mhurhangee/ep-ind-claims huggingface dataset:
An in-vitro method of removing or reducing an undifferentiated cell from a differentiated cell population contaminated or having a risk of contamination with the undifferentiated cell, comprising contacting a pigment epithelium-derived factor (PEDF) with the differentiated cell population, wherein the method induces apoptosis of the undifferentiated cell, the undifferentiated cell is an iPS cell or an ES cell, and the differentiated cell is other than a cell induced by PEDF to undergo apoptosis, or has lower sensitivity to PEDF than the undifferentiated cell.
Device for reinforcing a structural element (12, 14) in a motor vehicle, comprising: a reinforcing element which has a longitudinal axis and can be arranged in a cavity of the structural element, wherein the reinforcing element comprises side walls (21, 22, 23, 25), which extend in the direction of the longitudinal axis, wherein a fastening element for the preliminary fixing of the reinforcing element on the structural element (12, 14) is arranged on a first side wall, characterized in that, at a location opposite the fastening element, a side wall located opposite the first side wall has a closed surface for connecting to the structural element (12, 14), and in that the reinforcing element has a front and a rear wall, arranged transversely in relation to the longitudinal axis, and in that the reinforcing element comprises ribs, which connect at least two side walls (21, 22, 23, 25) to one another. a reinforcing element which has a longitudinal axis and can be arranged in a cavity of the structural element, wherein the reinforcing element comprises side walls (21, 22, 23, 25), which extend in the direction of the longitudinal axis, wherein a fastening element for the preliminary fixing of the reinforcing element on the structural element (12, 14) is arranged on a first side wall, characterized in that, at a location opposite the fastening element, a side wall located opposite the first side wall has a closed surface for connecting to the structural element (12, 14), and in that the reinforcing element has a front and a rear wall, arranged transversely in relation to the longitudinal axis, and in that the reinforcing element comprises ribs, which connect at least two side walls (21, 22, 23, 25) to one another.
Rail vehicle nose 1.1 having a train coupling, 1.2 having a nose ring which encloses a nose opening in which the train coupling is positioned; 1.3 having at least one nose flap (4, 5) which is movable between an open position, in which it at least partially frees the nose opening to allow access to the train coupling, and a closed position, in which it at least partially closes the nose opening to cover the train coupling, wherein at least one flexible shielding element, in particular at least one flexible sleeve or apron, is provided between the at least one nose flap (4, 5) and the train coupling and, in the open position of the at least one nose flap (4, 5), covers an interspace between the train coupling and the at least one nose flap (4, 5), characterized in that the at least one flexible shielding element, in particular the flexible sleeve, is, on the one hand, connected at least indirectly to the at least one nose flap (4, 5), and, on the other hand, is connected in the region of the train coupling or to the train coupling, in such a way that it stretches out during movement of the at least one nose flap (4, 5) from the closed position into the open position. 1.1 having a train coupling, 1.2 having a nose ring which encloses a nose opening in which the train coupling is positioned; 1.3 having at least one nose flap (4, 5) which is movable between an open position, in which it at least partially frees the nose opening to allow access to the train coupling, and a closed position, in which it at least partially closes the nose opening to cover the train coupling, wherein at least one flexible shielding element, in particular at least one flexible sleeve or apron, is provided between the at least one nose flap (4, 5) and the train coupling and, in the open position of the at least one nose flap (4, 5), covers an interspace between the train coupling and the at least one nose flap (4, 5), characterized in that the at least one flexible shielding element, in particular the flexible sleeve, is, on the one hand, connected at least indirectly to the at least one nose flap (4, 5), and, on the other hand, is connected in the region of the train coupling or to the train coupling, in such a way that it stretches out during movement of the at least one nose flap (4, 5) from the closed position into the open position.
An air filter comprising filter media comprising an upstream side and a downstream side; characterized in that the air filter comprises a single pressure sensor affixed directly to the downstream side of the filter media to measure downstream pressure while air is moved through the filter media; and circuitry coupled to the sensor, the circuitry configured to receive data from the sensor representative of the condition of the filter media and wirelessly transmit such data. a single pressure sensor affixed directly to the downstream side of the filter media to measure downstream pressure while air is moved through the filter media; and circuitry coupled to the sensor, the circuitry configured to receive data from the sensor representative of the condition of the filter media and wirelessly transmit such data.
