mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: (a) deprotonating a mono- or dialkanol amine with a deprotonating agent while continuously removing water formed from the reaction; and (b) reacting the deprotonated mono- or dialkanol amine with one or more C 4 to C 75 fatty acid monoalcohol esters to provide a mono- or dialkanol amide. (a) deprotonating a mono- or dialkanol amine with a deprotonating agent while continuously removing water formed from the reaction; and (b) reacting the deprotonated mono- or dialkanol amine with one or more C 4 to C 75 fatty acid monoalcohol esters to provide a mono- or dialkanol amide.
An austenitic heat-resistant alloy having a chemical composition of, in mass %: 0.04 to 0.14 % C; 0.05 to 1 % Si; 0.5 to 2.5 % Mn; up to 0.03 % P; less than 0.001 % S; 23 to 32 % Ni; 20 to 25 % Cr; 1 to 5 % W; 0.1 to 0.6 % Nb; 0.12 to 0.6 % V; 0.1 to 0.3 % N; 0.0005 to 0.01 % B; 0.001 to 0.02 % Sn; up to 0.03 % sol. Al; up to 0.02 % O; 0 to 0.5 % Ti; 0 to 2 % Co; 0 to 4 % Cu; 0 to 4 % Mo; 0 to 0.02 % Ca; 0 to 0.02 % Mg; 0 to 0.2 % REM; and the balance being Fe and impurities, the alloy having a microstructure with a grain size represented by a grain size number in accordance with ASTM E112 of 2.0 or more and less than 7.0. 0.04 to 0.14 % C; 0.05 to 1 % Si; 0.5 to 2.5 % Mn; up to 0.03 % P; less than 0.001 % S; 23 to 32 % Ni; 20 to 25 % Cr; 1 to 5 % W; 0.1 to 0.6 % Nb; 0.12 to 0.6 % V; 0.1 to 0.3 % N; 0.0005 to 0.01 % B; 0.001 to 0.02 % Sn; up to 0.03 % sol. Al; up to 0.02 % O; 0 to 0.5 % Ti; 0 to 2 % Co; 0 to 4 % Cu; 0 to 4 % Mo; 0 to 0.02 % Ca; 0 to 0.02 % Mg; 0 to 0.2 % REM; and the balance being Fe and impurities, the alloy having a microstructure with a grain size represented by a grain size number in accordance with ASTM E112 of 2.0 or more and less than 7.0.
An electric motor comprising: - a rotator; and - a stator disposed on an outer diameter side of the rotator, wherein the stator includes: - a cylindrical stator iron core provided with a plurality of teeth radially projecting from an inner circumferential side of an annular yoke toward a center; - insulators made of an insulation material disposed on both ends of the stator iron core in an axial direction; and - windings wound around the teeth via the insulators, wherein the insulator includes a first groove disposed on an inner circumferential side thereof along an axial direction, wherein the stator iron core includes a second groove disposed on an inner circumferential side thereof along the axial direction, and wherein the first groove (31, 32, 33, 35, 37, 39) and the second groove (51, 52, 53, 55, 57, 59) are disposed so as to communicate with each other in the axial direction, characterized in that the first groove and the second groove (51, 52, 53, 55, 57, 59) which communicate with each other embed therein a part of a connection line connecting the windings mutually. - a rotator; and - a stator disposed on an outer diameter side of the rotator, - a cylindrical stator iron core provided with a plurality of teeth radially projecting from an inner circumferential side of an annular yoke toward a center; - insulators made of an insulation material disposed on both ends of the stator iron core in an axial direction; and - windings wound around the teeth via the insulators,
An apparatus comprising: a cylindrical pressure vessel including an upper vessel section, a mid-flange and a lower vessel section, wherein the upper vessel section and the lower vessel section are joined by the mid-flange; a cylindrical central riser disposed concentrically inside the cylindrical pressure vessel and including an upper riser section disposed in the upper vessel section and a lower riser section disposed in the lower vessel section; a reactor core comprising fissile material disposed inside the cylindrical pressure vessel in the lower vessel section; control rod drive mechanism, CRDM, units for controlling control rod insertion into the reactor core, the CRDM units being disposed inside the cylindrical pressure vessel above the reactor core and in the lower vessel section with no vertical overlap between the upper vessel section and the CRDM units; steam generators disposed inside the cylindrical pressure vessel and entirely in the upper vessel section; and characterized by a CRDM support plate supporting the CRDM units; wherein the CRDM support plate is suspended directly or indirectly from the mid-flange by tie rods. a cylindrical pressure vessel including an upper vessel section, a mid-flange and a lower vessel section, wherein the upper vessel section and the lower vessel section are joined by the mid-flange; a cylindrical central