mhurhangee/ep-ind-claims huggingface dataset:
A steam separator, comprising an inlet for a water / steam mixture (W+S), a water outlet and a steam outlet which open into a steam separator housing, wherein the inlet and the water outlet are connected by an at least partially open drain channel arranged in the steam separator housing, for letting water entering through the inlet to flow within the steam separator without major disturbances and for avoiding accumulation of water within the steam separator, characterized in that the open drain channel is formed on an upper surface of a plate-like insert and is curved basically U-shaped along its flow direction.
A process for the preparation of an isomeric mixture of an amide derivative of Gd(PCTA-tris-glutaric acid) of the formula (II B) F'(NR 1 R 2) 3 (II B) where F' is an isomeric mixture of Gd(PCTA-tris-glutaric acid) residue of formula said isomeric mixture of the Gd(PCTA-tris-glutaric acid) residue comprising at least 50 % of an enantiomer residue of the formula (IIIa) of the enantiomer residue of the formula (IIIb) or of a mixture thereof; and each of the -NR 1 R 2 groups is bound to an open bond of a respective carboxyl moiety of F', identified with a full circle (•) in the above structure; R 1 is H or a C 1 -C 6 alkyl, optionally substituted by 1-4 hydroxyl groups; R 2 is a C 1 -C 6 alkyl optionally substituted by 1-4 hydroxyl groups; said process comprising: a') obtaining an isomeric mixture of the Gd(PCTA-tris-glutaric acid) comprising at least 50 % of the respective [(oR,o'R,o"R)-o,o',o"-tris(2-carboxyethyl)-3,6,9,15-tetraazabicyclo[9.3.1]pentadeca-1,11,13-triene-3,6,9-triacetato(3-)-κN3,κN6,κN9,κN15,κO3,κO6,κO9]-gadolinium (enantiomer RRR), or [(αS,α'S,α"S)-α,α',α"-tris(2-carboxyethyl)-3,6,9,15-tetraazabicyclo[9.3.1]pentadeca-1,11,13-triene-3,6,9-triacetato(3-)-κN3,κN6,κN9,κN15,κO3,κO6,κO9]-gadolinium (enantiomer SSS), or, preferably, of a mixture thereof; and b') converting the isomeric mixture of the Gd(PCTA-tris-glutaric acid) obtained from step a') in the corresponding isomeric mixture of amide derivative. where F' is an isomeric mixture of Gd(PCTA-tris-glutaric acid) residue of formula said isomeric mixture of the Gd(PCTA-tris-glutaric acid) residue comprising at least 50 % of an enantiomer residue of the formula (IIIa) of the enantiomer residue of the formula (IIIb) or of a mixture thereof; and each of the -NR 1 R 2 groups is bound to an open bond of a respective carboxyl moiety of F', identified with a full circle (•) in the above structure; R 1 is H or a C 1 -C 6 alkyl, optionally substituted by 1-4 hydroxyl groups; R 2 is a C 1 -C 6 alkyl optionally substituted by 1-4 hydroxyl groups; a') obtaining an isomeric mixture of the Gd(PCTA-tris-glutaric acid) comprising at least 50 % of the respective [(oR,o'R,o"R)-o,o',o"-tris(2-carboxyethyl)-3,6,9,15-tetraazabicyclo[9.3.1]pentadeca-1,11,13-triene-3,6,9-triacetato(3-)-κN3,κN6,κN9,κN15,κO3,κO6,κO9]-gadolinium (enantiomer RRR), or [(αS,α'S,α"S)-α,α',α"-tris(2-carboxyethyl)-3,6,9,15-tetraazabicyclo[9.3.1]pentadeca-1,11,13-triene-3,6,9-triacetato(3-)-κN3,κN6,κN9,κN15,κO3,κO6,κO9]-gadolinium (enantiomer SSS), or, preferably, of a mixture thereof; and b') converting the isomeric mixture of the Gd(PCTA-tris-glutaric acid) obtained from step a') in the corresponding isomeric mixture of amide derivative.