Rotor nozzle for a high-pressure cleaning apparatus with a housing having at least one inlet opening tangentially and an outlet which is arranged on an end wall of the housing and on which is arranged a bearing with a pan-shaped, centrally broken recess, and with a nozzle body which is arranged in the housing, has a through channel, and is supported with a spherical end in the pan-shaped recess, the longitudinal axis of which nozzle body is tilted toward the longitudinal axis (26; 124) of the housing and which nozzle body is brought into a revolving movement by the liquid flowing through the housing, in which revolving movement the longitudinal axis of the nozzle body revolves on a conical shell and the nozzle body is supported with a contact surface on its circumference on a support surface, wherein several flow resistance elements (50; 118) are arranged downstream of the support surface on the wall of the housing in the circumferential direction at a distance to one another, which flow resistance elements respectively have one baffle surface (52; 120) protruding into the housing for impinging liquid, characterized in that a guiding surface (54; 122) is arranged directly upstream of each baffle surface (52; 120) with respect to the flow direction of the liquid, which guiding surface is continuously adjoined by the baffle surface (52; 120), wherein the guiding surface (54; 122) is aligned obliquely to a radial plane with respect to the longitudinal axis (26; 124) of the housing.
A method for estimating a system response (θ) of an individual listener's brain to a sound signal stimulus, said system response (θ) representing the generation of an electroencephalography signal measured at a given measuring point of the listener's head by said sound signal stimulus, wherein a first sound signal containing the sound signal stimulus is presented to the ear of the listener, wherein a first audio signal corresponding to the first sound signal is generated, and first audio signal data (12, s) is extracted from the first audio signal, wherein using a first measuring electrode at said given measuring point on the listener's head, a first electroencephalography training signal is measured while the first sound signal containing the sound signal stimulus impinges on said ear of the listener, and a first measurement data set (34, r) is generated from the first electroencephalography training signal, wherein using a noise measuring electrode at a noise measuring point on the listener's head, a noise signal is measured while the first sound signal impinges on said ear of the listener, and a noise data set (36, w) is generated from the noise signal, wherein a Gaussian conditional probability density function for the system response (θ) of the listener's brain to said first audio signal data (12, s), given the observation of the first measurement data set (34, r), is derived from the first measurement data set (34, r) and the noise data set (36, w), and wherein said Gaussian conditional probability density function is taken as the system response (θ) of the listener's brain to the sound signal stimulus, with respect to said given measurement point. wherein a first sound signal containing the sound signal stimulus is presented to the ear of the listener, wherein a first audio signal corresponding to the first sound signal is generated, and first audio signal data (12, s) is extracted from the first audio signal, wherein using a first measuring electrode at said given measuring point on the listener's head, a first electroencephalography training signal is measured while the first sound signal containing the sound signal stimulus impinges on said ear of the listener, and a first measurement data set (34, r) is generated from the first electroencephalography training signal, wherein using a noise measuring electrode at a noise measuring point on the listener's head, a noise signal is measured while the first sound signal impinges on said ear of the listener, and a noise data set (36, w) is generated from the noise signal, wherein a Gaussian conditional probability density function for the system response (θ) of the listener's brain to said first audio signal data (12, s), given the observation of the first measurement data set (34, r), is derived from the first measurement data set (34, r) and the noise data set (36, w), and wherein said Gaussian conditional probability density function is taken as the system response (θ) of the listener's brain to the sound signal stimulus, with respect to said given measurement point.
Two-component coating composition comprising a paint base component comprising at least one polycarbonate diol, at least one diamine comprising secondary amino groups and having an aliphatic group between the nitrogen atoms of the amino groups, and a hardener component comprising at least one polyisocyanate-modified polyester having an isocyanate content of 4% to 15%. a paint base component comprising at least one polycarbonate diol, at least one diamine comprising secondary amino groups and having an aliphatic group between the nitrogen atoms of the amino groups, and at least one polycarbonate diol, at least one diamine comprising secondary amino groups and having an aliphatic group between the nitrogen atoms of the amino groups, and a hardener component comprising at least one polyisocyanate-modified polyester having an isocyanate content of 4% to 15%. at least one polyisocyanate-modified polyester having an isocyanate content of 4% to 15%.
A method for the manufacture of an organic base from an organic waste material or compost, the organic base being suitable for use in agriculture and in horticulture, the nutrient content of the organic waste material or compost being reduced, wherein the organic waste material or compost is washed with liquefied carbon dioxide, the solids are separated from the liquefied carbon dioxide and are supplied as an organic base for recycling.
