mhurhangee/ep-ind-claims huggingface dataset:
An optical amplifier system comprising: - a first reflector (410; 510; 610) operable to receive input light through a first aperture and direct the input light along an optical path, wherein the input light is characterized by a polarization state; - a first polarizer (420; 520) operable to reflect light having the polarization state along the optical path; - a first set of amplifier modules (460, 461; 470, 471; 560) disposed along the optical path, comprising a first amplifier module (460; 470;560) and a second amplifier module (461; 471); - a second set of amplifier modules (462; 472; 562) disposed along the optical paths, comprising a third amplifier module and a fourth amplifier module (462; 472; 562); - a set of mirrors (450a, 450b; 450f, 450e; 550) operable to reflect the light exiting the first amplifier module to enter the second amplifier module, each amplifier having at each end a window; - a set of mirrors (552, 554) operable to reflect light exiting the first set of amplifier modules (460, 461; 470, 471; 560) to enter the second set of amplifier modules (462; 472; 562); - a second polarizer (422; 522; 622) operable to reflect light having a polarization state along the optical path; and - a second reflector (412; 512) operable to reflect amplified light reflected from the second polarizer (422; 522); wherein the amplifier modules are disposed in a three-dimensional geometry wherein the end windows of each amplifier are substantially located in two plans, parallel to each other. - a first reflector (410; 510; 610) operable to receive input light through a first aperture and direct the input light along an optical path, wherein the input light is characterized by a polarization state; - a first polarizer (420; 520) operable to reflect light having the polarization state along the optical path; - a first set of amplifier modules (460, 461; 470, 471; 560) disposed along the optical path, comprising a first amplifier module (460; 470;560) and a second amplifier module (461; 471); - a second set of amplifier modules (462; 472; 562) disposed along the optical paths, comprising a third amplifier module and a fourth amplifier module (462; 472; 562); - a set of mirrors (450a, 450b; 450f, 450e; 550) operable to reflect the light exiting the first amplifier module to enter the second amplifier module, each amplifier having at each end a window; - a set of mirrors (552, 554) operable to reflect light exiting the first set of amplifier modules (460, 461; 470, 471; 560) to enter the second set of amplifier modules (462; 472; 562); - a second polarizer (422; 522; 622) operable to reflect light having a polarization state along the optical path; and - a second reflector (412; 512) operable to reflect amplified light reflected from the second polarizer (422; 522);
A therapeutic composition comprising: a drug susceptible to abuse, which is selected from pseudoephedrine and salts thereof; at least 10% by weight hydroxypropylcellulose; polyethylene oxide; and a disintegrant selected from the group consisting of crospovidone, sodium starch glycolate and croscarmellose sodium; wherein the ratio of hydroxypropylcellulose to polyethylene oxide on a weight basis is between about 10:1 and 1:10. a drug susceptible to abuse, which is selected from pseudoephedrine and salts thereof; at least 10% by weight hydroxypropylcellulose; polyethylene oxide; and a disintegrant selected from the group consisting of crospovidone, sodium starch glycolate and croscarmellose sodium; wherein the ratio of hydroxypropylcellulose to polyethylene oxide on a weight basis is between about 10:1 and 1:10.
