mhurhangee/ep-ind-claims huggingface dataset:
A solar heat collector tube (1, 10, 20, 30, 40, 50, 60) in which at least an infrared reflective layer, a sunlight-heat conversion layer and an anti-reflection layer are provided on the outer surface of a tube, through the interior of which a heat medium can flow, wherein a metal protective layer is provided between the infrared reflective layer and the sunlight-heat conversion layer, characterized in that the infrared reflective layer is an Ag layer in which silicon, silicon nitride or a mixture thereof is dispersed in an amount of lower than 10 at%, and the metal protective layer is formed by at least one metal selected from the group consisting of Mo, W, Ta and Nb, or a compound of the metal and silicon or nitrogen.
An aggregate cooling system (100, 1100) for cooling aggregate for use in a concrete mixture when ingredients of the concrete mixture are being batched from a concrete batching plant, the system comprising: a conveyance device (104, 1122) including a conveyer belt, the conveyance device (104, 1122) being configured to convey an aggregate stream (108, 1123) of the concrete batching plant into a mixing chamber (124, 1134) of a concrete mixing device; a liquid nitrogen storage system (140, 1104) configured to cool a supply of liquid nitrogen to a temperature below the vapor point of liquid nitrogen; a piping system (136, 1108) coupled with the liquid nitrogen storage system and configured to convey a portion of the supply of liquid nitrogen from the liquid nitrogen storage system (140, 1104); a liquid nitrogen dispenser (132, 1120) disposed above the conveyance device and configured to receive the portion of liquid nitrogen via the piping system (136, 1108); and a liquid nitrogen control valve (134, 1116) configured to control a flow of liquid nitrogen to the dispenser (132, 1120); wherein the liquid nitrogen dispenser (132, 1120) is configured to dispense an output flow of liquid nitrogen onto the surface of the aggregate stream (108, 1123) carried by the conveyor belt to the mixing chamber of the concrete mixing device; characterized in that the liquid nitrogen dispenser (132, 1120) is configured to convert a pressurized input of liquid nitrogen to an unpressurized flow of liquid nitrogen. a conveyance device (104, 1122) including a conveyer belt, the conveyance device (104, 1122) being configured to convey an aggregate stream (108, 1123) of the concrete batching plant into a mixing chamber (124, 1134) of a concrete mixing device; a liquid nitrogen storage system (140, 1104) configured to cool a supply of liquid nitrogen to a temperature below the vapor point of liquid nitrogen; a piping system (136, 1108) coupled with the liquid nitrogen storage system and configured to convey a portion of the supply of liquid nitrogen from the liquid nitrogen storage system (140, 1104); a liquid nitrogen dispenser (132, 1120) disposed above the conveyance device and configured to receive the portion of liquid nitrogen via the piping system (136, 1108); and a liquid nitrogen control valve (134, 1116) configured to control a flow of liquid nitrogen to the dispenser (132, 1120); wherein the liquid nitrogen dispenser (132, 1120) is configured to dispense an output flow of liquid nitrogen onto the surface of the aggregate stream (108, 1123) carried by the conveyor belt to the mixing chamber of the concrete mixing device; characterized in that the liquid nitrogen dispenser (132, 1120) is configured to convert a pressurized input of liquid nitrogen to an unpressurized flow of liquid nitrogen.
