mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: an engine having an air input and an exhaust output; a turbocharger having a compressor coupled to the air input, a turbine coupled to the exhaust output, and an electric motor, wherein the compressor is configured to receive force selectively from either or both of the turbine and the electric motor, the electric motor having an ETurbo controller; and an engine control unit for controlling operation of the internal combustion engine and the turbocharger; wherein: the engine control unit is configured to determine and provide a torque control signal to the ETurbo controller to enable the ETurbo controller to manage operation of the electric motor; characterized in that: the engine control unit is configured to further determine and provide a speed control signal to the ETurbo controller to enable the ETurbo controller to manage operation of the electric motor, and the ETurbo controller is configured to use the torque control signal to manage operation of the electric motor without allowing compressor speed to exceed a maximum speed determined by the speed control signal. an engine having an air input and an exhaust output; a turbocharger having a compressor coupled to the air input, a turbine coupled to the exhaust output, and an electric motor, wherein the compressor is configured to receive force selectively from either or both of the turbine and the electric motor, the electric motor having an ETurbo controller; and an engine control unit for controlling operation of the internal combustion engine and the turbocharger; wherein: the engine control unit is configured to determine and provide a torque control signal to the ETurbo controller to enable the ETurbo controller to manage operation of the electric motor; characterized in that: the engine control unit is configured to further determine and provide a speed control signal to the ETurbo controller to enable the ETurbo controller to manage operation of the electric motor, and the ETurbo controller is configured to use the torque control signal to manage operation of the electric motor without allowing compressor speed to exceed a maximum speed determined by the speed control signal. the engine control unit is configured to determine and provide a torque control signal to the ETurbo controller to enable the ETurbo controller to manage operation of the electric motor; characterized in that: the engine control unit is configured to further determine and provide a speed control signal to the ETurbo controller to enable the ETurbo controller to manage operation of the electric motor, and the ETurbo controller is configured to use the torque control signal to manage operation of the electric motor without allowing compressor speed to exceed a maximum speed determined by the speed control signal.
A production process of a sucrose fatty acid ester having a low degree of substitution, wherein the production process comprises reacting the raw sucrose fatty acid ester with an activated sucrose in the presence of a solvent having a dielectric constant at 20°C of 35.0 or lower and having no hydroxyl group, whereby the average degree of substitution of the raw sucrose fatty acid ester is lowered by 0.2 or more, and wherein the sucrose fatty acid ester having a low degree of substitution to be yielded has an average degree of substitution of 1.0 to 2.0.
A piece of equipment for refueling an aircraft, said equipment comprising a pipe provided with means for connecting onto an intake port of a fuel tank of an aircraft and, at or in the vicinity of the connection means to the aircraft, means for determining the value of at least one parameter (P, T, V) representative of a flow of fuel passing through the connection means, characterized in that the equipment comprises - at least one receiver onboard the refueling equipment, - means (503, 504) for transmitting, to the receiver, a signal (S 1, S 1 (P, T, V)) representative of a parameter value (P, T, V) predetermined by the aforementioned determination means, - an electronic unit capable of receiving, from the receiver, a signal (S 2, S 2 (P, T, V)) representative of the aforementioned parameter (P, T, V) and of driving at least one flow control and monitoring device (50, 60) in accordance with the signal received from the receiver. in that the determination means are adapted to determine a value of the pressure of the flow of fuel, in that the transmission means (503, 504) adapted to send to the receiver a signal (S 1, S 1 (P, T, V)) representative of the value of the pressure determined by the determination means and in that the electronic unit is adapted to compare the value of the pressure to a reference value (P 0) and to correct or to limit the value of the pressure of the flow if the value of the pressure is larger than the reference value (P 0). - at least one receiver onboard the refueling equipment, - means (503, 504) for transmitting, to the receiver, a signal (S 1, S 1 (P, T, V)) representative of a parameter value (P, T, V) predetermined by the aforementioned determination means, - an electronic unit capable of receiving, from the receiver, a signal (S 2, S 2 (P, T, V)) representative of the aforementioned parameter (P, T, V) and of driving at least one flow control and monitoring device (50, 60) in accordance with the signal received from the receiver.