A three-dimensional, 3D, image display apparatus comprising: a backlight component configured to provide collimated white light; and a display panel configured to modulate light received from the backlight component based on image information, wherein the display panel comprises: a display element layer comprising a plurality of pixel regions which are independently controllable; and a diffractive element configured to diffract the light toward a plurality of viewing zones; characterized in that: the display panel comprises a color filter array layer configured to perform color conversion with respect to white light that has propagated through the display element layer; the diffractive element is formed directly on the color filter array layer; the color filter array layer and the diffractive element are formed integrally with respect to each other to form a diffractive color filter; and in the diffractive color filter, the color filter array layer and the diffractive element are disposed such that the light that has propagated through the display element layer propagates through the color filter array layer and is incident to the diffractive element. a backlight component configured to provide collimated white light; and a display panel configured to modulate light received from the backlight component based on image information, wherein the display panel comprises: a display element layer comprising a plurality of pixel regions which are independently controllable; and a diffractive element configured to diffract the light toward a plurality of viewing zones; a display element layer comprising a plurality of pixel regions which are independently controllable; and a diffractive element configured to diffract the light toward a plurality of viewing zones; characterized in that: the display panel comprises a color filter array layer configured to perform color conversion with respect to white light that has propagated through the display element layer; the diffractive element is formed directly on the color filter array layer; the color filter array layer and the diffractive element are formed integrally with respect to each other to form a diffractive color filter; and in the diffractive color filter, the color filter array layer and the diffractive element are disposed such that the light that has propagated through the display element layer propagates through the color filter array layer and is incident to the diffractive element. the display panel comprises a color filter array layer configured to perform color conversion with respect to white light that has propagated through the display element layer; the diffractive element is formed directly on the color filter array layer; the color filter array layer and the diffractive element are formed integrally with respect to each other to form a diffractive color filter; and in the diffractive color filter, the color filter array layer and the diffractive element are disposed such that the light that has propagated through the display element layer propagates through the color filter array layer and is incident to the diffractive element.
An inflatable packer assembly for use in a subterranean well, the inflatable packer assembly comprising: an inflatable seal element with an internal inflation chamber; a flow passage extending longitudinally through the inflatable packer assembly; a flow restrictor between first and second sections (36a, 36b) of the flow passage; and a flow controller that selectively permits and prevents fluid communication between the inflation chamber and each of the first and second flow passage sections (36a, 36b), and the flow controller is changeable from a deflate configuration to an inflate configuration in response to a flow rate increase through the flow passage in which the flow controller includes first and second valves (68, 76, 58), the first valve (68, 76) prevents fluid communication between the inflation chamber and the first flow passage section, and the second valve permits fluid communication between the inflation chamber and the second flow passage section, in the deflate configuration. an inflatable seal element with an internal inflation chamber; a flow passage extending longitudinally through the inflatable packer assembly; a flow restrictor between first and second sections (36a, 36b) of the flow passage; and a flow controller that selectively permits and prevents fluid communication between the inflation chamber and each of the first and second flow passage sections (36a, 36b), and the flow controller is changeable from a deflate configuration to an inflate configuration in response to a flow rate increase through the flow passage in which the flow controller includes first and second valves (68, 76, 58), the first valve (68, 76) prevents fluid communication between the inflation chamber and the first flow passage section, and the second valve permits fluid communication between the inflation chamber and the second flow passage section, in the deflate configuration.
An extraction device (100, 200), comprising: a delivery shaft having a lumen and a distal end; a first wire forming a first arc and being positionable distal to the distal end of the delivery shaft while ends of the first arc are at a distalmost end of the delivery shaft: a second wire forming a second arc and being positionable distal to the distal end of the delivery shaft while ends of the second arc are at the distalmost end of the delivery shaft; a first guide and a second guide moveable along the first wire toward a distalmost extent of the first wire from a first position to a second position more distal than the first position; and a cover attached to the first guide and the second guide, wherein, while in the second position, the cover encompasses an outer cross-sectional dimension of each of (i) the first wire and (ii) the second wire, wherein the distalmost extent of the first wire is distal to a distalmost extent of the second wire, wherein the first wire and the second wire are retractable relative to the delivery shaft. a delivery shaft having a lumen and a distal end; a first wire forming a first arc and being positionable distal to the distal end of the delivery shaft while ends of the first arc are at a distalmost end of the delivery shaft: a second wire forming a second arc and being positionable distal to the distal end of the delivery shaft while ends of the second arc are at the distalmost end of the delivery shaft; a first guide and a second guide moveable along the first wire toward a distalmost extent of the first wire from a first position to a second position more distal than the first position; and a cover attached to the first guide and the second guide, wherein, while in the second position, the cover encompasses an outer cross-sectional dimension of each of (i) the first wire and (ii) the second wire, wherein the distalmost extent of the first wire is distal to a distalmost extent of the second wire, wherein the first wire and the second wire are retractable relative to the delivery shaft. a second wire forming a second arc and being positionable distal to the distal end of the delivery shaft while ends of the second arc are at the distalmost end of the delivery shaft; a first guide and a second guide moveable along the first wire toward a distalmost extent of the first wire from a first position to a second position more distal than the first position; and a cover attached to the first guide and the second guide, wherein, while in the second position, the cover encompasses an outer cross-sectional dimension of each of (i) the first wire and (ii) the second wire, wherein the distalmost extent of the first wire is distal to a distalmost extent of the second wire, wherein the first wire and the second wire are retractable relative to the delivery shaft.
