mhurhangee/ep-ind-claims huggingface dataset:
A water soluble dry powder formulation useful for forming an aqueous enteric coating solution comprising an alginate and a film formation polymer, wherein: the ratio of alginate to film formation polymer is 10:1 to 1:3 by weight, the alginate is water soluble at 10% solids and has a G content of 20% to 40% and a viscosity of 3-20 mPa·s (cps) at 1% solids (measured at 20°C+/- 2°C using a Brookfield viscometer spindle #62), the film formation polymer is water soluble at 10% solids, and whereby when the aqueous enteric coating solution comprising the water soluble dry powder formulation is applied on an oral dosage form containing an active ingredient, the active ingredient is not released into a medium of 0.1 N HCl at about 37°C for up to one hour, and thereafter about 90% or more of the active ingredient is released within two hours in a phosphate buffer medium having pH 7.2 at about 37°C. the ratio of alginate to film formation polymer is 10:1 to 1:3 by weight, the alginate is water soluble at 10% solids and has a G content of 20% to 40% and a viscosity of 3-20 mPa·s (cps) at 1% solids (measured at 20°C+/- 2°C using a Brookfield viscometer spindle #62), the film formation polymer is water soluble at 10% solids, and whereby when the aqueous enteric coating solution comprising the water soluble dry powder formulation is applied on an oral dosage form containing an active ingredient, the active ingredient is not released into a medium of 0.1 N HCl at about 37°C for up to one hour, and thereafter about 90% or more of the active ingredient is released within two hours in a phosphate buffer medium having pH 7.2 at about 37°C. whereby when the aqueous enteric coating solution comprising the water soluble dry powder formulation is applied on an oral dosage form containing an active ingredient, the active ingredient is not released into a medium of 0.1 N HCl at about 37°C for up to one hour, and thereafter about 90% or more of the active ingredient is released within two hours in a phosphate buffer medium having pH 7.2 at about 37°C.
A seat cushion adjusting apparatus (10, 10B) comprising: a nut support mechanism (80, 80B, 80C) that is configured to support a nut member on a frame of a seat cushion; and a variable mechanism that is configured to change a length of the seat cushion based on an axial movement of a screw shaft screwed to the nut member, wherein the nut support mechanism (80, 80B, 80C) is configured to allow the nut member and the screw shaft to be integrally tilted while restricting rotation of the nut member, wherein the nut support mechanism (80, 80B, 80C) interposes the nut member between a pair of support walls (82a, 82b, 92a, 92b) disposed to face each other in an axial direction of the screw shaft, and wherein curved surfaces (S1, S2), which are convex toward the support walls (82a, 82b, 92a, 92b) facing end portions of the nut member in the axial direction, are formed in the end portions in the axial direction, characterized in that a holder member capable of elastically deforming is interposed between the support wall (82a, 82b) and the nut member. a nut support mechanism (80, 80B, 80C) that is configured to support a nut member on a frame of a seat cushion; and a variable mechanism that is configured to change a length of the seat cushion based on an axial movement of a screw shaft screwed to the nut member, wherein the nut support mechanism (80, 80B, 80C) is configured to allow the nut member and the screw shaft to be integrally tilted while restricting rotation of the nut member, wherein the nut support mechanism (80, 80B, 80C) interposes the nut member between a pair of support walls (82a, 82b, 92a, 92b) disposed to face each other in an axial direction of the screw shaft, and wherein curved surfaces (S1, S2), which are convex toward the support walls (82a, 82b, 92a, 92b) facing end portions of the nut member in the axial direction, are formed in the end portions in the axial direction, characterized in that a holder member capable of elastically deforming is interposed between the support wall (82a, 82b) and the nut member.
