - computing the gradient of the graph at a region of the probe travel where the graph exhibits linearity, that is, where the stress is proportional to the travel distance of the probe.
A columnar forged product obtained by hot forging a steel ingot containing: C: 0.15-0.75% (means mass%, hereinafter the same); Si: 0.1-0.6%; Mn: 0.3-1.4%; Ni: 0.1-2%; Cr: 0.5-2.5; Mo: 0.1-0.5%; V: 0.01-0.20%; and Al: 0.015-0.04%, satisfying: Ti: 0.002% or below; S: 0.0006% or below; N: 0.01% or below; and O: 0.002% or below, and the balance comprising iron with inevitable impurities, wherein the density (D O) of the inclusions whose major axis exceeds 5 μm observed in the axis position of a section perpendicular to the axial direction of the forged product is 70 nos/cm 2 or below, and, when the radius of the forged product is R, the ratio of the density (D R) of the inclusions whose major axis exceeds 5 μm observed in the R/3 position from the axis position toward the radial direction and the density D O satisfies inequality below in both end faces of the forged product. 0.5 ≤ D R / D O ≤ 1.50 C: 0.15-0.75% (means mass%, hereinafter the same); Si: 0.1-0.6%; Mn: 0.3-1.4%; Ni: 0.1-2%; Cr: 0.5-2.5; Mo: 0.1-0.5%; V: 0.01-0.20%; and Al: 0.015-0.04%, satisfying: Ti: 0.002% or below; S: 0.0006% or below; N: 0.01% or below; and O: 0.002% or below, and the balance comprising iron with inevitable impurities, wherein the density (D O) of the inclusions whose major axis exceeds 5 μm observed in the axis position of a section perpendicular to the axial direction of the forged product is 70 nos/cm 2 or below, and, when the radius of the forged product is R, the ratio of the density (D R) of the inclusions whose major axis exceeds 5 μm observed in the R/3 position from the axis position toward the radial direction and the density D O satisfies inequality below in both end faces of the forged product. 0.5 ≤ D R / D O ≤ 1.50 Ti: 0.002% or below; S: 0.0006% or below; N: 0.01% or below; and O: 0.002% or below, and the balance comprising iron with inevitable impurities, wherein the density (D O) of the inclusions whose major axis exceeds 5 μm observed in the axis position of a section perpendicular to the axial direction of the forged product is 70 nos/cm 2 or below, and, when the radius of the forged product is R, the ratio of the density (D R) of the inclusions whose major axis exceeds 5 μm observed in the R/3 position from the axis position toward the radial direction and the density D O satisfies inequality below in both end faces of the forged product. 0.5 ≤ D R / D O ≤ 1.50
A papermaking fabric comprising a plurality of through voids, said through voids each comprising: a first opening associated with a top surface of said fabric (104, 302); a second opening associated with a bottom surface of said fabric (104, 302); and at least one raised edge (204, 206) circumferentially adjacent to at least one of said first and second openings (110, 112), wherein first raised edge is provided on the top surface at a height level that is 5-10 μm above the top surface and a second raised edge is provided on the bottom surface at a height level that is 5-10 μm below the bottom surface. a first opening associated with a top surface of said fabric (104, 302); a second opening associated with a bottom surface of said fabric (104, 302); and at least one raised edge (204, 206) circumferentially adjacent to at least one of said first and second openings (110, 112),
Multilayer body protection element with at least one first layer of an air-permeable fabric made of a first material and with a cushioning second layer, wherein the second layer is perforated and is made of a second material, wherein the body protection element is implemented as a seat inlay for cycling shorts, characterized in that the second material comprises a thermoplastic elastomer, a polyurethane, or a silicon, wherein the second layer is implemented as a latticed or honeycombed structure with crosspieces that form the lattice or the honeycomb and with openings between the crosspieces, wherein the second layer has a regular lattice structure, wherein the lattice structure comprises triangular, rectangular, or diamond-shaped elements.
A controller configured for use in an LED lighting system having a heatsink and a plurality of strings of LEDs (110, 111, 112, 113) each string comprising one or more LEDs each having a junction and being mounted on the heatsink, the controller comprising: a memory unit; and a processor, and being configured to supply a respective current to each of the strings of LEDs; characterised in that the processor comprises: a first temperature estimation subunit configured to generate a first estimate, being an estimate of the junction temperature of the LEDs of a one of the strings of LEDs; a heatsink temperature estimation subunit configured to estimate a temperature of the heatsink unit from the first estimate; and a second temperature estimation subunit configured to provide a second estimate, being an estimate of a junction temperature of LEDs of a second string of LEDs, from the estimated temperature of the heatsink.
A molecule comprising a carrier atom and a high refractive index functional group, the molecule having the formula: where W is silicon, R 1 is independently chosen from hydrogen, hydroxyl, or a group containing C1-C30 carbon atoms chosen from a linear or branched alkyl radical, a linear or branched alkoxy radical, an alkylvinyl radical (including allyl), a cycloalkyl radical, a branched or linear alkenyl radical, a cycloalkenyl radical, a linear or branched alkynyl radical, an aryl radical, a substituted aryl radical, or a polynuclear aromatic group; A is chosen from a high refractive index group comprising a sulfur-containing heterocyclic structure comprising two sulfur atoms, wherein the heterocyclic structure is a saturated compound and/or a fused ring system where both rings are aliphatic; B is chosen from a halide, alkoxy, hydroxyl, an alkylvinyl radical (including allyl), hydrogen, -(CH 2) n SH, -(CH 2) n NH 2, a glycidyl radical, or a combination of two or more thereof; n is 1-10, x is at least 1; y ranges from zero to 2; z is at least 1; 1 ≤ x + y ≤ 3; and x + y + z is equal to 4.