A screening device for purifying water, said screening device being disposed in water, comprising a holder provided with a bottom, side walls, a first end wall provided with an inlet opening and a second end wall provided with an outlet opening, a drum screen extending between said openings (7, 9) in the end walls (6, 8) of the holder, which drum screen has a cylindrical wall provided with apertures for the passage of water and an inlet opening and an outlet opening, which screening device further comprises an outlet in one of the side walls or the bottom of the holder for the discharge of purified water, wherein the drum screen further comprises a rotatable, helical flange which extends axially from the inlet opening of the drum screen, along at least part of the length thereof, and which abuts against the drum screen, characterized in that said screening device is disposed in said water such that said drum screen extends horizontally between said openings (7, 9) in the end walls (6, 8) of the holder, in such a manner that objects present in the water, for example fish and jellyfish, are driven alive to the outlet opening in the second end wall of the holder and will not accumulate in the drum screen.
A compound of formula or a pharmaceutically acceptable salt or a stereoisomer thereof; wherein, Ring Z 1 is an optionally substituted 5- or 6-membered heteroaryl; Ring Z 2 is an optionally substituted heterocycloalkyl, optionally substituted heteroaryl or a direct bond; R 1 is alkyl, cyano, -NR a R b or an optionally substituted group selected from cycloalkyl, aryl and heterocyclyl; wherein the substituent, at each occurrence, independently is alkyl, alkoxy, halogen, hydroxyl, hydroxyalkyl, amino, aminoalkyl, nitro, cyano, haloalkyl, haloalkoxy, -OCO-CH 2 -O-alkyl, -OP (O-alkyl) 2 or -CH 2 -OP (O-alkyl) 2; R 2, at each occurrence, independently is an optionally substituted group selected from alkyl or cycloalkyl; wherein the substituent, at each occurrence, is independently halogen, alkoxy, hydroxyl, hydroxyalkyl, haloalkyl or haloalkoxy; R 3, at each occurrence, independently is hydrogen, halogen, alkyl, haloalkyl, haloalkoxy, alkoxy, -NRaRb, hydroxyl or hydroxyalkyl; R a is hydrogen or alkyl; R b is hydrogen, alkyl, acyl, hydroxyalkyl, -SO 2 -alkyl or optionally substituted cycloalkyl; 'm' and 'n' are independently 1 or 2. Ring Z 1 is an optionally substituted 5- or 6-membered heteroaryl; Ring Z 2 is an optionally substituted heterocycloalkyl, optionally substituted heteroaryl or a direct bond; R 1 is alkyl, cyano, -NR a R b or an optionally substituted group selected from cycloalkyl, aryl and heterocyclyl; wherein the substituent, at each occurrence, independently is alkyl, alkoxy, halogen, hydroxyl, hydroxyalkyl, amino, aminoalkyl, nitro, cyano, haloalkyl, haloalkoxy, -OCO-CH 2 -O-alkyl, -OP (O-alkyl) 2 or -CH 2 -OP (O-alkyl) 2; R 2, at each occurrence, independently is an optionally substituted group selected from alkyl or cycloalkyl; wherein the substituent, at each occurrence, is independently halogen, alkoxy, hydroxyl, hydroxyalkyl, haloalkyl or haloalkoxy; R 3, at each occurrence, independently is hydrogen, halogen, alkyl, haloalkyl, haloalkoxy, alkoxy, -NRaRb, hydroxyl or hydroxyalkyl; R a is hydrogen or alkyl; R b is hydrogen, alkyl, acyl, hydroxyalkyl, -SO 2 -alkyl or optionally substituted cycloalkyl; 'm' and 'n' are independently 1 or 2.
