mhurhangee/ep-ind-claims huggingface dataset:
A bearing device comprising: a rotating shaft; a journal bearing (21, 22) which is provided on the rotating shaft to rotatably support the rotating shaft; a disk member (24a, 17b) which is provided on the rotating shaft and has a facing portion (24aa, 17bb) which is disposed so as to face a side surface portion (21d, 22d) of the journal bearing (21, 22) with a gap therebetween in an axial direction in which the rotating shaft extends; and a recessed portion (22f, 22g) which is provided in the side surface portion (21d, 22d), wherein in a projected area of the journal bearing (21, 22) in the axial direction, an area of a portion which includes the recessed portion (22f, 22g) and does not form the gap is larger than an area which forms the gap by the side surface portion (21d, 22d) and the facing portion (24aa, 17bb), wherein the recessed portion (22f, 22g) is formed by a notch which is continuously provided on a radially inner edge of the journal bearing (21, 22) in the side surface portion (21d, 22d) in a circumferential direction characterized in that the recessed portion (22f, 22g) is formed by a further groove which is continuously provided in the side surface portion (21d, 22d) in a circumferential direction. a rotating shaft; a journal bearing (21, 22) which is provided on the rotating shaft to rotatably support the rotating shaft; a disk member (24a, 17b) which is provided on the rotating shaft and has a facing portion (24aa, 17bb) which is disposed so as to face a side surface portion (21d, 22d) of the journal bearing (21, 22) with a gap therebetween in an axial direction in which the rotating shaft extends; and a recessed portion (22f, 22g) which is provided in the side surface portion (21d, 22d), wherein in a projected area of the journal bearing (21, 22) in the axial direction, an area of a portion which includes the recessed portion (22f, 22g) and does not form the gap is larger than an area which forms the gap by the side surface portion (21d, 22d) and the facing portion (24aa, 17bb), wherein the recessed portion (22f, 22g) is formed by a notch which is continuously provided on a radially inner edge of the journal bearing (21, 22) in the side surface portion (21d, 22d) in a circumferential direction characterized in that the recessed portion (22f, 22g) is formed by a further groove which is continuously provided in the side surface portion (21d, 22d) in a circumferential direction.
Electrode suitable for use as cathode in electrolytic processes comprising a metal substrate equipped with a catalytic coating, said catalytic coating comprising a platinum-containing internal layer directly contacting the substrate, at least one intermediate layer consisting of an oxide mixture containing 40-60% by weight of rhodium referred to the elements, an external layer of ruthenium oxide.
A composition comprising (i) an alkoxylated amide having a structure: R 1 -C(=O)-N-[CH 2 CH 2 -O-CHR 2 -CHR 3 OH][CH 2 CH 2 OH], and (ii) an alkoxylated ester having a structure: R 1 -C(=O)-O-CH 2 CH 2 N-[CH 2 -CH 2 O-(CHR 2 CHR 3 -O) q -H][(CHR 2 CHR 3 -O) p -H], wherein R 1 -C(=O) is derived from coconut oil; CHR 2 -CHR 3 O, independently, is p+q is 0 to 3, and wherein the alkoxylated ester is present in the composition in an amount of up to 30 weight parts per 100 weight parts of the total alkoxylated amide and alkoxylated ester. (i) an alkoxylated amide having a structure: R 1 -C(=O)-N-[CH 2 CH 2 -O-CHR 2 -CHR 3 OH][CH 2 CH 2 OH], and (ii) an alkoxylated ester having a structure: R 1 -C(=O)-O-CH 2 CH 2 N-[CH 2 -CH 2 O-(CHR 2 CHR 3 -O) q -H][(CHR 2 CHR 3 -O) p -H], wherein R 1 -C(=O) is derived from coconut oil; CHR 2 -CHR 3 O, independently, is p+q is 0 to 3, and R 1 -C(=O) is derived from coconut oil; CHR 2 -CHR 3 O, independently, is p+q is 0 to 3, and
A chemically or electrochemically pre-lithiated cathode for use in an electrochemical cell comprising: a cathode active material wherein the cathode active material comprises the chemical formula: Li 1+a M x O y and is obtained by chemical or electrochemical pre-lithiation of a lithium containing as-synthesized active material prior to assembly into an electrochemical cell, where 0 < a ≤ 1, 0 < x, 2 ≤ y ≤ 6, and M is one or more elements selected from the group consisting of one or more transition metals, Al, B, Mg, and combinations thereof.