A compound engine assembly (10, 210, 310) comprising: an inlet duct having an inlet in fluid communication with ambient air around the compound engine assembly, the inlet being surrounded by an inlet lip, the inlet lip including at least one conduit extending therethrough; a compressor having an inlet in fluid communication with the inlet duct; an engine core, the engine core having an inlet in fluid communication with an outlet of the compressor; a turbine section having an inlet in fluid communication with an outlet of the engine core, the turbine section including at least one turbine rotor (26', 27') connected to a turbine shaft; an exhaust duct having an outlet in fluid communication with the ambient air around the compound engine assembly; a first exhaust conduit providing a fluid communication between an outlet of the turbine section and the exhaust duct; and a second exhaust conduit providing a fluid communication between the outlet of the turbine section and the at least one conduit of the inlet lip, the at least one conduit of the inlet lip also communicating with the ambient air around the compound engine assembly; wherein the engine core includes at least one internal combustion engine in driving engagement with an engine shaft, the turbine shaft is in driving engagement with the engine shaft; and the at least one conduit of the inlet lip communicates with the ambient air around the compound engine assembly through communication with the exhaust duct. an inlet duct having an inlet in fluid communication with ambient air around the compound engine assembly, the inlet being surrounded by an inlet lip, the inlet lip including at least one conduit extending therethrough; a compressor having an inlet in fluid communication with the inlet duct; an engine core, the engine core having an inlet in fluid communication with an outlet of the compressor; a turbine section having an inlet in fluid communication with an outlet of the engine core, the turbine section including at least one turbine rotor (26', 27') connected to a turbine shaft; an exhaust duct having an outlet in fluid communication with the ambient air around the compound engine assembly; a first exhaust conduit providing a fluid communication between an outlet of the turbine section and the exhaust duct; and a second exhaust conduit providing a fluid communication between the outlet of the turbine section and the at least one conduit of the inlet lip, the at least one conduit of the inlet lip also communicating with the ambient air around the compound engine assembly; wherein the engine core includes at least one internal combustion engine in driving engagement with an engine shaft, the turbine shaft is in driving engagement with the engine shaft; and the at least one conduit of the inlet lip communicates with the ambient air around the compound engine assembly through communication with the exhaust duct.
A substantially rigid thin-sheet panel assembly for use with a solar concentrator, the thin-sheet panel assembly being configured as a truss and having a non-rigid thin-sheet component, wherein: the thin-sheet panel assembly comprises the thin-sheet component which has selected plan area and shape and is a first chord of the truss, a backer having a plan shape and area substantially similar to the thin-sheet component and being a second chord of the truss, and plural riser elements of selected height and configuration each extending from the backer to distal ends connected to a reverse surface of the thin-sheet component, the backer being defined by a backer sheet, and each of the riser elements being defined by a respective portion of the backer sheet that is bent away from the backer sheet to define a respective opening therein and has an integral connection to the backer sheet, the riser elements being diagonal elements of the truss and configured and disposed in an array which causes the assembly to have substantial rigidity in a selected direction in the thin-sheet component, wherein the thin-sheet panel assembly further comprises a bar coupled to the backer and extending between at least one pair of adjacent riser elements of the plural riser elements in a direction substantially parallel to the reverse surface of the thin-sheet component and wherein the portions of the backer sheet that define the riser elements have substantially hourglass-shaped configurations and the integral connections to the backer sheet are at bases of the hourglass-shaped configurations. the thin-sheet panel assembly comprises the thin-sheet component which has selected plan area and shape and is a first chord of the truss, a backer having a plan shape and area substantially similar to the thin-sheet component and being a second chord of the truss, and plural riser elements of selected height and configuration each extending from the backer to distal ends connected to a reverse surface of the thin-sheet component, the backer being defined by a backer sheet, and each of the riser elements being defined by a respective portion of the backer sheet that is bent away from the backer sheet to define a respective opening therein and has an integral connection to the backer sheet, the riser elements being diagonal elements of the truss and configured and disposed in an array which causes the assembly to have substantial rigidity in a selected direction in the thin-sheet component, wherein the thin-sheet panel assembly further comprises a bar coupled to the backer and extending between at least one pair of adjacent riser elements of the plural riser elements in a direction substantially parallel to the reverse surface of the thin-sheet component and wherein the portions of the backer sheet that define the riser elements have substantially hourglass-shaped configurations and the integral connections to the backer sheet are at bases of the hourglass-shaped configurations.
