mhurhangee/ep-ind-claims huggingface dataset:
A flexible polyurethane elastomeric composition for coating a substrate, said composition comprising the reaction product of: an isocyanate component in an amount of 30 to 60 wt.-%, based on the total weight of all components used to form the polyurethane elastomeric composition; and an isocyanate-reactive component comprising a polydiene polyol present in the isocyanate-reactive component in an amount of greater than 0 and less than 95 parts by weight based on 100 parts by weight of said isocyanate-reactive component and having an average hydroxy functionality of no greater than 3 and a number average molecular weight of from 1000 to less than 2000 g/mol. an isocyanate component in an amount of 30 to 60 wt.-%, based on the total weight of all components used to form the polyurethane elastomeric composition; and an isocyanate-reactive component comprising a polydiene polyol present in the isocyanate-reactive component in an amount of greater than 0 and less than 95 parts by weight based on 100 parts by weight of said isocyanate-reactive component and having an average hydroxy functionality of no greater than 3 and a number average molecular weight of from 1000 to less than 2000 g/mol.
Isolated polypeptide consisting of the NTS-DBL1x-Id1-DBL2x region of the VAR2CSA protein for use in the treatment or prevention of pregnancy-associated malaria, wherein the NTS-DBL1x-Id1-DBL2x region of the VAR2CSA protein has the sequence set forth in SEQ ID NO: 1.
A decoding system for generating a decoded pixel based on at least N texels of at least one encoded texel block, N being a number larger than 1, said decoding system comprises: N different decoders (100, 200, 300,400), each having a circuitry having a level of complexity that is different from the level of complexity of the circuitry of the other N -1 decoders and each being configured to decode an encoded texel block to generate at least one respective texel value; a value selector connected to said N decoders (100, 200, 300, 400) and configured to selectively output the at least N texel values associated with said at least N texels from at least one of said N decoders (100, 200, 300, 400) based on the positions of the at least N texels values relative to a boundary of a texel block comprising at least one of said at least N texels; and a pixel calculator configured to calculate a decoded pixel value of said decoded pixel based on said at least N texel values selectively output by said value selector. N different decoders (100, 200, 300,400), each having a circuitry having a level of complexity that is different from the level of complexity of the circuitry of the other N -1 decoders and each being configured to decode an encoded texel block to generate at least one respective texel value; a value selector connected to said N decoders (100, 200, 300, 400) and configured to selectively output the at least N texel values associated with said at least N texels from at least one of said N decoders (100, 200, 300, 400) based on the positions of the at least N texels values relative to a boundary of a texel block comprising at least one of said at least N texels; and a pixel calculator configured to calculate a decoded pixel value of said decoded pixel based on said at least N texel values selectively output by said value selector.
A low ignition propensity wrapping paper comprising: a paper web; and an area formed by applying a combustion-inhibiting liquid onto said web, for inhibiting said web from burning, wherein: said combustion-inhibiting liquid contains a solvent from which at least calcium ions and magnesium ions are removed and a combustion inhibitor dissolved in the solvent. a paper web; and an area formed by applying a combustion-inhibiting liquid onto said web, for inhibiting said web from burning, wherein: said combustion-inhibiting liquid contains a solvent from which at least calcium ions and magnesium ions are removed and a combustion inhibitor dissolved in the solvent. said combustion-inhibiting liquid contains a solvent from which at least calcium ions and magnesium ions are removed and a combustion inhibitor dissolved in the solvent.
A method of producing a fertiliser composition, the method comprising: (a) providing a composition comprising ammonia, calcium nitrate and an anaerobic digestate; (b) contacting the composition provided in step (a) with a composition comprising carbon dioxide; and (c) adding a composition comprising cellulosic fibres to the mixture obtained in step (b). (a) providing a composition comprising ammonia, calcium nitrate and an anaerobic digestate; (b) contacting the composition provided in step (a) with a composition comprising carbon dioxide; and (c) adding a composition comprising cellulosic fibres to the mixture obtained in step (b).
