mhurhangee/ep-ind-claims huggingface dataset:
Seat assembly (1, 100), comprising: - at least one seat with a seat surface region (2.2) and a backrest region (2.1), - a base element on which the seat is adjustably arranged, - at least one adjustment unit (4, 40, 4.1, 4.2) for adjusting the seat relative to the base element and/or a seat base, and - at least one drive unit (5, 5.1, 5.2), wherein the drive unit (5, 5.1, 5.2) is configured to lock the base element and the seat in a self-locking manner, characterized in that the locking is releasable both by a force (F) introduced into the adjustment unit (4, 40, 4.1, 4.2) via the seat by an occupant sitting in the seat, and also by a force (F) introduced into the adjustment unit (4.1, 4.2, 41) by the drive unit (5, 5.1, 5.2). - at least one seat with a seat surface region (2.2) and a backrest region (2.1), - a base element on which the seat is adjustably arranged, - at least one adjustment unit (4, 40, 4.1, 4.2) for adjusting the seat relative to the base element and/or a seat base, and - at least one drive unit (5, 5.1, 5.2),
A process for recovering ethylene oxide from a vaporous reaction stream containing ethylene oxide, CO 2, formaldehyde, acetylaldehyde, and organic acidic compounds comprising: absorption of ethylene oxide and a portion of said CO 2, formaldehyde, acetylaldehyde, and organic acidic compounds in water to form an XXX absorption stream; contacting said absorption stream with steam to strip ethylene oxide, CO2, formaldehyde, acetylaldehyde, and organic acidic compounds from said absorption stream to form a stripping stream; condensing water, formaldehyde, a portion of the ethylene oxide, acetaldehyde and organic acidic compounds; and recovering a vaporous ethylene oxide produce stream; characterized by first feeding said vaporous reaction stream to a lower section of a quench zone, contacting the vaporous reaction stream with an alkaline quench liquid comprising a dilute aqueous solution of alkaline hydroxide solution in said lower section, wherein said alkaline hydroxide reacts with CO2, to form carbonate and bicarbonate compounds, which react with and neutralize organic acid impurities, contacting the vaporous reaction stream from the lower section and a liquid water stream with a first demister mesh, contacting a vaporous reaction stream from said first demister mesh with a second demister mesh in an upper section of said quench zone, and recovering a pretreated vaporous reaction stream. absorption of ethylene oxide and a portion of said CO 2, formaldehyde, acetylaldehyde, and organic acidic compounds in water to form an XXX absorption stream; contacting said absorption stream with steam to strip ethylene oxide, CO2, formaldehyde, acetylaldehyde, and organic acidic compounds from said absorption stream to form a stripping stream; condensing water, formaldehyde, a portion of the ethylene oxide, acetaldehyde and organic acidic compounds; and recovering a vaporous ethylene oxide produce stream; characterized by first feeding said vaporous reaction stream to a lower section of a quench zone, contacting the vaporous reaction stream with an alkaline quench liquid comprising a dilute aqueous solution of alkaline hydroxide solution in said lower section, wherein said alkaline hydroxide reacts with CO2, to form carbonate and bicarbonate compounds, which react with and neutralize organic acid impurities, contacting the vaporous reaction stream from the lower section and a liquid water stream with a first demister mesh, contacting a vaporous reaction stream from said first demister mesh with a second demister mesh in an upper section of said quench zone, and recovering a pretreated vaporous reaction stream.