A sensor for measuring hydrogen in molten metal having a junction structure of a solid oxygen ion conductor and a solid hydrogen ion conductor, comprising: an oxygen ion conductor 100 whose inside is hollow and one portion is open; a hydrogen ion conductor 200 coupled with an outer side of the oxygen ion conductor 100; a measurement metal electrode 300 formed at an outer side of the hydrogen ion conductor 200; a reference metal electrode 400 formed inside the oxygen ion conductor 100; and voltage measurement wires 600 connected to the measurement metal electrode 300 and the reference metal electrode 400, respectively. an oxygen ion conductor 100 whose inside is hollow and one portion is open; a hydrogen ion conductor 200 coupled with an outer side of the oxygen ion conductor 100; a measurement metal electrode 300 formed at an outer side of the hydrogen ion conductor 200; a reference metal electrode 400 formed inside the oxygen ion conductor 100; and voltage measurement wires 600 connected to the measurement metal electrode 300 and the reference metal electrode 400, respectively.
Method in a cardboard creasing machine operation to perform creases on a cardboard web, said web having a width of at least two lanes of blanks in parallel to each other and in at least one zone per pair of lanes comprise an area where intentional creases on both said lanes are made in an adjacent area transversally to a feeding direction of the machine and these creases are interrupted avoiding them to meet to provide an uncreased portion at each lane of blanks, which portion is adapted to form one part of a longitudinal overlap seal, characterized in that the cardboard blank web in a limited area of such an interruption is intentionally and positively elevated and supported from the side of a female crease die (in Z-direction = ZD) to a level coinciding with or above an outermost surface of the female crease die.
A composition comprising microspheres, wherein the microspheres comprise an antisense oligonucleotide with at least 90% sequence homology to SEQ ID NO: 4, an antisense oligonucleotide with at least 90% homology to SEQ ID NO:6, and an antisense oligonucleotide with at least 90% homology to SEQ ID NO:7, for use as a treatment for inducing dendritic cell tolerance in a mammal, wherein the antisense oligonucleotides with at least 90% sequence homology to SEQ ID NO: 4, SEQ ID NO: 6, and SEQ ID NO: 7 target and bind to primary transcripts of CD40, CD86, and CD80 respectively, the use comprising: administering to the mammal the composition in an injection, wherein the administering is repeated. administering to the mammal the composition in an injection, wherein the administering is repeated.
A pouch container comprising at least a first wall-surface portion and a second wall-surface portion opposed to the first wall-surface portion as wall-surface portions (11B, 12B), and also comprising a sealing portion (14, 15, 16) where rear surfaces (11S, 12S) of the respective wall-surface portions (11B, 12B) are bonded to each other, wherein the first and second wall-surface portions (11B, 12B) each include a base film and a sealant layer provided on a rear surface side of the base film, at least one of the first and second wall-surface portions (11B, 12B) includes a platelessly printed layer formed between the base film and the sealant layer, and an edge of the platelessly printed layer is defined at a position spaced apart from a container end face (E1, E2, E3), characterized in that at least one of the first and second wall-surface portions (11B, 12B) includes a plate-printed layer formed between the container end face and the edge of the platelessly printed layer so that the plate-printed layer is exposed in the container end face, wherein the edge of the platelessly printed layer overlaps an edge of the plate-printed layer, or the edge of the platelessly printed layer is spaced apart from the edge of the plate-printed layer such that the plate-printed layer does not overlap with the platelessly printed layer.
