mhurhangee/ep-ind-claims huggingface dataset:
A gyratory crusher spider arm shield for releasable mounting to a spider arm that extends radially outward from a central hub and forms a part of a spider positioned on a top shell of a gyratory crusher, the shield comprising: a tunnel having a roof and sidewalls for positioning over and at least partially around the spider arm to protect an upper and side faces of the arm, the tunnel having a radially inner end for positioning at the hub and a radially outer end for positioning at a perimeter of the spider; a rear wall projecting upwardly from the radially outer end of the tunnel, the rear wall having an inner face orientated radially inwards towards the tunnel and an outer face orientated radially outward away from the tunnel, the rear wall representing a radially outermost part of the shield; characterised by: at least one attachment element provided at the rear wall arranged to attach the shield to a fixating ring via the outer face, the fixating ring positionable on top of and at the perimeter of the spider to surround at least part of the spider and the arm shield, said shield further comprising at least one locating foot projecting downwardly from a lower portion of the rear wall to extend downwardly and radially behind the tunnel. a tunnel having a roof and sidewalls for positioning over and at least partially around the spider arm to protect an upper and side faces of the arm, the tunnel having a radially inner end for positioning at the hub and a radially outer end for positioning at a perimeter of the spider; a rear wall projecting upwardly from the radially outer end of the tunnel, the rear wall having an inner face orientated radially inwards towards the tunnel and an outer face orientated radially outward away from the tunnel, the rear wall representing a radially outermost part of the shield; characterised by: at least one attachment element provided at the rear wall arranged to attach the shield to a fixating ring via the outer face, the fixating ring positionable on top of and at the perimeter of the spider to surround at least part of the spider and the arm shield, said shield further comprising at least one locating foot projecting downwardly from a lower portion of the rear wall to extend downwardly and radially behind the tunnel.
A dosage form for orally administering levorphanol to a human patient, the dosage form comprising an amount of levorphanol or a pharmaceutically acceptable salt thereof equivalent to 4 to 80 milligrams of levorphanol tartrate, functionally combined with a controlled release material selected from the group consisting of waxes, vegetable oils, esters of vegetable oils, and hydrogenated vegetable oils when the controlled release material is selected from the group consisting of waxes, vegetable oils and esters of vegetable oils, the controlled release material has been treated by application of heat at least up to its melting point and admixed with a thixotrope and a release rate modifier; and, when the controlled release material is hydrogenated vegetable oils, the controlled release material has been treated by application of heat at least up to its melting point and admixed with a thixotrope, a release rate modifier and medium chain triglycerides formulated as an orally-administrable dosage form, said dosage form resistant or substantially resistant to dissolution and/or absorption in the stomach, and/or the duodenum, and/or the jejunum, and/or the ileum. an amount of levorphanol or a pharmaceutically acceptable salt thereof equivalent to 4 to 80 milligrams of levorphanol tartrate, functionally combined with a controlled release material selected from the group consisting of waxes, vegetable oils, esters of vegetable oils, and hydrogenated vegetable oils when the controlled release material is selected from the group consisting of waxes, vegetable oils and esters of vegetable oils, the controlled release material has been treated by application of heat at least up to its melting point and admixed with a thixotrope and a release rate modifier; and, when the controlled release material is hydrogenated vegetable oils, the controlled release material has been treated by application of heat at least up to its melting point and admixed with a thixotrope, a release rate modifier and medium chain triglycerides when the controlled release material is selected from the group consisting of waxes, vegetable oils and esters of vegetable oils, the controlled release material has been treated by application of heat at least up to its melting point and admixed with a thixotrope and a release rate modifier; and, when the controlled release material is hydrogenated vegetable oils, the controlled release material has been treated by application of heat at least up to its melting point and admixed with a thixotrope, a release rate modifier and medium chain triglycerides
An electrically conductive paste comprising: a flake-like silver powder having a median diameter D50 of 15 μm or less; a silver powder having a median diameter D50 of 25 μm or more; a silver powder having a bimodal particle size distribution with peaks at 0.1 μm to 0.5 μm and 1 μm to 15 μm; and a solvent, wherein the content of the flake-like silver powder is 8 to 55 parts by mass, the content of the silver powder having a median diameter D50 of 25 μm or more is 15 to 65 parts by mass, and the content of the silver powder having a bimodal particle size distribution is 4 to 45 parts by mass based on 100 parts by mass in total of the flake-like silver powder, the silver powder having a median diameter D50 of 25 μm or more, and the silver powder having a bimodal particle size distribution, and wherein the median diameters D50 of the flake-like silver powder and the silver powder having a median diameter D50 of 25 μm or more are measured by a laser diffraction method using SALD-2300 (manufactured by Shimadzu Corporation). a flake-like silver powder having a median diameter D50 of 15 μm or less; a silver powder having a median diameter D50 of 25 μm or more; a silver powder having a bimodal particle size distribution with peaks at 0.1 μm to 0.5 μm and 1 μm to 15 μm; and a solvent, wherein the content of the flake-like silver powder is 8 to 55 parts by mass, the content of the silver powder having a median diameter D50 of 25 μm or more is 15 to 65 parts by mass, and the content of the silver powder having a bimodal particle size distribution is 4 to 45 parts by mass based on 100 parts by mass in total of the flake-like silver powder, the silver powder having a median diameter D50 of 25 μm or more, and the silver powder having a bimodal particle size distribution, and wherein the median diameters D50 of the flake-like silver powder and the silver powder having a median diameter D50 of 25 μm or more are measured by a laser diffraction method using SALD-2300 (manufactured by Shimadzu Corporation).
