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Process for preparation of glass fiber mats
Impact resistant blade Carlson, R.G. and Harrison, R.W. (General Electric Company) US Pat 4 000 956 (4 January I9 77) A blade for use in a fluid flow machine having a tip portion and a root portion fabricated from a numbe of bonded filament laminates. The laminates consist of a number of continuous collimated filaments embedded in a first matrix at the blade root and a second matrix at the blade tip; both matrices are bonded together at a common interface, the second matrix is made of two materials sandwiching the filaments, and has a greater impact strength than the first matrix.
Manufacturing of resin-aggregate pipes Baker, C.A. and Miller R. (Humes Limited) US Pat 4 001370 (4 January 1977)
Glass compositions suitable for incorporating into concrete Coenen, M.C. (Jenaer Glaswerk Schott & Gen) US Pat 4 002 482 (1 I Januay 1977) Glasses, suitable for use as a long term reinforcing agent in concrete or in an other cementations matrix, and having a composition consisting of: SiO?, TiO?, ZnO, CuO, Fe203, BaO, CaO, MgO, A12030 Method for producing a tapered pipe of reinforced synthetic resin Usui, F. US Pat 4 002 714 (11 January 19 77) A method of manufacturing a tapered bent pipe of glass fibre-reinforced synthetic resin material with a base plate integrally attached to the larger end.
Plastic socket made of fibre-reinforced thermosetting resin material Schuldink, G. (Industriele Onderneming Wavin N.V.) US Pat 4 003 591(18 January 1977)
Process for producing carbon fibres having excellent physical properties Matsumura, Y., Kishmoto, S. and Okazaki, S. (Japan Exlan Company Limited) US Pat 4 001 382 (4 January 1977) A process for producing carbon fibres having a high strength and a high modulus of elasticity by heating acrylonitrile copolymer fibres (made from an acrylonitrile copolymer containing at least 80% acrylonitrile). The acrylonitrile copolymer contains 0.3 to 6% of an unsaturated carboxylic acid and its alkali metal or ammonium salt; and the content of the carboxylic groups in the salt form in the fibre is 0.1 to 15% based on the total amount of carboxyl groups and their salts in the fibre.
Composition for reinforced and filled high density rigid polyurethane foam products and method of making same Deaver, D.T. (Tecnik International Corporation) US Pat 4 005 035 (25 January 19 77) A process for manufacturing in a mould, a rigid polyurethane foam product containing silica sand and chopped glass fibres.
Method of forming and sizing glass fibers Graham, R.R. (PPG Industries Inc) US Pat 4 002 445 (11 January 1977) A method of forming glass fibres by drawing glass filaments from molten cones of glass at high speed; applying to the filaments, during formation, an aqueous size of a starch, a lubricant, a textile softener, and a nonionic wetting agent. The size contains 150 to 100 percent by weight of the nonionic wetting agents (baaed on the weight of the lubricant). The strand is wound on a rapidly rotating forming tube.
High Modulus, high strength carbon fibres produced from mesophase pitch Singer, L.S. (Union Carbide Corporation) US Pat 4 005 183 (25 January 1977) A fibre is described which has a structure possessing the threedimensional order characteristic of polycrystalline graphite, has a diameter no greater than 30 pm; a tensile strength greater than 1.38 GN/m’; and a Young’s modulus of eleasticity greater than 344 GN/m2.
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Method of preparing graphite fibres of ultra-short length and narrow size distribution Grable, M.A. (Hercules Incorporated) US Pat 4 003 773 (18 January 1977)
Filament wound structure and method Dritt, W.S., et al (The United States of America - United States Energy Research and Development Administration US Pat 4 005 233 (25 January 19 77) A filament wound spherical structure made with a number of sequentially applied filament band sets disposed axisymmetrically about the surface of a mandrel. Apparatus for producing shaped glass tibre reinforced gypsum articles Kautz, G.E. (H.H. Robertson Company) US Pat 4 005 959 (1 February 1977) Mineral filled, high impact, polyolefin moulding compositions Tirpak, M.R., Schouten, J.J. and Green C.E. (The Richardson Company) US Pat 4 006 037(1 February 1977) Method of preparing a low-friction laminate liner for bearings Board, D.A. Jr, (New hampshire Ball Bearings Inc) US Pat 4 006 051(1 February 19 77) Process for preparation of glass fiber mats Sakaguchi, K., Minakata, M., Yamashita, K. and Sugimoto, F. (Kao Soap Co Ltd) US Pat 4 006 272 (1 February 1977) A resin-bonded glass fibre mat, having a rapid rate of dissolution in vinyl monomers. Leading edge protection for composite blades Brantley, J.W. and Irwin, T.P. (The United States of America Administrator of the National Aeronautics and Space Administration) US Pat 4 006 999 (8 February 1977) A turbomachinery blade consisting of a primary structure of small diameter, high strength filaments in a lightweight matrix, having a protective device on the leading edge, which partly surrounds the primary structure. A portion of the leading edge protection is anchored within the primary structure, so that the filaments adjacent to the anchored portion are aligned radially within the primary structure. Thermal shock resistant ceramic composite Rossi, R.C. and Carnahan, R.D. (United States of America -
COMPOSITES.