A method of printing an image from a print chip having a plurality of horizontal nozzle rows extending parallel with a longitudinal axis of the print chip, each nozzle row having a main row portion and a corresponding dropped row portion that does not overlap with the main row portion, wherein the corresponding dropped row portion of each nozzle row is vertically offset from the main row portion and horizontally positioned to maintain a constant horizontal dot pitch along the nozzle row, the method comprising the steps of: allocating first dot data for an image line of the image to nozzles in a main row portion of one nozzle row; allocating second dot data for the image line to nozzles in a dropped row portion of one nozzle row; sending the first dot data to the print chip and firing droplets, based on the first dot data, from nozzles in the main row portion; sending the second dot data to the print chip and firing droplets, based on the second dot data, from nozzles in the corresponding dropped row portion, characterized in that: the print chip is a monochrome print chip having all nozzle rows supplied with a same color ink; one or more bits of the first dot data correspond to pixels of the image line aligned with the dropped row portion; and one or more bits of the second dot data correspond to pixels of the image line aligned with the main row portion. allocating first dot data for an image line of the image to nozzles in a main row portion of one nozzle row; allocating second dot data for the image line to nozzles in a dropped row portion of one nozzle row; sending the first dot data to the print chip and firing droplets, based on the first dot data, from nozzles in the main row portion; sending the second dot data to the print chip and firing droplets, based on the second dot data, from nozzles in the corresponding dropped row portion, characterized in that: the print chip is a monochrome print chip having all nozzle rows supplied with a same color ink; one or more bits of the first dot data correspond to pixels of the image line aligned with the dropped row portion; and one or more bits of the second dot data correspond to pixels of the image line aligned with the main row portion. the print chip is a monochrome print chip having all nozzle rows supplied with a same color ink; one or more bits of the first dot data correspond to pixels of the image line aligned with the dropped row portion; and one or more bits of the second dot data correspond to pixels of the image line aligned with the main row portion.
Rotary actuator for a vehicle for controlling one or more vehicle components, comprising a handle for operating the rotary actuator (1, 1.1) and components required for generating a control signal, the rotary actuator (1, 1.1) being of modular design and comprising a base module (2, 2.1) and an operating module (3, 3.1) which is independent of the base module (2, 2.1) but can be connected thereto and can also be operated in this position, which operating module (3, 3.1) has an electrical energy store and components required for generating a control signal, characterized in that the operating module (3, 3.1) forms the handle of the rotary actuator (1, 1.1) and has sensors for detecting a rotary movement of the operating module (3, 3.1) in space.
A pharmaceutical composition comprising a therapeutically effective amount of fludrocortisone, fludrocortisone acetate or fludrocortisone acetonide for use in the treatment of geographic atrophy.
Household dishwasher with a dishwasher cavity, in the treatment chamber of which at least one loading unit (UK, OK) for holding items to be washed is accommodated, and with at least one washing apparatus (US, OS) for applying washing liquid to the treatment chamber, wherein one or more fan wheels (LR1 - LR4) that can be driven in a rotating manner are provided in the treatment chamber above the loading unit, in particular an upper rack, wherein the respective fan wheel (LR1 - LR4) is driven in a rotating manner in at least one blow-off operating phase such that it draws in air from the treatment chamber, accelerates it and moves it forward and downward as an air flow (LS1 - LS4) in the treatment chamber, said air flow (LS1 - LS4) striking a large blow-off region (Q1 - Q4) at the top of the loading unit arranged below the fan wheel (LR1 - LR4) and largely blowing off quantities of liquid present on the tops of items being washed that are supported there, and wherein the respective fan wheel (LR1 - LR4) is driven in a rotating manner in the respective blow-off operating phase by an electric drive motor (AM1 - AM4) assigned to it such that the air flow (LS1 - LS4) generated by it strikes the large blow-off region (Q1 to Q4) assigned to the fan wheel (LR1 - LR4) at the top of the loading unit arranged below the fan wheel (LR1 - LR4) with an advance speed of at least 5 m/s, in particular between 8 m/sec and 20 m/sec, preferably between 9 m/s and 15 m/s.
