mhurhangee/ep-ind-claims huggingface dataset:
A user equipment communicating with a base station using MIMO technology, comprising: a receiver configured to receive multiple Reference Signals, RSs, transmitted using respectively different radio resources from the base station; a processor configured to select, out of RS Resource Indicators, RRIs, associated with the radio resources used for RS transmission, multiple RRIs; and a transmitter configured to transmit the multiple RRIs to the base station; characterized in that the receiver is further configured to receive information designating an upper limit value of a RRI rank that indicates a number of the selected RRIs from the base station, and the processor is further configured to select the multiple RRIs based on the upper limit value. a receiver configured to receive multiple Reference Signals, RSs, transmitted using respectively different radio resources from the base station; a processor configured to select, out of RS Resource Indicators, RRIs, associated with the radio resources used for RS transmission, multiple RRIs; and a transmitter configured to transmit the multiple RRIs to the base station; characterized in that the receiver is further configured to receive information designating an upper limit value of a RRI rank that indicates a number of the selected RRIs from the base station, and the processor is further configured to select the multiple RRIs based on the upper limit value.
A process for the manufacture of butanol and/or acetone, comprising at least the steps of: - treating a substrate comprising draff, being a by-product of the manufacture of malt whisky, and pot ale, being a by-product of the manufacture of malt whisky from a copper distillation vessel, to hydrolyse the substrate to provide a treated substrate, said draff comprising spent grain consisting essentially of malted barley; and - fermenting the treated substrate in the presence of a culture of butanol- and/or acetone-forming micro-organisms at an initial pH in the range of 5.0 to 6.0 and at a concentration of free copper ions of less than 20 μM to provide a fermented product containing butanol and/or acetone. - treating a substrate comprising draff, being a by-product of the manufacture of malt whisky, and pot ale, being a by-product of the manufacture of malt whisky from a copper distillation vessel, to hydrolyse the substrate to provide a treated substrate, said draff comprising spent grain consisting essentially of malted barley; and - fermenting the treated substrate in the presence of a culture of butanol- and/or acetone-forming micro-organisms at an initial pH in the range of 5.0 to 6.0 and at a concentration of free copper ions of less than 20 μM to provide a fermented product containing butanol and/or acetone.
A pulsed oxygen delivery system for a closed breathing environment, comprising: a) a source of gaseous oxygen; b) a pressure suit; c) a phase dilution type oronasal dispensing mask configured to be worn by a user in a closed breathing environment defined by the pressure suit; and d) a pulse control module for delivering a timed and metered bolus of oxygen from the source of gaseous oxygen to the oronasal dispensing mask upon inhalation by the user; wherein the pulse control module includes a pressure manifold having one or more breath sensors (412a,b) for sensing a breath taken by the user and one or more control valves for controlling a duration and an amount of oxygen delivered to the oronasal dispensing mask; and wherein the source of gaseous oxygen includes a pressurized single use or refillable storage vessel, an initiator or mechanical valve for establishing a flow of oxygen from the storage vessel, and a regulator for managing the delivery of oxygen from the storage vessel to the pressure manifold; and wherein the pulse control module includes a microcontroller unit that is in communication with the pressure manifold, the source of gaseous oxygen and the pressure suit over an electronic interface, wherein the pulse control module is further configured for controlling a bolus volume according to ambient pressure within the pressure suit. a) a source of gaseous oxygen; b) a pressure suit; c) a phase dilution type oronasal dispensing mask configured to be worn by a user in a closed breathing environment defined by the pressure suit; and d) a pulse control module for delivering a timed and metered bolus of oxygen from the source of gaseous oxygen to the oronasal dispensing mask upon inhalation by the user; wherein the pulse control module includes a pressure manifold having one or more breath sensors (412a,b) for sensing a breath taken by the user and one or more control valves for controlling a duration and an amount of oxygen delivered to the oronasal dispensing mask; and wherein the source of gaseous oxygen includes a pressurized single use or refillable storage vessel, an initiator or mechanical valve for establishing a flow of oxygen from the storage vessel, and a regulator for managing the delivery of oxygen from the storage vessel to the pressure manifold; and wherein the pulse control module includes a microcontroller unit that is in communication with the pressure manifold, the source of gaseous oxygen and the pressure suit over an electronic interface, wherein the pulse control module is further configured for controlling a bolus volume according to ambient pressure within the pressure suit.
