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Dive into the research topics where Gene P. Daumit is active.

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Featured researches published by Gene P. Daumit.


Carbon | 1991

Formation of melt-spun acrylic fibers which are well suited for thermal conversion to high strength carbon fibers

Gene P. Daumit; Yoon S. Ko; Christopher R. Slater; Jozef G. Venner; Chi C. Young; Maurice M. Zwick

An acrylic multifilamentary material possessing an internal structure which is particularly suited for thermal conversion to high strength carbon fibers is formed via a specifically defined combination of processing conditions. The acrylic polymer while in substantially homogeneous admixture with appropriate concentrations (as defined) of acetonitrile, C1 to C4 monohydroxy alkanol, and water is melt extruded and is drawn at a relatively low draw ratio which is substantially less than the maximum draw ratio achievable. This fibrous material which is capable of readily undergoing drawing is passed through a heat treatment zone wherein the evolution of residual acetonitrile, the monohydroxy alkanol and water takes place. The resulting fibrous material following such heat treatment is subjected to additional drawing to accomplish further orientation and internal structure modification and to produce a fibrous material of the appropriate denier for carbon fiber production. One accordingly is provided a reliable route to form a fibrous acrylic precursor for carbon fiber production without the necessity to employ the solution-spinning routes commonly utilized in the prior art for precursor formation. One can now eliminate the utilization and handling of large amounts of solvent as has heretofore been necessary when forming an acrylic carbon fiber precursor. Also, arcylic fiber precursors possessing a wide variety of cross-sectional configurations now are made possible which can be thermally converted into carbon fibers of a similar cross-sectional configuration.


Archive | 1985

Carbon fiber multifilamentary tow which is particularly suited for weaving and/or resin impregnation

J. Eugene McAliley; Gene P. Daumit; Frederick A. Ethridge; James R. Crozier


Carbon | 1983

Sized carbon fibers, and thermoplastic polyester based composite structures employing the same

Robert Edelman; Paul E. McMahon; Gene P. Daumit


Carbon | 1989

Summary of panel discussion, “carbon fiber industry: Current and future”

Gene P. Daumit


Archive | 1990

Melt-spun acrylic fibers possessing a highly uniform internal structure which are particularly suited for thermal conversion to quality carbon fibers

Gene P. Daumit; Yoon S. Ko; Christopher R. Slater; Jozef G. Venner; Chi C. Young


Archive | 1983

Production of a carbon fiber multifilamentary tow which is particularly suited for resin impregnation

J. Eugene McAliley; Gene P. Daumit; Fredrick A. Ethridge


Archive | 1990

Improvements in the formation of melt-spun acrylic fibers.

Gene P. Daumit; Yoon S. Ko; Christopher R. Slater; Jozef G. Venner; Chi C. Young; Maurice M. Zwick


Archive | 1987

Weaving process utilizing multifilamentary carbonaceous yarn bundles

J. Eugene McAliley; Gene P. Daumit; Fredrick A. Ethridge; James R. Crozier


Carbon | 1991

Formation of melt-spun acrylic fibers possessing a highly uniform internal structure which are particularly suited for thermal conversion to quality carbon fibers

Gene P. Daumit; Yoon S. Ko; Christopher R. Slater; Jozef G. Venner; Chi C. Young


Archive | 1986

Woven fabric made from unsized carbon fiber multifilamentary yarn bundles

Eugene J. Mcaliley; Gene P. Daumit; Frederick A. Ethridge; James R. Crozier

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