Use of a C1 inhibitor that has a reduced level of terminal sialic acid residues as compared to plasma derived C1 inhibitor, wherein the reduced level of terminal sialic acid residues results in a plasma half life of less than 6 hours, in the preparation of a pharmaceutical composition for the prevention, reduction or treatment of an ischemia/reperfusion injury, whereby the C1 inhibitor is administered at most 3 hours, 2 hours, 1 hour, or 30 minutes before at least one foreseen occurrence of ischemia and reperfusion injury.
Composition or material comprising - permanently polarized hydroxyapatite, wherein the corresponding 31 P-NMR spectrum of the permanently polarized hydroxyapatite is carried out with solid hydroxyapatite using phosphoric acid as a reference and shows a unique peak at 2.6 ppm or around 2.6 ppm, i.e. in the range of 2.5 ppm to 2.7 ppm, and - brushite, wherein in the wide angle x-ray scattering spectrum the most representative peaks of brushite appear at 2θ = 29°, 31°, 35°, 42° and 51° and/or a brushite-like material, wherein the brushite-like material presents in the Raman spectrum peaks at 878, 848 and 794 cm -1, and wherein the permanently polarized hydroxyapatite has a proportion of 50% by weight to 99.9% by weight, based on the total weight of the composition or material. - permanently polarized hydroxyapatite, wherein the corresponding 31 P-NMR spectrum of the permanently polarized hydroxyapatite is carried out with solid hydroxyapatite using phosphoric acid as a reference and shows a unique peak at 2.6 ppm or around 2.6 ppm, i.e. in the range of 2.5 ppm to 2.7 ppm, and - brushite, wherein in the wide angle x-ray scattering spectrum the most representative peaks of brushite appear at 2θ = 29°, 31°, 35°, 42° and 51° and/or a brushite-like material, wherein the brushite-like material presents in the Raman spectrum peaks at 878, 848 and 794 cm -1, and wherein the permanently polarized hydroxyapatite has a proportion of 50% by weight to 99.9% by weight, based on the total weight of the composition or material.
A method of lapping gears comprising rolling a first member of a gear set together in mesh with a second member of the gear set with an initial amount of torque between said first and second members while applying an abrasive mixture to the gear set members, said method further comprising: measuring motion-transmission-error of the rolling gear-set in real-time, obtaining a real-time measurement of run-out from the measured motion-transmission-error, determining a corrective torque component at one or more predetermined frequencies on the basis of said motion-transmission-error measurements, introducing, for reducing the run-out, the corrective torque component to the rolling gear set such that the rolling gear set is lapped with a corrected amount of torque defined by said initial amount of torque adjusted in accordance with said corrective torque component. measuring motion-transmission-error of the rolling gear-set in real-time, obtaining a real-time measurement of run-out from the measured motion-transmission-error, determining a corrective torque component at one or more predetermined frequencies on the basis of said motion-transmission-error measurements, introducing, for reducing the run-out, the corrective torque component to the rolling gear set such that the rolling gear set is lapped with a corrected amount of torque defined by said initial amount of torque adjusted in accordance with said corrective torque component.
