mhurhangee/ep-ind-claims huggingface dataset:
An evaporator comprising: an inlet in a lower manifold, an outlet in an upper manifold, and a multiport tube extending between the lower manifold and the upper manifold, the multiport tube is provided with a plurality of separate flow channels which are delimited by outer opposite side walls (10, 21) and internal intermediate walls extending between the outer opposite side walls of the multiport tube, the multiport tube providing a flow path between the lower manifold and the upper manifold, characterized in that one of the outer side walls of the multiport tube is provided with a first evaporator section formed by a metal plate with a plane first heat receiving surface, said metal plate being attached to the one of the outer side walls, and a second evaporator section is formed by another metal plate with a second plane heat receiving surface, said another metal plate being attached to the one of the outer side walls, the first and second evaporator sections (7, 8) are configured to pass a heat load received via the respective first and second heat receiving surfaces (13, 14) to a fluid in said multiport tube, and the first and second heat receiving surfaces (13, 14) form an angle with each other to align with and contact different surfaces of an object to be cooled. an inlet in a lower manifold, an outlet in an upper manifold, and a multiport tube extending between the lower manifold and the upper manifold, the multiport tube is provided with a plurality of separate flow channels which are delimited by outer opposite side walls (10, 21) and internal intermediate walls extending between the outer opposite side walls of the multiport tube, the multiport tube providing a flow path between the lower manifold and the upper manifold, characterized in that one of the outer side walls of the multiport tube is provided with a first evaporator section formed by a metal plate with a plane first heat receiving surface, said metal plate being attached to the one of the outer side walls, and a second evaporator section is formed by another metal plate with a second plane heat receiving surface, said another metal plate being attached to the one of the outer side walls, the first and second evaporator sections (7, 8) are configured to pass a heat load received via the respective first and second heat receiving surfaces (13, 14) to a fluid in said multiport tube, and the first and second heat receiving surfaces (13, 14) form an angle with each other to align with and contact different surfaces of an object to be cooled.
A compliant structure of a gas turbine engine comprising: a ceramic matrix composite component; a metallic supporting component (54, 54'); and an interface component (56, 56', 58, 58') provided between the CMC component and the metallic supporting component (54, 54'), the interface component (56, 56', 58, 58') comprising a clip (56, 56'), the clip (56, 56') positioning the CMC component relative to the metallic supporting component (54, 54'), characterized in that the CMC component is a blade track that is segmented circumferentially to accommodate thermal expansion between the CMC component and the metallic supporting component (54, 54'). a ceramic matrix composite component; a metallic supporting component (54, 54'); and an interface component (56, 56', 58, 58') provided between the CMC component and the metallic supporting component (54, 54'), the interface component (56, 56', 58, 58') comprising a clip (56, 56'), the clip (56, 56') positioning the CMC component relative to the metallic supporting component (54, 54'),
A vehicle door switch (7, 8, 9, 30, 40) comprising: a rod configured to move as a door is closed; a detecting unit configured to output a detection signal when one of ends of the rod has moved by a predetermined distance or more; and a limiting unit configured to limit an amount of movement made by the rod within a range where the detecting unit outputs the detection signal, to a limited value that is shorter than a prescribed initial value by an amount corresponding to the thickness of the limiting unit. a rod configured to move as a door is closed; a detecting unit configured to output a detection signal when one of ends of the rod has moved by a predetermined distance or more; and a limiting unit configured to limit an amount of movement made by the rod within a range where the detecting unit outputs the detection signal, to a limited value that is shorter than a prescribed initial value by an amount corresponding to the thickness of the limiting unit.
