mhurhangee/ep-ind-claims huggingface dataset:
An aqueous composition for killing and/or preventing the formation of mold on a surface susceptible to mold formation, said composition comprising a silane quaternary ammonium compound in an amount of from 0.3 to 5.0 percent by weight based on the total weight of the composition, an amount of an alkanol solvent, an alkali metal bicarbonate and at least one nonionic surfactant, the weight ratio of said silane quaternary ammonium compound to said at least one nonionic surfactant being from 10:1 to 1:2, wherein the aqueous composition is a solution and wherein the alkali metal bicarbonate is added in an amount ranging from 0.1 to 1.0wt.% relative to the weight of the composition.
A panel repairing method comprising: providing primary ink, which is ejected from an ink ejection pin, to a defective portion of a display panel; bringing the ink ejection pin into contact with the primary ink; moving the ink ejection pin in a direction parallel to a plane of the display panel to spread the primary ink; temporarily curing the primary ink; providing secondary ink, which is ejected from the ink ejection pin, to the defective portion; and curing the primary ink and the secondary ink. providing primary ink, which is ejected from an ink ejection pin, to a defective portion of a display panel; bringing the ink ejection pin into contact with the primary ink; moving the ink ejection pin in a direction parallel to a plane of the display panel to spread the primary ink; temporarily curing the primary ink; providing secondary ink, which is ejected from the ink ejection pin, to the defective portion; and curing the primary ink and the secondary ink.
Aqueous composition comprising chitosan and fibroin nanoparticles and an acid agent wherein the aqueous composition has a pH equal or lower than 6, wherein the aqueous composition has a viscosity equal or lower than 3.5 kg × m -1 × s -1 measured at 25.0±0.1 °C according to the method in the description, wherein the fibroin nanoparticles have a diameter equal or lower than 140 nm, measured according to the method in the description.
An insulating panel intended to be clamped between two mutually opposing surfaces (11, 12), which insulating panel comprises a thermally insulating plate which has a compressive strength, measured according to EN 826:2013, on deformation of 10 %, of at least 50 kPa, wherein said thermally insulating plate has a first and a second side (7, 8), which sides (7, 8) lie mutually opposite each other and each have a height, and wherein the insulating panel furthermore comprises at least one elastically compressible strip which is intended to be compressed in order to clamp said thermally insulating plate by said sides (7, 8) between said surfaces (11, 12), which strip also has a compressive strength, measured according to EN 826:2013, on deformation of 10 %, of at most 40 kPa, characterised in that said strip is formed by an elastically compressible, flexible plate which is attached to the rear side of said thermally insulating plate and which, in unbent state, protrudes at least over the first side, wherein the protruding part of said flexible plate is intended, when the insulating panel is clamped between said surfaces (11, 12), to be bent and elastically compressed against said first side.
A method of estimating soil moisture at a GPS location of a planter in a field, comprising a monitor conducting the steps of: determining the GPS location of the planter; obtaining near the GPS location a first soil reflectance measurement at a first depth at a first location in the field; obtaining near the GPS location a second soil reflectance measurement at a second depth at a second location in the field; determining a reflectance-based reflectance correction based on said second soil reflectance measurement by: identifying the soil type near the GPS location; selecting an expected value for the second soil reflectance measurement corresponding to the soil type from a memory of the monitor including expected values for the second soil reflectance measurement, each corresponding to a soil type; and computing the reflectance-based correction dividing the second soil reflectance measurement by the expected value for the second soil reflectance measurement; applying said reflectance-based reflectance correction to said first soil reflectance measurement to obtain a corrected first soil reflectance measurement; and estimating moisture using said corrected first soil reflectance measurement. determining the GPS location of the planter; obtaining near the GPS location a first soil reflectance measurement at a first depth at a first location in the field; obtaining near the GPS location a second soil reflectance measurement at a second depth at a second location in the field; determining a reflectance-based reflectance correction based on said second soil reflectance measurement by: identifying the soil type near the GPS location; selecting an expected value for the second soil reflectance measurement corresponding to the soil type from a memory of the monitor including expected values for the second soil reflectance measurement, each corresponding to a soil type; and computing the reflectance-based correction dividing the second soil reflectance measurement by the expected value for the second soil reflectance measurement; identifying the soil type near the GPS location; selecting an expected value for the second soil reflectance measurement corresponding to the soil type from a memory of the monitor including expected values for the second soil reflectance measurement, each corresponding to a soil type; and computing the reflectance-based correction dividing the second soil reflectance measurement by the expected value for the second soil reflectance measurement; applying said reflectance-based reflectance correction to said first soil reflectance measurement to obtain a corrected first soil reflectance measurement; and estimating moisture using said corrected first soil reflectance measurement.
