Document N2anNRXaLOV47dQZZpnemG6e8

/ / Ideas Proposed at Meeting on Usce.-lber 13, lyi'O ~i 1. Make an M50 type of pigment tut replace the chroiui.am with some other element. 2. Make an M5G or MpO type containing e third or even a fourth element (in addi tion to the lead and ehroaliea). 3- Use the One or concept (core and. shell) to carry a useful organic materiel (ex. g., silicones) as the shell. k. Oneor "tint" pigments: single pigments to sake a gray, a cream, a light blue, etc., like the Krebs tinted titaniums of the 1930's and early 40's. 5. Make an Or.cor pigment combining fire retardant properties with anti-corrosion properties, for example; 23$ antimony oxides, 23$ zinc oxide, $0$ silica. 6. Make an Oncor type pearlaccent pigment but keep the silica content low. 7. Put the group of nitrides (prepared some years ago by L. M- Kebric'h) on a silica or other core to a me at the on ti-corrosi'"re properties of red lead; would be used in only snail amounts. 8. Make a lead silieo-titanale-chromate. 9- Investigate more fully the organic inhibitors, ex. g.. benzoates, phosphates, nitrites. 10. Use colored glasses -- perhaps as beads -- as pigments in paints, or coat particles of glass or pigments with reflective transparent films- 11. Two-tone, very thick finishes derived from mixtures of coarse, varicolored pigment particles (TiOp-coated sea sand, carbon black-coated sea sand-or saw dust, ancl phthalo-colored coated silica) bonded together with a material such as phenolformaldehyde resin. 12. Use gels such as Bentone, silicate gels and lead gels of low refractive index in clear finishes to obtain finishes of greeter durability. 13. A chromate or chromium oxide core as a substrate for any of a variety of coatings (TiOg, AlgO^, silicates, etc.) to provide anticorrosive properties in various color's; phosphates should also work. NL 000041462 14. Use an One or basic zinc chroma- traffic paints because of its cheapness a.nd brilliance . 15- Resimted Oneor pigments - typ: y resineted TiOp-coated silica and resin- ated sine chroHiat cnsvr.xj. U'.so-rv*i. r- .11. .vu demonstrated good exposure results. .10 Organic derivatives of chromic acid should have greater solubility of the chromate ion and therefore better metal protection as compared to inorganic chromates j organic lead-chromate pigments may prove of interest. 17. Pigment-polymer combinations primarily for use in electro-deposition, wherein the single charge on each particle would allow both pigment and vehicle to move at the same rate to the electrode] such combinations could be either latex-pigment or oil (or alkyd)-pigment. 18. Combine core and coating by a dry electrostatic process in which the two com ponents combine by neutralisation of their opposite electrical charges: such combinations could include different physical or chemical forms such as (l) a| solid core and an organic coating or (2) a solid core (ex. g., a chromate) en veloped fcy a v r " or dropJoc -etc. 19. Coat a very fine polymer particle with a solt.d material by the Oncor principle. 20. Mike a pigment having both organic and inorganic components, ex. g., a-lead compound with rv.f vie acid, styrene and chromate. .21 Pigment-gellant combinations, ex. g., Bentonite-PEI-lead chromate. 22 * Reaction products of litharge and polyols introduced into alkyds, or MpO used to .replace the PtO in such a reaction. as Establish free radical sites on pigments by radiation, ex. g., exposing TiOg to Co60. ' st. For electrostatic printing, pigments which can accept the charge under the in fluence of light and then leak the charge off to the substrate, ex- g., TiC>2, ZnO; also, pigment-polymer combinations having such properties. 25. Combinations of pigment and polymer which can be in dry powder form and con stituted into a finished paint by simply stirring into nap water. NL 000041463 26. Other Oncor-type pigments ha'-'lzg eoetings of available organic pigments such as DuPont`s Monastral Red. S7. Prepare the family or group of ' true" lead silicates, i.enot Oncors. 28. Improve our control of particle size of our present pigments, ex. g., by- classification by the Stu?tevant# for use in sand mills, Co'wles or other high -speed mills . 29. use a light-sensitive glass as a "pigment" in clear finishes, possibly to offer protection to the vehicle . 30. Investigate anti-corrosion properties - in water systems - of lead, chloro- silieate, Plumb-0-Sil B, a "dehydrated." Plumb-O-Sil B; investigate also in electrodeposition and in solvent systems. 31. Prepare a very fine particle sise M50 or 525 using stoichiometric quantities of PbO, chromic acid and a source of vary fine silica (Cab-O-Sil) to make the required amount of tri-basic lead silicate, and no core. | 32. Prepare a very fine particle combination pigment of Dyphos and lead silicate, also without a cor .. 33- Investigate utility of the earlier lead ;-:r.isalicy.Late to reinforce clear fin ishes, either as the straight compound or formed on a core, as of silica. 3k. Prepare Oncor-tyrs materials having a mercury compound, on the surface. 