A method for binding a nucleic acid chain 1 and a nucleic acid chain 2 not via an enzymatic reaction, comprising a step of reacting a nucleic acid chain 1 having a phosphorothioate group and a nucleic acid chain 2 having a hydroxyl group or amino group in the presence of an electrophile, wherein the electrophile is a compound represented by the following formula or: wherein R 1, R 2 and R 3 each independently represent an NO 2 group, an OCOCH 3 group, a CN group, a CF 3 group, a CO 2 H group, a CO 2 CH 3 group or an NH 2 group, L represents a leaving group selected from F, Cl, SO 3 H and SO 2 NR 4, and R 4 represents NH 2, NHPh, or NHPh-OCH 3, and wherein the electrophile removes the leaving group and binds to the sulfur atom of the phosphorothioate group of nucleic acid chain 1 at the site to which the leaving group has been bound, and further carries out a nucleophilic substitution with the oxygen atom of a hydroxyl group or the nitrogen atom of an amino group of nucleic acid chain 2 thereby forming a phosphoramidate bond between the nucleic acid chain 1 and the nucleic acid chain 2. wherein R 1, R 2 and R 3 each independently represent an NO 2 group, an OCOCH 3 group, a CN group, a CF 3 group, a CO 2 H group, a CO 2 CH 3 group or an NH 2 group, L represents a leaving group selected from F, Cl, SO 3 H and SO 2 NR 4, and R 4 represents NH 2, NHPh, or NHPh-OCH 3, and wherein the electrophile removes the leaving group and binds to the sulfur atom of the phosphorothioate group of nucleic acid chain 1 at the site to which the leaving group has been bound, and further carries out a nucleophilic substitution with the oxygen atom of a hydroxyl group or the nitrogen atom of an amino group of nucleic acid chain 2 thereby forming a phosphoramidate bond between the nucleic acid chain 1 and the nucleic acid chain 2.
An occlusive device comprising: a frame element having a distal end and a proximal end, a delivery configuration and a deployed configuration; and an occlusive face having a peripheral edge the occlusive face positioned toward the proximal end of the frame element; and at least one anchor positioned at the peripheral edge of the occlusive face; and the at least one anchor extending at an acute angle to the peripheral edge of the occlusive face, wherein the frame element comprises a petal shape and an apex of the petal shape, and wherein the apex of the petal shape includes a bend in the frame element, and wherein the at least one anchor is located at the apex of the petal shape. a frame element having a distal end and a proximal end, a delivery configuration and a deployed configuration; and an occlusive face having a peripheral edge the occlusive face positioned toward the proximal end of the frame element; and at least one anchor positioned at the peripheral edge of the occlusive face; and the at least one anchor extending at an acute angle to the peripheral edge of the occlusive face, wherein the frame element comprises a petal shape and an apex of the petal shape, and wherein the apex of the petal shape includes a bend in the frame element, and wherein the at least one anchor is located at the apex of the petal shape.
Use of an alkyl methacrylate-based polymer containing, as a main component, a unit of an alkyl methacrylate in which the alkyl group has a carbon number of 2 to 10, and having a mass average molecular weight of 15,000 to 145,000 measured by gel permeation chromatography, wherein in the alkyl methacrylate-based polymer, per 100 mass% of all monomer units, the content of the unit of an alkyl methacrylate with the alkyl group having a carbon number of 2 to 10 is 50 mass% or more, as a processing aid for a polyolefin-based resin.