A method of wireless communications performed by a first vehicle, comprising: receiving an indication from a second vehicle comprising surrounding information that is indicative of whether a first unknown vehicle is detected by the second vehicle, wherein the first vehicle and the second vehicle are able to communicate wirelessly, and wherein the first unknown vehicle is unable to communicate wirelessly with the first and the second vehicles, wherein the first vehicle is traveling on a first street (704, 706) towards an intersection, wherein the first street (704, 706) intersects with a second street (704, 706) at the intersection, wherein the surrounding information indicates that no first unknown vehicle is detected by the second vehicle within a the detection range (1002, 1004, 1202) of the second vehicle; designating a certain area as a blind area (1008, 1210) of the first vehicle, wherein the blind area (1008, 1210) of the first vehicle is an area that the first vehicle is not able to detect, and wherein the blind area (1008, 1210) is also outside the detection range (1002, 1004, 1202) of the second vehicle; calculating, based on the detection range (1002, 1004, 1202) of the second vehicle, an estimated arrival time, ETA, at the intersection, of a hypothetical unknown vehicle traveling in the blind area (1008, 1210) of the first vehicle towards the intersection; and controlling movement of the first vehicle based on the indication, wherein controlling the movement of the first vehicle further comprises controlling the movement of the first vehicle based on the ETA of the unknown hypothetical vehicle. receiving an indication from a second vehicle comprising surrounding information that is indicative of whether a first unknown vehicle is detected by the second vehicle, wherein the first vehicle and the second vehicle are able to communicate wirelessly, and wherein the first unknown vehicle is unable to communicate wirelessly with the first and the second vehicles, wherein the first vehicle is traveling on a first street (704, 706) towards an intersection, wherein the first street (704, 706) intersects with a second street (704, 706) at the intersection, wherein the surrounding information indicates that no first unknown vehicle is detected by the second vehicle within a the detection range (1002, 1004, 1202) of the second vehicle; designating a certain area as a blind area (1008, 1210) of the first vehicle, wherein the blind area (1008, 1210) of the first vehicle is an area that the first vehicle is not able to detect, and wherein the blind area (1008, 1210) is also outside the detection range (1002, 1004, 1202) of the second vehicle; calculating, based on the detection range (1002, 1004, 1202) of the second vehicle, an estimated arrival time, ETA, at the intersection, of a hypothetical unknown vehicle traveling in the blind area (1008, 1210) of the first vehicle towards the intersection; and controlling movement of the first vehicle based on the indication, wherein controlling the movement of the first vehicle further comprises controlling the movement of the first vehicle based on the ETA of the unknown hypothetical vehicle.
An apparatus comprising: an acquisition means for acquiring normal information indicating a normal direction on a surface of an object and specular reflection information regarding reflection on the object in a specular reflection direction; and a compression means for compressing the normal information based on the specular reflection information; wherein the specular reflection information indicates a two-dimensional distribution of a specular reflection intensity on the object. an acquisition means for acquiring normal information indicating a normal direction on a surface of an object and specular reflection information regarding reflection on the object in a specular reflection direction; and a compression means for compressing the normal information based on the specular reflection information; wherein the specular reflection information indicates a two-dimensional distribution of a specular reflection intensity on the object.
A reactor comprising an upper portion and a lower portion wherein the upper portion contains: an inlet nozzle; a rough liquid distribution tray; a vapour liquid distribution tray; and a scale collection device; wherein the scale collection device is constructed with a perforated cylindrical side wall and a packed bed support plate that is spaced above the rough liquid distribution tray, and wherein filtering material fills the space above the packed bed support plate and inside the cylindrical side wall to provide the filtering zone; wherein the vapor-liquid distribution tray is located below the rough liquid distribution tray; wherein the liquid out of the scale collection device is intercepted by the rough liquid distribution tray for redistribution to the vapour liquid distribution tray; and wherein the packed bed support plate has a middle portion having no openings, and an outer ring adjacent to the cylindrical side wall, that has openings for liquid flow. an inlet nozzle; a rough liquid distribution tray; a vapour liquid distribution tray; and a scale collection device; wherein the scale collection device is constructed with a perforated cylindrical side wall and a packed bed support plate that is spaced above the rough liquid distribution tray, and wherein filtering material fills the space above the packed bed support plate and inside the cylindrical side wall to provide the filtering zone; wherein the vapor-liquid distribution tray is located below the rough liquid distribution tray; wherein the liquid out of the scale collection device is intercepted by the rough liquid distribution tray for redistribution to the vapour liquid distribution tray; and wherein the packed bed support plate has a middle portion having no openings, and an outer ring adjacent to the cylindrical side wall, that has openings for liquid flow.
