mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a thermal engine operatively connected to drive a propeller; an electric motor operatively connected to the thermal engine to drive the propeller together with the thermal engine; an external input system configured to accept input and output a thrust command for the thermal engine, electric motor, and propeller; a protection function module configured to calculate and output a torque command to enforce limits on the thermal engine, electric motor, and propeller; and a low select module operatively connected to receive input from the external input system and from the protection function module and to output the lower of input from the protection function module and external input system to the thermal engine, the electric motor, and the propeller. a thermal engine operatively connected to drive a propeller; an electric motor operatively connected to the thermal engine to drive the propeller together with the thermal engine; an external input system configured to accept input and output a thrust command for the thermal engine, electric motor, and propeller; a protection function module configured to calculate and output a torque command to enforce limits on the thermal engine, electric motor, and propeller; and a low select module operatively connected to receive input from the external input system and from the protection function module and to output the lower of input from the protection function module and external input system to the thermal engine, the electric motor, and the propeller.
A transportable mineral material processing system, comprising: a screen support frame configured to receive and support a multideck screen that comprises a plurality of stacked screen decks configured to output different size fractions at a discharge end of the screen decks; a dividing hopper comprising a reception configured to receive from the multideck screen, when installed, the output different size fractions and further comprising a chute configured to guide at least one of the different size fractions to a chute output position; and a platform frame configured to movably support the screen support frame so that the screen support frame and the multideck screen are movable between an elevated operating position and to a lowered transport position; characterised in that the chute output position laterally resides outside a lateral footprint bordered by the platform frame; and in that the system further comprises means for moving the chute between a chute transport state and a chute operating state so that at least a portion of a weight of the chute is carried by the dividing hopper in and between these states. a screen support frame configured to receive and support a multideck screen that comprises a plurality of stacked screen decks configured to output different size fractions at a discharge end of the screen decks; a dividing hopper comprising a reception configured to receive from the multideck screen, when installed, the output different size fractions and further comprising a chute configured to guide at least one of the different size fractions to a chute output position; and a platform frame configured to movably support the screen support frame so that the screen support frame and the multideck screen are movable between an elevated operating position and to a lowered transport position; characterised in that the chute output position laterally resides outside a lateral footprint bordered by the platform frame; and in that the system further comprises means for moving the chute between a chute transport state and a chute operating state so that at least a portion of a weight of the chute is carried by the dividing hopper in and between these states.
A process for the preparation of a compound of formula or a salt thereof comprising: a) Preparing a palladium catalyst wherein the palladium catalyst is a mixture comprising a palladium source, a ligand and a base in a suitable solvent; b) Mixing compound of formula: X is I or Cl or Br or trifluoromethanesulfonate, P is a protective group, with 2-vinylpyridine and a solvent; c) Adding the palladium catalyst prepared in step a) to the mixture prepared in step b) to provide compound of formula; d) Deprotecting compound of formula to provide compound of formula or a salt thereof. a) Preparing a palladium catalyst wherein the palladium catalyst is a mixture comprising a palladium source, a ligand and a base in a suitable solvent; b) Mixing compound of formula: X is I or Cl or Br or trifluoromethanesulfonate, P is a protective group, with 2-vinylpyridine and a solvent; c) Adding the palladium catalyst prepared in step a) to the mixture prepared in step b) to provide compound of formula; d) Deprotecting compound of formula to provide compound of formula or a salt thereof.
A pool of expanded human cord blood stem cell samples, wherein the pool comprises two or more different Notch agonist-expanded human cord blood stem cell samples, each different sample in the pool comprising Notch agonist-expanded hematopoietic stem cells or Notch agonist-expanded hematopoietic stem and progenitor cells, and each different sample in the pool being derived from umbilical cord blood and/or placental blood of a different human at birth, for use in a method for treating pancytopenia, neutropenia, or leukopenia in a human patient in need thereof, which method comprises administering the pool, or an aliquot thereof, to the patient, wherein at least one sample in the pool matches the patient at 3 or more of the HLA antigens or alleles typed in the patient and wherein said administering is done without matching the HLA-types of the other samples in the pool to the HLA-type of the patient.