riser disposed concentrically inside the cylindrical pressure vessel and including an upper riser section disposed in the upper vessel section and a lower riser section disposed in the lower vessel section; a reactor core comprising fissile material disposed inside the cylindrical pressure vessel in the lower vessel section; control rod drive mechanism, CRDM, units for controlling control rod insertion into the reactor core, the CRDM units being disposed inside the cylindrical pressure vessel above the reactor core and in the lower vessel section with no vertical overlap between the upper vessel section and the CRDM units; steam generators disposed inside the cylindrical pressure vessel and entirely in the upper vessel section; and characterized by a CRDM support plate supporting the CRDM units; wherein the CRDM support plate is suspended directly or indirectly from the mid-flange by tie rods.
A spot welding assembly comprising: a base; a base electrode coupled with the base for supporting a first work piece; a welding gun moveable toward and away from the base; a gun electrode coupled with the welding gun for supporting a second work piece and for locating the second work piece against the first work piece upon movement of the welding gun toward the base to allow the first and second work pieces (20, 22) to be welded to one another, the spot welding assembly being characterised in that: the base electrode is pivotable relative to the base and the gun electrode is pivotable relative to the welding gun. the spot welding assembly being characterised in that: the base electrode is pivotable relative to the base and the gun electrode is pivotable relative to the welding gun.
Radiator unit having a UV radiator with the design of a low-pressure mercury amalgam radiator having at least one amalgam deposit and having an envelope tube enclosing the radiator, wherein an air gap is provided between the envelope tube and the radiator and wherein a means for influencing the temperature of the amalgam is provided in the region of the at least one amalgam deposit in an axial direction of the radiator, characterised in that an electrical heating element configured as an ohmic resistor or PTC thermistor is arranged on the outer side of the radiator in the region of the amalgam, and this element bears on the outer side of the radiator in the region of the amalgam and on the inner side of the envelope tube, so that heat transport can take place from the radiator to the envelope tube without applying an electrical current to the heating element, and the amalgam can thereby be cooled.
An optical structure for a lighting device of a motor vehicle headlamp, said lighting device being configured to emit light for generating a first unmodified light distribution in a region in front of the lighting device, wherein the optical structure is associated with the lighting device or is part of the lighting device in such a way that the optical structure is traversed by at least a part of the total luminous flux of the lighting device, wherein the unmodified light distribution - as generated by the lighting device - is modified by the optical structure into a predeterminable, modified, second light distribution, wherein the optical structure consists of two, three or more optical structural elements (5, 5'), wherein each structural element (5, 5') includes a light-scattering effect and a first subset of the structural elements is designed such that beams incident on said first subset of the structural elements and generated by the illumination device pass through said first subset of the structural elements, each beam being refracted by the respective structural element into a first exit beam, into a second exit beam and into at least one further exit beam (9a, 9b, 9c), characterised in that the first subset of the structural elements has at least one rising portion, a fading portion, and at least one rising flank (19a, 19b, 19c), wherein the rising portion refracts the beam incident on the respective structural element and generated by the illumination device towards the first outlet beam, the fading portion refracts the beam incident on the respective structural element and generated by the lighting device towards the second outlet beam, and the at least one rising flank (19a, 19b, 19c) refracts the beam incident on the respective structural element and generated by the lighting device towards at least one further exit beam (9a, 9b, 9c), wherein the at least one rising flank is substantially V-shaped in a section extending through the structural element along a plane parallel to a hexagonal base surface of the structural element.