A method of providing visual feedback to a subject undergoing physical therapy or vestibular movement comprising: providing a visual and/or auditory notification to the subject for moving in a predetermined direction by a predetermined amount as part of a first predetermined movement; tracking movement of the subject using a first inertia measurement unit 'IMU' mounted in a first hearing assistance device and disposed in a fixed position relative to the subject's head; generating feedback data by comparing the tracked movement of the subject against the predetermined direction and amount of the first predetermined movement; and generating a feedback image using the feedback data. providing a visual and/or auditory notification to the subject for moving in a predetermined direction by a predetermined amount as part of a first predetermined movement; tracking movement of the subject using a first inertia measurement unit 'IMU' mounted in a first hearing assistance device and disposed in a fixed position relative to the subject's head; generating feedback data by comparing the tracked movement of the subject against the predetermined direction and amount of the first predetermined movement; and generating a feedback image using the feedback data.
An apparatus for generating broadcast signal frame, comprising: an injection level controller configured to generate a power-reduced enhanced layer signal by reducing power of an enhanced layer signal; a combiner configured to generate a multiplexed signal by combining a core layer signal and the power-reduced enhanced layer signal, the combiner being separated from a modulator corresponding to the core layer signal and the enhanced layer signal; a power normalizer configured to reduce power of the multiplexed signal to a power level corresponding to the core layer signal and correspond to a normalizing factor which is applied to both the core layer signal and the power reduced enhanced layer signal; a time interleaver configured to generate a time-interleaved signal by performing interleaving that is applied to both the core layer signal and the enhanced layer signal after combining the core layer signal and the enhanced layer signal; and a frame builder configured to generate a broadcast signal frame including a preamble for signaling time interleaver information corresponding to the time interleaver, wherein the time interleaver uses time interleaver groups, and a boundary between the time interleaver groups is a boundary between Physical Layer Pipes, PLPs, of a core layer corresponding to the core layer signal, wherein the time interleaver is shared for both the core layer signal and the enhanced layer signal. an injection level controller configured to generate a power-reduced enhanced layer signal by reducing power of an enhanced layer signal; a combiner configured to generate a multiplexed signal by combining a core layer signal and the power-reduced enhanced layer signal, the combiner being separated from a modulator corresponding to the core layer signal and the enhanced layer signal; a power normalizer configured to reduce power of the multiplexed signal to a power level corresponding to the core layer signal and correspond to a normalizing factor which is applied to both the core layer signal and the power reduced enhanced layer signal; a time interleaver configured to generate a time-interleaved signal by performing interleaving that is applied to both the core layer signal and the enhanced layer signal after combining the core layer signal and the enhanced layer signal; and a frame builder configured to generate a broadcast signal frame including a preamble for signaling time interleaver information corresponding to the time interleaver, wherein the time interleaver uses time interleaver groups, and a boundary between the time interleaver groups is a boundary between Physical Layer Pipes, PLPs, of a core layer corresponding to the core layer signal, wherein the time interleaver is shared for both the core layer signal and the enhanced layer signal.