Ternary herbicidal compositions comprising: a) a herbicide A which is 4-amino-3,6-dichloropyridine-2-carboxylic acid and 2-[ -4-isopropyl-4-methyl-5-oxo-2-imidazolin-2-yl]-5-methoxymethylnicotinic acid; and b) at least one herbicide B which is clopyralid. a) a herbicide A which is 4-amino-3,6-dichloropyridine-2-carboxylic acid and 2-[ -4-isopropyl-4-methyl-5-oxo-2-imidazolin-2-yl]-5-methoxymethylnicotinic acid; and b) at least one herbicide B which is clopyralid.
A compound of formula: wherein; ---- is either a single or double bond, as appropriate; ----- is either none or a single bond, as appropriate; is U, V, W are the same or different and may be chosen from C, N, O, S. Y is N-OR1, NR'1; R1 is H, Alkyl, Alkenyl, Alkoxyalkyl, Aryloxyalkyl, Arylalkyl, Alkoxycarbonylalkyl, Carboxyalkyl; R'1 is H, Alkyl, Aryl orAralkyl; R2, R'2 are each the same or different and are independently selected from H, Alkyl, Aryl or Aralkyl; Rv, Rw are the same or different and may be chosen from the group consisting in H, CN, =O, Hal, Alk, OAlk, OH, NRCN, C =C (OAlk), SR, NRR', C NRR', Heterocycle, Aryl, Heteroaryl, Cycloalkyl, where Alk, Aryl, Heteroaryl, Heterocycle, Cycloalkyl are optionally substituted by Hal, NRR', CN, OH, CF 3, Aryl, Heteroaryl, OAlk; Ru is chosen from H, Alk, NRR', OAlk; R3, R4, R5, R6 are each identical or different and are independently chosen from the group consisting in H, OAlk, Alk, Hal, OCF 3: R and R' are each identical or different and are independently chosen from the group consisting in H, Alk, wherein Alk is optionally substituted by Hal, NRR', CN, OH, CF 3, Aryl, Heteroaryl; or their pharmaceutically acceptable salts, hydrates, or hydrated salts, or their optical isomers, racemates, diastereomers or enantiomers, or their regioisomers, geometrical isomers (E and Z) or mixtures thereof. ---- is either a single or double bond, as appropriate; ----- is either none or a single bond, as appropriate; is U, V, W are the same or different and may be chosen from C, N, O, S. Y is N-OR1, NR'1; R1 is H, Alkyl, Alkenyl, Alkoxyalkyl, Aryloxyalkyl, Arylalkyl, Alkoxycarbonylalkyl, Carboxyalkyl; R'1 is H, Alkyl, Aryl orAralkyl; R2, R'2 are each the same or different and are independently selected from H, Alkyl, Aryl or Aralkyl; Rv, Rw are the same or different and may be chosen from the group consisting in H, CN, =O, Hal, Alk, OAlk, OH, NRCN, C =C (OAlk), SR, NRR', C NRR', Heterocycle, Aryl, Heteroaryl, Cycloalkyl, where Alk, Aryl, Heteroaryl, Heterocycle, Cycloalkyl are optionally substituted by Hal, NRR', CN, OH, CF 3, Aryl, Heteroaryl, OAlk; Ru is chosen from H, Alk, NRR', OAlk; R3, R4, R5, R6 are each identical or different and are independently chosen from the group consisting in H, OAlk, Alk, Hal, OCF 3: R and R' are each identical or different and are independently chosen from the group consisting in H, Alk, wherein Alk is optionally substituted by Hal, NRR', CN, OH, CF 3, Aryl, Heteroaryl;
A method for manufacturing a connecting material for a solid oxide fuel cell, the method comprising: producing a powder of an oxide represented by the following Formula 1; and forming a ceramic protective film comprising an oxide represented by the following Formula 1 on one surface of a conductive substrate: [Formula 1] Mn x1 Co x2 Cu y1 Y z1 O 4- δ in Formula 1, x1, x2, y1, and z1 denote a molar ratio of each component and satisfy the ranges of 0<x1≤1.5, 0<x2≤1.5, 0<y1≤0.5, and 0.1≤z1≤0.4, and δ is a value that makes the oxide neutral, wherein the forming of the ceramic protective film is a step by a plasma spray coating. producing a powder of an oxide represented by the following Formula 1; and forming a ceramic protective film comprising an oxide represented by the following Formula 1 on one surface of a conductive substrate: [Formula 1] Mn x1 Co x2 Cu y1 Y z1 O 4- δ in Formula 1, x1, x2, y1, and z1 denote a molar ratio of each component and satisfy the ranges of 0<x1≤1.5, 0<x2≤1.5, 0<y1≤0.5, and 0.1≤z1≤0.4, and δ is a value that makes the oxide neutral, wherein the forming of the ceramic protective film is a step by a plasma spray coating.