A color dispersion comprising a first colorant dispersion and a protective composition, said first colorant dispersion comprising, based on the total weight of the first colorant dispersion, from 0.05 wt.% to 10 wt.% of a first colorant; from 0.1 wt.% to 15 wt.% of a first gel selected from methylcellulose, hydroxypropylmethylcellulose, hydroxyethylmethylcellulose, hydroxybutylmethylcellulose, hydroxyethylethylcellulose, and mixtures thereof; from 0.1 wt.% to 15 wt.% of a second gel selected from guar, pectin, carrageenan, gelatin, and mixtures thereof; and water; and said protective composition comprising, based on the total weight of the protective composition, from 0.5 wt.% to 70 wt.% of polymer particles; from 0.1 wt.% to 10 wt.% of a clay; and from 0.05 wt.% to 10 wt.% of a peptizing agent; wherein the weight to weight ratio of the first colorant dispersion to the protective composition is from 1:10 to 10:1. from 0.05 wt.% to 10 wt.% of a first colorant; from 0.1 wt.% to 15 wt.% of a first gel selected from methylcellulose, hydroxypropylmethylcellulose, hydroxyethylmethylcellulose, hydroxybutylmethylcellulose, hydroxyethylethylcellulose, and mixtures thereof; from 0.1 wt.% to 15 wt.% of a second gel selected from guar, pectin, carrageenan, gelatin, and mixtures thereof; and water; and said protective composition comprising, based on the total weight of the protective composition, from 0.5 wt.% to 70 wt.% of polymer particles; from 0.1 wt.% to 10 wt.% of a clay; and from 0.05 wt.% to 10 wt.% of a peptizing agent; wherein the weight to weight ratio of the first colorant dispersion to the protective composition is from 1:10 to 10:1.
A crate comprising a framework of demountable elements comprising at least two base plates, each being generally rectangular and having longer and shorter sides, at least four elongate support members, each having first and second ends, two of said elongate support members being located to provide support along opposing longer sides of each of the base plates at least eight connector members, each of the connector members being located at an end of each elongate support member, a plurality of upright posts (70,72), each adapted to be associated with the connector member located at the end of the elongate support member and a plurality of panels (110,112), each panel (110,112) being adapted to be secured to two of the posts (70,72), at least one of the panels being adapted during use of the crate to be demounted from the framework.
An antibody directed against ICOS having the following 6 CDRs: Aminoacid sequence H-CDR1 GYTFTTYWMH (SEQ ID NO:7) H-CDR2 EIDPSDSYVNYNQNFKG (SEQ ID NO:8) H-CDR3 FDY (SEQ ID NO:9) L-CDR1 RSSKSPLHSNGNIYLY (SEQ ID NO:10) L-CDR2 RMSNLAS (SEQ ID NO:11) L-CDR3 MQHLEYPYT (SEQ ID NO:12) for use for treating a graft versus host disease, wherein said antibody is Icos 314-8, obtainable from the hybridoma deposited at the CNCM on July 2, 2009 under the accession number CNCM 1-4180.
Coil mat receiving method to be performed during the manufacture of a component of an electric machine for receiving a coil mat from an elongated holder and inserting the coil mat into an annular arrangement of grooves which open outwards, the method comprising the steps of: a) providing the coil mat on the elongated holder that has a series of teeth with tooth gaps between them, so that that straight wire sections of the coil mat are received in the tooth gaps, b) providing a rotary unit which is rotatable about a rotary axis and which has the annular arrangement of grooves that are limited by groove limiting elements which extend radially with at least one directional component, c) relatively moving the rotary unit and the holder in the longitudinal direction of the holder and rolling the rotary unit over the holder in such a way that several grooves with several tooth gaps are aligned in an arc-shaped transfer area in order to transfer the wire sections of the coil mat from the tooth gaps to the grooves and to guide them during the transfer, d) transferring the straight wire sections from the tooth gaps in the transfer area to the grooves aligned with them, characterized in that the coil mat receiving method comprises the step of: e) adjusting e1) the height of the teeth and/or e2) the radial length of the groove limiting elements in the transfer area in such a way that the heights of the teeth in the case of e1) or the lengths of the groove limiting elements in the case of e2) are smaller in the center of the transfer area than at the edge regions of the transfer area. a) providing the coil mat on the elongated holder that has a series of teeth with tooth gaps between them, so that that straight wire sections of the coil mat are received in the tooth gaps, b) providing a rotary unit which is rotatable about a rotary axis and which has the annular arrangement of grooves that are limited by groove limiting elements which extend radially with at least one directional component, c) relatively moving the rotary unit and the holder in the longitudinal direction of the holder and rolling the rotary unit over the holder in such a way that several grooves with several tooth gaps are aligned in an arc-shaped transfer area in order to transfer the wire sections of the coil mat from the tooth gaps to the grooves and to guide them during the transfer, d) transferring the straight wire sections from the tooth gaps in the transfer area to the grooves aligned with them, e) adjusting e1) the height of the teeth and/or e2) the radial length of the groove limiting elements e1) the height of the teeth and/or e2) the radial length of the groove limiting elements in the transfer area in such a way that the heights of the teeth in the case of e1) or the lengths of the groove limiting elements in the case of e2) are smaller in the center of the transfer area than at the edge regions of the transfer area.
