mhurhangee/ep-ind-claims huggingface dataset:
Component for lifting, lashing or stop technology for outdoor or offshore applications, particularly in the form of shackles, having an opening formed by a base body, which has at least one closable passage, a closing element, by means of which the passage is closed in a closed position, a closure, by means of which the closing element is held rotatably in the closed position with respect to the base body and is secured against opening of the passage, and a safety catch which is automatically activated in the closed position, by means of which the closure is blocked in the closed position and which has a gripping element which can be operated by hand without tools to release the safety catch, characterised in that the closure has closure members (35, 36) which can be brought into engagement with one another in a rotatable manner on the closing element and on a receptacle for the closing element, which receptacle is rotatably held on the base body.
A shaped detergent product comprising 10-100 wt. % of a solid amorphous phase and 0-90 wt. % of one or more other solid phases, said solid amorphous phase comprising: • 25-88 wt. % free acid equivalent of aminopolycarboxylate; • 10-60 wt. % free acid equivalent of an acid, said acid not being an aminopolycarboxylate; • 2-30 wt. % water; wherein the shaped detergent product contains at least 0.5 wt. % surfactant. • 25-88 wt. % free acid equivalent of aminopolycarboxylate; • 10-60 wt. % free acid equivalent of an acid, said acid not being an aminopolycarboxylate; • 2-30 wt. % water;
A seat system for a vehicle, comprising: a seat including a seat bottom on which a person can sit, wherein a first imaginary reference vertical centerline passes through a body of a person who is sitting in the seat when both the seat and the vehicle are in a nominal, level horizontal orientation; an intermediate support structure is secured to the seat and the vehicle which allows the seat to move relative to the vehicle; a first actuator (36, 64, 74, 76) that can interact with the seat to cause the seat to move relative to the vehicle; one or more sensors (44, 52, 56, 66) which can each measure an aspect of motion; and a processor that can (i) receive input from each of the one or more sensors (44, 52, 56, 66), and (ii) utilize the input to determine a desired movement of the seat relative to the vehicle such that a combined motion of the seat relative to the vehicle and the vehicle relative to earth results in motion of the person about a virtual pivot point located substantially along the reference vertical centerline; wherein the processor controls motion of the seat in order to minimize displacement of the virtual pivot point along the reference vertical centreline as the vehicle is rotated, and wherein the virtual pivot point is located about 30-122 cm [1-4 feet] above a surface of the seat bottom on which the person can sit. a seat including a seat bottom on which a person can sit, wherein a first imaginary reference vertical centerline passes through a body of a person who is sitting in the seat when both the seat and the vehicle are in a nominal, level horizontal orientation; an intermediate support structure is secured to the seat and the vehicle which allows the seat to move relative to the vehicle; a first actuator (36, 64, 74, 76) that can interact with the seat to cause the seat to move relative to the vehicle; one or more sensors (44, 52, 56, 66) which can each measure an aspect of motion; and a processor that can (i) receive input from each of the one or more sensors (44, 52, 56, 66), and (ii) utilize the input to determine a desired movement of the seat relative to the vehicle such that a combined motion of the seat relative to the vehicle and the vehicle relative to earth results in motion of the person about a virtual pivot point located substantially along the reference vertical centerline; wherein (i) receive input from each of the one or more sensors (44, 52, 56, 66), and (ii) utilize the input to determine a desired movement of the seat relative to the vehicle such that a combined motion of the seat relative to the vehicle and the vehicle relative to earth results in motion of the person about a virtual pivot point located substantially along the reference vertical centerline; wherein the processor controls motion of the seat in order to minimize displacement of the virtual pivot point along the reference vertical centreline as the vehicle is rotated, and wherein the virtual pivot point is located about 30-122 cm [1-4 feet] above a surface of the seat bottom on which the person can sit.