A process for the production of a Camellia sinensis dedifferentiated stem cell extract, the process comprising the steps of: (a) preparing a cell culture comprising Camellia sinensis dedifferentiated stem cells; (b) performing an extraction on the cell culture using ethanol as the extraction solvent, to produce the Camellia sinensis dedifferentiated stem cell extract. (a) preparing a cell culture comprising Camellia sinensis dedifferentiated stem cells; (b) performing an extraction on the cell culture using ethanol as the extraction solvent, to produce the Camellia sinensis dedifferentiated stem cell extract.
An open-type compressor, comprising: a drive shaft which is rotatably supported inside a housing and includes one end which protrudes outside the housing; an oil supply pump which is provided on an outer circumferential section of the drive shaft and is driven by rotation of the drive shaft; a pump chamber which is formed around the drive shaft and from which oil pumped up by the oil supply pump is discharged; an axial-direction oil supply passage which is pierced inside the drive shaft along the direction of an axis of the axial-direction oil supply passage, and through which oil from the pump chamber is supplied to a sliding part; and a radial-direction oil supply passage (40, 40A) which is provided in the drive shaft, characterized in that oil in the pump chamber is introduced to the axial-direction oil supply passage through the radial-direction oil supply passage (40, 40A), wherein the axial-direction oil supply passage is provided at a position which is decentered by a predetermined dimension with respect to the axis of the drive shaft, and wherein the radial-direction oil supply passage (40, 40A) is provided on a side toward which the axial-direction oil supply passage is decentered. a drive shaft which is rotatably supported inside a housing and includes one end which protrudes outside the housing; an oil supply pump which is provided on an outer circumferential section of the drive shaft and is driven by rotation of the drive shaft; a pump chamber which is formed around the drive shaft and from which oil pumped up by the oil supply pump is discharged; an axial-direction oil supply passage which is pierced inside the drive shaft along the direction of an axis of the axial-direction oil supply passage, and through which oil from the pump chamber is supplied to a sliding part; and a radial-direction oil supply passage (40, 40A) which is provided in the drive shaft, characterized in that oil in the pump chamber is introduced to the axial-direction oil supply passage through the radial-direction oil supply passage (40, 40A), wherein the axial-direction oil supply passage is provided at a position which is decentered by a predetermined dimension with respect to the axis of the drive shaft, and wherein the radial-direction oil supply passage (40, 40A) is provided on a side toward which the axial-direction oil supply passage is decentered.
Autonomous and self-propelled vehicle for substantially laterally displacing feed situated on a ground, comprising: - a frame; - a housing arranged on the frame, wherein the housing comprises feed-displacement means for displacing feed substantially laterally with respect to a direction of travel, wherein the feed-displacement means are rotatable with respect to the frame, and wherein the outer periphery of the housing forms the outer periphery of the vehicle; characterized in that at least a bottom section of the feed-displacement means has a cylindrical shape having a cylinder axis, wherein the feed-displacement means are rotationally symmetrical about the cylinder axis, wherein the feed-displacement means are rotatable about the cylinder axis, and wherein the cylinder axis is at an angle to the vertical in such a manner that a part of the feed-displacement means which, viewed in the direction of travel, is situated at the front is arranged closer to the floor than a part of the feed-displacement means which, viewed in the direction of travel, is situated at the rear. - a frame; - a housing arranged on the frame, wherein the housing comprises feed-displacement means for displacing feed substantially laterally with respect to a direction of travel, wherein the feed-displacement means are rotatable with respect to the frame, and wherein the outer periphery of the housing forms the outer periphery of the vehicle; characterized in that at least a bottom section of the feed-displacement means has a cylindrical shape having a cylinder axis, wherein the feed-displacement means are rotationally symmetrical about the cylinder axis, wherein the feed-displacement means are rotatable about the cylinder axis, and wherein the cylinder axis is at an angle to the vertical in such a manner that a part of the feed-displacement means which, viewed in the direction of travel, is situated at the front is arranged closer to the floor than a part of the feed-displacement means which, viewed in the direction of travel, is situated at the rear.