A shoe construction (1200, 1300) comprising: a sole; a woven upper (1202, 1302), the woven upper (1202, 1302) comprising: a) a multi-layer woven portion having a first layer and a second layer forming an internal cavity; b) one or more reinforcement portions on the first layer, the one or more reinforcement portions forming an aperture or respective apertures through the first layer; and a plurality of lockout strands (1214, 1215), the plurality of lockout strands (1214, 1215) extending through the internal cavity of the multi-layer portion and the plurality of lockout strands (1214, 1215) each extending through the first layer proximate a unique aperture, or one or more of the lockout strands (1214, 1215) sharing a common aperture of the reinforcement portions, wherein the plurality of lockout strands form a lacing mechanism proximate a forefoot opening of the woven upper (1202, 1302).
Folding rule, comprising at least three links (1.1, 1.2, 1.3) that are pivotably fastened to each other, characterized in that at least one of the links (1.1, 1.2, 1.3) has at least one scale for measuring the diameter of objects, which scale is designed in such a way that, when the object is completely enclosed by three adjacent links (1.1, 1.2, 1.3), with inner sides of the three links (1.1, 1.2, 1.3) each bearing on the object, a predefined area of one of the links (1.1, 1.2, 1.3) bears on the scale and a respective contact point on the scale indicates the diameter of the object.
A composite tank comprising: a tank body inside which a combustible material is to be stored, the tank body having a first resin portion (11;12;13;15) formed from a fiber reinforced resin, and a metal portion formed from a metal material, a second resin portion which covers at least those regions on an inner surface of the tank body where the first resin portion adjoins the metal portion, and a plurality of conductive portions that enable charge transfer through the second resin portion, from a surface that contacts the combustible material, when the same is stored in the tank body, through to the first resin portion (11;12;13;15), characterized in that the second resin portion is formed from a fiber reinforced resin, fiber incorporated within the second resin portion has a higher electrical resistivity than fiber incorporated within the first resin portion (11;12;13;15), and the second resin portion forms a layer that isolates the first resin portion (11;12;13;15) from the metal portion, and the conductive portions are portions from which the fibers have been removed, which are formed solely from the resin, and which penetrate from the surface that contacts the combustible material through to the first resin portion (11;12;13;15). a tank body inside which a combustible material is to be stored, the tank body having a first resin portion (11;12;13;15) formed from a fiber reinforced resin, and a metal portion formed from a metal material, a second resin portion which covers at least those regions on an inner surface of the tank body where the first resin portion adjoins the metal portion, and a plurality of conductive portions that enable charge transfer through the second resin portion, from a surface that contacts the combustible material, when the same is stored in the tank body, through to the first resin portion (11;12;13;15), characterized in that the second resin portion is formed from a fiber reinforced resin, fiber incorporated within the second resin portion has a higher electrical resistivity than fiber incorporated within the first resin portion (11;12;13;15), and the second resin portion forms a layer that isolates the first resin portion (11;12;13;15) from the metal portion, and the conductive portions are portions from which the fibers have been removed, which are formed solely from the resin, and which penetrate from the surface that contacts the combustible material through to the first resin portion (11;12;13;15).
A security element for security papers, value documents or the like, having - a carrier that is at least partly transparent or translucent, - a first printed image placed onto the carrier, - a second printed image that is placed onto the carrier and arranged at a predetermined distance below the first printed image, wherein - the first printed image is formed by a line screen and the second printed image is formed by a line screen, wherein at least one of the two line screens (5, 6) is modulated on one side, wherein - the two line screens (5, 6) are oriented parallel to each other and - the printed images and their line screens (5, 6) are so mutually coordinated that in transmission the line screens (5, 6) complement each other differently in dependence on the viewing angle, characterized in that the modulation is provided only on one edge of the lines and the opposite edge is smooth. - a carrier that is at least partly transparent or translucent, - a first printed image placed onto the carrier, - a second printed image that is placed onto the carrier and arranged at a predetermined distance below the first printed image, wherein - the first printed image is formed by a line screen and the second printed image is formed by a line screen, wherein at least one of the two line screens (5, 6) is modulated on one side, wherein - the two line screens (5, 6) are oriented parallel to each other and - the printed images and their line screens (5, 6) are so mutually coordinated that in transmission the line screens (5, 6) complement each other differently in dependence on the viewing angle,
A compacted pharmaceutical preparation, comprising coated particles obtained by applying a film of an enteric-soluble polymer to core particles containing an acidic drug, a gastric-soluble polymer, a water-insoluble polymer, and a water-soluble polymer, wherein the acidic drug is ibuprofen, and wherein the gastric-soluble polymer is polyvinyl acetal diethylamino acetate. wherein the acidic drug is ibuprofen, and wherein the gastric-soluble polymer is polyvinyl acetal diethylamino acetate.