A toggle comprising a bearer plate, two support plates and a barrel, wherein the bearer plate defines a surface for bearing, in use, against the confronting surface of a support structure, wherein the support plates are secured to the bearer plate and spaced apart, wherein the barrel is pivotally supported between the support plates and is formed with a screw threaded aperture for receiving a connector whereby, in use, the connector may secure the toggle bearer plate against the confronting surface of a support structure, characterised in that at least the bearer plate is formed from mild steel and the bearer plate defines a pair of slots and wherein each support plate comprises a tongue portion which locates in a respective one of the slots in the bearer plate.
A method for preparing a functionalized cis-1,4-polydiene polymer, the method comprising the steps of: (i) preparing a reactive polymer having a cis-1,4-linkage content that is greater than 60% and a reactive chain end by polymerizing conjugated diene monomer with a lanthanide-based catalyst system; and (ii) reacting the reactive chain end of the polymer with a heterocyclic nitrile compound. (i) preparing a reactive polymer having a cis-1,4-linkage content that is greater than 60% and a reactive chain end by polymerizing conjugated diene monomer with a lanthanide-based catalyst system; and (ii) reacting the reactive chain end of the polymer with a heterocyclic nitrile compound.
A method, comprising: receiving a high dynamic range image; generating a tone-mapped image based on the HDR image; generating a luminance ratio image, the luminance ratio image comprising luminance ratio values generated by dividing on an individual pixel basis luminance values of the HDR image with luminance values of the TM image; characterized by dividing the HDR image with the luminance ratio values, thereby creating a re-mapped image; determining residual chroma values based on the re-mapped image and the TM image; generating a log ratio image based on the luminance ratio image; and generating a coded HDR image, the coded HDR image comprising the TM image and HDR reconstruction data, the HDR reconstruction data being derived from the log ratio image and the residual chroma values. receiving a high dynamic range image; generating a tone-mapped image based on the HDR image; generating a luminance ratio image, the luminance ratio image comprising luminance ratio values generated by dividing on an individual pixel basis luminance values of the HDR image with luminance values of the TM image; characterized by dividing the HDR image with the luminance ratio values, thereby creating a re-mapped image; determining residual chroma values based on the re-mapped image and the TM image; generating a log ratio image based on the luminance ratio image; and generating a coded HDR image, the coded HDR image comprising the TM image and HDR reconstruction data, the HDR reconstruction data being derived from the log ratio image and the residual chroma values.
A lighting unit comprising a light source, configured to generate light source light, and a light converter, configured remote of the light source and configured to convert at least part of the light source light into luminescent material light, wherein the light converter comprises (a) a yellow light emitting cerium containing garnet luminescent material, (b) a green light emitting luminescent material, (c) a red light emitting organic luminescent material, and (d) a particulate scattering material.
Device for a vehicle for displaying at least one symbol, the device having the following features: a translucent plastic layer with a non-translucent coating, wherein a symbol face for a symbol to be displayed by the device is cut out from the non-translucent coating, and a non-translucent intermediate component, which is applied to the non-translucent coating outside the symbol face and around the symbol face and forms a light shaft adjoining the symbol face, characterized in that a diffuser element, which is arranged inside the light shaft and spaced apart from the symbol face by a gap and is designed to convert light which is incident on the diffuser element into a diffuse light for illuminating the symbol face, wherein the diffuser element is designed as an element that is produced from material injected into the light shaft onto the symbol face, wherein the material has a characteristic which, when curing the material, results in a durable bond of the material on the intermediate component and, for forming the gap, results in a decreasing bond on the symbol face. a translucent plastic layer with a non-translucent coating, wherein a symbol face for a symbol to be displayed by the device is cut out from the non-translucent coating, and a non-translucent intermediate component, which is applied to the non-translucent coating outside the symbol face and around the symbol face and forms a light shaft adjoining the symbol face, characterized in that a diffuser element, which is arranged inside the light shaft and spaced apart from the symbol face by a gap and is designed to convert light which is incident on the diffuser element into a diffuse light for illuminating the symbol face, wherein the diffuser element is designed as an element that is produced from material injected into the light shaft onto the symbol face, wherein the material has a characteristic which, when curing the material, results in a durable bond of the material on the intermediate component and, for forming the gap, results in a decreasing bond on the symbol face.
