Method of producing highly filled polyvinyl chloride-based plastisol |
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IPC classes for russian patent Method of producing highly filled polyvinyl chloride-based plastisol (RU 2412962):
Primer composition for organosilicon hermetics / 2272059
Fields of invention are aircraft and space engineering, instrumentation engineering etc., when materials providing adhesion of organosilicon hermetics to various substrates are required. Technical task of invention were to ensure stable adhesion, at ambient temperature, of organosilicon hermetics based on various-structure polymers to substrates of different chemical nature both in native state and after exposure to elevated temperatures and moisture. Composition according to invention comprises alkoxy derivative of silicon: mixture of tetraethoxysilane with oilgoethoxysiloxanes (said mixture being partial hydrolysis product obtained from tetraethoxysilane with 30-34% SiO2), alkoxy derivative of titanium: polybutyl titanate, carboxy-functional alkoxysilane-carbaminoalkoxysilane, organic solvent: gasoline, white spirite, toluene, or mixture thereof, and, additionally, ethylhydridesiloxane oligomer or methylhydridesiloxane oligomer.
 Composition for protective and decorative coatings for building materials (options) / 2215767
The invention relates to construction materials and is designed for protective and decorative finishes building structures and products made of metal, concrete, brick and ceramics, as well as for corrosion protection of metal building constructions
 Composition based organopolysiloxanes for application to thin-film substrate with a release coating / 2138528
The invention relates to materials to reduce the adhesiveness of the thin-layer substrates, in particular to the composition based organopolysiloxanes for application to thin-film substrate with a release coating
 Electrically conductive paint material / 2083622
The invention relates to the manufacture of electrically conductive paints and varnishes based on synthetic polymer film-forming binder and can be used in various industries to get on dielectric substrates of large area conductive film coatings with stable electrical characteristics over the entire area of the surface film coating
 Composition for coating / 2001081
 Method of producing highly filled polyvinyl chloride-based plastisol / 2412961
Invention relates to processing polyvinyl chloride through dispersion, particularly to production of highly filled adhesive plastisols used in making protective coatings in motor-car construction, as anticorrosion protection of inner surfaces of metal structures. The method of producing highly filled plastisol based on polyvinyl chloride involves successive addition and mixture in a mixer of di(2-ethylhexyl)phthalate, triethylene glycol dimethacrylate, isopropylbenzene hydroperoxide, half of the given amount of kaolin, calcium strearate, polyvinyl chloride and the remaining amount of kaolin. Hexafunctional oligourethane acrylate, diatomite and NGZ-4 phosphate hydraulic fluid are added before adding polyvinyl chloride, and after adding the remaining amount of kaolin, a polysulphide oligomer - liquid thiocol II with weight ratio of SH groups of 1.7-2.6% and molecular weight of 2100 is added.
 Method of producing highly filled polyvinyl chloride-based plastisol / 2412960
Invention relates to processing polyvinyl chloride through dispersion, particularly to production of highly filled adhesive plastisols used in making protective coatings in motor-car construction, as anticorrosion protection of inner surfaces of metal structures. The method of producing highly filled plastisol based on polyvinyl chloride involves successive addition and mixture in a mixer of di(2-ethylhexyl)phthalate, isopropylbenzene hydroperoxide, half of the given amount of kaolin, calcium strearate, polyvinyl chloride and the remaining amount of kaolin. Hexafunctional oligourethane acrylate, diatomite and NGZ-4 phosphate hydraulic fluid are added before adding polyvinyl chloride, and after adding the remaining amount of kaolin, a polysulphide oligomer - liquid thiocol II with weight ratio of SH groups of 1.7-2.6% and molecular weight of 2100 is added.
 Method of producing fire-resistant polyvinylchloride materials / 2411265
Invention relates to production of fire-resistant plasticised polyvinylchloride materials and can be used in production of fire-proof polymer materials and coatings. In the method of producing fire-resistant polyvinylchloride materials, the plasticiser-antipyrenes used are bis-(2-dialkoxyphosphorylethyl)benzenes which contain four ether groups and two complete (secondary) phosphate groups.
 Plastisol composition for sealing and depositing coatings / 2382805
Plastisol composition based on polyvinyl chloride emulsion is meant for sealing inner and outer welded joints of carriage bodies and cabins, depositing coatings at the bottom and other metallic components of automobile equipment with the aim of their anticorrosion treatment, vibro- and noise insulation. The plastisol composition contains polyvinyl chloride emulsion, dioctylphthalate, chalk, dibasic lead phthalate, orgnobentonite, modified calcium oxide, an adhesive - polyaminoamide Euretek 545 or 505 and, if necessary, kaolin, graphite and white spirit.