A computer-implemented method for processing seismic data comprising the steps of: receiving data representing seismic energy gathered from a formation by a plurality of seismic receivers, wherein the received data d ( t) includes primary and multiple data; creating (212, 242) a copy of the received data; compensating (214, 244) the copied data to reduce amplitude attenuation effects due to transmission and absorption losses, wherein amplitude corrections are applied as the inverse of factors TF and QF, where TF is a transmission factor and QF is an absorption factor; applying (216, 248) a multiple prediction algorithm to the received d(t) and compensated d̃ ( t) data to predict the multiple data, wherein the equation for prediction of multiples b 3 ( k z) is expressed by: b 3 k z = ∫ − ∞ ∞ b 1 z e ik z z dz ∫ − ∞ z − ε c 1 z 1 e − ik z z 1 dz 1 ∫ z 1 + ε ∞ b 1 z 2 e ik z z 2 dz 2 where k z is the vertical wavenumber, z 1 and z 2 are pseudo-depths, b 1 ( z) corresponds to an uncollapsed frequency-wavenumber migration of the received data and c 1 ( z 1) is computed from compensated data d̃ ( t) via the transform applied to compute b 1 ( z) from the received data d ( t); subtracting (220, 250) the predicted multiple data b 3 ( k z) from the received data d ( t)and obtain the primary data; and processing the primary data in the received data to reduce attenuation effects. receiving data representing seismic energy gathered from a formation by a plurality of seismic receivers, wherein the received data d ( t) includes primary and multiple data; creating (212, 242) a copy of the received data; compensating (214, 244) the copied data to reduce amplitude attenuation effects due to transmission and absorption losses, wherein amplitude corrections are applied as the inverse of factors TF and QF, where TF is a transmission factor and QF is an absorption factor; applying (216, 248) a multiple prediction algorithm to the received d(t) and compensated d̃ ( t) data to predict the multiple data, wherein the equation for prediction of multiples b 3 ( k z) is expressed by: b 3 k z = ∫ − ∞ ∞ b 1 z e ik z z dz ∫ − ∞ z − ε c 1 z 1 e − ik z z 1 dz 1 ∫ z 1 + ε ∞ b 1 z 2 e ik z z 2 dz 2 where k z is the vertical wavenumber, z 1 and z 2 are pseudo-depths, b 1 ( z) corresponds to an uncollapsed frequency-wavenumber migration of the received data and c 1 ( z 1) is computed from compensated data d̃ ( t) via the transform applied to compute b 1 ( z) from the received data d ( t); subtracting (220, 250) the predicted multiple data b 3 ( k z) from the received data d ( t)and obtain the primary data; and processing the primary data in the received data to reduce attenuation effects.
An amadoriase having an amino acid substitution of glutamic acid at position 98 in the amino acid sequence as shown in SEQ ID NO: 1, wherein the substitution is with an amino acid other than proline and is selected from glutamine, histidine, lysine, arginine, glycine, alanine, valine, isoleucine, leucine, methionine, cysteine, serine, threonine, asparagine, aspartic acid, phenylalanine, tyrosine and tryptophan, and exhibiting the lowered reactivity to ε-fructosyl lysine relative to the reactivity to α-fructosyl valyl histidine and/or the lowered reactivity to ε-fructosyl lysine relative to the reactivity to α-fructosyl valine compared with an amadoriase prior to such substitution.
A disposable diaper comprising: a crotch portion; a ventral-side portion extending toward the ventral side of the crotch portion; a dorsal-side portion extending toward the dorsal side of the crotch portion; and an absorber in the crotch portion, the ventral-side portion, and the dorsal-side portion, wherein the absorber is divided in a front-back direction by a width-direction slit continuing in the width direction provided on at least one of front and back sides of the crotch portion, a concave portion (17u, 19u) recessed toward the waist side is formed in width-direction centers of waist-side edge of the width-direction slit, the concave portion is shaped in such a manner as to be narrower with increasing proximity to the waist side, concave portion deformation elastic members are provided that exert a contraction force in a direction in which the width-direction both side edges of the concave portion are closer to each other, and by contraction force of the concave portion deformation elastic members, the waist-side portion of the width-direction slit in the absorber is deformed, in such a manner that the width-direction both side edges of the concave portion close. a crotch portion; a ventral-side portion extending toward the ventral side of the crotch portion; a dorsal-side portion extending toward the dorsal side of the crotch portion; and an absorber in the crotch portion, the ventral-side portion, and the dorsal-side portion, wherein the absorber is divided in a front-back direction by a width-direction slit continuing in the width direction provided on at least one of front and back sides of the crotch portion, a concave portion (17u, 19u) recessed toward the waist side is formed in width-direction centers of waist-side edge of the width-direction slit, the concave portion is shaped in such a manner as to be narrower with increasing proximity to the waist side, concave portion deformation elastic members are provided that exert a contraction force in a direction in which the width-direction both side edges of the concave portion are closer to each other, and by contraction force of the concave portion deformation elastic members, the waist-side portion of the width-direction slit in the absorber is deformed, in such a manner that the width-direction both side edges of the concave portion close.