A method of detecting a home Node-B or home evolved Node-B, HNB, implemented in a wireless transmit/receive unit, WTRU, the method comprising: the WTRU detecting, based on fingerprint information, that the WTRU has entered into a vicinity of a HNB cell whose closed subscriber group, CSG, ID is in a whitelist of the WTRU; the WTRU sending an indication to a network entity that the WTRU has entered into the vicinity of the HNB cell, wherein the indication includes a frequency of the HNB cell and a Radio Access Technology, RAT, of the HNB cell; the WTRU receiving a measurement configuration message; and the WTRU performing measurements responsive to the measurement configuration message. the WTRU detecting, based on fingerprint information, that the WTRU has entered into a vicinity of a HNB cell whose closed subscriber group, CSG, ID is in a whitelist of the WTRU; the WTRU sending an indication to a network entity that the WTRU has entered into the vicinity of the HNB cell, wherein the indication includes a frequency of the HNB cell and a Radio Access Technology, RAT, of the HNB cell; the WTRU receiving a measurement configuration message; and the WTRU performing measurements responsive to the measurement configuration message.
Method for producing a tailor-made semi-finished sheet metal product that can be hot formed, in which at least two steel sheets (1, 2, 2') of different material grades and/or thicknesses are joined in a butt joint by means of laser welding, at least one of the steel sheets (1, 2, 2') being made from press-hardenable steel and comprising a metallic coating (1.1, 2. 1) based on aluminium or aluminium-silicon, the laser welding being carried out while filler wire is fed into the weld melt produced exclusively by means of at least one laser beam, the filler wire being substantially free of aluminium and containing at least one alloy element which promotes the formation of austenite and which is present in the filler wire with a mass fraction which is at least 0.1 wt. % by weight greater than that in the press-hardenable steel, and characterized in that the filler wire is heated by means of a heating device before being fed into the weld melt, the steel sheets (1, 2, 2') being welded to one another with a gap delimited by their edges to be welded together, the steel sheets (1, 2, 2') being positioned in such a way that the gap delimited by their edges to be welded together has an average width (b) in the range of from 0.15 mm to 0.5 mm, and in that so much material of the filler wire is introduced into the gap that the ratio of the volume of filler wire introduced into the gap to the volume of the steel sheet material melted by means of the at least one laser beam is in the range of from 30 to 60%, the filler wire being fed at a speed which is lower than the laser welding speed and is in the range of up to at least 70% of the laser welding speed, and the laser welding speed being at least 6 m/min.
A connecting element, comprising a metal substrate having two opposite joining surfaces, wherein the joining surfaces are provided with hard particles, which are fixed on the metal substrate by means of a metallic binder layer, and wherein the metal substrate has at least one opening having an inner hole, characterized in that the at least one opening has an outer contour, wherein at the outer contour of the opening there is at least one extension of the metal substrate, and wherein the at least one extension is directed towards the inner hole of the opening.
A display apparatus comprising: a beam output device comprising a light source and a direction adjustment member, the beam output device being configured to time-sequentially output a plurality of light beams corresponding to a frame image, wherein each of the plurality of light beams corresponds to a partial image of the frame image, and wherein the direction adjustment member is configured to adjust the traveling path of each of the plurality of light beams, such that the plurality of light beams proceed in different traveling paths; a waveguide; an input coupler configured to time-sequentially direct the plurality of light beams into the waveguide; and a spatial converter configured to output the plurality of light beams traveling in the waveguide through spatially different regions of the spatial converter to form the frame image in an external space, wherein the spatial converter comprises a plurality of selective transmission elements arranged in a first direction, the first direction crossing directions in which the plurality of light beams are output, wherein each of the plurality of selective transmission elements is configured to transmit one of the plurality of light beams to the external space and not to transmit remaining light beams of the plurality of light beams to the external space, and wherein a number of the plurality of light beams and a number of the plurality of selective transmission elements are equal. a beam output device comprising a light source and a direction adjustment member, the beam output device being configured to time-sequentially output a plurality of light beams corresponding to a frame image, wherein each of the plurality of light beams corresponds to a partial image of the frame image, and wherein the direction adjustment member is configured to adjust the traveling path of each of the plurality of light beams, such that the plurality of light beams proceed in different traveling paths; a waveguide; an input coupler configured to time-sequentially direct the plurality of light beams into the waveguide; and a spatial converter configured to output the plurality of light beams traveling in the waveguide through spatially different regions of the spatial converter to form the frame image in an external space, wherein the spatial converter comprises a plurality of selective transmission elements arranged in a first direction, the first direction crossing directions in which the plurality of light beams are output, wherein each of the plurality of selective transmission elements is configured to transmit one of the plurality of light beams to the external space and not to transmit remaining light beams of the plurality of light beams to the external space, and wherein a number of the plurality of light beams and a number of the plurality of selective transmission elements are equal.