 Coating for surface of rubber-polyolefine composition / 2381248
Invention refers to floor covering of rubber-polyolefine composition and method of obtaining thereof. Covering for surface includes 5 to 50 wt/wt % of thermoplastic material chosen from the group including polyethylene of extra-high molar weight, ion metre or copolymer of ethylene with methylmethacrylate, copolymer of ethylene with acrylamide, polystyrene, copolymers of ethylene with butyl acrylate, ethylene with methyl acrylate, ethylene with vinyl acetate, ethylene with octane, polyvinyl chloride, polyethylene, polypropylene, polybutene, and their mixture, from 5 to 50 wt/wt % of elastomeric material chosen from the group including styrene-butadiene rubber, nitrile-butadiene rubber, natural rubber, isoprene rubber, ethylene-propylene rubber and their mixture, from 5 to 20 wt/wt % of resin with high content of styrene, from 25 to 70 wt/wt % of filler and from 1 to 10 wt/wt % of vulcanising system. Method is implemented by mixing thermoplastic material, elastomeric material, resin with high content of styrene, filler, vulcanising system, calendering of mixture thus obtaining at least two calendered sheets, granulation of these sheets thus obtaining granules, mixing of the above granules and obtaining marble-like coating for surface by means of these granules and vulcanisation of elastomeric material.
 Anticorrosive coating compound with high content of non-volatile components, quick-set anticorrosive coating compound with high content of non-volatile components, ship or similar coating process, anticorrosive film with high content of non-volatile components and quick-set anticorrosive film with high content of nonvolatile components after coating, filmy ship and submarine construction / 2357992
Anticorrosive coating compound with high content of non-volatile components containing a major component (A) containing epoxy resin (a1) and polymerised monomer (a3) (meth)acrylate, and curing component (B) containing alicyclic amine hardener (b1) and/or Mannich base-type hardener (b2); component (A) and/or component (B) contains at least either an additive (a2) chosen from epoxidated reactive diluents and modified epoxy resins, and a modifier (ab) of coating film chosen from petroleum polymer resins, xylene resins, coumarone resins, terpene-phenolic resins and vinyl chloride copolymers. Anticorrosive coating compound with high content of non-volatile components, particularly quick-set compound is characterised by content of organic solvents with boiling temperature 150°C and higher. Essentially it does not contain organic solvents with boiling temperature 150°C or lower.
Paint composition for woodwork and metal fabric / 2354673
Paint composition for woodwork and metal fabric contains SHF-modified polyvinylchloride mixed with solvent at temperature 65-75°C during 2.0-3.5 h to complete dissolution. Then dioctylphthalate, chlorinated paraffin wax CP-470, epoxy resin ED-20, polyethylene polyamines or polypropylene polyamines and pigment are added in the reaction mixture and mixed at temperature 50-60°C during 1.5-2.0 h.
Suspension polyvinylchloride having elevated solubility and aggregative stability in varnish solvents and use thereof / 2296136
Suspension polyvinylchloride according to invention represents suspension polyvinylchloride with Fickentcher constant = 35-42, which is white powder of nonporous glass-like particles characterized by ratio of Fickentcher constant to "plasticizer absorption time" ranging from 0.3 to 3.0. The powder is prepared via water-suspension polymerization of reaction mixture containing vinyl chloride, peroxide initiator, water, stabilizer, and molecular mass regulator (chlorinated hydrocarbon), which polymerization proceeds on heating and vigorous stirring of reaction mixture (0.5-3.5 s-1) at 60-80°C. Thus obtained polyvinylchloride shows elevated solubility in organic vanish solvents (at least 99%) and finds use in preparation of compositions with elevated aggregative stability in organic vanish solvents useful in production of stable high-concentration varnishes and enamels and containing volatile compounds up to 50%. Polyvinylchloride with indicated characteristics is employed as binder in production of lacquer materials capable of forming coatings with good physicochemical and protective properties. Polyvinylchloride solution itself is characterized by high stability on storage, also at negative temperatures.