Method for determining the spread angle (σ) and/or the castor angle (τ) of an axle geometry of a vehicle, comprising the steps: steering a wheel fixed to an axle of the vehicle to various wheel steering positions with various wheel steering angles (β i); determining the spatial position of the wheel at the various wheel steering positions; determining the axis of rotation (n i) of the wheel at the respective wheel steering position from the results of the determination of the spatial position; modelling a parametric model (f(β i,n s,o s,n D)) of the spread axis, where n s is the 3D directional vector and o s is the 3D location vector of the spread axis, and n D is the 3D directional vector of the axis of rotation of the wheel; determining the axis of rotation of the wheel from the parametric model (f(β i,n s,o s,n D)) of the spread axis for the various wheel steering positions, adapting the parametric model (f(β i,n s,o s,n D)) of the spread axis to the axes of rotation (n i) determined from the measurement of the spatial position of the wheel at the various wheel steering positions; determining the spread angle (σ) and/or the castor angle (τ) from the adapted parametric model (f(β i,n s,o s,n D)) of the spread axis. steering a wheel fixed to an axle of the vehicle to various wheel steering positions with various wheel steering angles (β i); determining the spatial position of the wheel at the various wheel steering positions; determining the axis of rotation (n i) of the wheel at the respective wheel steering position from the results of the determination of the spatial position; modelling a parametric model (f(β i,n s,o s,n D)) of the spread axis, where n s is the 3D directional vector and o s is the 3D location vector of the spread axis, and n D is the 3D directional vector of the axis of rotation of the wheel; determining the axis of rotation of the wheel from the parametric model (f(β i,n s,o s,n D)) of the spread axis for the various wheel steering positions, adapting the parametric model (f(β i,n s,o s,n D)) of the spread axis to the axes of rotation (n i) determined from the measurement of the spatial position of the wheel at the various wheel steering positions; determining the spread angle (σ) and/or the castor angle (τ) from the adapted parametric model (f(β i,n s,o s,n D)) of the spread axis.
A method of producing a nanoscale tall oil pitch emulsion, wherein the method comprises the following steps: a) providing an aqueous solution of an alkaline agent, wherein the aqueous solution has a pH in the range of 8 to 13, b) providing tall oil rosin, c) mixing the tall oil rosin with the aqueous solution of the alkaline agent to produce a tall oil rosin solution, d) providing a co-surfactant, e) mixing the co-surfactant with the tall oil rosin solution to produce a co-surfactant - tall oil rosin solution, f) providing tall oil pitch, g) adding the tall oil pitch gradually to the co-surfactant - tall oil rosin solution under continuous homogenization in a homogenizer to produce the nanoscale tall oil pitch emulsion, wherein the co-surfactant is an organic solvent having a hydrocarbon chain of 1 to 6 carbons, and wherein the homogenizer is a high pressure valve homogenizer, microfluidizer, or a sonicator, preferably an ultrasonicator. a) providing an aqueous solution of an alkaline agent, wherein the aqueous solution has a pH in the range of 8 to 13, b) providing tall oil rosin, c) mixing the tall oil rosin with the aqueous solution of the alkaline agent to produce a tall oil rosin solution, d) providing a co-surfactant, e) mixing the co-surfactant with the tall oil rosin solution to produce a co-surfactant - tall oil rosin solution, f) providing tall oil pitch, g) adding the tall oil pitch gradually to the co-surfactant - tall oil rosin solution under continuous homogenization in a homogenizer to produce the nanoscale tall oil pitch emulsion, wherein the co-surfactant is an organic solvent having a hydrocarbon chain of 1 to 6 carbons, and wherein the homogenizer is a high pressure valve homogenizer, microfluidizer, or a sonicator, preferably an ultrasonicator. wherein the co-surfactant is an organic solvent having a hydrocarbon chain of 1 to 6 carbons, and wherein the homogenizer is a high pressure valve homogenizer, microfluidizer, or a sonicator, preferably an ultrasonicator.
