mhurhangee/ep-ind-claims huggingface dataset:
A flow cytometry method for evaluating a biological material sample for unassociated virus-size particles of an influenza virus viral type, the method comprising: subjecting to flow cytometry a fluid sample comprising at least a portion of the biological material sample, wherein the fluid sample comprises a fluorescent antibody stain capable of binding, directly or indirectly, with an epitope of the influenza virus viral type, the fluorescent antibody stain comprising a fluorescent component or components attached to an antibody molecule that is specific to binding to the epitope, the flow cytometry comprising: flowing the fluid sample through a flow cell of a flow cytometer; subjecting the fluid sample flowing through the flow cell to excitation radiation capable of causing a fluorescent emission response from the fluorescent antibody stain; and detecting radiation from the flow cell within a wavelength range of the fluorescent emission and evaluating the detected radiation to identify detection events indicative of passage through the flow cell of the unassociated labeled particles of virus size including a said virus-size particle of the influenza virus viral type bound with a portion of the fluorescent antibody stain; wherein, the fluid sample as fed to the flow cytometer comprises: a concentration of the unassociated labeled particles in a range of from 1 × 10 5 to 1 × 10 9 particles per milliliter; and a concentration of the fluorescent antibody stain not bound in the unassociated labeled particles and a total concentration of the fluorescent antibody stain each in a range of from 0.5 microgram per milliliter to 8 micrograms per milliliter. flowing the fluid sample through a flow cell of a flow cytometer; subjecting the fluid sample flowing through the flow cell to excitation radiation capable of causing a fluorescent emission response from the fluorescent antibody stain; and detecting radiation from the flow cell within a wavelength range of the fluorescent emission and evaluating the detected radiation to identify detection events indicative of passage through the flow cell of the unassociated labeled particles of virus size including a said virus-size particle of the influenza virus viral type bound with a portion of the fluorescent antibody stain; wherein, the fluid sample as fed to the flow cytometer comprises: a concentration of the unassociated labeled particles in a range of from 1 × 10 5 to 1 × 10 9 particles per milliliter; and a concentration of the fluorescent antibody stain not bound in the unassociated labeled particles and a total concentration of the fluorescent antibody stain each in a range of from 0.5 microgram per milliliter to 8 micrograms per milliliter. a concentration of the unassociated labeled particles in a range of from 1 × 10 5 to 1 × 10 9 particles per milliliter; and a concentration of the fluorescent antibody stain not bound in the unassociated labeled particles and a total concentration of the fluorescent antibody stain each in a range of from 0.5 microgram per milliliter to 8 micrograms per milliliter.
A contact lens, prepared by reacting a mixture comprising: (a) at least one polyol of formula I, wherein four or five of X 1, X 2, X 3, X 4 and X 5 are each independently an OH-terminated polyoxyalkylene group, and the remainder of X 1, X 2, X 3, X 4 and X 5 are each independently H or absent, and Z is a central linking unit; (b) at least one di-or poly-isocyanate; and (c) optionally at least one OH-terminated chain extender wherein the mixture has an overall OH:NCO ratio of 1:1 or wherein the mixture has an overall OH:NCO ratio of more than 1:1. (a) at least one polyol of formula I, wherein four or five of X 1, X 2, X 3, X 4 and X 5 are each independently an OH-terminated polyoxyalkylene group, and the remainder of X 1, X 2, X 3, X 4 and X 5 are each independently H or absent, and Z is a central linking unit; (b) at least one di-or poly-isocyanate; and (c) optionally at least one OH-terminated chain extender
An oral aroma sampling device, comprising a mouthpiece which comprises an in-mouth surface and an external surface, the in-mouth surface bearing a delivery conduit, and the external surface bearing a manifold in communication with the delivery conduit, the manifold bearing a plurality of capillaries, each of which capillary is the conduit for an aroma substance, the mouthpiece additionally comprising a breathing conduit passing from the external surface to the in-mouth surface.
A child's bed for accommodating babies with a receiving region provided at least in part with a surround, wherein the child's bed is fastenable to an adult's bed located on a base for common vertical movement with the adult's bed, wherein the child's bed is located on a separate frame on the base, wherein the frame of the child's bed has a height-adjustable locking arrangement for fixing the child's bed characterised in that the locking arrangement, when the child's bed is fastened to the adult's bed, is in a released condition, which allows a vertical movement of the child's bed relative to its frame together with the adult's bed, and in that the locking arrangement is automatically fixed upon release of the connection of the child's bed with the adult's bed.