 Fire-resistant material / 2294411
Invention relates to fabricating fire-resistant material suitable to make filter-type individual respiratory defense systems. Material represents textile sheet with, applied thereon, emulsion polyvinylchloride-based discrete coating with fire resistance-imparting materials. Coating contains 15-25 wt parts talc or chalk and 40-60 wt parts trichloroethyl phosphate per 100 wt parts polyvinylchloride. As textile sheet, textile made from blend of polyester fibers with cotton or linen fibers, or with blend of cotton or linen fibers with wool fibers used in following proportions, wt %: polyester fibers 40-60 (warp) and 20-40 (weft), cotton and linen fibers 40-60 (warp) and 60-80 (weft), wool fibers 15-20 (warp) and 10-15 (weft).
 Enamel / 2291174
Invention relates to preparing paint and varnish compositions (enamels). The proposed enamel comprises a film-forming component consisting of a mixture of waste from manufacturing copolymers of vinyl chloride with vinyl acetate and vinyl chloride with vinylidene chloride formed in process of cleansing equipment in their ratio, mas. p. p.: (1.7-3.2):(10.3-14.6); organic solvent, vat residue in synthesis of vinyl chloride with the content of dichloroethane 74.20 mas. p. p. purified by distillation at temperature 30-120°C, pigment as waste in manufacturing titanium dioxide formed at step of synthesis of titanium dioxide with the content of titanium dioxide 98 mas. p. p., a filling agent as waste of air-slaked lime in manufacturing perchloric acid formed at step for quicklime slaking with the content of calcium hydroxide 90 mas. p. p. Invention provides expanding assortment of paint and varnish materials, eliminates deficit of expansive components, improved technological properties of enamel and covers based on thereof. Proposed materials can be used for protective-decorative coating surfaces of different nature, in particular, metallic, concrete, asphalt, asphalt concrete ones and can be used in different branches of industry.
Method of improving adhesion of silicon composite materials obtained from polyaddition reaction / 2401850
Invention relates to silicon composite materials obtained from a polyaddition reaction. The silicon composite material, which has high adhesion and is obtained from polydimethylsiloxane with terminal vinyl groups of general formula (CH2=CH)(CH3)2Si-[O-Si(CH3)2-]nO-Si(CH3)2(CH=CH2), (n=1280-1300, weight ratio of vinyl groups equals 0.08 wt %, dynamic viscosity equals 92822-93000 cP), contains at least 40 pts. wt organosilicon resin of general formula {[(CH3)3 SiO1/2]x[SiO2]1[(CH3)2SiO]y[CH3VinSiO]z} (x=0.9-1.2; y=0-0.4; z=0.1-0.4), and an adhesion-enhancing additive in form of 5-25 pts. wt halloysite per 100 pts. wt polymer. The method is relevant for filling compounds, sealing and damping coatings and other possible applications.
 Functional polyorganosiloxanes and curable composition based on said polyorganosiloxanes / 2401846
Invention relates to functional polyorganosiloxanes included in compositions suitable for producing optical materials. The invention discloses novel functional polyorganosiloxanes containing two or more vinyl groups on average per macromolecule, the average composition of which includes several building blocks whose structure and quantitative ratio are expressed by general formula (R2 3SiO1/2)a-(C6H5)2SiO2/2)b(R1SiO3/2)c-(C6H5SiO3/2)d-(R1R'2SiO2/2)e (I), where R1 - CH2=CH-; R2 - CH3- or C6H5-; denotation from a to e represent molar ratios of links, the sum of which is equal to 1, and their values are: a=0.15-0.4; b=0.1-0.2; c=0.15-0.4; d=0.2-0.4; e=0-0.2. Disclosed also is a curable organosilicon composition which contains: functional polyorganosiloxane from the family of polyorganosiloxanes of formula (I); polyorganohydride siloxane containing two or more hydrogen atoms bonded to silicon atoms in each molecule and a hydrosilation catalyst. The refraction index of the cross linked product is equal to or greater than 1.5. The composition is meant for encapsulating light-emitting devices.
 Polymer composition for soft contact lenses of prolonged wearing and method of production thereof / 2334770
Inventions refer to medical materials and can be used for polymer materials for soft contact lenses (SCL) of prolonged wearing. Engineering problem is development of polymer composition in the form of interpenetrating grids for SCL of prolonged wearing, possessing oxygen barrier property, hydrophilic properties, mechanical strength and optical transparency in both hydrated and dehydrated state, as well as development of simplified, efficient production method not requiring large quantity of highly toxic organic solvents. Offered are polymer composition representing bi-phase silicone-hydrogel material in the form of sequential interpenetrating grids consisting of cross-linked polysiloxane that is reaction product of vinyl-containing and hydro-containing oligosiloxane, and hydrophilic polymer that is cross-linked polyvinyl alcohol, and production method thereof including synthesis of cross-linked polysiloxane; polysiloxane saturation with monomeric mixture containing vinylacetate, cross-linking monomer and radical polymerisation initiator; copolymerisation of vinylacetate and cross-linking monomer, alcoholysis of cross-linked polyvinylacetate and production of silicone-hydrogel polysiloxane - polyvinyl alcohol.