A substrate processing apparatus comprising: a transport arm having serially connected arm links (326, 328, 330), at least one of the arm links having a predetermined arm link height; and at least a first pulley and a second pulley, where the second pulley is fixed to an arm link of the serially connected arm links; characterized in that at least one torque transmission band (350, 600, 700) extending longitudinally continuously between and coupled to each of the first pulley and the second pulley, the at least one torque transmission band having a corresponding band height for the predetermined arm link height and a variable lateral thickness such that the at least one torque transmission band includes a segment (350IS, 603, 703) of laterally increased cross section for the corresponding band height, the segment of laterally increased cross section being distinct from and disposed between and separated from band ends of the at least one torque transmission band that affix opposite band ends of the at least one torque transmission band respectively to each of the first pulley and the second pulley. a transport arm having serially connected arm links (326, 328, 330), at least one of the arm links having a predetermined arm link height; and at least a first pulley and a second pulley, where the second pulley is fixed to an arm link of the serially connected arm links; characterized in that at least one torque transmission band (350, 600, 700) extending longitudinally continuously between and coupled to each of the first pulley and the second pulley, the at least one torque transmission band having a corresponding band height for the predetermined arm link height and a variable lateral thickness such that the at least one torque transmission band includes a segment (350IS, 603, 703) of laterally increased cross section for the corresponding band height, the segment of laterally increased cross section being distinct from and disposed between and separated from band ends of the at least one torque transmission band that affix opposite band ends of the at least one torque transmission band respectively to each of the first pulley and the second pulley.
A control device (30, 230) for controlling facility equipment comprising: a receiving unit (31, 231) configured to receive time-of-use unit price information of an energy supplied to the facility equipment; a first decision unit (36b, 236b) configured to decide on a first time slot in which an index that includes a factor of an energy unit price approaches to its peak in a first period on the basis of the unit price information; a second decision unit (36c, 236c) configured to decide on a second time slot prior to the first time slot and a third time slot subsequent to the first time slot in the first period; and an adjustment control unit (36d, 236d) configured to execute energy adjustment control to adjust an energy consumption of the facility equipment so that an intensity of suppression of the energy consumption is higher in the first time slot than in the second and the third time slot, characterized in that the adjustment control unit (36d, 236d) executes the energy adjustment control to adjust the energy consumption of the facility equipment so that the intensity of the suppression of the energy consumption in the third time slot is lower than the intensity of the suppression of the energy consumption in the first time slot, and the intensity of the suppression of the energy consumption is lower in the second time slot than in the third time slot. a receiving unit (31, 231) configured to receive time-of-use unit price information of an energy supplied to the facility equipment; a first decision unit (36b, 236b) configured to decide on a first time slot in which an index that includes a factor of an energy unit price approaches to its peak in a first period on the basis of the unit price information; a second decision unit (36c, 236c) configured to decide on a second time slot prior to the first time slot and a third time slot subsequent to the first time slot in the first period; and an adjustment control unit (36d, 236d) configured to execute energy adjustment control to adjust an energy consumption of the facility equipment so that an intensity of suppression of the energy consumption is higher in the first time slot than in the second and the third time slot, characterized in that the adjustment control unit (36d, 236d) executes the energy adjustment control to adjust the energy consumption of the facility equipment so that the intensity of the suppression of the energy consumption in the third time slot is lower than the intensity of the suppression of the energy consumption in the first time slot, and the intensity of the suppression of the energy consumption is lower in the second time slot than in the third time slot.