A compound of the structure: wherein X is a phosphodiester linkage; m is 1; N of N m is a β-D-deoxyriboadenosine; Y is a phosphodiester linkage; and wherein the conjugate moiety is linked to the 3' terminus of a modified oligonucleotide MO of the structure A E Me C E A E Me C E Me C E A E T E TGU S C S AC S AC S TC S C S (SEQ ID NO: 4), wherein the superscript "Me" indicates 5-methylcytosine, wherein nucleosides not followed by a subscript are β-D-deoxyribonucleosides, nucleosides followed by a subscript "E" are 2'-MOE nucleosides, nucleosides followed by a subscript "S" are S-cEt nucleosides, and each internucleoside linkage is a phosphorothioate internucleoside linkage.
A closed-loop sampling system for sampling an exhalation of a person, the closed-loop sampling system comprising: a flow tube to receive the exhalation of the person, the flow tube defining a lumen having an inlet and an outlet, the lumen defining an impedance between the inlet and the outlet, a first port (P A) between the inlet and the impedance, and a second port (P C) at or between the impedance and the outlet, the impedance causing a fraction of the exhalation to pass through the first port in proportion to an instantaneous flow rate of the exhalation; a valveless mixing chamber, in fluid communication with the first port and the second port, to receive the fraction of the exhalation and to perform volumetric averaging of fractions of exhalations over a plurality of exhalations, wherein the volumetric averaging comprises mixing of the received fraction of the exhalation with fractions of earlier breaths in the mixing chamber; an oxygen sensor, disposed in or in fluid communication with the valveless mixing chamber, to measure an average oxygen content of the fractions of exhalations; and a carbon dioxide sensor, disposed in or in fluid communication with the valveless mixing chamber, to measure an average carbon dioxide content of the fractions of exhalations. a flow tube to receive the exhalation of the person, the flow tube defining a lumen having an inlet and an outlet, the lumen defining an impedance between the inlet and the outlet, a first port (P A) between the inlet and the impedance, and a second port (P C) at or between the impedance and the outlet, the impedance causing a fraction of the exhalation to pass through the first port in proportion to an instantaneous flow rate of the exhalation; a valveless mixing chamber, in fluid communication with the first port and the second port, to receive the fraction of the exhalation and to perform volumetric averaging of fractions of exhalations over a plurality of exhalations, wherein the volumetric averaging comprises mixing of the received fraction of the exhalation with fractions of earlier breaths in the mixing chamber; an oxygen sensor, disposed in or in fluid communication with the valveless mixing chamber, to measure an average oxygen content of the fractions of exhalations; and a carbon dioxide sensor, disposed in or in fluid communication with the valveless mixing chamber, to measure an average carbon dioxide content of the fractions of exhalations.