 Polymer composition for prolonged-use soft contact lenses and a method for preparation thereof / 2269552
Composition represents biphasic silicone-hydrogel material in the form of in series arranged interpenetrating lattices consisting of cross-linked (i) polysiloxane, which is reaction product of vinyl-containing component including oligosiloxane/polysiloxane mixture and hydride-containing component, which is oligomer, and (ii) hydrophilic polymer, which is cross-linked (co)polymer of N-vinylpyrrolidone, 2-hydroxyethyl methacrylate, acrylamide, and dimethylacrylamide.
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FIELD: chemistry. SUBSTANCE: invention relates to processing polyvinyl chloride through dispersion, particularly to production of highly filled adhesive plastisols used in making protective coatings in motor-car construction, as anticorrosion protection of inner surfaces of metal structures. The method of producing highly filled plastisol based on polyvinyl chloride involves successive addition and mixture in a mixer of di(2-ethylhexyl)phthalate, triethylene glycol dimethacrylate, isopropylbenzene hydroperoxide, half of the given amount of kaolin, calcium strearate, polyvinyl chloride and the remaining amount of kaolin. Aliphatic silicon acrylate, diatomite and NGZ-4 phosphate hydraulic fluid are added before adding polyvinyl chloride, and after adding the remaining amount of kaolin, a polysulphide oligomer - liquid thiocol II with weight ratio of SH groups of 1.7-2.6% and molecular weight of 2100 is added. EFFECT: high degree of restoration of the thixotropic structure, extrusion, fire resistance and tensile strength of the polyvinyl chloride plastisol and the hardened material. 1 tbl
The invention relates to the processing of polyvinyl chloride (PVC) through the dispersion, in particular the production of highly filled plastisols used for the manufacture of protective coatings in the automotive industry, as anti-corrosion coating of internal surfaces of metal structures. A method of obtaining PVC plastisol, including PVC, plasticizer, bentonite, stabilizer, polietilenglikolja derived oleic acid [A.S. USSR №804671, CL C08L 27/06, 1981]. The disadvantage of plastisol obtained in this way is a low adhesion to the metal surface. A method of obtaining highly filled plastisol comprising emulsion PVC, di-2-ethylhexylphthalate, ether phosphoric acid, oligopyrroles, white spirit, kaolin, bentonite, oligoribonucleotide, Gidropress [RF Patent №2089572, MKI 6 C08L 27/06, SC 13/02 // (SC 13/02, 3:22, 3:24, 3:36, 5:01, 5:10, 5:14, 5:15, 5:205)]. The disadvantage of plastisol obtained in this method are the low rate of recovery of thixotropic structure after the application of shear deformation and extrusion of plastisol. While the vertical sections are formed nodules and streaks. The closest is a method of obtaining highly filled plastisol PVC-based [RF Patent №2098437, MKI 6 C08L 27/06, K 13/02 // (SC 13/02, 3:22, 5:01, 5:098, 5:10, 5:14)]. Plastisol is obtained by mixing the following ingredients, parts by weight:
The disadvantage of plastisol obtained in this method are the low rate of recovery of thixotropic structure after the application of shear deformation and extrusion, as well as the lack of resistance. The presence of a solvent white spirit in the composition of the PVC plastisol leads to high pozarovzryvobezopasnost in the coating on the base. The task of the invention is to develop a method of producing highly filled PVC plastisol coating, having a high degree of thixotropic recovery patterns after application change the type of deformation, extrusion, flame retardancy, tensile strength. The technical result is to increase the degree of thixotropic recovery patterns after the application of shear deformation, extrusion, flame resistance, tensile strength PVC plastisol. The technical result is achieved in that in a method of producing highly filled plastisol based on polyvinyl chloride, comprising the sequential introduction and mixing in a mixer di(2-ethylhexyl)phthalate, Triethylenetetramine, cumene cumene, half of a given amount of kaolin, calcium stearate, polyvinyl chloride and the remaining quantity of kaolin, before the introduction of polyvinyl chloride in the composition is optionally administered aliphatic siliconegel, diatomite and phosphate hydraulic fluid mark DALY-4, and after the remaining amount of the kaolin type polysulfide oligomer is a liquid Thiokol mark II with a mass fraction of SH-groups of 1.7 to 2.6% and molecular weight of 2100, the next the ratio of components, parts by weight:
While diatomaceous earth increases the thixotropic properties of the compositions due to physical interaction with the polymer matrix. Improving the fire resistance of the cured PVC plastisol due to the fact that in the presence of diatomite when exposed to an open flame produces a larger volume of the coke mass, with the insulating barrier effect. The introduction of the PVC plastisol structuring additive - polysulfide oligomer can significantly reduce the amount of stains and provide ravnoudalennostj applied to protect the surface of the PVC plastisol. This is because the curing polysulfide oligomer with education is receiving stitched material begins at lower temperatures, than the gelatinization PVC-plastisol flowing at the temperature of 120-130°C. the Specified allows you to IntenseDebate the beginning of the process of structuring coatings methods airless spray. In addition, the interaction of cumene hydroperoxide with the polysulfide oligomer promotes education in the system of a large number of radicals, which leads to an increase in the degree of transformation in the polymer matrix of multicomponent plastisol. The presence in the composition of the PVC plastisol of Triethylenetetramine, aliphatic silicongate and polysulfide oligomer promotes the formation of interpenetrating nets and, as a consequence, leads to an increase in the content of gel-fraction. The presence in the composition of aliphatic silicongate can improve thermal and fire resistance of the cured PVC plastisol. Introduction to PVC-plastisol phosphate hydraulic fluid ngj-4, which is a mixture of alkyl - and arylphosphate with additives, allows to improve the fire resistance of materials. The absence in the PVC plastisol solvent white spirit greatly increases fire and explosion safety of the coating process. When carrying out the claimed invention PVC-plastisol has a higher rate of recovery thixotropic structure and extrusion, as well as on sennou fire coverage. As can be seen from the table, when the content of di(2-ethylhexyl)phthalate less than 80 parts by weight deteriorates the processability of the composition. The increase in the content of di(2-ethylhexyl)phthalate more than 100 parts by weight leads to a decline in the rate of recovery of thixotropic properties, tensile strength and oxygen index. Using Triethylenetetramine at less than 10 parts by weight deteriorates the processability of the composition, reduces the adhesion strength of connection with the ground layer and the tensile strength. The increase in the content of Triethylenetetramine more than 20 parts by weight leads to a decline in the rate of recovery thixotropic properties and flow index. The use of aliphatic silicongate fewer than 30 parts by weight deteriorates the processability of the composition, reduces the adhesion strength of connection with the ground layer and the tensile strength. The increase in the content of aliphatic silicongate more than 40 parts by weight leads to a decline in the rate of recovery thixotropic properties and flow index. When the content of cumene hydroperoxide in quantities of less than 0.4 parts by weight of reduced depth transformation of the functional groups of the components involved in the formation of the polymer matrix. The use of cumene hydroperoxide in the amount of more than 1.2 parts by weight promotes integration of the operations intensification of processes of destruction of the cured PVC plastisol in conditions of atmospheric aging. When the content of kaolin in fewer than 160 parts by weight of a reduced degree of recovery thixotropic properties, oxygen index and increases the runoff of the composition. The increase in the content of kaolin over 180 parts by weight leads to deterioration of processing AIDS compositions and increase extrusion process. The use of calcium stearate in the amount of less than 3 parts by weight leads to a reduction in the degree of recovery of thixotropic properties. When the content of calcium stearate in the amount of more than 6 parts by weight increases the viscosity and extrusion, deteriorating the processability of the composition. When using the content of polysulfide oligomer in an amount of less than 1.5 parts by weight of increased runoff PVC-plastisol when applied, decrease the degree of recovery of thixotropic properties and the index of the current songs. The increase in the content of polysulfide oligomer, more than 2.5 parts by weight causes a reduction in tensile strength and oxygen index. The use of diatomaceous earth in the amount of less than 3 parts by weight leads to a decrease in flow, the degree of recovery of thixotropic properties and the oxygen index, the increase in runoff PVC plastisol. When the content of the diatomaceous earth in the amount of more than 5 parts deteriorates the processability of the composition, reduced oxygen index. The use of phosphate hydraulic fluid markings-4 