A floating bush bearing device (1, 1a to 1e) which rotatably supports a rotation shaft, the floating bush bearing device (1, 1a to 1e) comprising: a bearing housing; a floating bush rotatably disposed between the rotation shaft and an inner circumferential surface of the bearing housing, in the bearing housing; and a bush side oil supply hole which is formed through the floating bush and is capable of supplying lubricating oil between the rotation shaft and the inner circumferential surface of the floating bush, wherein the inner circumferential surface of the floating bush has a non-circular shape so that a gap portion (g, g') is formed between the rotation shaft and the inner circumferential surface of the floating bush, the gap portion (g, g') having a predetermined clearance or larger regardless of relative positions of the rotation shaft and the inner circumferential surface of the floating bush, and the bush side oil supply hole communicates with the gap portion (g, g'), characterized in that recess portions (14a, 14b), having different areas, are respectively formed on a load direction side of the rotation shaft and a side opposite to the load direction side, in the inner circumferential surface of the bearing housing, and one of the recess portions (14a, 14b) with a larger area communicates with a housing side oil supply hole which is formed through the bearing housing and is capable of supplying lubricating oil between an outer circumferential surface of the floating bush and the inner circumferential surface of the bearing housing. a bearing housing; a floating bush rotatably disposed between the rotation shaft and an inner circumferential surface of the bearing housing, in the bearing housing; and a bush side oil supply hole which is formed through the floating bush and is capable of supplying lubricating oil between the rotation shaft and the inner circumferential surface of the floating bush, wherein
A use of a compound of formula as a ligand in a metal-containing sensitizing dye, wherein R 1 represents a group which comprises one or more aromatic hydrocarbon moieties selected from the group of the moieties of formulae to or a combination of two or more thereof: wherein n is ≥1; wherein A represents O or S; B represents O or S, the said A and B being selected independently one from the other; wherein R 3 to R 24 represent hydrogen, hydroxyl, alkyl, cycloalkyl, alkoxy, aryloxy, aralkyl, alkylthio, alkyl halide or halogen; and wherein substituents R 2 represent hydrogen, alkane, alkoxy, cycloalkyl, alkylhalide, halogen, heterocycle, with n ≥ 0. wherein n is ≥1; wherein A represents O or S; B represents O or S, the said A and B being selected independently one from the other; wherein R 3 to R 24 represent hydrogen, hydroxyl, alkyl, cycloalkyl, alkoxy, aryloxy, aralkyl, alkylthio, alkyl halide or halogen; and wherein substituents R 2 represent hydrogen, alkane, alkoxy, cycloalkyl, alkylhalide, halogen, heterocycle, with n ≥ 0.
Drawing press with a press frame, with a ram provided for receiving a die tool and mounted adjustably in an adjustment direction, with at least one ram drive having at least one servomotor which is connected to the ram via a coupling gear or a curve gear having at least one reversing point (Ut), wherein a metal blank holder is provided opposite the ram and is supported on an abutment, and wherein a table is provided for receiving a stamping tool, to which a table drive is assigned in order to move this in the adjustment direction, wherein the table drive assigned to the stamping tool is started when the ram and die tool first reach the reversing point U t, characterized by a control system which is configured to control the at least one servomotor such that on a single press stroke, with running servomotor and closed die tool, the ram reaches the reversing point (U t) at least at two times (TA, TB) temporally spaced apart, and the servomotor completes a reversal of rotation direction between the times (TA, TB).
An electrochemical measurement method for measuring alkaline phosphatase, ALP, activity of mouse embryoid bodies, EBs, in which a working electrode that supplies and receives electrons to and from a measurement target to cause an oxidation-reduction reaction and a counter electrode connected to the working electrode through an external power source are provided in an electrolytic solution containing the mouse EBs, a substrate for the ALP and the measurement target, wherein the measurement target is the product of the enzymatic activity of the ALP with the substrate, and a measuring voltage is applied between the working electrode and the counter electrode to measure a current that flows between the working electrode and the counter electrode in proportion to the amount of the measurement target, wherein a measurement target eliminating electrode (20, 21, 22, 23, 24) is provided in the electrolytic solution, and the electrochemical measurement method performs the following steps: a measurement target eliminating step of eliminating the measurement target by applying an eliminating voltage, which has the same polarity as the measuring voltage, between the measurement target eliminating electrode (20, 21, 22, 23, 24) and the counter electrode to oxidize or reduce the measurement target; a measurement target diffusion step of diffusing a new measurement target after stopping the application of the eliminating voltage; and an electrochemical measurement step of measuring the current by applying the measuring voltage between the working electrode and the counter electrode after the new measurement target is diffused. wherein a measurement target eliminating electrode (20, 21, 22, 23, 24) is provided in the electrolytic solution, and the electrochemical measurement method performs the following steps: a measurement target eliminating step of eliminating the measurement target by applying an eliminating voltage, which has the same polarity as the measuring voltage, between the measurement target eliminating electrode (20, 21, 22, 23, 24) and the counter electrode to oxidize or reduce the measurement target; a measurement target diffusion step of diffusing a new measurement target after stopping the application of the eliminating voltage; and an electrochemical measurement step of measuring the current by applying the measuring voltage between the working electrode and the counter electrode after the new measurement target is diffused. a measurement target eliminating step of eliminating the measurement target by applying an eliminating voltage, which has the same polarity as the measuring voltage, between the measurement target eliminating electrode (20, 21, 22, 23, 24) and the counter electrode to oxidize or reduce the measurement target; a measurement target diffusion step of diffusing a new measurement target after stopping the application of the eliminating voltage; and an electrochemical measurement step of measuring the current by applying the measuring voltage between the working electrode and the counter electrode after the new measurement target is diffused.