A variable output warhead comprising a high explosive portion (3, 13, 31) about which is co-axially located at least one other high explosive portion (4, 14, 33), respective high explosive portions being separated by a non-detonative material (5, 15, 32) that is capable of preventing sympathetic detonation between said portions, wherein the respective high explosive portions are each provided with a means of detonation (6, 6a, 16, 16a), such that in use each portion may be detonated independently to control the explosive output and wherein the outermost high explosive portion has a dimension which is below its critical detonation diameter such that it may only detonate when the or each other high explosive portion is detonated.
A die-integrated aspheric mirror system, comprising: an ion trap die comprising a plurality of separate ion locations each configured to trap an ion in a potential well; a first aspheric mirror integrated with the ion trap die; and a first number of optical fibers positioned between the first aspheric mirror and the ion trap die, wherein the first number of optical fibers is configured to collect fluorescent light reflected by the first aspheric mirror that was emitted from the plurality of ion locations; wherein the first aspheric mirror has a plurality of principal axes; wherein the ion trap die comprises a longitudinal axis (x direction at 223) wherein the first aspheric mirror is configured to be integrated with the ion trap die such that a principal axis of the aspheric mirror is substantially aligned with the longitudinal axis of the ion trap die; wherein the first aspheric mirror is configured with a number of image locations between the first aspheric mirror and the ion trap die, and wherein the first aspheric mirror is configured to focus fluorescent light emitted from the different ion locations along the ion trap die to separate optical fibers. an ion trap die comprising a plurality of separate ion locations each configured to trap an ion in a potential well; a first aspheric mirror integrated with the ion trap die; and a first number of optical fibers positioned between the first aspheric mirror and the ion trap die, wherein the first number of optical fibers is configured to collect fluorescent light reflected by the first aspheric mirror that was emitted from the plurality of ion locations; wherein the first aspheric mirror has a plurality of principal axes; wherein the ion trap die comprises a longitudinal axis (x direction at 223) wherein the first aspheric mirror is configured to be integrated with the ion trap die such that a principal axis of the aspheric mirror is substantially aligned with the longitudinal axis of the ion trap die; wherein the first aspheric mirror is configured with a number of image locations between the first aspheric mirror and the ion trap die, and wherein the first aspheric mirror is configured to focus fluorescent light emitted from the different ion locations along the ion trap die to separate optical fibers.
An air exchange device, comprising: an air-guiding tube having a first end and a second end opposite to the first end, the first end having a first inlet and a first outlet, and the second end having a second inlet and a second outlet; a partition settled inside the air-guiding tube and dividing a room inside the air-guiding tube into a first air-guiding space and a second air-guiding space, the first air-guiding space communicating with the first inlet and the second outlet, and the second air-guiding space communicating with the first outlet and the second inlet; a fan arranged with the air-guiding tube and adapted to induce an airflow; and a control module connecting with at least one of the first and second ends (11, 12) of the air-guiding tube and electrically connecting with the fan, wherein the fan is electrically connected with a rotation control circuit, and the rotation control circuit controls the fan to rotate in a forward direction or a reverse direction, wherein the air exchange device is characterized in that: the air-guiding tube is a tube with an adjustable axial length, wherein the air-guiding tube further comprises a sleeve moveably mounted on the first end, wherein the sleeve independently forms a first room and a second room inside, wherein two apertures are formed in the wall of the sleeve and communicate with the first and second rooms (131, 132), respectively, and wherein the first room communicates with the first air-guiding space and the second room communicates with the second air-guiding space. an air-guiding tube having a first end and a second end opposite to the first end, the first end having a first inlet and a first outlet, and the second end having a second inlet and a second outlet; a partition settled inside the air-guiding tube and dividing a room inside the air-guiding tube into a first air-guiding space and a second air-guiding space, the first air-guiding space communicating with the first inlet and the second outlet, and the second air-guiding space communicating with the first outlet and the second inlet; a fan arranged with the air-guiding tube and adapted to induce an airflow; and a control module connecting with at least one of the first and second ends (11, 12) of the air-guiding tube and electrically connecting with the fan, wherein the fan is electrically connected with a rotation control circuit, and the rotation control circuit controls the fan to rotate in a forward direction or a reverse direction, wherein the air exchange device is characterized in that: the air-guiding tube is a tube with an adjustable axial length, wherein the air-guiding tube further comprises a sleeve moveably mounted on the first end, wherein the sleeve independently forms a first room and a second room inside, wherein two apertures are formed in the wall of the sleeve and communicate with the first and second rooms (131, 132), respectively, and wherein the first room communicates with the first air-guiding space and the second room communicates with the second air-guiding space.
