mhurhangee/ep-ind-claims huggingface dataset:
Method for enriching and/or isolating nucleic acids from microbial cells, comprising (a) filtering a liquid sample comprising microbial cells through a nucleic acid-binding silica or glass matrix which has a pore size small enough to retain the microbial cells; (b) lysing the microbial cells, preferably bacterial cells, on the matrix to release the nucleic acids from the microbial cells, wherein said lysis does not involve a precipitation of the nucleic acids which are released from the microbial cells; (c) optionally, degrading proteins on the matrix by the addition of an enzyme having proteinase activity; (d) binding the nucleic acids to the matrix by the addition of monovalent or multivalent cations; (e) optionally, washing the matrix to remove any unbound material; and (f) eluting the nucleic acids. (a) filtering a liquid sample comprising microbial cells through a nucleic acid-binding silica or glass matrix which has a pore size small enough to retain the microbial cells; (b) lysing the microbial cells, preferably bacterial cells, on the matrix to release the nucleic acids from the microbial cells, wherein said lysis does not involve a precipitation of the nucleic acids which are released from the microbial cells; (c) optionally, degrading proteins on the matrix by the addition of an enzyme having proteinase activity; (d) binding the nucleic acids to the matrix by the addition of monovalent or multivalent cations; (e) optionally, washing the matrix to remove any unbound material; and (f) eluting the nucleic acids.
A measuring system for obtaining heights of a clad formed by laser metal deposition, LMD, the clad comprising a deposited material and a melt pool, the system comprises: - a narrow band light source configured to project a shadow pattern projection defining a laser-shadow plane on the deposited material of the clad, wherein the projected shadow distorts due to the deposited material of the clad; - a first camera configured to image capture the distorted projected shadow on the deposited material of the clad; and - computing means comprising a processing unit storing: image processing instructions to obtain a distance d between a top of the deposited material of the clad and the axis of the first camera from the captured image; arithmetic instructions to obtain a first clad height h, wherein h = d / sin θ, and wherein θ is the angle between the laser-shadow plane of the shadow pattern projection and the axis of the first camera. - a narrow band light source configured to project a shadow pattern projection defining a laser-shadow plane on the deposited material of the clad, wherein the projected shadow distorts due to the deposited material of the clad; - a first camera configured to image capture the distorted projected shadow on the deposited material of the clad; and - computing means comprising a processing unit storing: image processing instructions to obtain a distance d between a top of the deposited material of the clad and the axis of the first camera from the captured image; arithmetic instructions to obtain a first clad height h, wherein h = d / sin θ, and wherein θ is the angle between the laser-shadow plane of the shadow pattern projection and the axis of the first camera. image processing instructions to obtain a distance d between a top of the deposited material of the clad and the axis of the first camera from the captured image; arithmetic instructions to obtain a first clad height h, wherein h = d / sin θ, and wherein θ is the angle between the laser-shadow plane of the shadow pattern projection and the axis of the first camera.
A thermal cycler system for use with a sample holder configured to receive a plurality of samples, the system comprising: a sample block having an upstanding peripheral side wall and being configured to receive the sample holder; and an adaptor having an upstanding peripheral side wall configured to be positioned about the peripheral side wall of the sample block, wherein, when the peripheral side wall of the adaptor is positioned about the peripheral side wall of the sample block and the sample holder is received in the sample block, the peripheral side wall of the adaptor extends in an upward direction toward the sample holder, and a drip pan configured to receive the adaptor, the drip pan including a side wall and a bottom surface, wherein the drip pan includes one or more ejector mechanisms configured to exert force to separate the sample holder from the sample block, wherein the adaptor includes a plurality of openings configured to allow the one or more ejector mechanisms to extend therethrough and contact the sample holder. a sample block having an upstanding peripheral side wall and being configured to receive the sample holder; and an adaptor having an upstanding peripheral side wall configured to be positioned about the peripheral side wall of the sample block, wherein, when the peripheral side wall of the adaptor is positioned about the peripheral side wall of the sample block and the sample holder is received in the sample block, the peripheral side wall of the adaptor extends in an upward direction toward the sample holder, and a drip pan configured to receive the adaptor, the drip pan including a side wall and a bottom surface, wherein the drip pan includes one or more ejector mechanisms configured to exert force to separate the sample holder from the sample block, wherein the adaptor includes a plurality of openings configured to allow the one or more ejector mechanisms to extend therethrough and contact the sample holder.