35-, Investigate the value of additions of lead sulfate in M50 in order to improve color stability, as in 45X. 36 Investigate sensi 'i_-Par w''.\(.f :ad compounds to radiation for possible utility in color TV, etc. 37* Encapsulate .pigments with polymers to make "stir-in" paints- 38. Combine both antimony and chlorine in the same pigment to make a single flame- retardant pigment. 39. Investigate both organic and inorganic compounds which can liberate chlorine at flame temperatures * ML 000041464 4- 40. Extend the ."pump circuit process'1 to other pigments to make finer particle site products or to introduce a desirable cos.- ry: cles . 4l. Improve the "softness" of our pigments through the deliberate introduction of some other (perhaps foreign) material prior to calcination., as in the case of Oneor 23& 42. Make an Oneor-type of IJythai, perhaps with a core other than silica. 43- Investigate Oncors having a platey core or substrate. 44. Similarly, investigate Oncors having a fibrous core or substrate. 45- Prepare Oncors for uses other than paints, ex. g., a lead arsenate Oncor for insecticides, thereby extending chemically reactive materials. 4o. Make use of the hydroxyl functionality present in some of our pigments (both lead and titanium) to introduce organic structures and thereby serve as pig mented film formers with improved properties of flexibility, bonding to sub strates, etc. 47 - Chlorinate iOg, PtO, etc. to permit the introduction of organic moieties to obtain advantages as in Mo. 4o. 48 Using the reaction of TiCl.'.s. and. aluminum as a point of departure, investigate the reactions of other metal salts and metal oxides (manganese dioxide and aluminum chloride, litharge, TiOg, sine oxide, etc.) to make paints in situ, i.e., one-package systems produced at time of application, as by spray. 49. Investigate halogenated phosphors for 7Y tubes. 50. Ixlake use of a modified Schiff'-base chelate reaction with low molecular weight polymers, to produce both organic and inorganic pigments. 51. Using a purely organic approach, investigate electro-chemical compounds, ex. g., the electrolysis of nitro aromatic compounds - 52. Combine the concept of Mo. .51 with silicone polymers or polyimide polymers. 53- Chemically react polymeric diaso compounds to produce or enhance pigmentary properties. NL 000041465 5^ Perm block polymers from polyacrylonitriles to utilize their conductivity. 55. Pur functional groups on ferrocene-type compounds 5o. lake complexes of transition metal salts with ethers or other groups to make organic or inorganic materials which may have color capabilities. 57- Further react the products of metal oxides with polyols via the hydroxyl(s) to form esters, etc., which may have utility as easily wetted stabilizers for PVC as well as pigments. 58. Investigate softer core materials in the Oaeors, ex. g., hydrous silica cores. 59> Make Oncor 23A with a flux, such as zinc borate, to improve wetting and flame retardanee. 60. Investigate lead compounds based on fluorophosphoric acids. 61. Investigate lead ferrites in present-day latex and other new vehicles. 62. Bear in mind and direct, efforts toward general improvement of dispersion and | wetting characteristics. 63. Indicated the advantages which may derive from more homogenous coating systems. 6k. Investigate the Oncor concept in ceramics and flame spraying. 65- Investigate the Oncor concept in the glass industry. .66 Investigate lead azosalicylate ra the ADM water-soluble linseed oil vehicle. 67 > Investigate modified 1450's {perhaps different crystal structure) as catalysts. Investigate clear lead salts - possibly from the reaction of lead pigments or litharge with glycerine or .polyols - as a vinyl stabilizer. 69. Investigate Bentoce derivatives as pigments, ex.g., the old Bentone Blue70. Utilise increased pigment agglomeration to improve exterior durability, 71. feterials made on the Oncor principle might have utility as fillers in adhe sives, epoxies, etc. 72. Other cheap inorganic substrates, such as asbestine or clays instead of silica for Oncor pigments. Cellular, glass type envelope to contain colored or fluorescent pigments for decorative or safefcv ourwses; the reverse of Oncor. NL 000041466 -6 7^- Continuous grinding of silica, closed loop of pebble mill and. hydraulic classi fier, to scalp out specific mesh, recyling coarse particles, to cheapen grinding and. provide letter particle siae control. 75. Pigment E, Barium Potassium Chroisate Pigment, on silica core. 75. Staurolite type pigment composition containing iron oxide, aluminum and silica, for increased, inertness while corrosion resistant. 7? Trihutyltin oxide on silica.. 78 PbO or PtSOj^ on a carbon core for use in batteries. 79 Investigate higher coiling hosnologs of: 2 methyl - 3 - fcutyn - 2 - ol (B. P, 104C) CH-:. io CHo - C - C = C-H ^t 3 OH 3 methyl - 1 - peatyn - 3 - ol (B. P. 121C) CH % l" CH-J c t ><. - 0i - C = C-H OH ^ These two materials are used, as inhibitors in acid pickling laths. The higher boiling homologs are soluble in mineral spirits etc. and might serve as part of the vehicle in a pigmented oleo-resinous paint. WAG/vk February 7, 1956 ML 000041467