A photovoltaic device, comprising: a high bandgap, type-II tunnel junction comprising: a p-doped tunnel layer; and a n-doped tunnel layer in contact with the p-doped tunnel layer; wherein the tunnel junction has an InP lattice constant, wherein the p-doped tunnel layer is a p-doped material of AlGaInAs; wherein the high bandgap, type II tunnel junction forms a type II heterojunction; and the n-doped tunnel layer is a n-doped material selected from the group consisting of AlAsSb, AlInAsSb, and AlInPAs; wherein the p-doped tunnel layer has a bandgap of greater than or equal to 1.25 eV and the n-doped tunnel layer has a bandgap of greater than or equal to 1.35 eV; and wherein the p-doped tunnel layer and the n-doped tunnel layer have a doping level between from 1×10 19 /cm 3 to 1×10 20 /cm 3; a first photovoltaic cell disposed on a first side of the type-II tunnel junction; and a second photovoltaic cell disposed on a second side of the type-II tunnel junction. a high bandgap, type-II tunnel junction comprising: a p-doped tunnel layer; and a n-doped tunnel layer in contact with the p-doped tunnel layer; wherein the tunnel junction has an InP lattice constant, wherein the p-doped tunnel layer is a p-doped material of AlGaInAs; wherein the high bandgap, type II tunnel junction forms a type II heterojunction; and the n-doped tunnel layer is a n-doped material selected from the group consisting of AlAsSb, AlInAsSb, and AlInPAs; wherein the p-doped tunnel layer has a bandgap of greater than or equal to 1.25 eV and the n-doped tunnel layer has a bandgap of greater than or equal to 1.35 eV; and wherein the p-doped tunnel layer and the n-doped tunnel layer have a doping level between from 1×10 19 /cm 3 to 1×10 20 /cm 3; a p-doped tunnel layer; and a n-doped tunnel layer in contact with the p-doped tunnel layer; wherein the tunnel junction has an InP lattice constant, wherein the p-doped tunnel layer is a p-doped material of AlGaInAs; wherein the high bandgap, type II tunnel junction forms a type II heterojunction; and the n-doped tunnel layer is a n-doped material selected from the group consisting of AlAsSb, AlInAsSb, and AlInPAs; wherein the p-doped tunnel layer has a bandgap of greater than or equal to 1.25 eV and the n-doped tunnel layer has a bandgap of greater than or equal to 1.35 eV; and wherein the p-doped tunnel layer and the n-doped tunnel layer have a doping level between from 1×10 19 /cm 3 to 1×10 20 /cm 3; a first photovoltaic cell disposed on a first side of the type-II tunnel junction; and a second photovoltaic cell disposed on a second side of the type-II tunnel junction.
A resin composition which contains a (meth)acrylic copolymer and a polycarbonate-based resin, wherein: the (meth)acrylic copolymer contains an aromatic (meth)acrylate unit, a methyl (meth)acrylate unit and a (meth)acrylate unit represented by formula below; the mass ratio / is from 5/95 to 99/1; the content of the unit is 0.1 to 10 parts by mass relative to 100 parts by mass of the total of the units and; and the unit is different from the unit: wherein: X represents a halogen atom or a C 1-10 alkyl group; R 1 represents a C 1-10 alkyl group; R 2 represents a single bond, a C 1-10 alkylene group, a C 1-10 oxyalkylene group or a C 1-10 hydroxyoxyalkylene group; R 3 represents a hydrogen atom or a methyl group; a represents an integer of 0 to 3; and b represents an integer of 0 to 4. X represents a halogen atom or a C 1-10 alkyl group; R 1 represents a C 1-10 alkyl group; R 2 represents a single bond, a C 1-10 alkylene group, a C 1-10 oxyalkylene group or a C 1-10 hydroxyoxyalkylene group; R 3 represents a hydrogen atom or a methyl group; a represents an integer of 0 to 3; and b represents an integer of 0 to 4.