An in vitro method for producing NK cells, comprising the steps of: (i) isolating peripheral blood leukocytes and NK cells from human peripheral blood; (ii) stimulating NK cells by carrying out stationary culture for 2-15 days in a medium containing anti-CD3 antibody, cytokine and feeder cells to cause cell-cell contact; (iii) after completion of stationary culture in step (ii), re-stimulating the cells by addition of cytokine, anti-CD3 antibody and feeder cells, and carrying out stationary culture to cause cell-cell contact; (iv) after completion of the stationary culture, adding to the cells a medium containing cytokine required for stationary or suspension culture, and carrying out stationary or suspension culture while maintaining cell concentration and cytokine concentration at constant levels. (i) isolating peripheral blood leukocytes and NK cells from human peripheral blood; (ii) stimulating NK cells by carrying out stationary culture for 2-15 days in a medium containing anti-CD3 antibody, cytokine and feeder cells to cause cell-cell contact; (iii) after completion of stationary culture in step (ii), re-stimulating the cells by addition of cytokine, anti-CD3 antibody and feeder cells, and carrying out stationary culture to cause cell-cell contact; (iv) after completion of the stationary culture, adding to the cells a medium containing cytokine required for stationary or suspension culture, and carrying out stationary or suspension culture while maintaining cell concentration and cytokine concentration at constant levels.
A copper alloy having high strength, high electrical conductivity, and excellent bendability, said copper alloy comprising, in terms of mass %, 0.4 to 4.0 % of Ni; 0.05 to 1.0 % of Si; and, as an element M, 0.005 to 1.0 % of Cr, optionally further comprising, in terms of mass %, one or more of Fe, Mg, Co, and Zr in a total amount of 0.01 to 3.0 %, 0.005 to 3.0 % of Zn, 0.01 to 5.0 % of Sn, and 0.1 % or less Hf, Th, Li, Na, K, Sr, Pd, W, Nb, Al, V, Y, Mo, In, Ga, Ge, As, Sb, Bi, Te, B, C and Mischmetal, with the remainder being copper and inevitable impurities, wherein the atom number ratio M/Si of elements M and Si contained in precipitates having a size of 50 to 200 nm in a microstructure of the copper alloy is from 0.01 to 10 on average, the atom number ratio being measured by a field emission transmission electron microscope with a magnification of 30,000 and an energy dispersive analyzer, wherein the number density of the precipitates having a size of 50 to 200 nm in the microstructure of the copper alloy is from 0.2 to 20 per μm 2 on average, the number density being measured by the field emission transmission electron microscope and the energy dispersive analyzer, wherein the average atom concentration of Cr contained in the precipitates having said size is from 0.1 to 80 at%, and wherein the average grain size represented by (∑x)/n is 30 μm or less, wherein n represents a number of grains and x represents a size of each of the grains, respectively, according to a measurement by a crystal orientation analysis method using a field emission scanning electron microscope and a backscattered electron diffraction image system mounted thereon.
Method for bidirectional IR data transfer between a medical treatment table, in particular an operating table (10a to 10d), and an operating device (12a to 12d) which are subscribers to the IR data transfer and each comprise an IR transmitter (16, 22) and an IR receiver (18, 24), characterised in that the data to be transferred by a subscriber (10a to 10d, 12a to 12d) are split into data blocks which are transmitted in succession, wherein a respective pause is observed between the transmission of the individual data blocks, and wherein data from another subscriber (10a to 10d, 12a to 12d) are transmitted within the pauses, and in that the subscribers (10a to 10d, 12a to 12d) receive their transmitted IR signal themselves, examine this and in the event that the signal has been disturbed re-transmit the associated data.
An oxide-dispersion-strengthened platinum material, wherein said platinum material has a structure comprising platinum layers and oxide-dispersion-strengthened platinum layers, the oxide-dispersion-strengthened platinum layers comprising an additive metal for oxide-dispersion strengthening or a metal oxide thereof, the platinum layers and the oxide-dispersion-strengthened platinum layers being alternately laminated in six pairs or more.