A valve packing assembly, comprising: a first end ring comprising a first inner ring and a first outer ring, the first end ring configured to position the first inner ring adjacent to a movable valve stem of a valve and to position the first outer ring away from the movable valve stem; a second end ring; and a stack of adjacent sealing rings configured to be positioned between the first end ring and the second end ring, wherein the first inner ring defines an annular recess configured to retain the first outer ring in a volume defined between the first inner ring, a body of the valve, and one sealing ring of the stack of adjacent sealing rings positioned at one axial end of the stack of adjacent sealing rings; wherein the first inner ring and first outer ring are enabled to move relative to one another in order to retain the stack of adj acent sealing rings; characterized in that the second end ring comprises a second inner ring and a second outer ring, the second end ring configured to position the second inner ring adjacent to the movable valve stem and to position the second outer ring away from the movable valve stem; and wherein the second inner ring defines an annular recess configured to retain the second outer ring in a volume defined between the second inner ring, the body of the valve, and another sealing ring of the stack of adjacent sealing rings positioned at another axial end of the stack of adjacent sealing rings; and wherein the second inner ring and second outer ring are enabled to move relative to one another in order to retain the stack of adjacent sealing rings. a first end ring comprising a first inner ring and a first outer ring, the first end ring configured to position the first inner ring adjacent to a movable valve stem of a valve and to position the first outer ring away from the movable valve stem; a second end ring; and a stack of adjacent sealing rings configured to be positioned between the first end ring and the second end ring, wherein the first inner ring defines an annular recess configured to retain the first outer ring in a volume defined between the first inner ring, a body of the valve, and one sealing ring of the stack of adjacent sealing rings positioned at one axial end of the stack of adjacent sealing rings; wherein the first inner ring and first outer ring are enabled to move relative to one another in order to retain the stack of adj acent sealing rings; characterized in that the second end ring comprises a second inner ring and a second outer ring, the second end ring configured to position the second inner ring adjacent to the movable valve stem and to position the second outer ring away from the movable valve stem; and wherein the second inner ring defines an annular recess configured to retain the second outer ring in a volume defined between the second inner ring, the body of the valve, and another sealing ring of the stack of adjacent sealing rings positioned at another axial end of the stack of adjacent sealing rings; and wherein the second inner ring and second outer ring are enabled to move relative to one another in order to retain the stack of adjacent sealing rings.
A separation device (1, 1a, 1b, 1c, 1d, 1e, 1f, 1g) comprising: a casing including a tubular part having a circular inner peripheral shape; a rotor disposed on an inner side of the tubular part and rotatable around a rotation central axis extending along an axial direction of the tubular part; and a blade disposed between the tubular part and the rotor and configured to rotate together with the rotor, the tubular part including a gas inlet, a gas outlet apart from the gas inlet in the axial direction and in communicative connection with an inside and an outside of the tubular part between a first end and a second end of the tubular part in the axial direction, and the blade having a first end adjacent to the gas inlet and a second end adjacent to the gas outlet, characterized by a solid substance discharge port aligned with the gas outlet in a direction along an outer periphery of the tubular part, the casing having a space extending to the solid substance discharge port with respect to the second end of the blade in the axial direction, and the separation device (1, 1a, 1b, 1c, 1d, 1e, 1f, 1g) further comprising a discharge tubular part having an inner space in communicative connection with the solid substance discharge port and protruding from an outer peripheral surface of the tubular part. a casing including a tubular part having a circular inner peripheral shape; a rotor disposed on an inner side of the tubular part and rotatable around a rotation central axis extending along an axial direction of the tubular part; and a blade disposed between the tubular part and the rotor and configured to rotate together with the rotor, the tubular part including a gas inlet, a gas outlet apart from the gas inlet in the axial direction and in communicative connection with an inside and an outside of the tubular part between a first end and a second end of the tubular part in the axial direction, and a gas inlet, a gas outlet apart from the gas inlet in the axial direction and in communicative connection with an inside and an outside of the tubular part between a first end and a second end of the tubular part in the axial direction, and the blade having a first end adjacent to the gas inlet and a second end adjacent to the gas outlet, characterized by a solid substance discharge port aligned with the gas outlet in a direction along an outer periphery of the tubular part, the casing having a space extending to the solid substance discharge port with respect to the second end of the blade in the axial direction, and the separation device (1, 1a, 1b, 1c, 1d, 1e, 1f, 1g) further comprising a discharge tubular part having an inner space in communicative connection with the solid substance discharge port and protruding from an outer peripheral surface of the tubular part.
