mhurhangee/ep-ind-claims huggingface dataset:
A process for forming a partially neutralized amphiphilic multiblock copolymer thermoplastic elastomer composition having an increased rate of water adsorption over a non-neutralized copolymer comprising the steps of: a) forming an amphiphilic multiblock copolymer comprising at least one hydrophilic middle block; and at least one hydrophobic block on each end of the copolymer; b) admixing 5 to 50 weight percent of a diluent, based on the copolymer composition, prior to the addition of all of the base in step c), wherein said diluent is selected from the group consisting of polyethylene glycol, polyethylene glycol derivatives, methoxy polyethylene glycol and polypropylene glycol, and c) partially neutralizing said amphiphilic copolymer during or after the addition of the diluent by the addition of a base wherein the hydrophilic block contains a neutralizable monomer that is neutralized at greater than 10% and less than 80%. a) forming an amphiphilic multiblock copolymer comprising at least one hydrophilic middle block; and at least one hydrophobic block on each end of the copolymer; b) admixing 5 to 50 weight percent of a diluent, based on the copolymer composition, prior to the addition of all of the base in step c), wherein said diluent is selected from the group consisting of polyethylene glycol, polyethylene glycol derivatives, methoxy polyethylene glycol and polypropylene glycol, and c) partially neutralizing said amphiphilic copolymer during or after the addition of the diluent by the addition of a base wherein the hydrophilic block contains a neutralizable monomer that is neutralized at greater than 10% and less than 80%.
A jet cutter assembly comprising: a housing (11, 12) having a substantially cylindrical inner wall; an explosive material (15, 18) having at least a first explosive surface and a second explosive surface; a liner (16, 17) having at least a first liner surface and a first liner rim (22, 23); at least one backing plate (14, 19) with an at least one backing plate rim; and wherein the first liner surface is adjacent to the first explosive surface, the second explosive surface is adjacent to the at least one backing plate (14, 19, and the liner rim (22, 23) is adjacent to the inner wall; characterized in that the housing (11, 12) has at least one longitudinal vent groove (24, 30) cut into the inner wall. a housing (11, 12) having a substantially cylindrical inner wall; an explosive material (15, 18) having at least a first explosive surface and a second explosive surface; a liner (16, 17) having at least a first liner surface and a first liner rim (22, 23); at least one backing plate (14, 19) with an at least one backing plate rim; and wherein the first liner surface is adjacent to the first explosive surface, the second explosive surface is adjacent to the at least one backing plate (14, 19, and the liner rim (22, 23) is adjacent to the inner wall; characterized in that the housing (11, 12) has at least one longitudinal vent groove (24, 30) cut into the inner wall.
A child toilet seat assembly comprising: a base member configured to be coupled to an adult toilet seat assembly having an adult toilet seat and a lid pivotably coupled to a hinge post about a first pivot axis; and a child toilet seat coupled to the base member via a hinge joint, the hinge joint enables the child toilet seat to pivot about a second pivot axis between an operating position and a storage position, wherein the hinge joint is configured to enable the child toilet seat to be lifted away from the base member in a direction along a translational axis for the second pivot axis to move away from the first pivot axis from a locked state inhibiting movement of the child toilet seat relative to the base member to an unlocked state allowing movement of the child toilet seat into the operating position relative to the base member. a base member configured to be coupled to an adult toilet seat assembly having an adult toilet seat and a lid pivotably coupled to a hinge post about a first pivot axis; and a child toilet seat coupled to the base member via a hinge joint, the hinge joint enables the child toilet seat to pivot about a second pivot axis between an operating position and a storage position, wherein the hinge joint is configured to enable the child toilet seat to be lifted away from the base member in a direction along a translational axis for the second pivot axis to move away from the first pivot axis from a locked state inhibiting movement of the child toilet seat relative to the base member to an unlocked state allowing movement of the child toilet seat into the operating position relative to the base member.
An optoelectronic sensor, in particular a line camera, having a receiving optics and an arrangement of a plurality of light emitting diodes (LEDs) (L i) aligned in a line and arranged in a vicinity of the receiving optics for illuminating a receiving area with an anamorphic imaging optics, wherein firstly a beam-shaping optical condenser element (4 i), which has a planar surface on a side facing the LEDs and a spherical, aspherical, or toric surface on the opposite side, and secondly a cylindrical lens is associated with each LED (L i), characterized in that the beam-shaping condenser elements (4 i) in the entire arrangement are of like construction and the LEDs (L i) have a different axial offset with respect to the optical axis of the condenser elements (4 i) with increasing distance from the reception optics.