Hair weft with hair pieces and three pads, whereby the three pads are made either of fabric or rubber and have two faces, the one face of the two faces carrying button bases to attach the pad with at least one hair piece and the other face of the two faces having clips and whereby at least one pad has button bases to attach the pad to at least two hair pieces.
Assembly for holding and supporting a plug-in card in a housing, wherein an edge of the plug-in card engages into a plug-in card guide disposed in the housing or, by means of a plug-in connector of the plug-in card, into a plug-in connector corresponding thereto disposed in the housing, wherein a retaining arm can be inserted into a second edge, which is opposite this first edge, of the plug-in card and wherein a releasable clamping unit is disposed in a guide disposed in the housing for displacing the retaining arm in the direction of the plug-in card guide or the plug-in connector, characterised in that the clamping unit comprises two parts (9, 10) which are connected via spreader arms and can be displaced with respect to one another, and that the spreader arms clamp the clamping unit in the guide.
Lighter-than-air aircraft comprising deballasting means, the deballasting means comprising: - at least one tank containing a liquid, - a system for pressurizing (4, 5, 6) the liquid of the at least one tank, - at least one sprayer, arranged in order to expel the liquid originating from the pressurization system characterized in that each sprayer is equipped with a direction adjuster arranged in order to adjust a direction of spraying of the liquid expelled by this sprayer. - at least one tank containing a liquid, - a system for pressurizing (4, 5, 6) the liquid of the at least one tank, - at least one sprayer, arranged in order to expel the liquid originating from the pressurization system
Adapter device (20; 20a; 20b; 20c; 20d) for fastening a wear sensor to a brake lever having an integrated adjustment function of a vehicle brake, wherein the adapter device can be attached as an intermediate element between the brake lever and the wear sensor and is characterized by: a recess (23; 23a) for the contactless passage of a brake shaft; a first fastening point for fastening a first side of the adapter device to a housing portion of the brake lever; at least one second fastening point for fastening a wear sensor to a second side of the adapter device opposite the first side, wherein the second fastening point is arranged spaced apart from the first fastening point. a recess (23; 23a) for the contactless passage of a brake shaft; a first fastening point for fastening a first side of the adapter device to a housing portion of the brake lever; at least one second fastening point for fastening a wear sensor to a second side of the adapter device opposite the first side, wherein the second fastening point is arranged spaced apart from the first fastening point.
Drying device for reducing the moisture content of a gas in a housing interior, in particular in a battery housing interior, the drying device comprising a drying agent body and a fixing device for the form-fitting and/or force-fitting fixing of the drying agent body, by means of which the drying agent body can be positioned in the housing interior or so as to form at least part of the inner surface of the housing, the fixing device being configured in such a way that the drying agent body can be fixed reversibly, characterized in that the drying device is configured as a pressure compensating means.
A transmission apparatus including an automatic transmission that is mounted in a vehicle and is capable of engaging a first engagement element and a second engagement element among a plurality of engagement elements when shift-operated to a reverse position, and engaging the first engagement element when shift-operated to a neutral position, the transmission apparatus comprising: pressure feeding means (52, 54, 56) for adjusting a fluid pressure of a fluid pressure source and outputting the fluid pressure as a line pressure; fluid pressure input/output means for receiving the line pressure and outputting from a reverse position output port among a plurality of output ports (58b, 58c) when shift-operated to the reverse position, and blocking the plurality of output ports (58b, 58c) when shift-operated to the neutral position; first pressure regulating means for receiving the line pressure and adjusting and outputting; characterized by selective output means for outputting to the first engagement element a fluid pressure output from the reverse position output port and outputting to the second engagement element a fluid pressure output from the first pressure regulating means when shift-operated to the reverse position, and outputting to the first engagement element the fluid pressure output from the first pressure regulating means when shift-operated to the neutral position. pressure feeding means (52, 54, 56) for adjusting a fluid pressure of a fluid pressure source and outputting the fluid pressure as a line pressure; fluid pressure input/output means for receiving the line pressure and outputting from a reverse position output port among a plurality of output ports (58b, 58c) when shift-operated to the reverse position, and blocking the plurality of output ports (58b, 58c) when shift-operated to the neutral position; first pressure regulating means for receiving the line pressure and adjusting and outputting; characterized by selective output means for outputting to the first engagement element a fluid pressure output from the reverse position output port and outputting to the second engagement element a fluid pressure output from the first pressure regulating means when shift-operated to the reverse position, and outputting to the first engagement element the fluid pressure output from the first pressure regulating means when shift-operated to the neutral position.