A method comprising: generating a mold of a dental arch for a patient; thermoforming or pressure forming a plastic over the mold to form a plastic orthodontic aligner; and cutting the plastic orthodontic aligner to separate the plastic orthodontic aligner into a first segment and a second segment and to form a connector that connects the first segment to the second segment, wherein the first segment is for moving a first set of teeth of a patient; the first segment and the second segment being joined by the connector, wherein a reduced rigidity, greater flexibility, and/or geometric configuration of the plastic orthodontic aligner at the connector serves to isolate, reduce, or eliminate first force transmission between the first segment and the second segment and to prevent, when in use in a mouth of the patient, unintentional separation of the first segment and the second segment. generating a mold of a dental arch for a patient; thermoforming or pressure forming a plastic over the mold to form a plastic orthodontic aligner; and cutting the plastic orthodontic aligner to separate the plastic orthodontic aligner into a first segment and a second segment and to form a connector that connects the first segment to the second segment, wherein the first segment is for moving a first set of teeth of a patient; the first segment and the second segment being joined by the connector, wherein a reduced rigidity, greater flexibility, and/or geometric configuration of the plastic orthodontic aligner at the connector serves to isolate, reduce, or eliminate first force transmission between the first segment and the second segment and to prevent, when in use in a mouth of the patient, unintentional separation of the first segment and the second segment.
Auxiliary device for laying tiles, having a first clamping element, which is configured such that it can be arranged beneath at least two tiles and a tile joint located between said two tiles, having a tongue-like or bar-like connecting element, which is connected to the first clamping element such that it passes through the tile joint when the first clamping element is arranged beneath the tiles, having a second clamping element, which has a through-opening which is intended for the connecting element, is configured in the form of a through-channel of slot-like cross section and by means of which said second clamping element can be, or is, plugged onto the connecting element such that the connecting element has a free end region projecting out of the through-opening, and having an arresting device, by means of which the second clamping element, in order to clamp in at least one tile between it and the first clamping element, can be arrested against withdrawal from the connecting element, wherein the arresting device, on the connecting element, has at least one toothing formation with a plurality of teeth (10A, 10B) offset in relation to one another in the direction in which the connecting element extends, and wherein at least one catch (11A, 11B) which interacts with the toothing formation is arranged on the second clamping element, characterized in that the connecting element, at its free end region, has at least one grip element, into which at least one finger of the human hand can hook, in that on its underside, which is directed towards the first clamping element, the second clamping element has at least one protrusion, which is directed towards the first clamping element and can be positioned against the tile by way of its furthest-projecting location, which is spaced apart from the connecting element, and in that the second clamping element can be deformed elastically such that the furthest-projecting location of the protrusion can be deflected away from the first clamping element, counter to the restoring force of the material of the second clamping element, when the second clamping element is arrested against withdrawal from the connecting element.