A damper device comprising: a cylinder body; and a piston body, wherein at least one of the cylinder body or the piston body is adapted to attach to a damping object to damp a movement or a relative movement of the damping object, the cylinder body is partitioned by a partition into a first chamber that is divided from an outside by a cap body and a second chamber accommodating the piston body, a flow channel communicating the first chamber and the second chamber with each other is formed in the partition, and a shaft is projected from the partition toward a first chamber side, characterized in that the cap body includes a through-hole, and the shaft is inserted movably in the through-hole from a reference position along an axis line (x) of the cylinder body, and a throttle structure is provided to change a gap (y) between the through-hole and the shaft when the cap body moves from the reference position by a pressure change generated by a movement or a relative movement of the piston body. a cylinder body; and a piston body, wherein at least one of the cylinder body or the piston body is adapted to attach to a damping object to damp a movement or a relative movement of the damping object, the cylinder body is partitioned by a partition into a first chamber that is divided from an outside by a cap body and a second chamber accommodating the piston body, a flow channel communicating the first chamber and the second chamber with each other is formed in the partition, and a shaft is projected from the partition toward a first chamber side, characterized in that the cap body includes a through-hole, and the shaft is inserted movably in the through-hole from a reference position along an axis line (x) of the cylinder body, and a throttle structure is provided to change a gap (y) between the through-hole and the shaft when the cap body moves from the reference position by a pressure change generated by a movement or a relative movement of the piston body.
Method for determining the wear state of a track, in particular the frog and the tongue of a switch, comprising sensors (4, 5) which are arranged on a measuring carriage, which can be moved along the track to be surveyed, for surveying the track, characterised in that by means of at least one PMD sensor directed towards a track to be surveyed, measurement data are recorded and evaluated and stored in a computer storage unit, wherein the continuous rail serves as a reference and the PMD sensor can be displaced on the measuring carriage transversely with respect to the undercarriage longitudinal axis along a linear guide and both the respective position of the PMD sensor on the measuring carriage and the distance travelled by the measuring carriage on the track are measured and supplied to the computer storage unit, and in that the wear state is determined from a comparison of the 3D model of the actual state of the track with a desired 3D model of the track.
A holding device for containers including a filling tube or neck, said holding device including a supporting surface including a front face defining a front face of the holding device, wherein the front face of the supporting surface includes at least one gripping member for holding at least one filling tube or neck of a container intended to be held by said device in a position parallel to said supporting surface, and at least one hooking element for attaching said holding device to, or suspending said holding device from, another support, the holding device being characterized in that it includes a temporary fastener for the opening of the at least one filling tube or neck intended to be held by said holding device.
A blood purification device comprising a porous molded body that includes an inorganic ion adsorbent, wherein the concentrations of Mg, Al, Ti, V, Cr, Mn, Fe, Ni, Cu, Zn, Ga, Rb, Sr, Y, Zr, Mo, Ru, Ag, Cd, Sn, Cs, La, Pr, Sm, Gd, Tb, Ta, Au, Tl, Co, In and Bi are all 0.1 ppb or lower and the concentrations of Ba, Nd, Pb and Ce are all 1 ppb or lower, in physiological saline for injection in the blood purification device at 3 months and 6 months after opening the physiological saline for injection, while the number of microparticles with sizes of 10 μm or greater is no more than 25 and the number of microparticles with sizes of 25 μm or greater is no more than 3, in 1 mL of the physiological saline for injection at 3 months and 6 months after the same physiological saline for injection has been encapsulated in the blood purification device; wherein the porous molded body is in the form of spherical particles with a mean particle size of 100 to 2500 μm and is composed of a porous molded body-forming polymer, a hydrophilic polymer and an inorganic ion adsorbent, the porous molded body-forming polymer is an aromatic polysulfone, the hydrophilic polymer is a biocompatible polymer which is a polyvinylpyrrolidone -based polymer, the inorganic ion adsorbent contains at least one metal oxide represented by the following formula: MN x O n ·mH 2 O {where x is 0 to 3, n is 1 to 4, m is 0 to 6, and M and N are metal elements selected from the group consisting of Ti, Zr, Sn, Sc, Y, La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu, Al, Si, Cr, Co, Ga, Fe, Mn, Ni, V, Ge, Nb and Ta, and are different from each other}; and characterised in that: when the blood purification device is produced the porous molded body is washed with a supercritical fluid or subcritical fluid; and the porous molded body is coated with a biocompatible polymer selected from the group consisting of polyvinylpyrrolidone -based polymers and polymethoxyethyl acrylate (PMEA). the porous molded body is in the form of spherical particles with a mean particle size of 100 to 2500 μm and is composed of a porous molded body-forming polymer, a hydrophilic polymer and an inorganic ion adsorbent, the porous molded body-forming polymer is an aromatic polysulfone, the hydrophilic polymer is a biocompatible polymer which is a polyvinylpyrrolidone -based polymer, the inorganic ion adsorbent contains at least one metal oxide represented by the following formula: MN x O n ·mH 2 O when the blood purification device is produced the porous molded body is washed with a supercritical fluid or subcritical fluid; and the porous molded body is coated with a biocompatible polymer selected from the group consisting of polyvinylpyrrolidone -based polymers and polymethoxyethyl acrylate (PMEA).