A ball game, which comprises a track that is inclined at least in the operating state, said track being delimited on all sides by a start device for the inlet of a ball into the track, by a goal device for catching a ball from the track, and by boundary walls, characterized in that a plurality of identical tracks, which comprise components (5, 8, 18) for deflecting a ball, are arranged separately from one another in an adjacent or superposed manner on a base body or a base plate, wherein a timekeeping system is provided for each track, by means of which the runtime can be measured by means of at least one sensor which a ball requires for running through a predetermined section of a track between the start device and the goal device.
A particle identification sensor (300, 400) for sensing particles, the sensor comprising: a first flow path (311a, 311b, 411) through which an electrolytic solution containing particles can pass, the first flow path (311a, 311b, 411) being formed in a first layer; and a first electrode (312a, 312b, 412) disposed in the first flow path (311a, 311b, 411); characterized in that: the particle identification sensor (300, 400) further comprises: a plurality of second flow paths (321a, 321b, 421) through which the electrolytic solution can pass, the second flow paths (321a, 321b, 421) being each independently formed in a second layer; a plurality of through holes (330a, 330b, 330c, 330d, 430) each connecting the first flow path (311a, 311b, 411) to one of the plurality of second flow paths (321a, 321b, 421); and a plurality of second electrodes (322a, 322b, 422) disposed in the second flow paths (321a, 321b, 421); and the particle identification sensor (300, 400) is configured to identify the particles by measuring a time change of an ion current generated when the particles pass through the through holes (330a, 330b, 330c, 330d, 430). a first flow path (311a, 311b, 411) through which an electrolytic solution containing particles can pass, the first flow path (311a, 311b, 411) being formed in a first layer; and a first electrode (312a, 312b, 412) disposed in the first flow path (311a, 311b, 411); the particle identification sensor (300, 400) further comprises: a plurality of second flow paths (321a, 321b, 421) through which the electrolytic solution can pass, the second flow paths (321a, 321b, 421) being each independently formed in a second layer; a plurality of through holes (330a, 330b, 330c, 330d, 430) each connecting the first flow path (311a, 311b, 411) to one of the plurality of second flow paths (321a, 321b, 421); and a plurality of second electrodes (322a, 322b, 422) disposed in the second flow paths (321a, 321b, 421); and a plurality of second flow paths (321a, 321b, 421) through which the electrolytic solution can pass, the second flow paths (321a, 321b, 421) being each independently formed in a second layer; a plurality of through holes (330a, 330b, 330c, 330d, 430) each connecting the first flow path (311a, 311b, 411) to one of the plurality of second flow paths (321a, 321b, 421); and a plurality of second electrodes (322a, 322b, 422) disposed in the second flow paths (321a, 321b, 421); and the particle identification sensor (300, 400) is configured to identify the particles by measuring a time change of an ion current generated when the particles pass through the through holes (330a, 330b, 330c, 330d, 430).
A refrigerating apparatus comprising: a rotary type compressor that compresses a refrigerant; a first heat exchanger that causes the refrigerant of a high temperature and a high pressure that has been compressed by the compressor to exchange heat with a first fluid; an expansion mechanism that reduces the pressure of the refrigerant that has been condensed inside the first heat exchanger; and a second heat exchanger that causes the refrigerant whose pressure has been reduced by the expansion mechanism to exchange heat with a second fluid; characterized in that the refrigerating apparatus further comprises a muffler that is disposed between the second heat exchanger and the compressor, is connected with a suction side of the compressor, and reduces the pulsation of the flow of the refrigerant, wherein the muffler does not include a refrigerant liquid accumulating function. a rotary type compressor that compresses a refrigerant; a first heat exchanger that causes the refrigerant of a high temperature and a high pressure that has been compressed by the compressor to exchange heat with a first fluid; an expansion mechanism that reduces the pressure of the refrigerant that has been condensed inside the first heat exchanger; and a second heat exchanger that causes the refrigerant whose pressure has been reduced by the expansion mechanism to exchange heat with a second fluid; a muffler that is disposed between the second heat exchanger and the compressor, is connected with a suction side of the compressor, and reduces the pulsation of the flow of the refrigerant, wherein the muffler does not include a refrigerant liquid accumulating function.