Lining element of a duct, conveying hot gas, of an intermediate turbine housing of a gas turbine, in particular an aircraft gas turbine, having a first connection portion (12; 112) which is axially at the front relative to a machine axis of the gas turbine, a second connection portion (14; 114) which is axially at the rear, and a central portion (16; 116) which is connected to the first connection portion (12; 112) and the second connection portion (14; 114) and is arranged therebetween in the axial direction, the central portion (16; 116) having an outer surface (20; 120) facing away from the duct, and it being possible to couple the first connection portion (12; 112) to axially forward components of the intermediate turbine housing or the gas turbine, and it being possible to couple the second connection portion (14; 114) to axially rear components of the intermediate turbine housing or the gas turbine, the central portion (16; 116) having at least one first reinforcement portion (24; 124) that protrudes away from the duct and extends substantially in a straight line between an axially forward end and an axially rear end, a second reinforcement portion (26; 126) that protrudes away from the duct being connected to at least one of the two axial ends, which second reinforcement portion is inclined or curved relative to the straight extension of the first reinforcement portion (24; 124), the first reinforcement portion (24; 124) and the second reinforcement portion (26; 126) together forming a reinforcement element (22; 122), the reinforcement element (22; 122) being at a distance from the first connection portion (12; 112) and from the second connection portion (14; 114), characterized in that the reinforcement element (22; 122) is at a distance in the circumferential direction from lateral edge portions (18; 118) of the lining element (10; 110) which protrude from the outer surface (20; 120) of the central portion (16; 116) at least in the radial direction, such that the entire reinforcement element (22; 122) is arranged within the outer surface (20; 120) of the central portion (16; 116) and is not directly connected to the connection portions and the lateral edge portions of the lining element.
An internal valve comprising: a body defining an inlet and an outlet and having a valve seat disposed between the inlet and the outlet; a flow control member operatively coupled to the body, wherein the flow control member moves between a first position in which the flow control member engages the valve seat to restrict the flow of fluid through the valve and a second position in which the flow control member is spaced from the valve seat to allow the flow of fluid through the valve; a removable actuation mechanism (114; 226) and an equalization member configured to engage a bleed port integrally formed with the flow control member, wherein the equalization member is movable between at least a third position in which the equalization member engages the bleed port to restrict the flow of fluid through the bleed port and a fourth position in which the equalization member is spaced from the bleed port to allow the flow of fluid through the bleed port, characterized in that the removable actuation mechanism comprises a housing (116; 228) disposed within the body between the inlet and the outlet, the removable actuation mechanism being responsive to a fluid pressure to cause the flow control member to move between the first and second positions. a body defining an inlet and an outlet and having a valve seat disposed between the inlet and the outlet; a flow control member operatively coupled to the body, wherein the flow control member moves between a first position in which the flow control member engages the valve seat to restrict the flow of fluid through the valve and a second position in which the flow control member is spaced from the valve seat to allow the flow of fluid through the valve; a removable actuation mechanism (114; 226) and an equalization member configured to engage a bleed port integrally formed with the flow control member, wherein the equalization member is movable between at least a third position in which the equalization member engages the bleed port to restrict the flow of fluid through the bleed port and a fourth position in which the equalization member is spaced from the bleed port to allow the flow of fluid through the bleed port, characterized in that the removable actuation mechanism comprises a housing (116; 228) disposed within the body between the inlet and the outlet, the removable actuation mechanism being responsive to a fluid pressure to cause the flow control member to move between the first and second positions.