APRIL
1978
Manufacturing of resin-aggregate pipes Baker, C.A. and Miller R. (Humes Limited) US Pat 4 001370 (4 January 1977)
Glass compositions suitable for incorporating into concrete Coenen, M.C. (Jenaer Glaswerk Schott & Gen) US Pat 4 002 482 (1 I Januay 1977) Glasses, suitable for use as a long term reinforcing agent in concrete or in an other cementations matrix, and having a composition consisting of: SiO?, TiO?, ZnO, CuO, Fe203, BaO, CaO, MgO, A12030 Method for producing a tapered pipe of reinforced synthetic resin Usui, F. US Pat 4 002 714 (11 January 19 77) A method of manufacturing a tapered bent pipe of glass fibre-reinforced synthetic resin material with a base plate integrally attached to the larger end.
Plastic socket made of fibre-reinforced thermosetting resin material Schuldink, G. (Industriele Onderneming Wavin N.V.) US Pat 4 003 591(18 January 1977)
Process for producing carbon fibres having excellent physical properties Matsumura, Y., Kishmoto, S. and Okazaki, S. (Japan Exlan Company Limited) US Pat 4 001 382 (4 January 1977) A process for producing carbon fibres having a high strength and a high modulus of elasticity by heating acrylonitrile copolymer fibres (made from an acrylonitrile copolymer containing at least 80% acrylonitrile). The acrylonitrile copolymer contains 0.3 to 6% of an unsaturated carboxylic acid and its alkali metal or ammonium salt; and the content of the carboxylic groups in the salt form in the fibre is 0.1 to 15% based on the total amount of carboxyl groups and their salts in the fibre.
Composition for reinforced and filled high density rigid polyurethane foam products and method of making same Deaver, D.T. (Tecnik International Corporation) US Pat 4 005 035 (25 January 19 77) A process for manufacturing in a mould, a rigid polyurethane foam product containing silica sand and chopped glass fibres.
Method of forming and sizing glass fibers Graham, R.R. (PPG Industries Inc) US Pat 4 002 445 (11 January 1977) A method of forming glass fibres by drawing glass filaments from molten cones of glass at high speed; applying to the filaments, during formation, an aqueous size of a starch, a lubricant, a textile softener, and a nonionic wetting agent. The size contains 150 to 100 percent by weight of the nonionic wetting agents (baaed on the weight of the lubricant). The strand is wound on a rapidly rotating forming tube.
High Modulus, high strength carbon fibres produced from mesophase pitch Singer, L.S. (Union Carbide Corporation) US Pat 4 005 183 (25 January 1977) A fibre is described which has a structure possessing the threedimensional order characteristic of polycrystalline graphite, has a diameter no greater than 30 pm; a tensile strength greater than 1.38 GN/m’; and a Young’s modulus of eleasticity greater than 344 GN/m2.
132
Method of preparing graphite fibres of ultra-short length and narrow size distribution Grable, M.A. (Hercules Incorporated) US Pat 4 003 773 (18 January 1977)
Filament wound structure and method Dritt, W.S., et al (The United States of America - United States Energy Research and Development Administration US Pat 4 005 233 (25 January 19 77) A filament wound spherical structure made with a number of sequentially applied filament band sets disposed axisymmetrically about the surface of a mandrel. Apparatus for producing shaped glass tibre reinforced gypsum articles Kautz, G.E. (H.H. Robertson Company) US Pat 4 005 959 (1 February 1977) Mineral filled, high impact, polyolefin moulding compositions Tirpak, M.R., Schouten, J.J. and Green C.E. (The Richardson Company) US Pat 4 006 037(1 February 1977) Method of preparing a low-friction laminate liner for bearings Board, D.A. Jr, (New hampshire Ball Bearings Inc) US Pat 4 006 051(1 February 19 77) Process for preparation of glass fiber mats Sakaguchi, K., Minakata, M., Yamashita, K. and Sugimoto, F. (Kao Soap Co Ltd) US Pat 4 006 272 (1 February 1977) A resin-bonded glass fibre mat, having a rapid rate of dissolution in vinyl monomers. Leading edge protection for composite blades Brantley, J.W. and Irwin, T.P. (The United States of America Administrator of the National Aeronautics and Space Administration) US Pat 4 006 999 (8 February 1977) A turbomachinery blade consisting of a primary structure of small diameter, high strength filaments in a lightweight matrix, having a protective device on the leading edge, which partly surrounds the primary structure. A portion of the leading edge protection is anchored within the primary structure, so that the filaments adjacent to the anchored portion are aligned radially within the primary structure. Thermal shock resistant ceramic composite Rossi, R.C. and Carnahan, R.D. (United States of America -
COMPOSITES.
APRIL
1978