A method for estimating a time-variable physical quantity P by means of a distributed measurement system having a centralized platform and a set composed of a plurality of distributed measurement equipment items (2 i) each able to communicate remotely with said centralized platform via a communication network, the method comprising a step of measuring, by means of each measurement equipment item (2 i) of said set, a local datum representative of said physical quantity P, a step of collecting, over a predetermined sampling period T, measurement samples originating from a subset of said set in which each measurement equipment item belonging to said subset transmits, to said centralized platform, a measurement sample P i of the local datum via said communication network, and a step of estimating said physical quantity P over the sampling period from an aggregate of the collected measurement samples P i, the method being characterized in that it includes, in each sampling period T, a phase of executing, at each measurement equipment item (2 i) of said set, a local decision algorithm (22 i) able to decide, randomly and based on a sending probability π i associated with each measurement equipment item (2 i), whether the corresponding measurement equipment item is part of said subset by generating a random number and by comparing this random number to said sending probability, and in that said physical quantity P is estimated in each sampling period T from the collected measurement samples P i and the sending probability π i associated with each measurement device belonging to said subset by calculation according to the following relationship P T = ∑ i = 1 N ′ P i T π i T in which N' is the number of measurement equipment items of the subset.
An engine cover arranged closely to an internal combustion engine of an automobile, comprising: an engine cover body disposed so as to cover the internal combustion engine, a silencing member provided to a surface of the engine cover body facing the internal combustion engine, and a resonance section provided for the engine cover body between the engine cover body and the silencing member, the resonance section being provided with a volume adjusting means configured to adjust a volume of the resonance section, wherein the resonance section is defined by a plurality of ribs (14, 14a, 14b) that are provided so as to stand upward from the engine cover body and arranged so as to intersect with each other. an engine cover body disposed so as to cover the internal combustion engine, a silencing member provided to a surface of the engine cover body facing the internal combustion engine, and a resonance section provided for the engine cover body between the engine cover body and the silencing member, the resonance section being provided with a volume adjusting means configured to adjust a volume of the resonance section, wherein the resonance section is defined by a plurality of ribs (14, 14a, 14b) that are provided so as to stand upward from the engine cover body and arranged so as to intersect with each other.
A mayenite-type compound, wherein imide anions are incorporated into the mayenite-type compound at a concentration of 1×10 18 cm -3 to 1.1×10 21 cm -3.
Combination of a clamp and a profile beam wherein the profile beam has a contact surface and has two parallel clamping surfaces (13, 14) lying perpendicularly of the contact surface and lying opposite each other, which clamping surfaces (13, 14) extend in longitudinal direction of the profile beam wherein the clamp comprises: - a support body with a support surface on which the profile beam with the contact surface is supported while lying thereagainst; - a first pair of clamping fingers standing upright from the support surface and engaging on the clamping surfaces (13, 14) of the profile beam in a first position; - a second pair of clamping fingers (8,9) standing upright from the support surface and engaging on the clamping surfaces (13, 14) of the profile beam in a second position; wherein the profile beam comprises a channel, which channel extends in longitudinal direction of the profile beam and is arranged in the contact surface and between the two clamping surfaces (13, 14), wherein the width and the depth of the channel are greater than the width and the height of the first pair of clamping fingers and than the width and height of the second pair of clamping fingers (8, 9). wherein the clamp comprises: - a support body with a support surface on which the profile beam with the contact surface is supported while lying thereagainst; - a first pair of clamping fingers standing upright from the support surface and engaging on the clamping surfaces (13, 14) of the profile beam in a first position; - a second pair of clamping fingers (8,9) standing upright from the support surface and engaging on the clamping surfaces (13, 14) of the profile beam in a second position; - a support body with a support surface on which the profile beam with the contact surface is supported while lying thereagainst; - a first pair of clamping fingers standing upright from the support surface and engaging on the clamping surfaces (13, 14) of the profile beam in a first position; - a second pair of clamping fingers (8,9) standing upright from the support surface and engaging on the clamping surfaces (13, 14) of the profile beam in a second position; wherein the profile beam comprises a channel, which channel extends in longitudinal direction of the profile beam and is arranged in the contact surface and between the two clamping surfaces (13, 14), wherein the width and the depth of the channel are greater than the width and the height of the first pair of clamping fingers and than the width and height of the second pair of clamping fingers (8, 9).