A folding shutter system comprising: a first leaf to be hingedly connected to a building structure, wherein the first leaf is hingedly connected to a second leaf; an hinge mechanism comprising a tubular body longitudinally arranged between the two leaves, wherein the two leaves are rotatably displaceable relative to each other about a longitudinal axis of the tubular body, such that at least a folded position and an expanded position of the leaves are defined; wherein the leaves have a cross-sectional outline having a beveled edge (21, 11), the beveled edges being arranged so as to define a cavity for housing at least partially the cross-sectional outline of the tubular body; characterized in that the hinge mechanism is a driving hinge mechanism; wherein the tubular body comprises an actuating module operatively connected to a transmission module, wherein the actuating module and the transmission module are rotatably displaceable relative to each other about the longitudinal axis, and each of the actuating module and the transmission module are respectively joined to the first and second leaves, wherein the actuating module is detachably connected to the first leaf; the tubular body having the transmission module attached to the second leaf and a central portion of the tubular body attached to the first leaf, the central portion and the transmission module being rotatable relative to each other about the longitudinal axis. a first leaf to be hingedly connected to a building structure, wherein the first leaf is hingedly connected to a second leaf; an hinge mechanism comprising a tubular body longitudinally arranged between the two leaves, wherein the two leaves are rotatably displaceable relative to each other about a longitudinal axis of the tubular body, such that at least a folded position and an expanded position of the leaves are defined; wherein the leaves have a cross-sectional outline having a beveled edge (21, 11), the beveled edges being arranged so as to define a cavity for housing at least partially the cross-sectional outline of the tubular body; characterized in that the hinge mechanism is a driving hinge mechanism; wherein the tubular body comprises an actuating module operatively connected to a transmission module, wherein the actuating module and the transmission module are rotatably displaceable relative to each other about the longitudinal axis, and each of the actuating module and the transmission module are respectively joined to the first and second leaves, wherein the actuating module is detachably connected to the first leaf; the tubular body having the transmission module attached to the second leaf and a central portion of the tubular body attached to the first leaf, the central portion and the transmission module being rotatable relative to each other about the longitudinal axis.
Sealing tool for a packaging machine, characterized in that said sealing tool comprises a tool lower part with at least one centrifugal separator (26a, 26b) for separating a particle-laden gas flow.
A method performed by a multi-link device, MLD, operating a plurality of links in a wireless local area network system, the method comprising: receiving a physical layer protocol data unit, PPDU, through a first link among the plurality of links from an access point multi-link device, AP MLD, wherein the PPDU includes a first information field related to a second link distinct from the first link among the plurality of links, and wherein the first information field related to the second link includes a second information field related to a link identifier of the second link and a third information field related to whether all element information for the second link or partial element information for the second link is included in the PPDU, possessed by the AP MLD, and the third information field has a length of one bit; and obtaining the all element information for the second link based on the second information field and the third information field. receiving a physical layer protocol data unit, PPDU, through a first link among the plurality of links from an access point multi-link device, AP MLD, wherein the PPDU includes a first information field related to a second link distinct from the first link among the plurality of links, and wherein the first information field related to the second link includes a second information field related to a link identifier of the second link and a third information field related to whether all element information for the second link or partial element information for the second link is included in the PPDU, possessed by the AP MLD, and the third information field has a length of one bit; and obtaining the all element information for the second link based on the second information field and the third information field.
Use of a peptide consisting of an amino acid sequence or: an amino acid sequence of Ser His Leu Gln Met His Ser Arg Lys (SEQ ID NO:6), an amino acid sequence of SEQ ID NO:6, in which one amino acid is substituted with another amino acid, wherein the peptide consisting of an amino acid sequence of has an ability to bind to an HLA-A *1101 molecule, and has an ability to induce a CTL, for preparing a medicament for the treatment or prevention of a cancer in an HLA-A*1101-positive subject. an amino acid sequence of Ser His Leu Gln Met His Ser Arg Lys (SEQ ID NO:6), an amino acid sequence of SEQ ID NO:6, in which one amino acid is substituted with another amino acid, wherein the peptide consisting of an amino acid sequence of has an ability to bind to an HLA-A *1101 molecule, and has an ability to induce a CTL, for preparing a medicament for the treatment or prevention of a cancer in an HLA-A*1101-positive subject.
A DNA polymerase mutant comprising SEQ ID NO:13 with a mutation at position E189 and optionally at one or more of the following mutations E230K, E76G, E76K, E76A, E90K, D551 N, K206R, Q680R, L552R, H28R, E315K, L30R, L30P, D452N, G504S, G504D, G38R, F73V, H75R, A348V, L351F, A439T, L552R, I553V, D578N, H676R, D732G, E734G, E734K, F749V, E507K, E507A; wherein the polymerase mutant exhibits relative to wild-type DNA polymerase of SEQ ID NO:13, and under the same conditions, increased affinity to DNA substrate and/or increased resistance to a DNA polymerase inhibitor selected from SYBR Green I dye, blood, SDS, guanidinium salts and heparin.