A solar cell module comprising: a solar cell panel including a front substrate, a plurality of solar cells, a rear substrate, a first sealing layer between the front substrate and the plurality of solar cells, and a second sealing layer between the plurality of solar cells and the rear substrate; a distribution box located on the rear surface of the solar cell panel and including wiring connected to the solar cell panel; and a light source, characterized in that the distribution box is provided with the light source with at least a portion of the light source being located at the distribution box, and the light source of the distribution box is configured to emit light to the front surface of the solar cell panel through the solar cell panel, if an error signal is detected. a solar cell panel including a front substrate, a plurality of solar cells, a rear substrate, a first sealing layer between the front substrate and the plurality of solar cells, and a second sealing layer between the plurality of solar cells and the rear substrate; a distribution box located on the rear surface of the solar cell panel and including wiring connected to the solar cell panel; and a light source, characterized in that the distribution box is provided with the light source with at least a portion of the light source being located at the distribution box, and the light source of the distribution box is configured to emit light to the front surface of the solar cell panel through the solar cell panel, if an error signal is detected.
A luminal emboli capture device comprising: a filter body comprising a tubular porous mesh material having an open upstream end and an open downstream end, the tubular porous mesh material being preformed so that upon expansion the tubular porous mesh material forms a first, self-sealing, port spaced inwardly from each of said ends, a downstream open cylindrical chamber and an upstream open cylindrical chamber, wherein said self-sealing port comprises a wall portion of the tubular porous mesh material, wherein said self-sealing port comprises an expandable opening configured to conform to at least one working catheter passing therethrough, wherein the downstream open cylindrical chamber is between a downstream end of the self-sealing port and the downstream end of the filter body, and wherein the upstream open cylindrical chamber is between an upstream end of the self-sealing port and the upstream end of the filter body; and a catheter body having a distal end coupled to the downstream end of the filter body. a filter body comprising a tubular porous mesh material having an open upstream end and an open downstream end, the tubular porous mesh material being preformed so that upon expansion the tubular porous mesh material forms a first, self-sealing, port spaced inwardly from each of said ends, a downstream open cylindrical chamber and an upstream open cylindrical chamber, wherein said self-sealing port comprises a wall portion of the tubular porous mesh material, wherein said self-sealing port comprises an expandable opening configured to conform to at least one working catheter passing therethrough, wherein the downstream open cylindrical chamber is between a downstream end of the self-sealing port and the downstream end of the filter body, and wherein the upstream open cylindrical chamber is between an upstream end of the self-sealing port and the upstream end of the filter body; and a catheter body having a distal end coupled to the downstream end of the filter body.
An electrical connection device, comprising: a connector having a hollow connecting cavity formed by a plurality of flexible conductive materials, and each of two opposite sides of the connecting cavity being connected to a conductive plug electrically coupled with the connecting cavity, characterized in that one end of the conductive plug extends into the connecting cavity, and a spring is disposed between ends of two conductive plugs extending into the connecting cavity. a connector having a hollow connecting cavity formed by a plurality of flexible conductive materials, and each of two opposite sides of the connecting cavity being connected to a conductive plug electrically coupled with the connecting cavity, characterized in that one end of the conductive plug extends into the connecting cavity, and a spring is disposed between ends of two conductive plugs extending into the connecting cavity.
A laundry treatment apparatus comprising: a cabinet; a tub disposed in the cabinet to provide a washing space; a drum rotatably disposed in the tub to receive laundry placed therein; a detergent pump for supplying detergent to the tub; and a detergent box removably mounted to the detergent pump and configured to contain the detergent, wherein the detergent box includes a body for providing a space containing the detergent, and a through-hole formed in a rear side of the body to allow the detergent to flow out therethrough, wherein the through-hole is located at a lowermost position of the body; a detergent box accommodation part for accommodating the detergent box; characterized in that the body includes a lower surface including a first slanted surface, the first slanted surface being slanted downwards from a front side of the body toward the rear side of the body, the detergent box includes guide ribs including first guide ribs positioned at a front region of the lower surface of the body, and second guide ribs positioned at a rear region of the lower surface of the body, wherein the first guide ribs and the second guide ribs protrude in different lengths from the lower surface of the body in order to compensate for inclination of the first slanted surface. a cabinet; a tub disposed in the cabinet to provide a washing space; a drum rotatably disposed in the tub to receive laundry placed therein; a detergent pump for supplying detergent to the tub; and a detergent box removably mounted to the detergent pump and configured to contain the detergent, wherein the detergent box includes a body for providing a space containing the detergent, and a through-hole formed in a rear side of the body to allow the detergent to flow out therethrough, wherein the through-hole is located at a lowermost position of the body; a detergent box accommodation part for accommodating the detergent box; characterized in that the body includes a lower surface including a first slanted surface, the first slanted surface being slanted downwards from a front side of the body toward the rear side of the body, the detergent box includes guide ribs including first guide ribs positioned at a front region of the lower surface of the body, and second guide ribs positioned at a rear region of the lower surface of the body, wherein the first guide ribs and the second guide ribs protrude in different lengths from the lower surface of the body in order to compensate for inclination of the first slanted surface.