A handheld tool comprising: a power assembly having a power source operatively connected to a housing; a control assembly rotatably connected to said power assembly, said control assembly having a primary handle, a transition body extending from said primary handle, and an actuation mechanism operatively connected to said primary handle or said transition body; an elongated boom, wherein a first end of said boom is rotatably connected to said control assembly; a tool assembly operatively connected to a second distal end of said boom, said tool assembly includes a motor; and a controller electrically connected to said power source, said motor, and said actuation mechanism; wherein a length of said boom is adjustable, and said length of said boom is adjustable by a single-handed operation; and wherein said tool assembly is both movable and operable by a single-handed operation; wherein the power source is a rechargeable battery pack; and wherein the power assembly, the control assembly, and the boom form a Z-shaped design when in an operational configuration. a power assembly having a power source operatively connected to a housing; a control assembly rotatably connected to said power assembly, said control assembly having a primary handle, a transition body extending from said primary handle, and an actuation mechanism operatively connected to said primary handle or said transition body; an elongated boom, wherein a first end of said boom is rotatably connected to said control assembly; a tool assembly operatively connected to a second distal end of said boom, said tool assembly includes a motor; and a controller electrically connected to said power source, said motor, and said actuation mechanism; wherein a length of said boom is adjustable, and said length of said boom is adjustable by a single-handed operation; and wherein said tool assembly is both movable and operable by a single-handed operation; wherein the power source is a rechargeable battery pack; and wherein the power assembly, the control assembly, and the boom form a Z-shaped design when in an operational configuration.
A device adapted to selectively output a single-phase electricity or a three-phase electricity, the device comprising - a first phase conductor for supplying a phase of the single-phase electricity, - a second and a third phase conductors (C2, C3) for supplying, in conjunction with the first phase conductor, three respective phases (L1, L2, L3) of the three-phase electricity, the device further comprising - at least one contactor (CONT1) arranged to selectively close or open the second and third phase conductors (C2, C3), and - a control module configured to control the contactor (CONT1) to selectively carry out the closure or the opening of the second and third phase conductors (C2, C3) for switching between a three-phase operating mode in which the device is configured to supply three-phase electricity, and a single-phase operating mode in which the device is configured to supply single-phase electricity, the device being characterised to be adapted to output an output electric power (Pout) determined from a setpoint power (Pcons), the setpoint power being determined from an available power (Pdispo) made available to the device by an electrical energy source, via the control module controlling the opening or closing of the contactor (CONT1). - a first phase conductor for supplying a phase of the single-phase electricity, - a second and a third phase conductors (C2, C3) for supplying, in conjunction with the first phase conductor, three respective phases (L1, L2, L3) of the three-phase electricity, - at least one contactor (CONT1) arranged to selectively close or open the second and third phase conductors (C2, C3), and - a control module configured to control the contactor (CONT1) to selectively carry out the closure or the opening of the second and third phase conductors (C2, C3) for switching between a three-phase operating mode in which the device is configured to supply three-phase electricity, and a single-phase operating mode in which the device is configured to supply single-phase electricity,
A system for extracting and collecting a volatile substance from a volatiles containing in-space body, the system comprising: an electromagnetic energy source for producing electromagnetic energy; a containment member coupled to said electromagnetic energy source for receiving said electromagnetic energy; a sealing device is configured to form a first seal against the in-space body; and a condensation unit; wherein said containment member is an antenna configured for directing said electromagnetic energy toward said in-space body for heating at least a portion of said in-space body in-situ to convert said volatile substance to vapor without excavating said in-space body; wherein said containment member is configured for disposition external to said surface of said in-space body for containing said vapor released by said in-space body through said surface of said in-space body; wherein said containment member forms a second seal with the sealing device which is sufficient to maintain a positive pressure of said vapor within said