Adapter which is suitable to be mounted on and to cooperate with the neck of a container in order to allow a product which is suitable to be contained in the adapter to flow out into the interior of said container, said adaptor including: - at least one tank which is suitable to contain said product, said tank having a first opening which is suitable to transfer said product from the tank into the interior of the container and a lower wall, - a movable means for sealingly closing the first opening, - a means for activating the movable means for sealingly closing so as to allow said movable means for sealingly closing to open and said product contained in the tank to flow out into the interior of the container, characterized in that said movable means for sealingly closing forms a topological space which is homeomorphic to a disk and comprises at least one flap or a plurality of flaps, said flaps having their sides in common with the side of another flap of said plurality of flaps and the distal end of which forms a junction point to all of said plurality of flaps; and in that said means for activating the movable means for sealingly closing is the lower wall of the tank; said lower wall of the tank being suitable to exert, when the movable means for sealingly closing is activated, a pressure on the proximal end of the flap or flaps. - at least one tank which is suitable to contain said product, said tank having a first opening which is suitable to transfer said product from the tank into the interior of the container and a lower wall, - a movable means for sealingly closing the first opening, - a means for activating the movable means for sealingly closing so as to allow said movable means for sealingly closing to open and said product contained in the tank to flow out into the interior of the container, characterized in that
A method for wireless communication by a user equipment, UE,, comprising: determining one or more beams to utilize for a beam management procedure using adaptive learning; performing the beam management procedure using the determined one or more beams including: measuring a channel based on synchronization signal block transmissions from a base station using the determined one or more beams, the SSB transmissions associated with one or more transmit beams of the BS; selecting one or more beam pair links (BPLs) associated with one or more channel measurements that are above a channel measurement threshold, or one or more strongest channel measurements among all channel measurements associated with the SSB transmissions; reporting the selected BPLs to the BS; receiving a physical downlink shared channel (PDSCH) using one of the one or more BPLs; determining a throughput associated with the PDSCH; updating the adaptive learning algorithm based on the determined throughput; and using the updated adaptive learning algorithm to determine another one or more beams to utilize for performing another beam management procedure to select another one or more BPLs. determining one or more beams to utilize for a beam management procedure using adaptive learning; performing the beam management procedure using the determined one or more beams including: measuring a channel based on synchronization signal block transmissions from a base station using the determined one or more beams, the SSB transmissions associated with one or more transmit beams of the BS; selecting one or more beam pair links (BPLs) associated with one or more channel measurements that are above a channel measurement threshold, or one or more strongest channel measurements among all channel measurements associated with the SSB transmissions; reporting the selected BPLs to the BS; receiving a physical downlink shared channel (PDSCH) using one of the one or more BPLs; determining a throughput associated with the PDSCH; updating the adaptive learning algorithm based on the determined throughput; and using the updated adaptive learning algorithm to determine another one or more beams to utilize for performing another beam management procedure to select another one or more BPLs.
A composition for use in a method of treating a patient diagnosed with a malignancy of the central nervous system comprising introducing into an anatomical compartment containing the cerebrospinal fluid of the patient the composition comprising an effective amount of T cells, wherein the T cells comprise CAR T cells expressing a chimeric antigen receptor.
A fluid circulation system comprising: a fluid heater for heating a fluid; a heat storage tank for storing the fluid; a heat accumulating circuit in which the fluid circulates between the fluid heater and the heat storage tank; an indoor-heating circuit in which the fluid circulates between the fluid heater and an indoor-heating installation; a valve for switching between the heat accumulating circuit and the indoor-heating circuit; an outflow temperature sensor for detecting a temperature of the fluid flowing out of the fluid heater; and a controller for controlling switching between the heat accumulating circuit and the indoor-heating circuit, characterized in that the controller is configured to switch, when a request to switch from the heat accumulating circuit to the indoor-heating circuit is issued during a heat accumulating operation in which the heat accumulating circuit is operated, from the heat accumulating circuit to the indoor-heating circuit on condition that the temperature of the fluid flowing out of the fluid heater is lower than a reference value. a fluid heater for heating a fluid; a heat storage tank for storing the fluid; a heat accumulating circuit in which the fluid circulates between the fluid heater and the heat storage tank; an indoor-heating circuit in which the fluid circulates between the fluid heater and an indoor-heating installation; a valve for switching between the heat accumulating circuit and the indoor-heating circuit; an outflow temperature sensor for detecting a temperature of the fluid flowing out of the fluid heater; and a controller for controlling switching between the heat accumulating circuit and the indoor-heating circuit, characterized in that the controller is configured to switch, when a request to switch from the heat accumulating circuit to the indoor-heating circuit is issued during a heat accumulating operation in which the heat accumulating circuit is operated, from the heat accumulating circuit to the indoor-heating circuit on condition that the temperature of the fluid flowing out of the fluid heater is lower than a reference value.