A process for preparation of polyhydroxy stilbenes of Formula I or its isomers: in which: Rd, Rf, Rg and Rh represents hydrogen or a OH group; Ra, Rb, Re and Re independently represents a hydrogen or optionally substituted substituent chosen from: a halogen; a nitro group; a linear or branched C 1 -C 4 alkyl group; a linear or branched C 2 -C 6 alkenyl group; a C 3 -C 10 cycloalkyl group; a cycloalkylalkyl group in which the cycloalkyl and alkyl groups are as defined above; an aryl group; or an aralkyl group; comprising: deprotection of a compound of Formula II or its isomers: in which: Ra, Rb, Rc and Re are defined as above; Q represents hydrogen or an ORi group and R 1, R 2 and Ri independently represents a linear or branched C 1 -C 4 alkyl group; a C(=O)Rj, in which Rj represents a linear or branched C 1 -C 4 alkyl group; or an aralkyl group, wherein aryl in the aralkyl group optionally substituted by one or more C 1 -C 4 alkoxy or halogen groups; wherein the deprotection is carried out with use of an aluminium halide and a secondary amine. Rd, Rf, Rg and Rh represents hydrogen or a OH group; Ra, Rb, Re and Re independently represents a hydrogen or optionally substituted substituent chosen from: a halogen; a nitro group; a linear or branched C 1 -C 4 alkyl group; a linear or branched C 2 -C 6 alkenyl group; a C 3 -C 10 cycloalkyl group; a cycloalkylalkyl group in which the cycloalkyl and alkyl groups are as defined above; an aryl group; or an aralkyl group; comprising: deprotection of a compound of Formula II or its isomers: in which: Ra, Rb, Rc and Re are defined as above; Q represents hydrogen or an ORi group and R 1, R 2 and Ri independently represents a linear or branched C 1 -C 4 alkyl group; a C(=O)Rj, in which Rj represents a linear or branched C 1 -C 4 alkyl group; or an aralkyl group, wherein aryl in the aralkyl group optionally substituted by one or more C 1 -C 4 alkoxy or halogen groups; wherein the deprotection is carried out with use of an aluminium halide and a secondary amine. Ra, Rb, Rc and Re are defined as above; Q represents hydrogen or an ORi group and R 1, R 2 and Ri independently represents a linear or branched C 1 -C 4 alkyl group; a C(=O)Rj, in which Rj represents a linear or branched C 1 -C 4 alkyl group; or an aralkyl group, wherein aryl in the aralkyl group optionally substituted by one or more C 1 -C 4 alkoxy or halogen groups; wherein the deprotection is carried out with use of an aluminium halide and a secondary amine.
A directional solidification apparatus, comprising: a mold heating chamber; a solidification chamber adjacent the mold heating chamber for solidifying molten metal comprising an air melt alloy system as the metal is withdrawn from the mold heating chamber; a baffle separating the mold heating chamber from the solidification chamber, comprising an aperture configured to conform to a portion of a mold disposed within the aperture; and a gas source in fluid communication with the mold heating chamber, wherein the gas source is configured to provide a pressurized atmosphere for directionally solidifying the metal as a cast body with single crystal or multi-crystal columnar microstructure. a mold heating chamber; a solidification chamber adjacent the mold heating chamber for solidifying molten metal comprising an air melt alloy system as the metal is withdrawn from the mold heating chamber; a baffle separating the mold heating chamber from the solidification chamber, comprising an aperture configured to conform to a portion of a mold disposed within the aperture; and a gas source in fluid communication with the mold heating chamber, wherein the gas source is configured to provide a pressurized atmosphere for directionally solidifying the metal as a cast body with single crystal or multi-crystal columnar microstructure.