Automatic dishwasher, in particular a domestic dishwasher, comprising a washing container that provides a washing chamber for receiving washware to be cleaned, and comprising a storage container for temporarily storing rinsing solution, the storage container being fluidically connected to the washing container, and comprising a feed pump by means of which rinsing solution can be fed into the storage container, characterised in that the storage container is formed as a tube, the flow cross section of which is dimensioned and adapted to the delivery rate of the feed pump such that, when used as intended, i.e. when rinsing solution is fed from the washing container into the storage container, a minimum flow speed takes effect at a predetermined volume flow with respect to the rinsing solution flowing into the storage chamber, the tube having a length of from 30 m to 100 m in the direction of flow.
A stent comprising a scaffold formed from a polymer tube - configured for being crimped to a balloon, - the scaffold having a pattern of interconnected elements, - the scaffold having an expanded diameter when expanded from a crimped state by the balloon, wherein the scaffold attains greater than about 80% of the expanded diameter after being crushed to at least 50% of the expanded diameter; wherein the scaffold has a radial stiffness greater than 0.3 N/mm; wherein the scaffold is made from a block copolymer of poly(L-lactide) (PLLA) and a hydrophilic polymer capable of having self expanding properties at 37 deg C; and wherein the scaffold has rings formed by struts, and the struts form undulating rings having crowns and the rings are interconnected by longitudinally extending links, wherein the crowns include W-crowns, Y-crowns, and free crowns, wherein a link connects a W-crown of a ring to a first adjacent ring and another link connects a Y-crown of the ring to a second adjacent ring, wherein a free crown is not connected to a link; and wherein the rings comprise a sequence of crowns including: W-crown, 3 free crowns, Y-crown, 3 free crowns, and W-crown. - configured for being crimped to a balloon, - the scaffold having a pattern of interconnected elements, - the scaffold having an expanded diameter when expanded from a crimped state by the balloon,
A method for generating a genetically modified plant which uses water more efficiently than a non-genetically modified plant of the same species, the method comprising introducing by genetic engineering using recombinant means genetic material which encodes an SbPIN4 protein to confer a stay-green phenotype, which phenotype includes a shift in water use to the post-anthesis period or increased accessibility of water during crop growth or increased transpiration efficiency resulting in increased harvest index and grain yield under water-limited conditions, wherein said SbPIN4 protein is encoded by Sorghum Gene ID Sb03g037350 from bp 65310051 to bp 65313194.
An offshore floating power generator comprising: a sea water reservoir configured to store sea water, the sea water reservoir being ascended or descended according to the amount of stored sea water while floating on the sea surface; an inlet pipe configured to guide the sea water flowing through an inlet portion to the sea water reservoir; a water turbine generator provided on the inlet pipe; and a water level adjustor configured to discharge the sea water stored in the sea water reservoir to the outside, wherein, when a difference in water levels is generated as a water level of the sea water reservoir is lowered to be lower than a water level outside the sea water reservoir, power is generated by using the water turbine generator when sea water enters the sea water reservoir through the inlet pipe, characterised in that the offshore floating power generator further comprises: a flow velocity smoothing tank, arranged so that the sea water flowing through the inlet portion is stored in the flow velocity smoothing tank and then flows into the sea water reservoir; and an equilibrium tank symmetrically provided at edges of the sea water reservoir to maintain an equilibrium of the sea water reservoir. a sea water reservoir configured to store sea water, the sea water reservoir being ascended or descended according to the amount of stored sea water while floating on the sea surface; an inlet pipe configured to guide the sea water flowing through an inlet portion to the sea water reservoir; a water turbine generator provided on the inlet pipe; and a water level adjustor configured to discharge the sea water stored in the sea water reservoir to the outside, wherein, when a difference in water levels is generated as a water level of the sea water reservoir is lowered to be lower than a water level outside the sea water reservoir, power is generated by using the water turbine generator when sea water enters the sea water reservoir through the inlet pipe, characterised in that the offshore floating power generator further comprises: a flow velocity smoothing tank, arranged so that the sea water flowing through the inlet portion is stored in the flow velocity smoothing tank and then flows into the sea water reservoir; and an equilibrium tank symmetrically provided at edges of the sea water reservoir to maintain an equilibrium of the sea water reservoir. a flow velocity smoothing tank, arranged so that the sea water flowing through the inlet portion is stored in the flow velocity smoothing tank and then flows into the sea water reservoir; and an equilibrium tank symmetrically provided at edges of the sea water reservoir to maintain an equilibrium of the sea water reservoir.