A microchip comprising: a plurality of substrate layers (11,12,13); and bonding layers laminated on boundary surfaces between the substrate layers and which include a silicon compound, wherein at least one of the bonding layers includes an organic silicon compound, wherein the plurality of substrate layers include an upper substrate layer having an opening formed therein to allow a portion of a puncture member to penetrate into the microchip, a grooved substrate layer having a groove formed on a bonding surface, and a third substrate layer bonded to the bonding surface having the groove, thereby forming a sealed inner space (43,53). a plurality of substrate layers (11,12,13); and bonding layers laminated on boundary surfaces between the substrate layers and which include a silicon compound, wherein at least one of the bonding layers includes an organic silicon compound, wherein the plurality of substrate layers include an upper substrate layer having an opening formed therein to allow a portion of a puncture member to penetrate into the microchip, a grooved substrate layer having a groove formed on a bonding surface, and a third substrate layer bonded to the bonding surface having the groove, thereby forming a sealed inner space (43,53).
A method of producing propylene, the method comprising: flowing a methyl tertiary butyl ether (MTBE) synthesis raffinate stream that comprises C 4 hydrocarbons through a molecular sieve so that the molecular sieve separates the MTBE synthesis raffinate stream into a stream comprising primarily n-butane and isobutane, collectively, and a stream comprising primarily 1-butene and 2-butene, collectively; distilling the stream comprising primarily 1-butene and 2-butene collectively to produce a first stream comprising primarily 1-butene and a first 2-butene stream comprising primarily 2-butene; isomerizing the 1-butene in the first stream to form a second 2-butene stream comprising primarily 2-butene; and reacting 2-butene of the first 2-butene stream and 2-butene of the second 2-butene stream with ethylene to produce the propylene. flowing a methyl tertiary butyl ether (MTBE) synthesis raffinate stream that comprises C 4 hydrocarbons through a molecular sieve so that the molecular sieve separates the MTBE synthesis raffinate stream into a stream comprising primarily n-butane and isobutane, collectively, and a stream comprising primarily 1-butene and 2-butene, collectively; distilling the stream comprising primarily 1-butene and 2-butene collectively to produce a first stream comprising primarily 1-butene and a first 2-butene stream comprising primarily 2-butene; isomerizing the 1-butene in the first stream to form a second 2-butene stream comprising primarily 2-butene; and reacting 2-butene of the first 2-butene stream and 2-butene of the second 2-butene stream with ethylene to produce the propylene.
Method for welding of strapping bands made of plastic by means of a strapping device, comprising at least: - a band guide member, which guides a strapping band previously laid and optionally tensioned around a group of articles via its overlapping own ends, - a heatable welding tongue, movably arranged between a working position and a retreat position, wherein the hot welding tongue in its work position protrudes between the overlapping ends of the strapping band to melt the overlapping ends of the strapping band, and wherein the welding tongue in its retreat position is pulled out between the two overlapping ends of the strapping band, - a counter- pressure plate, and - a stamp that presses the two overlapping melted ends of the strapping band against at least one portion of the counter- pressure plate and thereby against each other after retracting the welding tongue from the working position to the retreat position, thereby welding together the melted overlapping ends of the strapping band, characterized in that at the latest and / or at least at the beginning of a strapping process at least: - a part of the counter- pressure plate opposite to the stamp, and / or - a part of the stamp facing the counter- pressure plate, and / or - a part of the band guide member facing the welding tongue, the stamp and the counter- pressure plate is preheated. - a band guide member, which guides a strapping band previously laid and optionally tensioned around a group of articles via its overlapping own ends, - a heatable welding tongue, movably arranged between a working position and a retreat position, wherein the hot welding tongue in its work position protrudes between the overlapping ends of the strapping band to melt the overlapping ends of the strapping band, and wherein the welding tongue in its retreat position is pulled out between the two overlapping ends of the strapping band, - a counter- pressure plate, and - a stamp that presses the two overlapping melted ends of the strapping band against at least one portion of the counter- pressure plate and thereby against each other after retracting the welding tongue from the working position to the retreat position, thereby welding together the melted overlapping ends of the strapping band, - a part of the counter- pressure plate opposite to the stamp, and / or - a part of the stamp facing the counter- pressure plate, and / or - a part of the band guide member facing the welding tongue, the stamp and the counter- pressure plate