An organic light-emitting device containing a heterostructure for producing electroluminescence, an emissive layer, comprising at least a host material and an emissive molecule, present as a dopant in said host material, wherein the said emissive molecule has a chemical structure represented by Formula I and II: wherein M represents a Group 10 metal, including platinum, and R 1 -R 14 are each independently selected from the group consisting of hydrogen; halogen; alkyl; substituted alkyl; aryl; substituted aryl; the substituents of said substituted alkyl or aryl groups being selected from the group consisting of halogens.
A data management method, comprising: receiving a first request, wherein the first request is used by a first user to request to register an acceleration engine image, AEI, customized by the first user, wherein the AEI is a file developed by the first user through an FPGA accelerated cloud server or a lab environment, and the first request comprises an identifier of the first user and an identifier of the AEI; determining, based on the identifier of the first user, whether a shadow tenant bucket associated with the identifier of the first user exists, wherein the shadow tenant bucket is a storage space that is associated with the first user and that is in the FPGA accelerated cloud server, and the shadow tenant bucket is used to store the AEI of the first user, and each shadow tenant bucket is in a one-to-one correspondence with a user; and when the shadow tenant bucket associated with the identifier of the first user exists, storing the AEI in the shadow tenant bucket associated with the identifier of the first user. receiving a first request, wherein the first request is used by a first user to request to register an acceleration engine image, AEI, customized by the first user, wherein the AEI is a file developed by the first user through an FPGA accelerated cloud server or a lab environment, and the first request comprises an identifier of the first user and an identifier of the AEI; determining, based on the identifier of the first user, whether a shadow tenant bucket associated with the identifier of the first user exists, wherein the shadow tenant bucket is a storage space that is associated with the first user and that is in the FPGA accelerated cloud server, and the shadow tenant bucket is used to store the AEI of the first user, and each shadow tenant bucket is in a one-to-one correspondence with a user; and when the shadow tenant bucket associated with the identifier of the first user exists, storing the AEI in the shadow tenant bucket associated with the identifier of the first user.
A method of manufacturing a subsea wet-mateable connector handle, the handle comprising a handle part, a bushing support ring, a resilient bushing, a connector mount and a securing pin, characterised by comprising: cutting the handle part from a sheet of inherently corrosion resistant metal plate by means of a two dimensional cutting process; assembling the bushing support ring and the bushing onto a limb extending from the handle part; mounting the connector mount to the bushing; and fixing the connector mount and bushing to the handle part with the securing pin.