Fold-out compartment unit having a container in which a plurality of flaps are pivotably mounted, which each define a fold-out compartment between adjacent flaps and which each have at least one closing hook which, when the fold-out compartment unit is in an open position, can pivot into a hook opening, allocated thereto, of a closing strip, which strip is displaceably guided on the container between the open position and a closed position of the fold-out compartment unit, in which closed position the edge regions, defining the hook openings, of the closing strip engage behind the closing hooks located in their hook opening, characterised in that upon one of the flaps being pivoted open, the closing hook thereof contacts or acts upon the edge region, defining the associated hook opening, of the closing strip in such a way that the closing strip is pushed from the open position into the closed position.
A method of processing a reproduced audio signal and of producing an acoustic signal via a loudspeaker adapted to be worn on a user's head, said method comprising performing the following acts within a device (A100; A200; D100; D102; D104; D200; D202; A110; A 112; A120; A122; A 114; A124; MF100; A400; A500) that is configured to process audio signals: based on information from a first channel of a sensed multichannel audio signal and information from a second channel of the sensed multichannel audio signal, generating a noise estimate; based on information from the noise estimate, boosting at least one frequency subband of the reproduced audio signal with respect to at least one other frequency subband of the reproduced audio signal to produce an equalized audio signal; based on information from a sensed noise reference signal, generating an anti-noise signal; combining the equalized audio signal and the anti-noise signal to produce an audio output signal; and producing an acoustic signal that is based on the audio output signal (SO 10) via said loudspeaker. based on information from a first channel of a sensed multichannel audio signal and information from a second channel of the sensed multichannel audio signal, generating a noise estimate; based on information from the noise estimate, boosting at least one frequency subband of the reproduced audio signal with respect to at least one other frequency subband of the reproduced audio signal to produce an equalized audio signal; based on information from a sensed noise reference signal, generating an anti-noise signal; combining the equalized audio signal and the anti-noise signal to produce an audio output signal; and producing an acoustic signal that is based on the audio output signal (SO 10) via said loudspeaker.
An engine coolant additive comprising: a. a salt of a C 6 -C 12 aliphatic monobasic carboxylic acid present in a range from 40 weight percent to 70 weight percent of the engine coolant additive based on the molecular weight of the monobasic carboxylic acid; b. a salt of an azole compound; and c. water, in an amount from 25 weight percent to 35 weight percent, relative to the total weight of the engine coolant additive. a. a salt of a C 6 -C 12 aliphatic monobasic carboxylic acid present in a range from 40 weight percent to 70 weight percent of the engine coolant additive based on the molecular weight of the monobasic carboxylic acid; b. a salt of an azole compound; and c. water, in an amount from 25 weight percent to 35 weight percent, relative to the total weight of the engine coolant additive.