A process to produce a poly(alpha-olefin)(alpha, internally unsaturated, nonconjugated olefin) comprising: contacting at least one renewable feedstream with at least one lower olefin, wherein the lower olefin is an organic compound containing at least one carbon-carbon double bond having four or less carbon atoms, in the presence of a metathesis catalyst, to produce a mixture of at least one C 4 to C 40 linear alpha-olefin and at least one alpha, internally unsaturated, nonconjugated olefin, and contacting a feedstream comprising the mixture of at least one C 4 to C 40 linear alpha-olefin and at least one alpha, internally unsaturated, nonconjugated olefin with a metallocene catalyst system, wherein a poly(alpha-olefin)(alpha, internally unsaturated, nonconjugated olefin) is produced. contacting at least one renewable feedstream with at least one lower olefin, wherein the lower olefin is an organic compound containing at least one carbon-carbon double bond having four or less carbon atoms, in the presence of a metathesis catalyst, to produce a mixture of at least one C 4 to C 40 linear alpha-olefin and at least one alpha, internally unsaturated, nonconjugated olefin, and contacting a feedstream comprising the mixture of at least one C 4 to C 40 linear alpha-olefin and at least one alpha, internally unsaturated, nonconjugated olefin with a metallocene catalyst system, wherein a poly(alpha-olefin)(alpha, internally unsaturated, nonconjugated olefin) is produced.
Perfluoroalkyl surfactants corresponding to the following general formula: R F A - B - D, characterised by the fact they are hydrophobic and they contain a substituted amide function rirectly linked to or separated from the polyfluoroalkylated chain by a group -N + R 1 R 2 -(CH 2) p -, -S-(CH 2) q - ou -NH-(CH 2) q - where R F = linear or branched perfluoroalkyl chain C n F 2n+1 where n = 4 à 20, or a mixture of linear or branched perfluoroalkyl groups; A = -CH 2 CH CH 2 -, -CH=CHCH 2 -, -CH 2 CH CH 2 OCH 2 CH CH 2 -, -CH=CH-CH 2 OCH 2 CH CH 2 -, -CH CH 2 -, -CH 2 CH CH 2 -, -CH=CHCH 2 CH CH 2 -, -C 2 H 4 OCH 2 CH CH 2 -, -C 2 H 4 SCH 2 CH CH 2 -, -C 2 H 4 S(C 2 H 4 O) n=1-3 CH 2 CH CH 2 -, -C 2 H 4 S-C 3 H 6 OCH 2 CH CH 2 -; B = -S-(CH 2) q -, -NH(CH 2) q - or -N + R 1 R 2 - (CH 2) p - when A = -CH 2 CH CH 2 OCH 2 CH CH 2 -, -CH=CH-CH 2 OCH 2 CH CH 2 -, - CH CH 2 -, -CH 2 CH CH 2 -, -CH=CHCH 2 CH CH 2 -, -C 2 H 4 OCH 2 CH CH 2 -,-C 2 H 4 SCH 2 CH CH 2 -, -C 2 H 4 S(C 2 H 4 O) n=1-3 CH 2 CH CH 2 -, -C 3 H 4 S-C 3 H 6 OCH 2 CH CH 2 -, None when A = -CH 2 CHICH 2 -, -CH=CHCH 2 -; D = -CONH-(CH 2) r N + R 1 R 2 -E, -CONR 3 (CH 2) 3 COOM when B = -S-(CH 2) q -, -NH(CH 2) q -; - NHCO-(CH 2) r COO -, -NHCO-CH(SO 3 M)CH 2 COO -, when B = -N + R 1 R 2 -(CH 2) p; - NHCO-(CH 2) r COOM, -NHCO-CH(SO 3 M)CH 2 COOM, when B = None; E = -(CH 2) 8 COO -, -O -, -CH 2 CHOHCH 2 SO 3 -; M = alkali metal; p, r = 2 or 3; q, s = 1 or 2; R 1, R 2 = identical minor alkyl groups; R 3 = H, CH 3; R F A - B - D, characterised by the fact they are hydrophobic and they contain a substituted amide function rirectly linked to or separated from the polyfluoroalkylated chain by a group -N + R 1 R 2 -(CH 2) p -, -S-(CH 2) q - ou -NH-(CH 2) q - where R F = linear or branched perfluoroalkyl chain C n F 2n+1 where n = 4 à 20, or a mixture of linear or branched perfluoroalkyl groups; A = -CH 2 CH CH 2 -, -CH=CHCH 2 -, -CH 2 CH CH 2 OCH 2 CH CH 2 -, -CH=CH-CH 2 OCH 2 CH CH 2 -, -CH CH 2 -, -CH 2 CH CH 2 -, -CH=CHCH 2 CH CH 2 -, -C 2 H 4 