A floating structure of a coaxial connector comprising: a plug having a plug body configured to be connected with a flexible coaxial cable; and a receptacle housed in a case (10, 11) of the floating structure, the plug, when inserted into a cylindrical plug insertion part formed in the case (10, 11), and the receptacle being coupled to each other, wherein the plug insertion part is formed with a plug introduction hole having an inner diameter larger than an outer diameter of the plug, and an enlarged diameter hole communicating with a tip side of the plug introduction hole and having a diameter larger than a diameter of the plug introduction hole, the plug insertion part includes a locking ring fixed in the enlarged diameter hole, a slider having a slide ring disposed movably in an axial direction and an axial radial direction between a bottom of the enlarged diameter hole on the plug introduction hole side and the locking ring, and an energizing elastic member that energizes the slide ring toward the locking ring, wherein the slider includes a holder part into which the plug body is inserted, and an engagement spring body that engages with an engagement protrusion projected from an outer periphery of the plug body is provided on a tip side of the holder part, when the plug body is inserted into the plug insertion part, the engagement spring body is engaged with the engagement protrusion, and the plug body is coupled to the slider, and the plug body is held in the plug insertion part movably in the axial direction and the axial radial direction. a plug having a plug body configured to be connected with a flexible coaxial cable; and a receptacle housed in a case (10, 11) of the floating structure, the plug, when inserted into a cylindrical plug insertion part formed in the case (10, 11), and the receptacle being coupled to each other, wherein the plug insertion part is formed with a plug introduction hole having an inner diameter larger than an outer diameter of the plug, and an enlarged diameter hole communicating with a tip side of the plug introduction hole and having a diameter larger than a diameter of the plug introduction hole, the plug insertion part includes a locking ring fixed in the enlarged diameter hole, a slider having a slide ring disposed movably in an axial direction and an axial radial direction between a bottom of the enlarged diameter hole on the plug introduction hole side and the locking ring, and an energizing elastic member that energizes the slide ring toward the locking ring, wherein the slider includes a holder part into which the plug body is inserted, and an engagement spring body that engages with an engagement protrusion projected from an outer periphery of the plug body is provided on a tip side of the holder part, when the plug body is inserted into the plug insertion part, the engagement spring body is engaged with the engagement protrusion, and the plug body is coupled to the slider, and the plug body is held in the plug insertion part movably in the axial direction and the axial radial direction.
A method of decoding video data, the method comprising: receiving a block of video data; receiving a syntax element, wherein the syntax element is an index to a secondary transform used for the block of video data; determining, for the block of video data, an intra prediction mode from a plurality of intra prediction modes comprising a planar mode, a DC mode and a plurality of angular modes; in the case that the intra prediction mode for the block of video data is planar mode, using a position-dependent prediction combination, PDPC, mode to decode the block of video data irrespective of the value of the syntax element; and in the case that the intra prediction mode for the block of video data is an intra prediction mode other than planar mode, determining whether or not to use a PDPC mode to decode the block of video data based at least on the determined intra prediction mode and the value of the syntax element. receiving a block of video data; receiving a syntax element, wherein the syntax element is an index to a secondary transform used for the block of video data; determining, for the block of video data, an intra prediction mode from a plurality of intra prediction modes comprising a planar mode, a DC mode and a plurality of angular modes; in the case that the intra prediction mode for the block of video data is planar mode, using a position-dependent prediction combination, PDPC, mode to decode the block of video data irrespective of the value of the syntax element; and
A process for the preparation of a polymer polyol comprising the following steps: (i) preparing an intermediate in a first reactor by polymerizing a mixture comprising: (a) a base polyol in an amount from 60 to 100 wt% of the total amount of base polyol, (b) at least one ethylenically unsaturated monomer, (c) an acylperoxide radical initiator in an amount from 50 to 90 wt% of the total amount of acylperoxide radical initiator, and (d) a preformed stabilizer in an amount from 70 to 100 wt% of the total amount of preformed stabilizer or a macromer in an amount of from 70 to 100 wt% of the total amount of macromer; (ii) polymerizing in a second reactor a mixture comprising the intermediate prepared in step (i), the balance acylperoxide radical initiator proportion, the balance preformed stabilizer or macromer proportion and the balance base polyol proportion; wherein the at least one ethylenically unsaturated monomer is added only to the first reactor. (i) preparing an