Apparatus for packaging articles, comprising at least one pushing-in device, by means of which the articles which are to be packaged are transferred into a folding box, and also comprising at least one transporting means, by way of which a plurality of articles which are to be packaged are transported, in the form of a stack in at least one article container, into the range of action of the pushing-in device, wherein at least one orienting unit is provided, and said unit, for the purpose of stabilizing the stack, acts on the articles located in the article container prior to said articles passing into the range of action of the pushing-in device, characterized in that the orienting unit, for the purpose of stabilizing the stack, orients the ends of the articles, which are located in an article chain, such that the stack is inclined in relation to the vertical.
A baker's or confectioner's oven comprising a vertical enclosure, a combustion heat exchanger, and air circulation means including at least one turbine, said air circulation means being configured to suck in the air contained in the enclosure, the sucked-in air passing through the heat exchanger in order to be heated prior to passing through said at least one turbine and then being delivered by said air circulation means into said enclosure, the heat exchanger comprising: • a burner; • heat exchange tubes (24, 24') that are vertically distributed; • a distribution manifold connected to the first ends (24a, 24'a) of said heat exchange tubes (24, 24'); • a discharge manifold connected to the second ends (24b, 24'b) of the heat exchange tubes (24, 24') and to an extraction chimney for taking fumes given off by the burner and extracting them out from the enclosure; and • a hearth having first and second ends (26a, 26b); said oven being characterized in that: • the hearth is arranged vertically in front of said at least one turbine; • said heat exchange tubes (24, 24') are distributed over the lateral sides of the hearth so as to enable said hearth to be removed; • said distribution manifold is configured to distribute the heat from the hearth to the heat exchange tubes (24, 24'); • said burner is arranged at the second end of the hearth; and • the hearth further includes first and second removable connection means arranged respectively between the distribution manifold and the first end of the hearth, and between the burner and the second end of the hearth. • a burner; • heat exchange tubes (24, 24') that are vertically distributed; • a distribution manifold connected to the first ends (24a, 24'a) of said heat exchange tubes (24, 24'); • a discharge manifold connected to the second ends (24b, 24'b) of the heat exchange tubes (24, 24') and to an extraction chimney for taking fumes given off by the burner and extracting them out from the enclosure; and • a hearth having first and second ends (26a, 26b); • the hearth is arranged vertically in front of said at least one turbine; • said heat exchange tubes (24, 24') are distributed over the lateral sides of the hearth so as to enable said hearth to be removed; • said distribution manifold is configured to distribute the heat from the hearth to the heat exchange tubes (24, 24'); • said burner is arranged at the second end of the hearth; and • the hearth further includes first and second removable connection means arranged respectively between the distribution manifold and the first end of the hearth, and between the burner and the second end of the hearth.
Composite panel which comprises at least two wood-based material layers (1, 3), and, in at least one interspace between the wood-based material layers, there is arranged more than one functional layer (2, 4, 5), which is selected from the group: sound-insulation layer, thermal-insulation layer, moisture-barrier layer, and fire-protection layer, and combinations of these, in which case adhesive layers are arranged in the interspaces between the layers (1, 2, 3, 4, 5), in order to join the layers to each other, and wherein at least one layer selected from the functional layers (2, 4, 5) and adhesive layers comprises aerogel, wherein the layer comprising aerogel can contain aerogel to about 0.1 - 95 weight-% of the layer, or can consist entirely of aerogel, and the wood-based material layer (1, 3) is a wood or wood veneer layer, characterized in that at least one functional layer (2, 4, 5) is arranged in the interspace between more than one of the wood-based material layers (1, 3), and at least two functional layers (2,4,5) are different functional layers.
A method for monitoring the utilization of a first connection in a data network, particularly in a mobile telephone network, characterized in that an independent second logic connection is established which is assigned a lower priority than the first connection and which competes with the first connection for the data rate within the data network, wherein test data with low data volume are sent via the second connection, wherein the reception of the test data is detected, and wherein a complete reception of the test data indicates that the first connection is not fully utilized.