An integrated circuit, comprising: a hybrid switch comprising first and second switching devices of different type, which are electrically coupled together to support parallel currents therein in response to respective control signals received at respective first and second control terminals of the first and second switching devices; and a control circuit configured to drive the first and second control terminals with respective first and second periodic control signals having first and second unequal duty cycles, respectively, when the first and second switching devices are disposed to collectively support a forward current in a first current range, and further configured to drive the first and second control terminals with respective third and fourth periodic control signals having third and fourth unequal duty cycles, respectively, when the first and second switching devices are disposed to collectively support a forward current in a second current range outside the first current range, said first duty cycle greaterthan said second duty cycle and said third duty cycle less than said fourth duty cycle. a hybrid switch comprising first and second switching devices of different type, which are electrically coupled together to support parallel currents therein in response to respective control signals received at respective first and second control terminals of the first and second switching devices; and a control circuit configured to drive the first and second control terminals with respective first and second periodic control signals having first and second unequal duty cycles, respectively, when the first and second switching devices are disposed to collectively support a forward current in a first current range, and further configured to drive the first and second control terminals with respective third and fourth periodic control signals having third and fourth unequal duty cycles, respectively, when the first and second switching devices are disposed to collectively support a forward current in a second current range outside the first current range, said first duty cycle greaterthan said second duty cycle and said third duty cycle less than said fourth duty cycle.
A water filter (410, 710) comprising: a water head layer that receives unfiltered water and that facilitates flow of water through a filtration media (725, 735, 755, 765); a filter layer that includes the filtration media (725, 735, 755, 765) that filters the unfiltered water as the unfiltered water passes through the filtration media (725, 735, 755, 765); a water permeable filter bag housing the filtration media (725, 735, 755, 765); and a dome shaped lid on top of the water head layer and the filter layer, the dome shaped lid configured to move with the water head layer as the water head layer receives unfiltered water and the unfiltered water passes through the filter layer. a water head layer that receives unfiltered water and that facilitates flow of water through a filtration media (725, 735, 755, 765); a filter layer that includes the filtration media (725, 735, 755, 765) that filters the unfiltered water as the unfiltered water passes through the filtration media (725, 735, 755, 765); a water permeable filter bag housing the filtration media (725, 735, 755, 765); and a dome shaped lid on top of the water head layer and the filter layer, the dome shaped lid configured to move with the water head layer as the water head layer receives unfiltered water and the unfiltered water passes through the filter layer.
Rolling bearing comprising an outer ring and an inner ring each provided with an annular raceway (1a, 2a) between which conical rollers are arranged so as to enable the relative rotation of said rings about an axis, each of said raceways having an axial bearing area (5, 6) whereon the conical rollers bear by means of the truncated periphery thereof, said axial bearing area extending between an outer edge and an inner edge presenting a truncated geometry defined by a first generatrix (G 1), the outer ring being equipped with a flange having a radial bearing area whereon the conical rollers bear by means of a lateral face, said radial bearing area extending between an outer edge and an inner edge presenting a truncated geometry defined by a second generatrix (G 2), said bearing being characterised in that the outer edges (B, A) of the axial and radial bearing areas are connected by means of a groove wherein the geometry is such that: L BE ≥ K L BI and IA ≤ sin γ 4 − 0.005 × R t, where: - L BE and L BI are the length of the axial bearing area (5, 6) of the outer and inner raceway, respectively; - K is equal to 1 − R RK R BE 1 − R RK R BI where R RK is the large radius of the roller and R BE R BI the radius measured at the hypothetical intersection between the radial bearing area and the axial bearing area of the outer and inner raceway, respectively; - R t is the top radius of the lateral face of the conical rollers; - IA is the distance between the outer edge of the radial bearing area and the hypothetical intersection between the radial bearing area and the axial bearing area of the outer raceway; - γ is the half cone angle of the rollers. - L BE and L BI are the length of the axial bearing area (5, 6) of the outer and inner raceway, respectively; - K is equal to 1 − R RK R BE 1 − R RK R BI where R RK is the large radius of the roller and R BE R BI the radius measured at the hypothetical intersection between the radial bearing area and the axial bearing area of the outer and inner raceway, respectively; - R t is the top radius of the lateral face of the conical rollers; - IA is the distance between the outer edge of the radial bearing area and the hypothetical intersection between the radial bearing area and the axial bearing area of the outer raceway; - γ is the half cone angle of the rollers.