intermediate in a first reactor by polymerizing a mixture comprising: (a) a base polyol in an amount from 60 to 100 wt% of the total amount of base polyol, (b) at least one ethylenically unsaturated monomer, (c) an acylperoxide radical initiator in an amount from 50 to 90 wt% of the total amount of acylperoxide radical initiator, and (d) a preformed stabilizer in an amount from 70 to 100 wt% of the total amount of preformed stabilizer or a macromer in an amount of from 70 to 100 wt% of the total amount of macromer; (a) a base polyol in an amount from 60 to 100 wt% of the total amount of base polyol, (b) at least one ethylenically unsaturated monomer, (c) an acylperoxide radical initiator in an amount from 50 to 90 wt% of the total amount of acylperoxide radical initiator, and (d) a preformed stabilizer in an amount from 70 to 100 wt% of the total amount of preformed stabilizer or a macromer in an amount of from 70 to 100 wt% of the total amount of macromer; (ii) polymerizing in a second reactor a mixture comprising the intermediate prepared in step (i), the balance acylperoxide radical initiator proportion, the balance preformed stabilizer or macromer proportion and the balance base polyol proportion;
A method for manufacturing a modular antenna having predetermined dimensions and antenna properties for an RFID reading device, wherein first a plurality of base elements of the same type as one another are manufactured, on each of which a coupling element with at least one feed point, a connection for a high-frequency line and a high-frequency connection (28a-b) between connection and feed point is arranged, and one of the base elements is then inserted into a housing, wherein a plurality of different housings is provided and a housing with the predetermined dimensions is selected in order to insert the base element into the housing, characterized in that a plurality of different radiators is provided and no radiator or one of the radiators is selected and inserted into the housing in a coupling position relative to the coupling element, in order to manufacture a modular antenna having the predetermined dimensions and antenna properties by means of the respective selection.
An orthopedic implant delivery system comprising: a flexible polymer orthopedic implant (300, 301,303); a shaper (205, 608) adapted to hold the flexible polymer orthopedic implant (300, 301, 303); and a delivery instrument configured for inserting the orthopedic implant (300, 301, 303) held in the shaper (205, 608) into a joint of a patient, the delivery instrument comprising a gripping member sized and configured to allow manipulation of the delivery instrument; characterized in that: the shaper (205, 608) is adapted to maintain, support and conform the flexible polymer orthopedic implant (300,301,303) shape during implant delivery and is adapted to dictate a final shape of the flexible polymer orthopedic implant (300, 301, 303) after attachment to a joint is complete. a flexible polymer orthopedic implant (300, 301,303); a shaper (205, 608) adapted to hold the flexible polymer orthopedic implant (300, 301, 303); and a delivery instrument configured for inserting the orthopedic implant (300, 301, 303) held in the shaper (205, 608) into a joint of a patient, the delivery instrument comprising a gripping member sized and configured to allow manipulation of the delivery instrument; characterized in that: the shaper (205, 608) is adapted to maintain, support and conform the flexible polymer orthopedic implant (300,301,303) shape during implant delivery and is adapted to dictate a final shape of the flexible polymer orthopedic implant (300, 301, 303) after attachment to a joint is complete. the shaper (205, 608) is adapted to maintain, support and conform the flexible polymer orthopedic implant (300,301,303) shape during implant delivery and is adapted to dictate a final shape of the flexible polymer orthopedic implant (300, 301, 303) after attachment to a joint is complete.
A method of priming an extracorporeal circuit including a venous line, an arterial line and a chamber with a filter that allows air to escape from the chamber while preventing liquid from escaping from the chamber, comprising: flowing fluid through the circuit in a forward direction and a backward direction, while the arterial line and the venous line define the circuit and a supply of priming solution is in line with the circuit, wherein flowing the fluid forces air out through the filter; detecting a level of liquid in the chamber using a level detector; and stopping the flowing when the level detector detects that a sufficient level of liquid is in the chamber to determine that the circuit has been sufficiently primed, after a quantity of fluid sufficient to fill the circuit completely has been released into the circuit and circulated and there is no longer air in the circuit. flowing fluid through the circuit in a forward direction and a backward direction, while the arterial line and the venous line define the circuit and a supply of priming solution is in line with the circuit, wherein flowing the fluid forces air out through the filter; detecting a level of liquid in the chamber using a level detector; and stopping the flowing when the level detector detects that a sufficient level of liquid is in the chamber to determine that the circuit has been sufficiently primed, after a quantity of fluid sufficient to fill the circuit completely has been released into the circuit and circulated and there is no longer air in the circuit.