A fabrication method of zeolite honeycomb type catalyst for reducing nitrogen oxide, comprising: (a) obtaining an inorganic binder by mixing and uniformly peptizing pseudo-boehmite, distilled water and a pH adjuster; (b) obtaining a paste by mixing and kneading zeolite, the inorganic binder, an organic binder and distilled water; (c) extruding the paste into an extrudate having a through pore of a regular structure; and (d) drying and heat treating the extrudate, wherein the peptization in the step (a) is performed with addition of 100 to 500 parts by weight of distilled water for 100 parts by weight of pseudo-boehmite, and the peptization is performed for 10 to 40 minutes under acidic condition of pH 0.5 to 3.5 or basic condition of pH 8 to 11, or performed for 2 to 4 days under acidic condition of pH 4 to 6 and wherein the peptization is not performed with the pseudo-boehmite being mixed with the zeolite and the organic binder, but is performed in an independent step, and wherein the zeolite used in the step (b) is ion-exchanged with one or more metals selected from the group consisting of Fe, Cu, Co, Pt, V, Ce and Mo. (a) obtaining an inorganic binder by mixing and uniformly peptizing pseudo-boehmite, distilled water and a pH adjuster; (b) obtaining a paste by mixing and kneading zeolite, the inorganic binder, an organic binder and distilled water; (c) extruding the paste into an extrudate having a through pore of a regular structure; and (d) drying and heat treating the extrudate,
A method of manufacturing an object, the method comprising: melting thermoplastic matrix material to transform it into liquid matrix material; feeding the liquid matrix material into a chamber via one or more matrix inlets; feeding a fibre into the chamber via a fibre inlet; contacting the fibre in the chamber with the liquid matrix material; characterized by extruding a coated fibre from an extrusion outlet of the chamber onto a substrate, the coated fibre comprising the fibre with a coating of the liquid matrix material, and the substrate comprising a previously extruded coated fibre, wherein the coating fuses with the previously extruded coated fibre and solidifies after it has fused with the previously extruded coated fibre, and wherein the fibre moves in and out of the chamber at the same velocity relative to the chamber; and causing relative movement between the extrusion outlet and the substrate as the coated fibre is extruded from the extrusion outlet. melting thermoplastic matrix material to transform it into liquid matrix material; feeding the liquid matrix material into a chamber via one or more matrix inlets; feeding a fibre into the chamber via a fibre inlet; contacting the fibre in the chamber with the liquid matrix material; characterized by extruding a coated fibre from an extrusion outlet of the chamber onto a substrate, the coated fibre comprising the fibre with a coating of the liquid matrix material, and the substrate comprising a previously extruded coated fibre, wherein the coating fuses with the previously extruded coated fibre and solidifies after it has fused with the previously extruded coated fibre, and wherein the fibre moves in and out of the chamber at the same velocity relative to the chamber; and causing relative movement between the extrusion outlet and the substrate as the coated fibre is extruded from the extrusion outlet.
Process for producing polyisocyanates containing sulfonate groups, comprising a reaction of A) at least one polyisocyanate component having aliphatically, cycloaliphatically, araliphatically and/or aromatically bonded isocyanate groups with B) at least one organic compound bearing at least one group reactive to isocyanate groups, which comprises one or more sulfonic acid and/or sulfonate groups, wherein the sulfonic acid groups are neutralized at least partially during and/or subsequent to the reaction of A) with B), and optionally C) further non-ionically hydrophilic or hydrophobic organic compounds having at least one group reactive to isocyanates, characterized in that, the reaction of the polyisocyanate component A) with the organic compound B) is carried out in the presence of at least one radical scavenger and/or peroxide decomposer D). A) at least one polyisocyanate component having aliphatically, cycloaliphatically, araliphatically and/or aromatically bonded isocyanate groups with B) at least one organic compound bearing at least one group reactive to isocyanate groups, which comprises one or more sulfonic acid and/or sulfonate groups, wherein the sulfonic acid groups are neutralized at least partially during and/or subsequent to the reaction of A) with B), and optionally C) further non-ionically hydrophilic or hydrophobic organic compounds having at least one group reactive to isocyanates,