8-Dihalomethyl berberine-type quaternary ammonium salt compounds of quaternized imine-type structure shown as general formula I or formula II: wherein: R 2 and R 3 are each selected, independently, from H, OH, or C1-C4 alkoxy, or R 2 and R 3 are linked to form alkylene-dioxy; X 1 and X 2 are each selected, independently, from F, Cl, Br, or I; R 9, R 10, and R 11 are each selected, independently, from H, OH, or C1-C4 alkoxy, or R 9 and R 10 are linked to form alkylene-dioxy and R 11 is selected from H, or R 9 is selected from H and R 10 and R 11 are linked to form alkylene-dioxy; X A is monovalent acid radical ion; X A 2- is divalent acid radical ion. R 2 and R 3 are each selected, independently, from H, OH, or C1-C4 alkoxy, or R 2 and R 3 are linked to form alkylene-dioxy; X 1 and X 2 are each selected, independently, from F, Cl, Br, or I; R 9, R 10, and R 11 are each selected, independently, from H, OH, or C1-C4 alkoxy, or R 9 and R 10 are linked to form alkylene-dioxy and R 11 is selected from H, or R 9 is selected from H and R 10 and R 11 are linked to form alkylene-dioxy; X A is monovalent acid radical ion; X A 2- is divalent acid radical ion.
Wood working machine with a workpiece support and a belt or chain arrangement for detecting the movement of a workpiece lying on the workpiece support and being transported for machining, wherein the belt or chain arrangement comprises a belt or chain guided over at least two deflecting pulleys (2, 3) and configured to bear on the workpiece, which belt or chain can be pressed against the workpiece by a contact pressure device cooperating with the belt or the chain transversely to the direction of movement of the belt or the chain, wherein the contact pressure device comprises a plurality of contact pressure elements entrained with the belt or the chain in the direction of movement thereof, characterised in that the deflecting pulleys (2, 3) and the contact pressure device are arranged on a carrier which is moveable vertically and the contact pressure elements are connected with one another by inner chain link plates forming an endless chain and are guided over at least two chain deflecting sprockets (12, 13), wherein rotatably mounted rollers are arranged on the contact pressure elements, the contact pressure elements are pressed against the inside of the belt by a pressure plate and the contact pressure elements comprise a U-shaped base body with an upper contact pressure part and two downwardly projecting limbs through which run two pins with rotatably mounted rollers on both sides, wherein outer chain link plates are seated on the ends of the pins to retain the rollers.
A multipoint fuel injection system comprising: an injection system segment including: a circumferentially extending outer support defining a fuel manifold with a plurality of manifold passages extending circumferentially therethrough, and with a first connector at a first circumferential end of the outer support and with a second connector at a second circumferential end of the outer support opposite the first circumferential end, wherein the first and second connectors are each configured to connect each manifold passage with a manifold passages of a respective outer support of a circumferentially adjacent injection system segment; a circumferentially extending inner support; a plurality of circumferentially spaced apart feed arms extending radially between the inner support and the outer support; and a plurality of outlet openings extending in an axial direction from each feed arm for feeding respective injection nozzles, wherein the feed arm defines a plurality of fuel passages therethrough in fluid communication with the fuel manifold and outlet openings to supply fuel from the fuel manifold to the outlet openings; characterized in that the manifold passages have a vaulted cross-sectional flow area, and in that each of the first and second connectors includes a transition region wherein each manifold passage transitions from the vaulted cross-sectional flow area to a circular flow area for connection to connector tubes. a circumferentially extending outer support defining a fuel manifold with a plurality of manifold passages extending circumferentially therethrough, and with a first connector at a first circumferential end of the outer support and with a second connector at a second circumferential end of the outer support opposite the first circumferential end, wherein the first and second connectors are each configured to connect each manifold passage with a manifold passages of a respective outer support of a circumferentially adjacent injection system segment; a circumferentially extending inner support; a plurality of circumferentially spaced apart feed arms extending radially between the inner support and the outer support; and a plurality of outlet openings extending in an axial direction from each feed arm for feeding respective injection nozzles, wherein the feed arm defines a plurality of fuel passages therethrough in fluid communication with the fuel manifold and outlet openings to supply fuel from the fuel manifold to the outlet openings; characterized in that the manifold passages have a vaulted cross-sectional flow area, and in that each of the first and second connectors includes a transition region wherein each manifold passage transitions from the vaulted cross-sectional flow area to a circular flow area for connection to connector tubes.