in the amount less than 2 parts by weight of leads to a decrease of the oxygen index. When using phosphate hydraulic fluid in the amount of more than 7 parts by weight increases microphase separation in PVC-plastisols and decreases the tensile strength of solidified materials. In the composition of the plastisols according to the invention uses the following components: polyvinyl chloride (GOST 14039-78); di(2-ethylhexyl)phthalate (GOST 8728-88); triethyleneglycoldinitrate TGM-3 (TU-6-16-2010-82); aliphatic siliconegel - product manufactured by Sartomer No. CN-9800 viscosity 54,7 PA·s at 25°C. and a density at 25°C 1,09 g/ml of cumene hydroperoxide PIPERIS (TU 34.402.62-121-90); calcium stearate C-17 (TU 6-09-4104-75); polysulfide oligomer is a liquid Thiokol mark P (GOST 12812-80) with a mass fraction of SH-groups of 1.7 to 2.6% and molecular weight of 2100; diatomite (TU 5761-001-25310144-99) is a light, porous rocks from white to yellowish-gray with medium density, varying from 0.15 to 0.6 g/cm3. Diatomite 96% consists of water silica (opal) General formula SiO2·nH2O; phosphate hydraulic fluid (composition: dibutyltin 9-19%, tributyl phosphate 1.0 to 1.5%additive 2N 0,5-1,0, polybutylmethacrylate 5-7%) with the following characteristics: flash - 168-174°C, acid number, KOH/1 g - 0,10-0,17 mg, density at 20°C of 1.05-1.07 g/cm3, kinematic viscosity at 20°C - 5,2-65 cSt, the refractive index 1,4592-1,4599. Rheological properties of PVC-plastisol determine the device "Polymer - RPE. 1M in the range of shear rates of 0.35-91,3 with-1at 23±2°C. The degree of recovery of thixotropic structure is determined as follows. Plastisol directly in the working node viscometer dispersed for 15 min at a shear rate of 91.3-1. Then for 30 min plastisol is at rest, then determine the index of the stream. The rate of extrusion is determined on the installation firm "Willow" by fixing the time of the expiration of 60 g plastisol under a pressure of 1.4 bar through a round hole with a diameter of 2.4 mm Adhesive ability assessed by the plastisol film after gelatinization at 130°C 30 min on the surface of the metal plate, covered with soil EP-00228. Determine the nature of the detachment of the film: adhesive detachment of material from the substrate; cohesion - the destruction of the material without separation from the substrate. Runoff is determined as follows. On a plate, covered with soil EP-0228, using the template h mm put the plastisol layer with a thickness of 1 mm, after which the plate is placed in a vertical position and incubated at room temperature for 30 minutes, Measure the length of the path traveled by the border of the plastisol. The tensile strength determine who and the bursting machine with the speed of movement of the lower clamp 100 mm/min for samples in the form of a double-sided blades. The oxygen index was determined in accordance with GOST 21793-76. The composition of the PVC plastisols and properties of materials obtained by the proposed method are given in the table. Example 1 (invention). In a mixer with anchor stirrer download di(2-ethylhexyl)phthalate, triethylammonium, of cumene hydroperoxide, half of a given amount of kaolin, calcium stearate, aliphatic siliconegel, diatomite and phosphate hydraulic fluid mark DALY-4. The mixing is carried out for 30 minutes, after which the paste is introduced polyvinyl chloride. After stirring for 30 min batch upload the remaining part of kaolin and continue mixing for another 60 minutes and Then the reaction mass is added polysulfide oligomer and mix for 5 minutes the PVC plastisol is applied to protect the base and utverjdayut at a temperature of 130°C for 30 minutes.
Thus, the claimed method of obtaining highly filled PVC plastisol coating ensures compositions and materials with high degree of thixotropic recovery patterns after shear deformation, extrusion, fire resistance and tensile strength. In addition, increased explosion safety when applying structured coating. The way the floor is to be placed highly filled plastisol PVC-based, including sequential introduction and mixing in a mixer di(2-ethylhexyl)phthalate, Triethylenetetramine, cumene cumene, half of a given amount of kaolin, calcium stearate, polyvinyl chloride and the remaining quantity of kaolin, characterized in that before the introduction of polyvinyl chloride in the composition is optionally administered aliphatic siliconegel, diatomite and phosphate hydraulic fluid mark DALY-4, and after the remaining amount of the kaolin type polysulfide oligomer is a liquid Thiokol mark II with a mass fraction of SH-groups of 1.7 to 2.6% and molecular weight of 2100, in the following ratio of components, parts by weight:
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