containment member; wherein said containment member covers a portion of said surface of said in-space body; wherein said condensation unit is coupled to said containment member and is configured for receiving said vapor from said containment member; and wherein said condensation unit is configured for condensing said vapor for concentration and storage of said volatile substance. an electromagnetic energy source for producing electromagnetic energy; a containment member coupled to said electromagnetic energy source for receiving said electromagnetic energy; a sealing device is configured to form a first seal against the in-space body; and a condensation unit; wherein said containment member is an antenna configured for directing said electromagnetic energy toward said in-space body for heating at least a portion of said in-space body in-situ to convert said volatile substance to vapor without excavating said in-space body; wherein said containment member is configured for disposition external to said surface of said in-space body for containing said vapor released by said in-space body through said surface of said in-space body; wherein said containment member forms a second seal with the sealing device which is sufficient to maintain a positive pressure of said vapor within said containment member; wherein said containment member covers a portion of said surface of said in-space body; wherein said condensation unit is coupled to said containment member and is configured for receiving said vapor from said containment member; and wherein said condensation unit is configured for condensing said vapor for concentration and storage of said volatile substance.
A method to produce a monomeric, stable and functional CyaA toxin, comprising the steps of: i) Providing a sample containing denatured and acylated CyaA toxin, between 4M and 10M of a chaotropic agent, and between 1 and 10mM of a calcium salt, ii) Refolding said CyaA toxin under molecular confinement in the presence of calcium, and in absence of a chaotropic agent, iii) Collecting a solution having a pH comprised between 7 and 8, containing between 1 and 10mM of a calcium salt, no chaotropic agent and a non-aggregated CyaA toxin that remains non-aggregated after several cycles of freezing / thawing and upon long-term storage up to 6 months in non-denaturing conditions. i) Providing a sample containing denatured and acylated CyaA toxin, between 4M and 10M of a chaotropic agent, and between 1 and 10mM of a calcium salt, ii) Refolding said CyaA toxin under molecular confinement in the presence of calcium, and in absence of a chaotropic agent, iii) Collecting a solution having a pH comprised between 7 and 8, containing between 1 and 10mM of a calcium salt, no chaotropic agent and a non-aggregated CyaA toxin that remains non-aggregated after several cycles of freezing / thawing and upon long-term storage up to 6 months in non-denaturing conditions.
A method of manufacturing a glass article having a three-dimensional shape comprising: heating a glass article blank to a temperature above a setting temperature; controlling a first portion of a molding region of an open-faced mold to have a first temperature and a second portion of the molding region of the open-faced mold to have a second temperature effective to generate an anisothermal temperature profile within the molding region, the molding region having a three-dimensional shape that corresponds to the shape of the glass article; coupling the glass article blank to the open-faced mold; maintaining an anisothermal temperature profile along the glass article blank; and cooling a portion of the open-faced mold proximate to the molding region with a fluid cooling stream; adjusting the flow rate of the fluid cooling stream to alter the thermal gradient across an in-plane direction of the glass article blank and/or through a thickness of the glass article blank to cause a pre-determined warp of the glass article blank; and cooling the glass article blank while coupled to the molding region of the open-faced mold to set the shape of the glass article. heating a glass article blank to a temperature above a setting temperature; controlling a first portion of a molding region of an open-faced mold to have a first temperature and a second portion of the molding region of the open-faced mold to have a second temperature effective to generate an anisothermal temperature profile within the molding region, the molding region having a three-dimensional shape that corresponds to the shape of the glass article; coupling the glass article blank to the open-faced mold; maintaining an anisothermal temperature profile along the glass article blank; and cooling a portion of the open-faced mold proximate to the molding region with a fluid cooling stream; adjusting the flow rate of the fluid cooling stream to alter the thermal gradient across an in-plane direction of the glass article blank and/or through a thickness of the glass article blank to cause a pre-determined warp of the glass article blank; and cooling the glass article blank while coupled to the molding region of the open-faced mold to set the shape of the glass article.