OCH 2 CH CH 2 -, -C 2 H 4 SCH 2 CH CH 2 -, -C 2 H 4 S(C 2 H 4 O) n=1-3 CH 2 CH CH 2 -, -C 2 H 4 S-C 3 H 6 OCH 2 CH CH 2 -; B = -S-(CH 2) q -, -NH(CH 2) q - or -N + R 1 R 2 - (CH 2) p - when A = -CH 2 CH CH 2 OCH 2 CH CH 2 -, -CH=CH-CH 2 OCH 2 CH CH 2 -, - CH CH 2 -, -CH 2 CH CH 2 -, -CH=CHCH 2 CH CH 2 -, -C 2 H 4 OCH 2 CH CH 2 -,-C 2 H 4 SCH 2 CH CH 2 -, -C 2 H 4 S(C 2 H 4 O) n=1-3 CH 2 CH CH 2 -, -C 3 H 4 S-C 3 H 6 OCH 2 CH CH 2 -, None when A = -CH 2 CHICH 2 -, -CH=CHCH 2 -; D = -CONH-(CH 2) r N + R 1 R 2 -E, -CONR 3 (CH 2) 3 COOM when B = -S-(CH 2) q -, -NH(CH 2) q -; - NHCO-(CH 2) r COO -, -NHCO-CH(SO 3 M)CH 2 COO -, - NHCO-(CH 2) r COO -, -NHCO-CH(SO 3 M)CH 2 COO -, when B = -N + R 1 R 2 -(CH 2) p; - NHCO-(CH 2) r COOM, -NHCO-CH(SO 3 M)CH 2 COOM, - NHCO-(CH 2) r COOM, -NHCO-CH(SO 3 M)CH 2 COOM, when B = None; E = -(CH 2) 8 COO -, -O -, -CH 2 CHOHCH 2 SO 3 -; M = alkali metal; p, r = 2 or 3; q, s = 1 or 2; R 1, R 2 = identical minor alkyl groups; R 3 = H, CH 3;
Process for preparing allyl methacrylate, comprising the reaction of allyl alcohol with an ester of methacrylic acid, characterized in that the reaction is catalysed by zirconium acetylacetonate.
A method for forming a solidified isolation material downhole at or about an isolation location in an open or cased wellbore, the solidified isolation material being formed from mixing of two or more chemical components, the method comprising: extending a retrievable delivery sub-system downhole to the isolation location, the delivery sub-system comprising a tubing assembly having at least two fluidly separated delivery channels (TA, TB); delivering the two or more chemical components downhole to the isolation location through the delivery sub-system, each delivery channel (TA, TB) delivering at least one of the two or more chemical components; mixing the two or more chemical components in a downhole injection tool to form a solidifying isolation mixture wherein the solidifying isolation mixture solidifies to the solidified isolation material after a period of time; and injecting via a mixing tube the solidifying isolation mixture into the wellbore at or about the isolation location, the mixing tube being capable of being sheared off from the downhole injection tool under a pulling force; applying a pulling force to the downhole injection tool for shearing off the mixing tube; and removing the delivery sub-system and the downhole injection tool from the isolation location. extending a retrievable delivery sub-system downhole to the isolation location, the delivery sub-system comprising a tubing assembly having at least two fluidly separated delivery channels (TA, TB); delivering the two or more chemical components downhole to the isolation location through the delivery sub-system, each delivery channel (TA, TB) delivering at least one of the two or more chemical components; mixing the two or more chemical components in a downhole injection tool to form a solidifying isolation mixture wherein the solidifying isolation mixture solidifies to the solidified isolation material after a period of time; and injecting via a mixing tube the solidifying isolation mixture into the wellbore at or about the isolation location, the mixing tube being capable of being sheared off from the downhole injection tool under a pulling force; applying a pulling force to the downhole injection tool for shearing off the mixing tube; and removing the delivery sub-system and the downhole injection tool from the isolation location.