An interference noise-control unit (1, 1', 1"), for installation on a sound arresting wall for reducing noise from trains, comprising: a housing to be secured on a sound arresting wall, wherein the housing comprises a hollow compartment comprising at least one first channel and at least one second channel, wherein said first channel has a first channel height A and a first channel length B, and wherein said second channel has a second channel height A' and a second channel length B', characterized in that said first channel height A is different from said second channel height A', wherein said first channel length B is between 0.08-1.1 m and wherein said second channel length B' is between 0.05-0.8 m, wherein the relationship between said first channel height A and said second channel height A' is in the interval of 1.1-3.0, and preferably 1.5. a housing to be secured on a sound arresting wall, wherein the housing comprises a hollow compartment comprising at least one first channel and at least one second channel, wherein said first channel has a first channel height A and a first channel length B, and wherein said second channel has a second channel height A' and a second channel length B', characterized in that said first channel height A is different from said second channel height A', wherein said first channel length B is between 0.08-1.1 m and wherein said second channel length B' is between 0.05-0.8 m, wherein the relationship between said first channel height A and said second channel height A' is in the interval of 1.1-3.0, and preferably 1.5. characterized in that said first channel height A is different from said second channel height A', wherein said first channel length B is between 0.08-1.1 m and wherein said second channel length B' is between 0.05-0.8 m, wherein the relationship between said first channel height A and said second channel height A' is in the interval of 1.1-3.0, and preferably 1.5.
A sensor for monitoring object, which are subject to a load application, in particular for monitoring structural movements, geological changes, transport cargo movements or the like, with a force transmission element (12, 13), which is connected with the object to be monitored on the one hand and with a trigger element (3, 23) of the sensor on the other hand, and with a sensor element for the detection of the change in position of the trigger element, wherein the trigger element (3, 23) is movably mounted in a not automatically resettable manner, characterized in that a holding element settable in its holding force is provided for generating a holding force as a threshold value for triggering the sensor, wherein the holding element is designed for the realization of a threshold value force as a deformable resistance element with defined predetermined breaking points.
A centrifugal compressor having a vertical axis, a lower inlet with an intake plenum and an upper outlet with a discharge scroll, wherein the centrifugal compressor comprises a plurality of drainage pipes feeding from inside the centrifugal compressor and ending at the intake plenum, characterised in that the compressor is configured to remove the drained liquid accumulated in the intake plenum by the flow of working fluid into and out of the intake plenum
An apparatus, comprising: a passageway storage unit, including a storage compartment, the passageway storage unit configured to be supported on an interior floor of a fuselage of an aircraft, the passageway storage unit having a first side, a curved corner, and a second side configured to define a portion of a passageway in the fuselage; and a compartment door,,, coupled to the passageway storage unit, the compartment door having a curved section defining a portion of the curved corner, the storage compartment to be accessible via an opening extending from the first side to the second side of the passageway storage unit when the compartment door is in a fully open position; wherein the passageway storage unit includes a tray table, movable between an upright position and an in-use position; and wherein the tray table in the upright position covers a cavity, defined by the passageway storage unit, the cavity to be accessible when the tray table is in the in-use position. a passageway storage unit, including a storage compartment, the passageway storage unit configured to be supported on an interior floor of a fuselage of an aircraft, the passageway storage unit having a first side, a curved corner, and a second side configured to define a portion of a passageway in the fuselage; and a compartment door,,, coupled to the passageway storage unit, the compartment door having a curved section defining a portion of the curved corner, the storage compartment to be accessible via an opening extending from the first side to the second side of the passageway storage unit when the compartment door is in a fully open position;