An image display system in which a plurality of unit transfer data items each of which corresponds to a line of pixels that is contained in one scanning line or corresponds to one of n portions into which the line of pixels is divided, and that is included in second raster image data to be superimposed on part of first raster image data which represents an image to be displayed during one frame, are transferred based on an input enabling signal through burst transmission, characterised by: FIFO memories (FIFO 0-7) numbering the same as scanning lines in which pixels to be transferred during one burst transmission, included in the second raster image data, are contained; an input control unit that stores the unit transfer data in the FIFO memory selected based on a line number assigned to a line of pixels to be contained in one scanning line; a data array that, when at least one second raster image data is superimposed on the first raster image data, has data items including line number identification data, with which a line number assigned to a line of pixels included in the second raster image data is identified, arrayed in association with each line of pixels, which is included in the second raster image data, in the order that the scanning lines carrying the first raster image data are arrayed; and an output control unit that, every time a scanning line is transmitted, retrieves the data items from the data array, selects one of the FIFO memories (FIFO 0-7) according to the line number identification data out of the data items included in the data array, and transmits the unit transfer data. FIFO memories (FIFO 0-7) numbering the same as scanning lines in which pixels to be transferred during one burst transmission, included in the second raster image data, are contained; an input control unit that stores the unit transfer data in the FIFO memory selected based on a line number assigned to a line of pixels to be contained in one scanning line; a data array that, when at least one second raster image data is superimposed on the first raster image data, has data items including line number identification data, with which a line number assigned to a line of pixels included in the second raster image data is identified, arrayed in association with each line of pixels, which is included in the second raster image data, in the order that the scanning lines carrying the first raster image data are arrayed; and an output control unit that, every time a scanning line is transmitted, retrieves the data items from the data array, selects one of the FIFO memories (FIFO 0-7) according to the line number identification data out of the data items included in the data array, and transmits the unit transfer data.
A compound for use in a method for treating myelodysplastic syndrome comprising administering said compound to a mammal, wherein the compound is (+)-1,4-dihydro-7-[(3S,4S)-3-methoxy-4-(methylamino)-1-pyrrolidinyl]-4-oxo-1-(2-thiazolyl)-1,8-naphthyridine-3-carboxylic acid, and the method further comprises administering azacitidine.
A system comprising: a panel (138, 300) comprising a plurality of openings, each of the openings comprising a respective panel contact (142, 302, 304), wherein the system is configured to selectively couple each panel contact (142, 302, 304) to an RFID reader; a plurality of optical adapters (100, 200) configured to be inserted into the openings of the panel (138, 300), wherein each optical adapter (100, 200) comprises: a body in which at least one connector can be inserted; at least one radio frequency identifier, RFID, antenna (126, 226); at least one adapter contact (136, 224) that is electrically connected to the RFID antenna; and a visual indicator (128, 228) that is electrically connected to the at least one adapter contact (136, 224); wherein at least one clip (144, 230), which is formed out of metal, is configured to electrically connect the adapter contact (136, 224) to the panel contact (142, 302, 304) and to mechanically hold the optical adapter (100, 200) in the panel (138, 300) when the optical adapter (100, 200) is inserted into one of the openings of the panel (138, 300); wherein the RFID antenna (126, 226) of each connector is configured to be positioned near an RFID tag attached to the connector when the connector is inserted into the body of the optical adapter; and wherein the system is configured to selectively couple the RFID reader to each of the panel contacts (142, 302, 304). a panel (138, 300) comprising a plurality of openings, each of the openings comprising a respective panel contact (142, 302, 304), wherein the system is configured to selectively couple each panel contact (142, 302, 304) to an RFID reader; a plurality of optical adapters (100, 200) configured to be inserted into the openings of the panel (138, 300), wherein each optical adapter (100, 200) comprises: a body in which at least one connector can be inserted; at least one radio frequency identifier, RFID, antenna (126, 226); at least one adapter contact (136, 224) that is electrically connected to the RFID antenna; and a visual indicator (128, 228) that is electrically connected to the at least one adapter contact (136, 224); a body in which at least one connector can be inserted; at least one radio frequency identifier, RFID, antenna (126, 226); at least one adapter contact (136, 224) that is electrically connected to the RFID antenna; and a visual indicator (128, 228) that is electrically connected to the at least one adapter contact (136, 224); wherein at least one clip (144, 230), which is formed out of metal, is configured to electrically connect the adapter contact (136, 224) to the panel contact (142, 302, 304) and to mechanically hold the optical adapter (100, 200) in the panel (138, 300) when the optical adapter (100, 200) is inserted into one of the openings of the panel (138, 300); wherein the RFID antenna (126, 226) of each connector is configured to be positioned near an RFID tag attached to the connector when the connector is inserted into the body of the optical adapter; and wherein the system is configured to selectively couple the RFID reader to each of the panel contacts (142, 302, 304).