A refrigerator, comprising: a cabinet having a first and a second storage chamber (12, 13), the first storage chamber being arranged above the second storage chamber; a partition wall provided between the first and second storage chambers (12, 13), and having a partition wall insulator therein; an evaporator case (210, 270) arranged in the second storage chamber and provided below the partition wall, the evaporator case (210, 270) having a front side and a rear side; an evaporator provided inside the evaporator case (210, 270); a water tray provided below the evaporator and configured to collect water from the evaporator; a grill cover (320, 330, 340) provided on the rear side of the evaporator case (210, 270) and in which a blower fan is installed; and a tray support (325, 326, 335) provided in the grill cover (320, 330, 340), the tray support being configured to support the water tray, characterized in that the grill cover (320, 330, 340) includes a first grill cover having a fan suction portion configured to suction cold air passing through the evaporator and configured to guide the cold air to the blower fan, wherein the tray support (325, 326, 335) includes at least one first supply port that protrudes from a front surface of the first grill cover and configured to discharge the cold air passing through the blower fan to the second storage chamber, and wherein the water tray is supported on an upper side of the at least one first supply port. a cabinet having a first and a second storage chamber (12, 13), the first storage chamber being arranged above the second storage chamber; a partition wall provided between the first and second storage chambers (12, 13), and having a partition wall insulator therein; an evaporator case (210, 270) arranged in the second storage chamber and provided below the partition wall, the evaporator case (210, 270) having a front side and a rear side; an evaporator provided inside the evaporator case (210, 270); a water tray provided below the evaporator and configured to collect water from the evaporator; a grill cover (320, 330, 340) provided on the rear side of the evaporator case (210, 270) and in which a blower fan is installed; and a tray support (325, 326, 335) provided in the grill cover (320, 330, 340), the tray support being configured to support the water tray, characterized in that the grill cover (320, 330, 340) includes a first grill cover having a fan suction portion configured to suction cold air passing through the evaporator and configured to guide the cold air to the blower fan, wherein the tray support (325, 326, 335) includes at least one first supply port that protrudes from a front surface of the first grill cover and configured to discharge the cold air passing through the blower fan to the second storage chamber, and wherein the water tray is supported on an upper side of the at least one first supply port.
A ventilation device for electrical panels, comprising a box-like metallic base, which is configured to be placed on top of an electrical panel and which has at least one lower opening through which an air flow coming from said electrical panel can flow, and at least one laminar element placed on top of said box-like metallic base, wherein said ventilation device also includes at least one flap raising and lowering with respect to said laminar element for opening and closing at least one corresponding upper opening of the laminar element, said upper opening being defined by said flap, characterized in that said laminar element is made of plastic and that said flap is obtained in at least one portion of said plastic laminar element, so that at least one portion of the perimeter of said flap is made in one piece with said plastic laminar element and constitutes a fold of said laminar element, said fold being shaped as a straight line and acting as a hinge for said flap to allow a pivotable movement opening and closing the upper opening, said flap being configured to close said upper opening when the air flow in fire condition of the electrical panel contacts prefixed areas of said plastic laminar element which are heated up, so that said hinge of the flap allows to close said upper opening in case an excess of heat is present in said electrical panel, said flap being also covered at the top by a rigid metal sheet so that said metal sheet protrudes from three sides of the flap of a distance slightly greater than the length of said upper opening and said upper opening being closed and sealed by said flap with the air flow in fire condition due to gravity, thus stopping said air flow and reducing the oxygen level inside the electrical panel.
Drive mechanism (10; 177) for a medicament delivery device, which drive mechanism (10; 177) comprises an elongated plunger rod (12; 176), wherein the plunger rod comprises a number of discrete segments (14; 178), a proximally positioned segment (14 I 14 II, 14 III; 178 I, 178 II, 178 III) of which is arranged with a passage (17, 33, 63; 181, 197, 213) in its distal end and an adjacent, distally positioned, segment (14 II, 14 III, 52; 178 II, 178 III, 216) is arranged with a protrusion (24, 38, 58; 186, 200, 220) fitting into said passage (17, 33, 63; 181, 197, 213), which protrusion comprises release elements (28, 46, 68; 190, 208, 228) wherein the most proximal segment (14 I) is arranged with an end surface intended to be in contact with a stopper in a medicament container, the drive mechanism further comprising interlocking elements (18, 20, 32, 34, 60, 62; 182, 184, 196, 198, 212, 214) arranged between adjacent segments and operably arranged to releasably lock adjacent segments, drive springs (30, 50 71; 194, 210, 230) operably arranged to act between adjacent segments, and the release elements (28, 46, 68; 190, 208, 228) operably arranged to act on said interlocking elements (18, 20, 32, 34, 60, 62; 182, 184, 196, 198, 212, 214) such that said segments (14; 178) are released in sequence.