A method for averaging satellite sigmas and readmitting an excluded satellite measurement in the presence of radio frequency interference, the method comprising: receiving via a plurality of reference receivers a plurality of satellite navigation signals from a plurality of navigation satellites, wherein each reference receiver in the plurality of reference receivers compute a plurality of satellite measurement sigmas; calculating from each of the a plurality of satellite measurement sigmas a first RFI based averaged sigma and a second RFI based averaged sigma, wherein the first RFI based averaged sigma is calculated by including satellite measurement sigmas for each of the plurality of reference receivers including the excluded satellite measurement and wherein the second RFI based averaged sigma is calculated by including satellite measurement sigmas for each of the plurality of reference receivers without including the sigma for the excluded satellite measurement; and readmitting the excluded satellite measurement into either a differential correction broadcast or a respective integrity monitor when the first RFI based averaged sigma is less than or equal to the second RFI based averaged sigma. receiving via a plurality of reference receivers a plurality of satellite navigation signals from a plurality of navigation satellites, wherein each reference receiver in the plurality of reference receivers compute a plurality of satellite measurement sigmas; calculating from each of the a plurality of satellite measurement sigmas a first RFI based averaged sigma and a second RFI based averaged sigma, wherein the first RFI based averaged sigma is calculated by including satellite measurement sigmas for each of the plurality of reference receivers including the excluded satellite measurement and wherein the second RFI based averaged sigma is calculated by including satellite measurement sigmas for each of the plurality of reference receivers without including the sigma for the excluded satellite measurement; and readmitting the excluded satellite measurement into either a differential correction broadcast or a respective integrity monitor when the first RFI based averaged sigma is less than or equal to the second RFI based averaged sigma.
An endoscope for examining an internal body cavity of a patient, comprising: a shaft having a proximal end, a distal end, and one or more lumens therein; an articulation joint at the distal end of the shaft for allowing the distal end of the shaft to be selectively oriented; a plurality of control cables configured to be tensioned to pull the articulation joint in a desired direction; and a connector at the proximal end of the shaft for removably connecting the endoscope to a fluid source, the connector including a manifold configured to direct an irrigation fluid to be selectively delivered to one or more lumens in the shaft; characterised in that the manifold includes a flexible bag having a number of passages therein through which the irrigation fluid can flow. a shaft having a proximal end, a distal end, and one or more lumens therein; an articulation joint at the distal end of the shaft for allowing the distal end of the shaft to be selectively oriented; a plurality of control cables configured to be tensioned to pull the articulation joint in a desired direction; and a connector at the proximal end of the shaft for removably connecting the endoscope to a fluid source, the connector including a manifold configured to direct an irrigation fluid to be selectively delivered to one or more lumens in the shaft; characterised in that the manifold includes a flexible bag having a number of passages therein through which the irrigation fluid can flow.
Device for fixing a bracelet to a watch case, the device comprising, on the one hand at least one horn, and on the other hand a bracelet strand, the horn and the bracelet strand being held together by way of a bar, the horn comprising a rigid blade arranged to fit together with at least one recess made in the bracelet strand, said at least one recess having an opening for receiving said blade during the placement of the bracelet strand so as to form a rigid link, the horn comprising a passage through which said bar passes in order to hold the bracelet strand on the watch case, characterised in that the bracelet strand comprises a rigid insert, said insert comprising said recess for receiving said blade.
Method for digitally demodulating an entry modulated optical signal, said entry optical signal being received at a coherent optical receiver of a node of an optical communication network, said coherent optical receiver being adapted to select and apply a digital demodulation processing setup among at least two distinct digital demodulation processing setups, said coherent optical receiver comprising a correction decoder including a plurality of decoding modules, said method comprising: • a step of selection of a chromatic dispersion compensation algorithm setup among at least two distinct chromatic dispersion compensation algorithm setups, based on a value of at least one predetermined parameter (20; 46, 48) received by the coherent optical receiver, • a step of compensating chromatic dispersion of the entry optical signal, based on said selected algorithm setup, • a step of processing the compensated signal, said processing being based on the selected digital demodulation processing setup, • a step of inhibiting none or some of the decoding modules, based at least on said value of said predetermined parameter (20; 46, 48), • a step of decoding the processed signal, said decoding step being performed by the non-inhibited decoding modules. • a step of selection of a chromatic dispersion compensation algorithm setup among at least two distinct chromatic dispersion compensation algorithm setups, based on a value of at least one predetermined parameter (20; 46, 48) received by the coherent optical receiver, • a step of compensating chromatic dispersion of the entry optical signal, based on said selected algorithm setup, • a step of processing the compensated signal, said processing being based on the selected digital demodulation processing setup, • a step of inhibiting none or some of the decoding modules, based at least on said value of said predetermined parameter (20; 46, 48), • a step of decoding the processed signal, said decoding step being performed by the non-inhibited decoding modules.