A projection device comprising at least one light source and an array of optical channels (6, 6a, 6b, 6c), wherein each channel comprises: a first and a second refractive optical free-form surface (8, 8a, 8b, 10, 10a, 10b) and projection optics (12, 12a, 12b); wherein the first and second refractive optical free-form surfaces (8, 10) are arranged between the at least one light source and the projection optics and cause Kohler illumination of the projection optics by an object light pattern (13, 13a, 13b, 13a', 13a"), resulting in an image to be projected on an image surface of the projection optics, wherein the images of the optical channels are superimposed, wherein the light structure being imaged by the projection optics is regarded as the object light structure, and wherein a spatial distribution of the light is regarded as the light structure, wherein, in each optical channel, the first refractive optical free-form surface and the second refractive optical free-form surface control a radiation intensity distribution and beam directions, wherein the first refractive optical free-form surface generates an output intensity pattern at the second free-form surface in such a way that the incident beams are nit collimated, wherein the second refractive optical free-form surface varies a direction of the beams so as to guide the beams onto the projection optics in a convergent manner in accordance with Köhler illumination. a first and a second refractive optical free-form surface (8, 8a, 8b, 10, 10a, 10b) and projection optics (12, 12a, 12b); wherein the first and second refractive optical free-form surfaces (8, 10) are arranged between the at least one light source and the projection optics and cause Kohler illumination of the projection optics by an object light pattern (13, 13a, 13b, 13a', 13a"), resulting in an image to be projected on an image surface of the projection optics, wherein the images of the optical channels are superimposed, wherein the light structure being imaged by the projection optics is regarded as the object light structure, and wherein a spatial distribution of the light is regarded as the light structure, wherein, in each optical channel, the first refractive optical free-form surface and the second refractive optical free-form surface control a radiation intensity distribution and beam directions, wherein the first refractive optical free-form surface generates an output intensity pattern at the second free-form surface in such a way that the incident beams are nit collimated, wherein the second refractive optical free-form surface varies a direction of the beams so as to guide the beams onto the projection optics in a convergent manner in accordance with Köhler illumination.
A lens (10A, 10B, 10C, 10D) for distribution of light from a light emitter having an emitter axis, the lens comprising: • an inner surface (20A, 20B, 20C, 20D) defining an inner cavity (21A, 21B, 21C, 21D) about the emitter axis, the inner surface (20A, 20B, 20C, 20D) comprising at least two distinct sets of inner-surface stepwise discontinuities (23A, 23C, 23D), one set formed by a plurality of transverse inner regions (22A, 22C, 22D) having curved facets on planes normal to the emitter axis, and the other set formed by a plurality of transverse inner regions having straight facets on planes orthogonal to the emitter axis each redirecting light received from the emitter; and • an outer surface (30A, 30B, 30C, 30D) receiving redirected emitter light and comprising outer-surface stepwise discontinuities (33A, 33B, 33C, 33D) formed by a plurality of transverse outer regions (32A, 32B, 32C, 32D) each redirecting the received light. • an inner surface (20A, 20B, 20C, 20D) defining an inner cavity (21A, 21B, 21C, 21D) about the emitter axis, the inner surface (20A, 20B, 20C, 20D) comprising at least two distinct sets of inner-surface stepwise discontinuities (23A, 23C, 23D), one set formed by a plurality of transverse inner regions (22A, 22C, 22D) having curved facets on planes normal to the emitter axis, and the other set formed by a plurality of transverse inner regions having straight facets on planes orthogonal to the emitter axis each redirecting light received from the emitter; and • an outer surface (30A, 30B, 30C, 30D) receiving redirected emitter light and comprising outer-surface stepwise discontinuities (33A, 33B, 33C, 33D) formed by a plurality of transverse outer regions (32A, 32B, 32C, 32D) each redirecting the received light.
A downhole apparatus comprising: a drill collar having an outer surface for interaction with an earth formation; an extendable sample device having a bore and recessed beneath said outer surface in a first position to extend beyond said outer surface to a second position; a first draw down cylinder slidably retaining a first draw down piston, said first draw down piston actuatable between a first position and a second position and said first draw down cylinder in fluid communication with said extendable sample device; a flow line (91, 93) between said extendable sample device and said first draw down cylinder, said bore and said flow line to receive at least formation fluid from the earth formation; and characterised by: a second draw down cylinder slidably retaining a second draw down piston, said second draw down cylinder in fluid series with said first draw down cylinder and said extendable sample device. a drill collar having an outer surface for interaction with an earth formation; an extendable sample device having a bore and recessed beneath said outer surface in a first position to extend beyond said outer surface to a second position; a first draw down cylinder slidably retaining a first draw down piston, said first draw down piston actuatable between a first position and a second position and said first draw down cylinder in fluid communication with said extendable sample device; a flow line (91, 93) between said extendable sample device and said first draw down cylinder, said bore and said flow line to receive at least formation fluid from the earth formation; and characterised by: a second draw down cylinder slidably retaining a second draw down piston, said second draw down cylinder in fluid series with said first draw down cylinder and said extendable sample device.