Page 226 - Polymer-based Nanocomposites for Energy and Environmental Applications

198 Polymer-based Nanocomposites for Energy and Environmental Applications

[53] Tripathi P, Kumari A, Rath P, Kayastha AM. Immobilization of α-amylase from mung
beans (Vigna radiata) on Amberlite MB 150 and chitosan beads: a comparative study.
J Mol Catal B: Enzym 2007;49:69–74.
[54] Kim K, Grate KW, Wang P. Nanostructures for enzyme stabilization. Chem Eng Sci
2006;61:1017–26.
[55] Blaney LM, Cinar S, SenGupta AK. Hybrid anion exchanger for trace phosphate removal
from water and wastewater. Water Res 2007;41:1603–13.
[56] Guo X, Chen F. Removal of arsenic by bead cellulose loaded with iron oxyhydroxide from
groundwater. Environ Sci Technol 2005;39:6808.
[57] Wu SJ, Liou TH, Mi FL. Synthesis of zero-valent copper-chitosan nanocomposites and
their application for treatment of hexavalent chromium. Bioresour Technol 2009;
100:4348–53.
[58] Chico B, Camacho C, Marilı ´n P, Longo MA, Sanroma ´n MA, Pingarro ´n JM, et al. Poly-
electrostatic immobilization of gold nanoparticles-modified peroxidase on alginate-coated
gold electrode for mediatorless biosensor construction. J Electroanal Chem 2009;
629:126–32.
[59] Vaia RA. Polymer nanocomposites open a new dimension for plastics and composites.
AMPTIAC Q Look Inside Nanotechnol 2002;6:17–24.
[60] Sivakkumar SR, Kim WJ, Choi JA, MacFarlane DR, Forsyth M, Kim DW. Electrochem-
ical performance of polyaniline nanofibres and polyaniline/multi-walled carbon nanotube
composite as an electrode material for aqueous redox supercapacitors. J Power Sources
2007;171:1062–8.
[61] Gupta V, Miura N. Influence of the microstructure on the supercapacitive behavior of
polyaniline/single-wall carbon nanotube composites. J Power Sources 2006;157:616–20.
[62] Theerthagiri J, Thiagarajan K, Senthilkumar B, Khan Z, Senthil RA, Arunachalam P, et al.
Synthesis of hierarchical cobalt phosphate nanoflakes and their enhanced electrochemical
performances for supercapacitor applications. Chem Select 2017;2:201–10.
[63] Qu D, Shi H. Studies of activated carbons used in double-layer capacitors. J Power Sources
1998;74:99–107.
[64] Endo M, Maeda T, Takeda T, Kim YJ, Koshiba K, Hara H, et al. Capacitance and pore-size
distribution in aqueous and nonaqueous electrolytes using various activated carbon elec-
trodes. J Electrochem Soc 2001;148:A910–4.
[65] Yu A, Davies A, Chen Z. Electrochemical supercapacitors. In: Liu RS, Lei Z, Sun X,
Liu H, Zhang J, editors. Electrochemical technologies for energy storage and conversion.
Weinheim: Wiley; 2012. p. 317–82.
[66] Conway BE. Transition from “supercapacitor” to “battery” behavior in electrochemical
energy storage. J Electrochem Soc 1991;138:1539–48.
[67] Hu CC, Chang KH, Lin MC, Wu YT. Design and tailoring of the nanotubular arrayed
architecture of hydrous RuO 2 for next generation supercapacitors. Nano Lett 2006;
6:2690–5.
[68] Malak A, Fic K, Lota G, Vix-Guterl FE. Hybrid materials for supercapacitor application.
J Solid State Electrochem 2010;14:811–6.
[69] Wu ZS, Ren WC, Wang DW, Li F, Liu B, Cheng HM. High-energy MnO 2 nanowire/
graphene and graphene asymmetric electrochemical capacitors. ACS Nano 2010;
4:5835–42.
[70] Fan ZJ, Yan J, Wei T, Zei L, Ning G, Li T, et al. Asymmetric supercapacitors based on
graphene/MnO 2 and activated carbon nanofiber electrodes with high power and energy
density. Adv Funct Mater 2011;21:2366–75.