An assembly comprising a delivery module (110, 120) for a vehicular fluid tank, an interconnection apparatus, and an electronic control unit, the assembly being characterized in that said interconnection apparatus comprises: - a substantially planar substrate having a first side and a second side; - at least one first connector (415, 425) arranged on said first side; and - at least one second connector arranged on said second side; said apparatus being adapted to compensate an alignment error of complementary connectors (215, 225; 335) intended to be mated with said at least one first connector (415, 425) and said at least one second connector, each of said delivery module (110, 120) and said electronic control unit being equipped with at least of one of said complementary connectors (215, 225; 335), wherein said delivery module (110, 120) is coupled to said interconnection apparatus by means of said at least one first connector (415, 425), and wherein said electronic control unit is coupled to said interconnection apparatus by means of said at least one second connector. - a substantially planar substrate having a first side and a second side; - at least one first connector (415, 425) arranged on said first side; and - at least one second connector arranged on said second side;
Method for determining the location of the eye fulcrum in an eye, having a pupil and a pupil centre, of a test subject, having the steps of: a) determining the mean curvature of the cornea of the eye, by means of a curvature determination device; b) determining the mean phase error of the eye, by means of a phase error measurement device; wherein the mean curvature and the mean phase error are determined in a spatially referenced manner, i.e. in relation to a particular axis or the pupil centre; c) determining the eye length from the mean curvature and the mean phase error by means of an eye length calculation device; and d) determining the location of the eye fulcrum from the eye length by means of an eye fulcrum determination device. a) determining the mean curvature of the cornea of the eye, by means of a curvature determination device; b) determining the mean phase error of the eye, by means of a phase error measurement device; wherein the mean curvature and the mean phase error are determined in a spatially referenced manner, i.e. in relation to a particular axis or the pupil centre; c) determining the eye length from the mean curvature and the mean phase error by means of an eye length calculation device; and d) determining the location of the eye fulcrum from the eye length by means of an eye fulcrum determination device.
A phosphate-free and bleaching agent-free automatic dishwasher detergent, containing: a) 10 to 40 wt.% citrate b) 4 to 26 wt.% polyphosphonic acid, c) 0.1 to 8 wt.% amylase and/or protease enzyme preparation, containing 0.1 to 40 wt.% enzyme protein, based on the total weight of the enzyme preparation, d) 2.0 to 20 wt.% anionic copolymer, comprising i) mono- or polyunsaturated monomers from the group of the carboxylic acids ii) mono- or polyunsaturated monomers from the group of the sulfonic acids iii) optional additional ionic or non-ionic monomers e) 0.2 to 10 wt.% non-ionic surfactant, wherein the automatic dishwasher detergent contains a polyphosphonic acid, comprising i) mono- or polyunsaturated monomers from the group of the carboxylic acids ii) mono- or polyunsaturated monomers from the group of the phosphonic acids iii) optional additional ionic or non-ionic monomers. a) 10 to 40 wt.% citrate b) 4 to 26 wt.% polyphosphonic acid, c) 0.1 to 8 wt.% amylase and/or protease enzyme preparation, containing 0.1 to 40 wt.% enzyme protein, based on the total weight of the enzyme preparation, d) 2.0 to 20 wt.% anionic copolymer, comprising i) mono- or polyunsaturated monomers from the group of the carboxylic acids ii) mono- or polyunsaturated monomers from the group of the sulfonic acids iii) optional additional ionic or non-ionic monomers i) mono- or polyunsaturated monomers from the group of the carboxylic acids ii) mono- or polyunsaturated monomers from the group of the sulfonic acids iii) optional additional ionic or non-ionic monomers e) 0.2 to 10 wt.% non-ionic surfactant, wherein the automatic dishwasher detergent contains a polyphosphonic acid, comprising i) mono- or polyunsaturated monomers from the group of the carboxylic acids ii) mono- or polyunsaturated monomers from the group of the phosphonic acids iii) optional additional ionic or non-ionic monomers. i) mono- or polyunsaturated monomers from the group of the carboxylic acids ii) mono- or polyunsaturated monomers from the group of the phosphonic acids iii) optional additional ionic or non-ionic monomers.