A temperature sensor arrangement comprising: - a bandgap voltage generator, which is configured to provide an output voltage (V bg); - at least one semiconductor junction (14; 14A, 14B) for temperature sensing, which is biased by a biasing current flowing through said semiconductor junction (14; 14A, 14B); wherein the arrangement further comprises at least one poly-resistor (R b3; R 3, R 5; R 4) which is connected between the output of the bandgap voltage generator and the semiconductor junction (14; 14A, 14B), thereby providing said biasing current from the bandgap voltage generator to the semiconductor junction (14; 14A, 14B), characterized in that the bandgap voltage generator comprises a chopper amplifier, Z wherein Z the bandgap voltage generator further comprises a source follower output stage connected to the output of the chopper amplifier, the or each poly-resistor (R b3; R 3, R 5; R 4) being connected to the output of the source follower output stage. - a bandgap voltage generator, which is configured to provide an output voltage (V bg); - at least one semiconductor junction (14; 14A, 14B) for temperature sensing, which is biased by a biasing current flowing through said semiconductor junction (14; 14A, 14B); wherein the arrangement further comprises at least one poly-resistor (R b3; R 3, R 5; R 4) which is connected between the output of the bandgap voltage generator and the semiconductor junction (14; 14A, 14B), thereby providing said biasing current from the bandgap voltage generator to the semiconductor junction (14; 14A, 14B), characterized in that the bandgap voltage generator comprises a chopper amplifier, Z wherein Z the bandgap voltage generator further comprises a source follower output stage connected to the output of the chopper amplifier, the or each poly-resistor (R b3; R 3, R 5; R 4) being connected to the output of the source follower output stage. wherein the arrangement further comprises at least one poly-resistor (R b3; R 3, R 5; R 4) which is connected between the output of the bandgap voltage generator and the semiconductor junction (14; 14A, 14B), thereby providing said biasing current from the bandgap voltage generator to the semiconductor junction (14; 14A, 14B), characterized in that the bandgap voltage generator comprises a chopper amplifier, Z wherein Z the bandgap voltage generator further comprises a source follower output stage connected to the output of the chopper amplifier, the or each poly-resistor (R b3; R 3, R 5; R 4) being connected to the output of the source follower output stage.
A vane assembly for a turbine rotor assembly, said vane assembly comprising: a vane support; an insulator comprising a base portion and a projecting portion, said base portion comprising a top surface and a bottom surface, said projecting portion extending from said base portion and comprising at least one channel defined therein and positioned to substantially circumscribe an outer surface of said projecting portion; and a vane, said insulator is coupled to said vane support such that said projecting portion is between said vane and a nozzle support strut to facilitate hot gas flow from a pressure side (98,204) of said projecting portion to a suction side (96,206) of said projecting portion. a vane support; an insulator comprising a base portion and a projecting portion, said base portion comprising a top surface and a bottom surface, said projecting portion extending from said base portion and comprising at least one channel defined therein and positioned to substantially circumscribe an outer surface of said projecting portion; and a vane, said insulator is coupled to said vane support such that said projecting portion is between said vane and a nozzle support strut to facilitate hot gas flow from a pressure side (98,204) of said projecting portion to a suction side (96,206) of said projecting portion.