Bus-capable stackable function module for controlling and/or monitoring technical processes, in particular in industrial automation devices, via a function circuit, wherein the function module is set up for fastening to a mounting base, preferably with latching means for latching onto a mounting rail, and having at least one or more bus line contacts (10, 11) and at least two connection regions via which the function circuit can be contacted, and a connection unit, which provides at least one plug-in possibility for at least one connection module, characterized in that the function module has at least two separately removable function units, to each of which at least one of the connection regions is assigned and each of which comprises at least one function circuit, wherein in each case one of the plug-in possibilities for one of the connection modules is assigned to one of the separate function circuits in order to contact the separate function circuits in the connection regions.
A class-G immunoglobulin directed against the anthrax toxin protective antigen, wherein: - each of the heavy chains comprises, or consists of, an amino acid sequence represented by SEQ ID NO:5, and - each of the light chains comprises, or consists of, an amino acid sequence represented by SEQ ID NO:6. - each of the heavy chains comprises, or consists of, an amino acid sequence represented by SEQ ID NO:5, and - each of the light chains comprises, or consists of, an amino acid sequence represented by SEQ ID NO:6.
A hemostatic or tissue sealing material comprising: (a) a peptide having a sequence SEQ ID NO: 1 or an amino acid analog sequence thereof, and (b) a hemostatic scaffold wherein said hemostatic scaffold is crosslinked gelatin in particle form with a liquid carrier. (a) a peptide having a sequence SEQ ID NO: 1 or an amino acid analog sequence thereof, and (b) a hemostatic scaffold
Magnetic sensing half-bridge circuit for sensing an orientation of an external magnetic field in a plane, comprising a circuit portion including: a main half-bridge comprising series-connected main tunnel magnetoresistive sensor elements TMR1 and TMR2; a first auxiliary half-bridge connected in parallel to the main half-bridge, said first auxiliary half-bridge comprising series-connected auxiliary tunnel magnetoresistive sensor elements TMR3 and TMR4 with an output voltage (V out) emerging from the connection between TMR1 and TMR3 and between TMR2 and TMR4; wherein each sensor element TMR1, TMR2, TMR3 and TMR4 comprises a tunnel barrier spacer layer sandwiched between a ferromagnetic reference layer having a reference magnetization that is pinned in a pinning direction and a ferromagnetic sense layer having a sense magnetization that can be freely oriented; wherein the reference magnetization of the magnetoresistive sensor element TMR1 and TMR3 are respectively oriented substantially antiparallel with respect to the reference magnetization of the magnetoresistive sensor element TMR2 and TMR4; and wherein said first auxiliary half-bridge has a sensing axis that differs from the sensing axis of the main half bridge by an angle (θ) of about 180°/n, where n is the harmonic number to be canceled. a main half-bridge comprising series-connected main tunnel magnetoresistive sensor elements TMR1 and TMR2; a first auxiliary half-bridge connected in parallel to the main half-bridge, said first auxiliary half-bridge comprising series-connected auxiliary tunnel magnetoresistive sensor elements TMR3 and TMR4 with an output voltage (V out) emerging from the connection between TMR1 and TMR3 and between TMR2 and TMR4; wherein each sensor element TMR1, TMR2, TMR3 and TMR4 comprises a tunnel barrier spacer layer sandwiched between a ferromagnetic reference layer having a reference magnetization that is pinned in a pinning direction and a ferromagnetic sense layer having a sense magnetization that can be freely oriented; wherein the reference magnetization of the magnetoresistive sensor element TMR1 and TMR3 are respectively oriented substantially antiparallel with respect to the reference magnetization of the magnetoresistive sensor element TMR2 and TMR4; and wherein said first auxiliary half-bridge has a sensing axis that differs from the sensing axis of the main half bridge by an angle (θ) of about 180°/n, where n is the harmonic number to be canceled.