Measuring device for measuring test objects, with - at least one transmitter-receiver unit (3; 3, 3'), with - a transmitter for emitting terahertz radiation; - an associated receiver for detecting a terahertz radiation reflected on a test object; - at least one mirror array (4; 4, 4') with - a first parabola-shaped, curved mirror (7; 7, 7'), - which configures in an x-y-plane (E xy; E xy, E xy ') a first focal point (B 1; B 1, B 1 '), and - a second parabola-shaped, curved mirror (19; 19, 19'), - which configures in the x-y-plane (E xy; E xy, E xy ') a second focal point (B 2; B 2, B 2 '), - a third mirror (8; 8, 8') for deflecting the terahertz radiation (S, R), - a test object holder for arranging the test object in the second focal point (B 2; B 2, B 2 '); and - a control unit for evaluating the terahertz radiation detected by the receiver, characterised in that the first mirror (7, 7, 7') and the second mirror (19; 19, 19') are disposed opposite one another and for deflecting the terahertz radiation (S, R) between their focal points (B 1, B 2; B 1, B 2, B 1 ', B 2 '), and the third mirror (8; 8, 8') is disposed in the first focal point (B 1; B 1, B 1 ') and for deflecting the terahertz radiation (S, R) between a z direction running transversally to the x-y plane (E xy; E xy, E xy ') and the x-y plane (E xy; E xy, E xy '). - at least one transmitter-receiver unit (3; 3, 3'), with - a transmitter for emitting terahertz radiation; - an associated receiver for detecting a terahertz radiation reflected on a test object; - a transmitter for emitting terahertz radiation; - an associated receiver for detecting a terahertz radiation reflected on a test object; - at least one mirror array (4; 4, 4') with - a first parabola-shaped, curved mirror (7; 7, 7'), - which configures in an x-y-plane (E xy; E xy, E xy ') a first focal point (B 1; B 1, B 1 '), and - a second parabola-shaped, curved mirror (19; 19, 19'), - which configures in the x-y-plane (E xy; E xy, E xy ') a second focal point (B 2; B 2, B 2 '), - a third mirror (8; 8, 8') for deflecting the terahertz radiation (S, R), - a first parabola-shaped, curved mirror (7; 7, 7'), - which configures in an x-y-plane (E xy; E xy, E xy ') a first focal point (B 1; B 1, B 1 '), and - which configures in an x-y-plane (E xy; E xy, E xy ') a first focal point (B 1; B 1, B 1 '), and - a second parabola-shaped, curved mirror (19; 19, 19'), - which configures in the x-y-plane (E xy; E xy, E xy ') a second focal point (B 2; B 2, B 2 '), - which configures in the x-y-plane (E xy; E xy, E xy ') a second focal point (B 2; B 2, B 2 '), - a third mirror (8; 8, 8') for deflecting the terahertz radiation (S, R), - a test object holder for arranging the test object in the second focal point (B 2; B 2, B 2 '); and - a control unit for evaluating the terahertz radiation detected by the receiver,
A welding wire feeder comprising: a welding wire feed drive configured to drive welding wire towards a welding application; wire feed control circuitry coupled to the welding wire feed drive and configured to control the drive of welding wire towards the welding application; power conversion circuitry configured to receive polarized input power from a welding power source via input connections with defined polarities and to convert the polarized input power to welding output; characterized by sensing circuitry configured to detect the polarity of the polarized input power when connected to the input connections; and welding process control circuitry coupled to the power conversion circuitry and to the sensing circuitry and configured to provide the polarized input power to the power conversion circuitry only if the polarity of the polarized input power corresponds to the defined polarities of the input connections. a welding wire feed drive configured to drive welding wire towards a welding application; wire feed control circuitry coupled to the welding wire feed drive and configured to control the drive of welding wire towards the welding application; power conversion circuitry configured to receive polarized input power from a welding power source via input connections with defined polarities and to convert the polarized input power to welding output; characterized by sensing circuitry configured to detect the polarity of the polarized input power when connected to the input connections; and welding process control circuitry coupled to the power conversion circuitry and to the sensing circuitry and configured to provide the polarized input power to the power conversion circuitry only if the polarity of the polarized input power corresponds to the defined polarities of the input connections.