A spring strut for a motor vehicle, characterised by a suspension strut tower made of a metallic material and three shell components (2, 3, 4) made of a fibre composite material, wherein the suspension strut tower is incorporated in the shell components (2, 3, 4) such - that a first shell component spans an arc from an outer side of an engine bracket to an underside of a supporting member and the suspension strut tower is fastened from below to the first shell component with its edge, - a second shell component connects together an upper side of the supporting member, an upper side of the first shell component and an outer upper side of the suspension strut tower, and - a third shell component is fastened to an inner side of the engine bracket and an upper side of an engine bracket and also to an inner side of the first shell component and an inner upper side of the suspension strut tower. - that a first shell component spans an arc from an outer side of an engine bracket to an underside of a supporting member and the suspension strut tower is fastened from below to the first shell component with its edge, - a second shell component connects together an upper side of the supporting member, an upper side of the first shell component and an outer upper side of the suspension strut tower, and - a third shell component is fastened to an inner side of the engine bracket and an upper side of an engine bracket and also to an inner side of the first shell component and an inner upper side of the suspension strut tower.
A method for manufacturing a mixer-settler used in hydrometallurgical metal processes, such as liquid-liquid extraction, where the bottom of the mixer-settler is essentially rectangular, and the mixer-settler is compiled of vertical wall structures that get into contact with the solution, of a bottom plate that is cast of concrete and inclined in the solution flowing direction, and of a cover structure, so that the wall structures are connected to the bottom plate, whereupon the cover structure is installed on top of the wall structures, wherein the wall structures are connected by vertical support columns to the bottom plate, and that each wall structure is formed by fastening a required number of horizontal support beams to the vertical support columns at regular intervals, to which horizontal support beams there are attached a required number of plate-like wall elements made of a chemically resistant material inside the mixer-settler, so that they form a load-bearing structure in the spaces left between the horizontal support beams, characterized in that said plate-like wall elements are made of reinforced plastic and connected to a plate-like element or elements covering the bottom plate of the mixer-settler by means of a laminated bond in the corner of the mixer-settler so that there is formed a rounded angle, wherein the plate-like wall elements extend to underneath the inner surface of the bottom plate, at least in part of the edges of the mixer-settler.
A method of determining the density profile of material within a vessel comprising positioning a source of penetrating radiation having its characteristic energy level or levels at above 700 keV adjacent said vessel at a first location, positioning a radiation detector adjacent said vessel in alignment with said source to detect radiation at at least one energy level in the range 80 keV to 700 keV that has passed through a portion of said material at said first location, determining the intensity and/or energy level of said radiation at said energy level within said range, moving said source and detector to a second location displaced from said first location and determining the intensity and/or energy level of said radiation at said at least one energy level in said range at said second location, and comparing the determined intensities and/or energy levels and thereby determining the density of said material at said second location relative to its density at the first location.
A method for receiving a physical downlink control channel, PDCCH, the method performed by a machine type communication, MTC, device and comprising: when it is required to receive a PDCCH signal repeated in a plurality of subframes, determining a number of the plurality of subframes in which the PDCCH signal is repeated based on an aggregation level of the repeated PDCCH signal, wherein the number of the plurality of subframes in which the PDCCH signal is repeated is decreased when the aggregation level is increased; receiving the PDCCH signal, which is repeated in the determined number of the plurality of the subframes, and which includes downlink control information, DCI, from the base station, the DCI including information on a pattern of the subframes; determining the pattern of the subframes, in which a physical downlink shared channel, PDSCH, signal is repeated based on the DCI; and receiving the PDSCH signal which is repeated in the determined pattern of the subframes. when it is required to receive a PDCCH signal repeated in a plurality of subframes, determining a number of the plurality of subframes in which the PDCCH signal is repeated based on an aggregation level of the repeated PDCCH signal, wherein the number of the plurality of subframes in which the PDCCH signal is repeated is decreased when the aggregation level is increased; receiving the PDCCH signal, which is repeated in the determined number of the plurality of the subframes, and which includes downlink control information, DCI, from the base station, the DCI including information on a pattern of the subframes; determining the pattern of the subframes, in which a physical downlink shared channel, PDSCH, signal is repeated based on the DCI; and receiving the PDSCH signal which is repeated in the determined pattern of the subframes.