1 I. Yamaguchi, "Uncatalyzed synthesis of polyacetylene with viologen side groups and their chemical properties" 69 : 864-, 2009
2 K. M. Kim, "Synthesis of hybrid polyacetylene gels using octafunctional POSS iniatiator" 249 : 249-250, 2007
3 T. Masuda, "Synthesis of high polymers from substituted acetylenes: exploitation of molybdenum- and tungsten-based catalysts" 17 : 51-, 1984
4 제갈영순, "Synthesis and properties of poly(N-benzoyl-2-ethynylpyridinium chloride)" 한국공업화학회 17 (17): 282-286, 2011
5 Y. S. Gal, "Synthesis and properties of poly(2-ethynylpyridinium bromide) having propargyl side chains" 39 : 3151-, 2001
6 Hyun-Kuk Choi, "Synthesis and properties of an ionic polyacetylene with norbornene moieties" 한국공업화학회 16 (16): 214-219, 2010
7 Y. S. Gal, "Synthesis and properties of an ionic polyacetylene with aromatic heterocycles" 45 : 5679-, 2007
8 Y. Okamoto, "Synthesis and electronic properties of polypyridylacetylenes" 29 : 1311-, 1964
9 J. W. Park, "Synthesis and electrochemical properties of poly(1,6- heptadiyne) derivatives containing a carbazole moiety" 32 : 2789-, 1994
10 Yeong-Soon Gal, "Synthesis and electro-optical properties of self-doped ionic conjugated polymers: poly[2-ethynyl-N-(4-sulfobutyl)pyridinium betaine]" 한국물리학회 5 (5): 38-42, 2005
1 I. Yamaguchi, "Uncatalyzed synthesis of polyacetylene with viologen side groups and their chemical properties" 69 : 864-, 2009
2 K. M. Kim, "Synthesis of hybrid polyacetylene gels using octafunctional POSS iniatiator" 249 : 249-250, 2007
3 T. Masuda, "Synthesis of high polymers from substituted acetylenes: exploitation of molybdenum- and tungsten-based catalysts" 17 : 51-, 1984
4 제갈영순, "Synthesis and properties of poly(N-benzoyl-2-ethynylpyridinium chloride)" 한국공업화학회 17 (17): 282-286, 2011
5 Y. S. Gal, "Synthesis and properties of poly(2-ethynylpyridinium bromide) having propargyl side chains" 39 : 3151-, 2001
6 Hyun-Kuk Choi, "Synthesis and properties of an ionic polyacetylene with norbornene moieties" 한국공업화학회 16 (16): 214-219, 2010
7 Y. S. Gal, "Synthesis and properties of an ionic polyacetylene with aromatic heterocycles" 45 : 5679-, 2007
8 Y. Okamoto, "Synthesis and electronic properties of polypyridylacetylenes" 29 : 1311-, 1964
9 J. W. Park, "Synthesis and electrochemical properties of poly(1,6- heptadiyne) derivatives containing a carbazole moiety" 32 : 2789-, 1994
10 Yeong-Soon Gal, "Synthesis and electro-optical properties of self-doped ionic conjugated polymers: poly[2-ethynyl-N-(4-sulfobutyl)pyridinium betaine]" 한국물리학회 5 (5): 38-42, 2005
11 T. Masuda, "Substituted polyacetylenes" 45 : 165-, 2007
12 T. P. I. Saragi, "Spiro compounds for organic optoelectronics" 107 : 1011-, 2007
13 M. S. Freund, "Self-doped conducting polymers" WILEY 2007
14 C. I. Simionescu, "Polymerization of acetylene derivatives. Anion-radical salts of TCNQ with poly(vinyl- and ethynylpyridines)" 15 : 69-, 1978
15 Y. S. Gal, "Polymerization of 2-ethynylpyridine by transition metal chloride and organoaluminum compounds" 12 : 30-, 1988
16 P. Hany, "Polyanilines with covalently bonded alkylsulfonates as doping agent-synthesis and properties" 31 : 369-, 1989
17 S. K. Choi, "Poly(1,6-heptadiyne)-based materials by metathesis polymerization" 100 : 1645-, 2000
18 D. W. Kim, "Ordered multilayer nanocomposites prepared by electrostatic layer-by layer assembly between aluminosilicate nanoplates and substituted ionic polyacetylenes" 14 : 3925-, 2002
19 W. Lee, "Nanocrystalline CdS-water-soluble conjugated polymers: high performance photoelectrochemical cells" 90 : 263503-, 2007
20 G. K. Prasad, "Nanocomposite based on poly(Noctadecyl- 2-ethynylpyridinium bromide) and Mg0.04Nb1.66O5 nanosheets" 288 : 200-, 2005
21 W. Lee, "Manipulating interfaces in a hybrid solar cell by in situ photosensitizer polymerization and sequential hydrophilicity/hydrophobicity control for enhanced conversion efficiency" 92 : 193307-, 2008
22 G. Kwak, "Ionic polyacetylene with aromatic functional groups: synthesis and properties" 209 : 1769-, 2008
23 S. M. Lee, "Cyclodextrin-induced fluorescence enhancement of an ionic polyacetylene having phenylethynylpyridinium groups" 67 : 249-250, 2007
24 X. Song, "Conjugated polymers as efficient fluorescence quenchers and their applications for bioassays" 14 : 2342-, 2002
25 P. Zhou, "Conjugated phosphonium polyacetylenes" 38 : 595-, 1997
26 S. Subramanyam, "Conjugated ionic polyacetylenes. 4: polymerization of ethynylpyridines with bromine" 25 : 2065-, 1992
27 S. Subramanyam, "Conjugated ionic polyacetylenes, 2: a new polymerization method for substituted acetylenes" 12 : 23-, 1990
28 Y. Mao, "Composites of quaternized poly(pyridyl acetylene) and silver nanoparticles: nanocomposite preparation, conductivity and photoinduced patterning" 21 : 13627-, 2011
29 J. Liu, "Acetylenic polymers: syntheses, structures, and functions" 109 : 5977-, 2009
30 Yeong-Soon Gal*, "A Self-Doped Ionic Conjugated Polymer: Poly(2-ethynylpyridinium-Nbenzoylsulfonate) by the Activated Polymerization of 2-Ethynylpyridine with Ring-Opening of 2-Sulfobenzoic Acid Cyclic Anhydride" 대한화학회 25 (25): 777-778, 2004