A polylactide fiber that contains at least 75% by weight polylactide resin, wherein (a) the polylactide resin is a blend of 20 to 90% by weight of a first polylactide in which the ratio of the R-lactic and S- lactic units is from 8:92 to 92:8 and from 80 to 10% by weight of a second polylactide in which the ratio of the R-lactic and S-lactic units is ≥97:3 or ≤3:97, and wherein the R-lactic units and S-lactic units combined constitute at least 90% of the weight of the second polylactide (b) the ratio of the R-lactic units to S-lactic units in the blend is from 7:93 to 25:75 or from 75:25 to 93:7; and (c) the polylactide fiber contains at least 5 Joules of polylactide crystallites per gram of polylactide resin in the fiber, as determined using the method referred to in the description. (a) the polylactide resin is a blend of 20 to 90% by weight of a first polylactide in which the ratio of the R-lactic and S- lactic units is from 8:92 to 92:8 and from 80 to 10% by weight of a second polylactide in which the ratio of the R-lactic and S-lactic units is ≥97:3 or ≤3:97, and wherein the R-lactic units and S-lactic units combined constitute at least 90% of the weight of the second polylactide (b) the ratio of the R-lactic units to S-lactic units in the blend is from 7:93 to 25:75 or from 75:25 to 93:7; and (c) the polylactide fiber contains at least 5 Joules of polylactide crystallites per gram of polylactide resin in the fiber, as determined using the method referred to in the description.
A magnetic coupling apparatus, for transmitting drive from a driving member to a driven member, wherein the driving member has at least one first magnet and the driven member has one or more second magnets, wherein the at least one first magnet is arranged on the driving member so that its North-South axis is substantially parallel with an axis of rotation of the driving member, wherein the one or more second magnets are arranged on the driven member so that their North-South axes are substantially parallel with an axis of rotation of the driven member, wherein the at least one first magnet and the one or more second magnets are arranged in substantially the same sense and substantially parallel to each other so that when a magnet of the at least one first magnet approaches a magnet in the one or more second magnets, the two North seeking poles are adjacent and the two South seeking poles are also adjacent thus causing a doubly repulsive force to be generated as the driving member rotates which causes the driven member to rotate, wherein the at least one first magnet and the one or more second magnets are arranged to remain in spaced circular loci as the driving member and the driven member rotate (112, 113).
A method for operating a gateway machine at the edge of a provider network interfacing an external physical network, wherein a plurality of tenant logical networks are implemented on the provider network and the gateway machine executes a plurality of pipeline stages for a plurality of different tenant logical networks, the method comprising: receiving a packet from the external physical network; executing a set of pipeline stages for determining a next destination for the packet within the provider network, wherein executing the set of pipeline stages comprises: i) executing a particular stage to determine with which of the plurality of different tenant logical networks a destination address of the packet is associated; ii) executing a first logical router stage when a destination address of the packet is associated with a first tenant logical network that includes the first logical router, and iii) executing a second logical router stage when the destination address is associated with a second tenant logical network that includes the second logical router; and forwarding the packet to the identified next destination within the provider network. receiving a packet from the external physical network; executing a set of pipeline stages for determining a next destination for the packet within the provider network, wherein executing the set of pipeline stages comprises: i) executing a particular stage to determine with which of the plurality of different tenant logical networks a destination address of the packet is associated; ii) executing a first logical router stage when a destination address of the packet is associated with a first tenant logical network that includes the first logical router, and iii) executing a second logical router stage when the destination address is associated with a second tenant logical network that includes the second logical router; and i) executing a particular stage to determine with which of the plurality of different tenant logical networks a destination address of the packet is associated; ii) executing a first logical router stage when a destination address of the packet is associated with a first tenant logical network that includes the first logical router, and iii) executing a second logical router stage when the destination address is associated with a second tenant logical network that includes the second logical router; and forwarding the packet to the identified next destination within the provider network.