A multiple-layer beacon sweeping method performed by an access node (700, 900) having a plurality of antennas in a millimeter-wave-based network, the method comprising: - performing multiple beacon sweepings including at least a first beacon sweeping and a second beacon sweeping, wherein the first beacon sweeping has a first set of beams and a first coverage area, wherein the second beacon sweeping has a second set of beams and a second coverage area, wherein the first coverage area is larger than the second coverage area, wherein the first set of beams and the second set of beams carry same system information of the access node, and wherein each beam in the first set of beams and the second set of beams carries information indicating which beacon sweeping the beam belongs to, the method characterized in that if the first beacon sweeping and the second beacon sweeping overlap each other during a period of time, the second beacon sweeping is not performed during the period of time. - performing multiple beacon sweepings including at least a first beacon sweeping and a second beacon sweeping, wherein the first beacon sweeping has a first set of beams and a first coverage area, wherein the second beacon sweeping has a second set of beams and a second coverage area, wherein the first coverage area is larger than the second coverage area, wherein the first set of beams and the second set of beams carry same system information of the access node, and wherein each beam in the first set of beams and the second set of beams carries information indicating which beacon sweeping the beam belongs to, the method characterized in that if the first beacon sweeping and the second beacon sweeping overlap each other during a period of time, the second beacon sweeping is not performed during the period of time.
A product comprising: (a) a membrane and (b) an electrode for electrolysis having: (i) a mass per unit area of 48 mg/cm 2 or less, determined by cutting the electrode into a size of 130 mm × 100 mm, measuring the mass therefrom via an electronic balance and calculating the mass per unit area by dividing the mass value by said area; and (ii) a force applied per unit mass-unit area, determined as described in the description, of 0.08 N/mg·cm 2 or more and 1.2 N/mg·cm 2 or less; and (c) a liquid included between the membrane and the electrode for electrolysis, wherein said liquid generates a surface tension and thus applies a force between the membrane and the electrode for electrolysis, thereby integrating the membrane and the electrode for electrolysis to be a laminate. (a) a membrane and (b) an electrode for electrolysis having: (i) a mass per unit area of 48 mg/cm 2 or less, determined by cutting the electrode into a size of 130 mm × 100 mm, measuring the mass therefrom via an electronic balance and calculating the mass per unit area by dividing the mass value by said area; and (ii) a force applied per unit mass-unit area, determined as described in the description, of 0.08 N/mg·cm 2 or more and 1.2 N/mg·cm 2 or less; and (i) a mass per unit area of 48 mg/cm 2 or less, determined by cutting the electrode into a size of 130 mm × 100 mm, measuring the mass therefrom via an electronic balance and calculating the mass per unit area by dividing the mass value by said area; and (ii) a force applied per unit mass-unit area, determined as described in the description, of 0.08 N/mg·cm 2 or more and 1.2 N/mg·cm 2 or less; and (c) a liquid included between the membrane and the electrode for electrolysis, wherein said liquid generates a surface tension and thus applies a force between the membrane and the electrode for electrolysis, thereby integrating the membrane and the electrode for electrolysis to be a laminate.