A system for detecting at least two analytes, comprising: i) a first donor agent capable of binding to a first analyte; ii) a first binder conjugated to a donor bead, said first binder capable of binding to the first donor agent; iii) a tagged second donor agent capable of binding to a second analyte; iv) a second binder conjugated to the donor bead, said second binder capable of binding to the tagged second donor agent; v) a tagged first acceptor agent capable of binding to the first analyte, the tagged first acceptor agent comprising a plurality of covalently bound peptide tags; vi) a first acceptor bead conjugated to an anti-peptide agent, the anti-peptide agent capable of binding with at least one of the plurality of covalently bound peptide tags; vii) a second acceptor agent capable of binding with the second analyte; and viii) a second acceptor bead capable of binding with the second acceptor agent, wherein the first binder and the second binder are not the same type of binders, wherein the donor bead comprises a photosensitizer capable of emitting singlet oxygen and wherein each acceptor bead comprises a photoactive indicator capable of fluorescing upon reaction with singlet oxygen and wherein the first and second acceptor beads emit a fluorescence at different wavelength. i) a first donor agent capable of binding to a first analyte; ii) a first binder conjugated to a donor bead, said first binder capable of binding to the first donor agent; iii) a tagged second donor agent capable of binding to a second analyte; iv) a second binder conjugated to the donor bead, said second binder capable of binding to the tagged second donor agent; v) a tagged first acceptor agent capable of binding to the first analyte, the tagged first acceptor agent comprising a plurality of covalently bound peptide tags; vi) a first acceptor bead conjugated to an anti-peptide agent, the anti-peptide agent capable of binding with at least one of the plurality of covalently bound peptide tags; vii) a second acceptor agent capable of binding with the second analyte; and viii) a second acceptor bead capable of binding with the second acceptor agent, wherein the first binder and the second binder are not the same type of binders, wherein the donor bead comprises a photosensitizer capable of emitting singlet oxygen and wherein each acceptor bead comprises a photoactive indicator capable of fluorescing upon reaction with singlet oxygen and wherein the first and second acceptor beads emit a fluorescence at different wavelength.
An implantable medical device (104, 200, 302), comprising: a case (105, 201) including an output (203, 308) configured to be connected at least to a lead (120, 304); a current generator circuit (280, 306) configured to generate pacing pulses at the output (203, 308); a switching circuit (226, 310) coupled between the CG circuit (280, 306) and the output (203, 308); one or more capacitors coupled in parallel with the CG circuit (280, 306) and the switching circuit (226, 310); and a control circuit (220, 314) coupled to the CG circuit (280, 306) and the switching circuit (226, 310), the control circuit (220, 314) configured to manage the CG circuit (280, 306) during a low voltage mode to generate the pacing pulses, characterized in that the control circuit (220, 314) is configured to control the CG circuit (280, 306) and the switching circuit (226, 310) during a high voltage mode to charge the one or more capacitors and use electrical energy stored in the one or more capacitors to deliver one or more shock pulses to the output (203, 308). a case (105, 201) including an output (203, 308) configured to be connected at least to a lead (120, 304); a current generator circuit (280, 306) configured to generate pacing pulses at the output (203, 308); a switching circuit (226, 310) coupled between the CG circuit (280, 306) and the output (203, 308); one or more capacitors coupled in parallel with the CG circuit (280, 306) and the switching circuit (226, 310); and a control circuit (220, 314) coupled to the CG circuit (280, 306) and the switching circuit (226, 310), the control circuit (220, 314) configured to manage the CG circuit (280, 306) during a low voltage mode to generate the pacing pulses, characterized in that the control circuit (220, 314) is configured to control the CG circuit (280, 306) and the switching circuit (226, 310) during a high voltage mode to charge the one or more capacitors and use electrical energy stored in the one or more capacitors to deliver one or more shock pulses to the output (203, 308).
Process for obtaining very low molecular weight heparin (VLMWH) and low molecular weight heparin (LMWH) characterised in that it comprises the steps of: a) transalification of heparin of an alkali or alkaline earth metal into benzalkonium heparinate; b) depolymerisation in organic medium with the addition of a phosphazene base or a base derived from guanidine; and c) transalification to form a salt of an alkali or alkaline earth metal. a) transalification of heparin of an alkali or alkaline earth metal into benzalkonium heparinate; b) depolymerisation in organic medium with the addition of a phosphazene base or a base derived from guanidine; and c) transalification to form a salt of an alkali or alkaline earth metal.