Arrangement for producing concrete structural parts using liquid concrete, with a formwork, which is delimited by at least one vertically oriented formwork wall, and with a device comprising a liquid concrete pump and intended for introducing liquid concrete into the formwork, characterized in that a conveying line connected on the inlet side to the liquid concrete pump is arranged on the outer side of the formwork wall and has at least two horizontal sections (48', 48") which are arranged above one another and connected to one another via a connection line, in that at least one control fitting is arranged in each of the horizontal sections and has an inlet port, an outlet port and a through-port, in that each control fitting is coupled by way of its inlet port and its through-port into the associated horizontal section (48', 48") and opens by way of its outlet port through an opening in the formwork wall into the formwork, in that the outlet port communicates with the inlet port in an open position of a control member arranged in the interior of the control fitting and is shut off with respect to the inlet port in a closed position of the control member, and in that the through-port communicates with the inlet port both in the open position and in the closed position of the control member.
A solid oxide fuel cell system for generating electricity by steam reforming fuel and reacting the resulting hydrogen with oxidant gas, comprising: a fuel cell module including a fuel cell stack; a fuel supply apparatus that supplies fuel to the fuel cell module; a water supply apparatus that supplies water for steam reforming to the fuel cell module; an oxidant gas supply apparatus that supplies oxidant gas to an oxidant gas electrode side of the fuel cell stack; a reformer disposed inside the fuel cell module that performs steam reforming of fuel supplied from the fuel supply apparatus using water supplied from the water supply apparatus; a fuel/exhaust gas passageway that guides fuel/exhaust gas from the fuel supply apparatus through the reformer and fuel electrodes on fuel cell units constituting the fuel cell stack, to outside the fuel cell module; and a controller programmed to control the fuel supply apparatus, the water supply apparatus, the oxidant gas supply apparatus, and the extraction of power from the fuel cell module; wherein the controller comprises a shutdown stop circuit that executes a shutdown stop to stop the supply of fuel and the generation of electricity; and wherein the fuel/exhaust gas passageway functions as mechanical pressure retention means, maintaining a pressure on the oxidant gas electrode side within the fuel cell module higher than atmospheric pressure, and maintaining a pressure on the fuel electrode side at a pressure higher than the pressure on the oxidant gas electrode side, after the shutdown stop circuit executes the shutdown stop, until a temperature of the fuel electrodes drop to a predetermined oxidation suppression temperature at which the risk of fuel electrode oxidation is diminished. a fuel cell module including a fuel cell stack; a fuel supply apparatus that supplies fuel to the fuel cell module; a water supply apparatus that supplies water for steam reforming to the fuel cell module; an oxidant gas supply apparatus that supplies oxidant gas to an oxidant gas electrode side of the fuel cell stack; a reformer disposed inside the fuel cell module that performs steam reforming of fuel supplied from the fuel supply apparatus using water supplied from the water supply apparatus; a fuel/exhaust gas passageway that guides fuel/exhaust gas from the fuel supply apparatus through the reformer and fuel electrodes on fuel cell units constituting the fuel cell stack, to outside the fuel cell module; and a controller programmed to control the fuel supply apparatus, the water supply apparatus, the oxidant gas supply apparatus, and the extraction of power from the fuel cell module;