Method for manufacturing a PCRAM memory comprising the following steps: - providing a substrate comprising a set of bottom electrodes; - forming in a first dielectric layer arranged on the substrate a first rectilinear trench oriented in a first direction, and opening at least partially on to the set of bottom electrodes; - depositing a first active layer in the first rectilinear trench, such that the first active layer is brought in electrical contact with the set of bottom electrodes; - covering the first active layer with a second dielectric layer; - etching, in the second dielectric layer, the first active layer and the first dielectric layer, additional rectilinear trenches oriented in a second direction perpendicular to the first direction, so as to obtain a group of memory devices each comprising a portion of the first active layer in electrical contact with one of the bottom electrodes; - filling the additional rectilinear trenches with a sacrificial dielectric material; characterised in that it comprises the following steps: - performing (F8, F8') an anisotropic etching of the sacrificial dielectric material so as to expose a side surface (411, 413) of each portion of the first active layer; and - covering (F9, F9') the side surface (411, 413) of each portion of the first active layer with a second active layer. - providing a substrate comprising a set of bottom electrodes; - forming in a first dielectric layer arranged on the substrate a first rectilinear trench oriented in a first direction, and opening at least partially on to the set of bottom electrodes; - depositing a first active layer in the first rectilinear trench, such that the first active layer is brought in electrical contact with the set of bottom electrodes; - covering the first active layer with a second dielectric layer; - etching, in the second dielectric layer, the first active layer and the first dielectric layer, additional rectilinear trenches oriented in a second direction perpendicular to the first direction, so as to obtain a group of memory devices each comprising a portion of the first active layer in electrical contact with one of the bottom electrodes; - filling the additional rectilinear trenches with a sacrificial dielectric material; - performing (F8, F8') an anisotropic etching of the sacrificial dielectric material so as to expose a side surface (411, 413) of each portion of the first active layer; and - covering (F9, F9') the side surface (411, 413) of each portion of the first active layer with a second active layer.
A perovskite radiovoltaic-photovoltaic battery, wherein the battery comprises a first electrode, a first charge transport layer, a perovskite layer, a second charge transport layer, and a second electrode in sequence, wherein the first charge transport layer is an electron transport layer and the second charge transport layer is a hole transport layer, or, the first charge transport layer is a hole transport layer and the second charge transport layer is an electron transport layer; characterised in that the first electrode is a transparent electrode; the perovskite layer is doped with a fluorescent substance; at least one of the first electrode, the first charge transport layer, the second charge transport layer, or the second electrode is radioactive; and when the first electrode and/or the second electrode is radioactive, the first electrode and/or the second electrode is an irradiated electrode formed by compounding a radioactive source and a conductor material; and, when the first charge transport layer and/or the second charge transport layer is radioactive, the first charge transport layer and/or the second charge transport layer is an irradiated semiconductor formed by compounding a radioactive source and a semiconductor material. the battery comprises a first electrode, a first charge transport layer, a perovskite layer, a second charge transport layer, and a second electrode in sequence, wherein the first charge transport layer is an electron transport layer and the second charge transport layer is a hole transport layer, or, the first charge transport layer is a hole transport layer and the second charge transport layer is an electron transport layer; characterised in that the first electrode is a transparent electrode; the perovskite layer is doped with a fluorescent substance; at least one of the first electrode, the first charge transport layer, the second charge transport layer, or the second electrode is radioactive; and when the first electrode and/or the second electrode is radioactive, the first electrode and/or the second electrode is an irradiated electrode formed by compounding a radioactive source and a conductor material; and, when the first charge transport layer and/or the second charge transport layer is radioactive, the first charge transport layer and/or the second charge transport layer is an irradiated semiconductor formed by compounding a radioactive source and a semiconductor material.