A nucleic acid carrier, comprising CpG-ODN-RNA conjugate and a porous silica particle carrying the same inside pores thereof, wherein the porous silica particle has an average pore diameter of 7 to 30 nm. wherein the RNA is indoleamine 2,3-dioxygenase siRNA, wherein the IDO siRNA comprises siRNA of SEQ ID NOs: 1 and 2; siRNA of SEQ ID NOs: 3 and 4; siRNA of SEQ ID NOs: 5 and 6; siRNA of SEQ ID NOs: 7 and 8; siRNA of SEQ ID NOs: 9 and 10; or siRNA of SEQ ID NOs: 11 and 12. wherein the RNA is indoleamine 2,3-dioxygenase siRNA, wherein the IDO siRNA comprises siRNA of SEQ ID NOs: 1 and 2; siRNA of SEQ ID NOs: 3 and 4; siRNA of SEQ ID NOs: 5 and 6; siRNA of SEQ ID NOs: 7 and 8; siRNA of SEQ ID NOs: 9 and 10; or siRNA of SEQ ID NOs: 11 and 12.
A low distortion amplifier, comprising a plurality of short stubs each having a leading end thereof short-circuited with a high-frequency short-circuit element and a low-frequency short-circuit element, wherein the plurality of the short stubs are connected to a vicinity of at least one of a gate terminal and a drain terminal of a transistor, and characterized in that each of the plurality of the short stubs includes a plurality of branched lines, the plurality of branched lines each having a leading end thereof short-circuited with the high-frequency short-circuit element and the low-frequency short-circuit element, wherein the low-frequency short-circuit element is disposed in a close vicinity of the high-frequency short-circuit element in each of the plurality of branched lines of the short stub, the plurality of branched lines of the short stub have the same line length from a connection point with a main line to the high-frequency short-circuit element.
Electronic device for processing radiofrequency waves, comprising a line, the line having a second geometry and being made of a second superconducting material, the line having a normal phase, a superconducting phase and a transition temperature between the superconducting phase and the normal phase, referred to as the second transition temperature (T 2), the line comprising a radiofrequency power limiter, the limiter having a first operating mode and a second operating mode, the limiter being in the form of a portion of the line that has a first geometry and that is made of a first superconducting material, the portion having a superconducting phase and a normal phase, a transition temperature to the superconducting phase, referred to as the first transition temperature (T 1), the limiter being in the first operating mode when the portion is in the superconducting phase and the limiter being in the second operating mode when the portion is in the normal phase, at least one of the first geometry and the first superconducting material being different from the second geometry and the second superconducting material in order that the first transition temperature (T 1) is strictly below the second transition temperature (T 2), characterised in that the first superconducting material comprises at least one first zone made of a third superconducting material and at least one second zone made of second superconducting material, the third superconducting material being different from the first superconducting material and the second superconducting material.
An electrical circuit comprising a power supply; at least one electrical load (366, 368, 370); and a circuit interruption device (110, 210, 310,510, 610) comprising an interruption element (112,212, 312,512, 612) and a fuse element (114,214, 314,514, 614) coupled in parallel, wherein the interruption device is coupled in electrical series between the power supply and the at least one electrical load and wherein said interruption element is in communication with a sensor, said interruption element being configured to actuate in response to a predetermined output signal from said sensor; characterized in that the at least one electrical load includes a starter motor and the fuse element is configured to provide a current-carrying capacity sufficient to enable a re-starting of a vehicle engine after the interruption element (112, 212, 312, 512, 612) has been actuated and opened.
A conveyor locking clip (50,52) for releasably interlocking first and second conveyor loop fasteners (34,36), said locking clip (50,52) comprising first and second rigid arms (54,56) for respective engagement in corresponding intermeshed loops (38,40) of said first and second conveyor fasteners (34,36) that are located at registering extremities (34a, 34b, 36a, 36b) of said first and second conveyor loop fasteners (34,36), said locking clip (50,52) further comprising a bridge rigidly linking said first and second arms (54,56) and characterised in that said locking clips (50,52) further comprise studs (60,62) on at least one of said first and second arms (54,56) for engagement of said studs (60,62) in-between loops (38,40) of a corresponding one of said first and second conveyor loop fasteners (34,36).