A signal transmission method, comprising: sending downlink signals through N sectors; wherein the N sectors are created by M sectors used to receive uplink signals, and N > M characterized in that the N sectors are created in the following manners by using the M sectors used to receive uplink signals: creating P1i virtual sectors by using each physical sector i among S1 physical sectors that comprises H1i antennas, wherein S1 physical sectors are in the M sectors and i indicates a serial number of a sector among the S1 sectors, i∈[1,S1], P1i ≥ 2, and H1i ≥ 2; and creating P2 j virtual sectors by using each group of virtual sectors j among S2 groups of virtual sectors in the M sectors, wherein each group of virtual sectors j comprises H2 j antennas and R j virtual sectors, R j virtual sectors in each group of virtual sectors j correspond to the same physical sector, j indicates a serial number of a group of sectors among the S2 groups of sectors, j ∈ [1,S2], P2 j > R j, and H2 j ≥ 2; and S 1 ≥ 0, S 2 ≥ 0, M ≥ S 1 + ∑ j = 1 S 2 R j > 0, and M − S 1 − ∑ j = 1 S 2 R j + ∑ i = 1 S 1 P 1 i + ∑ j = 1 S 2 P 2 j = N. sending downlink signals through N sectors; wherein the N sectors are created by M sectors used to receive uplink signals, and N > M characterized in that the N sectors are created in the following manners by using the M sectors used to receive uplink signals: creating P1i virtual sectors by using each physical sector i among S1 physical sectors that comprises H1i antennas, wherein S1 physical sectors are in the M sectors and i indicates a serial number of a sector among the S1 sectors, i∈[1,S1], P1i ≥ 2, and H1i ≥ 2; and creating P2 j virtual sectors by using each group of virtual sectors j among S2 groups of virtual sectors in the M sectors, wherein each group of virtual sectors j comprises H2 j antennas and R j virtual sectors, R j virtual sectors in each group of virtual sectors j correspond to the same physical sector, j indicates a serial number of a group of sectors among the S2 groups of sectors, j ∈ [1,S2], P2 j > R j, and H2 j ≥ 2; and S 1 ≥ 0, S 2 ≥ 0, M ≥ S 1 + ∑ j = 1 S 2 R j > 0, and M − S 1 − ∑ j = 1 S 2 R j + ∑ i = 1 S 1 P 1 i + ∑ j = 1 S 2 P 2 j = N. creating P1i virtual sectors by using each physical sector i among S1 physical sectors that comprises H1i antennas, wherein S1 physical sectors are in the M sectors and i indicates a serial number of a sector among the S1 sectors, i∈[1,S1], P1i ≥ 2, and H1i ≥ 2; and creating P2 j virtual sectors by using each group of virtual sectors j among S2 groups of virtual sectors in the M sectors, wherein each group of virtual sectors j comprises H2 j antennas and R j virtual sectors, R j virtual sectors in each group of virtual sectors j correspond to the same physical sector, j indicates a serial number of a group of sectors among the S2 groups of sectors, j ∈ [1,S2], P2 j > R j, and H2 j ≥ 2; and S 1 ≥ 0, S 2 ≥ 0, M ≥ S 1 + ∑ j = 1 S 2 R j > 0, and M − S 1 − ∑ j = 1 S 2 R j + ∑ i = 1 S 1 P 1 i + ∑ j = 1 S 2 P 2 j = N.