A product resulting from the reaction of at least: - a hydroxybenzoic acid, optionally substituted by a hydrocarbyl group, or an alkali and/or alkaline earth metal salt thereof, - a boron compound, - triethylenetetramine. - a hydroxybenzoic acid, optionally substituted by a hydrocarbyl group, or an alkali and/or alkaline earth metal salt thereof, - a boron compound, - triethylenetetramine.
A system for mixing ortho-xylene with an oxygen-containing gas, which system comprises an ortho-xylene evaporator vessel connected to be fed with a stream of oxygen-containing gas and provided with a lance projecting into the stream of oxygen-containing gas, which lance is provided with a metal spray nozzle adapted to inject droplets of liquid ortho-xylene into the stream of oxygen-containing gas concurrently with the direction of flow of the stream of oxygen-containing gas, in which the metal at the surface of the spray nozzle, that in use is in contact with the liquid ortho-xylene, has a hardness expressed as a Vickers hardness number of at least 200, wherein the metal at the surface of the spray nozzle is hardened steel and the hardened steel at the surface of the spray nozzle is obtained by a surface hardening treatment.
Vacuum cleaner with a housing and a suction hose, which has a device connection end that may be fixed on the housing and an end piece with a suction opening at the other, free end, and with a suction hose holding device arranged on the housing, which has at least a first holding element with a base body projecting from the housing, which has a holder for holding a section of the suction hose in certain areas on the housing, in which a first holding means for holding a section of the suction hose and a second holding means for holding a further section of the suction hose are provided on the first holding element, characterised in that the first holding means is made as a projection and a receiving groove is provided on the end piece of the suction hose, in which the end piece has an outside contour that tapers conically towards the free end, in which the first holding means made as a projection may be positioned so that it clamps.
A computer-implemented method of modifying a working set of information specific to a user that can be searched for content relevant to a query, the method comprising: shaping a working-set model based on a behavior of a user (143, 145, 147) across multiple application services (111, 113, 115); monitoring via a plurality of working set agents (121, 123, 125), deployed in a plurality of application services (111, 113, 115), for events (131, 133, 135) to occur in the plurality of application services (111, 113, 115), wherein the plurality of working set agents (121, 123, 125) operate on a per-user basis; receiving, by a working set service, a plurality of event signals initiated by the plurality of working set agents (121, 123, 125) in the plurality of application services (111, 113, 115) indicative of the events (131, 133, 135) occurring in the plurality of application services (111, 113, 115) that are nominated, based on working set models specific to the user, by the plurality of working set agents (121, 123, 125) for inclusion in a working set of information (103, 105; 405) specific to the user (143, 145, 147); in response to receiving the plurality of event signals, determining which of the events (131, 133, 135) qualify for inclusion in the working set of information (103, 105; 405) based on the working set model; for each event (131, 133, 135) of the events (131, 133, 135) that qualifies for inclusion in the working set of information (103, 105; 405), modifying the working set of information (103, 105; 405) to include the event (131, 133, 135); and searching the working set of information (103, 105; 405) for content relevant to a query. shaping a working-set model based on a behavior of a user (143, 145, 147) across multiple application services (111, 113, 115); monitoring via a plurality of working set agents (121, 123, 125), deployed in a plurality of application services (111, 113, 115), for events (131, 133, 135) to occur in the plurality of application services (111, 113, 115), wherein the plurality of working set agents (121, 123, 125) operate on a per-user basis; receiving, by a working set service, a plurality of event signals initiated by the plurality of working set agents (121, 123, 125) in the plurality of application services (111, 113, 115) indicative of the events (131, 133, 135) occurring in the plurality of application services (111, 113, 115) that are nominated, based on working set models specific to the user, by the plurality of working set agents (121, 123, 125) for inclusion in a working set of information (103, 105; 405) specific to the user (143, 145, 147); in response to receiving the plurality of event signals, determining which of the events (131, 133, 135) qualify for inclusion in the working set of information (103, 105; 405) based on the working set model; for each event (131, 133, 135) of the events (131, 133, 135) that qualifies for inclusion in the working set of information (103, 105; 405), modifying the working set of information (103, 105; 405) to include the event (131, 133, 135); and searching the working set of information (103, 105; 405) for content relevant to a query.