An injection mold for encapsulating a substrate, the injection mold comprising: a lower mold component; an upper mold component adapted to form an encapsulation mold cavity at an edge of the substrate when the upper mold component engages the lower mold component, wherein the lower mold component comprises a substrate support and wherein the upper mold component comprises a recess; a tiltable insert sized and shaped to slide within the recess and having a substrate-contacting surface defining an area of the substrate contacted by the insert, the insert adapted to tilt within the recess relative to the upper and lower mold components to tiltably cooperate with the upper mold component to form a seal for the encapsulation mold cavity; characterized in that the injection mold comprises a plurality of pressure-exerting actuators each comprising a pressure coupling member, optionally tiltable in response to tilting of the insert, to contact the insert and each actuator being configured to independently apply pressure on the substrate via the insert, wherein the plurality of pressure-exerting actuators are adapted to equilibrate a total predetermined pressure exerted by the insert substantially evenly across the area of the substrate-contacting surface in response to local variations in thickness of the substrate thereby providing a tilting positional adjustment of the insert to compensate said variations. a lower mold component; an upper mold component adapted to form an encapsulation mold cavity at an edge of the substrate when the upper mold component engages the lower mold component, wherein the lower mold component comprises a substrate support and wherein the upper mold component comprises a recess; a tiltable insert sized and shaped to slide within the recess and having a substrate-contacting surface defining an area of the substrate contacted by the insert, the insert adapted to tilt within the recess relative to the upper and lower mold components to tiltably cooperate with the upper mold component to form a seal for the encapsulation mold cavity; characterized in that the injection mold comprises a plurality of pressure-exerting actuators each comprising a pressure coupling member, optionally tiltable in response to tilting of the insert, to contact the insert and each actuator being configured to independently apply pressure on the substrate via the insert, wherein the plurality of pressure-exerting actuators are adapted to equilibrate a total predetermined pressure exerted by the insert substantially evenly across the area of the substrate-contacting surface in response to local variations in thickness of the substrate thereby providing a tilting positional adjustment of the insert to compensate said variations.
Support arrangement for a solar installation, comprising at least one ground stay provided with a crossmember, which is located or can be mounted in an upper end region of an upward-projecting support post and which can alternatively be fixed on the support post in several supporting positions differing in their inclination relative to the horizontal, wherein the crossmember can be or is secured to each one of two crossmember holders (18a, 18b) by means of two supporting joints (27, 28) arranged at a distance from one another on the longitudinal direction of the crossmember and mountable or mounted on the support post via these crossmember holders (18a, 18b), wherein the vertical distance (h) adopted by the supporting joints (27, 28) relative to one another in the longitudinal direction of the support post is variably adjustable, characterised in that each crossmember holder (18a, 18b) is adjustable on the support post in the longitudinal direction thereof, with the result the that vertical positions of the two supporting joints (27, 28) adopted relative to the support post in the longitudinal direction thereof are variably adjustable independently of one another.
An aerosol delivery device comprising: an atomizer; an outer body having an outlet (328; 1128; 1328) and housing the atomizer; and a structure configured to inhibit liquid droplets of an aerosol precursor from exiting the outlet (328; 1328; 1128), wherein the structure is a micro-pattern (600; 700; 800; 900; 1000; 1132) that is an engineered surface topography including ordered three-dimensional features at the micro-meter scale and is applied to a surface (314A; 316A; 1316A) of the outer body, the micro-pattern (600; 700; 800; 900; 1000; 1132) comprising a plurality of capillary channels sized and arranged to direct liquid away from the outlet (328; 1328; 1128). an atomizer; an outer body having an outlet (328; 1128; 1328) and housing the atomizer; and a structure configured to inhibit liquid droplets of an aerosol precursor from exiting the outlet (328; 1328; 1128), wherein the structure is a micro-pattern (600; 700; 800; 900; 1000; 1132) that is an engineered surface topography including ordered three-dimensional features at the micro-meter scale and is applied to a surface (314A; 316A; 1316A) of the outer body, the micro-pattern (600; 700; 800; 900; 1000; 1132) comprising a plurality of capillary channels sized and arranged to direct liquid away from the outlet (328; 1328; 1128).