Cosmetic and/or dermatological composition comprising: a) Vitamin E acetate in the range of 5-40% (w/w); b) D-panthenyl triacetate in the range of 2-7%(w/w); c) Vegetable oil Olus oil in the range of 15-30%(w/w). a) Vitamin E acetate in the range of 5-40% (w/w); b) D-panthenyl triacetate in the range of 2-7%(w/w); c) Vegetable oil Olus oil in the range of 15-30%(w/w).
A method of controlling a steam sterilizer system comprising a boiler in which liquid water is turned into steam, the method comprising: - pumping water from a container and passing the pumped water through a degassing filter located upstream of the boiler in order to remove non-condensable gases (NCGs) dissolved in the water, - subsequently to passing the water through the degassing filter, recirculating the water through the degassing filter for additional removal of NCGs, while preventing water from flowing from the degassing filter to the boiler, and - subsequently to recirculating the water through the degassing filter, passing at least a portion of the water to the boiler. - pumping water from a container and passing the pumped water through a degassing filter located upstream of the boiler in order to remove non-condensable gases (NCGs) dissolved in the water, - subsequently to passing the water through the degassing filter, recirculating the water through the degassing filter for additional removal of NCGs, while preventing water from flowing from the degassing filter to the boiler, and - subsequently to recirculating the water through the degassing filter, passing at least a portion of the water to the boiler.
A multifunctional covering shield for walls of buildings, said shield comprising at least one pair of panels (16, 16', 16") containing and/or incorporating photovoltaic elements, a supporting structure, pins and at least one actuating element (24, 25), wherein said at least one pair of panels (16, 16', 16") is arrangeable in correspondence with at least one portion of a wall of a façade, wherein said panels can be rotated with respect to said supporting structure by means of pins provided in correspondence with ends of said panels (16, 16', 16"), wherein said supporting structure is positionable in correspondence with said at least one portion of a wall, and said at least one actuating element (24, 25) is provided for controlling the rotation of said panels around said pins, characterized in that said at least one pair of panels (16, 16', 16") is made of glass and each panel of said at least one pair of panels (16, 16', 16") has a differing dimension increasing from the top of the shield downwards to the bottom of the shield, so that the uppermost panel has a smaller dimension with respect to the subsequent panel, whereas the lowermost panel has a larger dimension.
A method of controlling an additive manufacturing process in which a directed energy source is used to selectively fuse powdered material to form a workpiece, in the presence of a gas flow, the method comprising: using at least one gas flow sensor (74, 76, 78, 80) to generate at least one gas flow rate measurement, wherein at least one gas flow sensor measures gas flow rate at a predetermined location of lowest flow over a build surface; wherein the predetermined location of lowest flow over the build surface is a location near a trailing edge of a build chamber and on a side of the build chamber; and controlling at least one aspect of the additive manufacturing process in response to the at least one gas flow rate measurement, wherein the step of controlling includes changing at least one process parameter of the additive manufacturing process, wherein the at least one process parameter includes a gas flow rate; wherein the step of controlling comprises increasing a gas flow rate of the gas flow if the at least one gas flow rate measurement falls lower than a predetermined minimum gas flow rate. using at least one gas flow sensor (74, 76, 78, 80) to generate at least one gas flow rate measurement, wherein at least one gas flow sensor measures gas flow rate at a predetermined location of lowest flow over a build surface; wherein the predetermined location of lowest flow over the build surface is a location near a trailing edge of a build chamber and on a side of the build chamber; and controlling at least one aspect of the additive manufacturing process in response to the at least one gas flow rate measurement, wherein the step of controlling includes changing at least one process parameter of the additive manufacturing process, wherein the at least one process parameter includes a gas flow rate; wherein the step of controlling comprises increasing a gas flow rate of the gas flow if the at least one gas flow rate measurement falls lower than a predetermined minimum gas flow rate.