Page 731 - Polymer-based Nanocomposites for Energy and Environmental Applications
P. 731

674                                                              Index

         PCE. See Polymer composite electrolyte  Plasticizers, 141–142
             (PCE)                          PNC. See Polymer nanocomposite (PNC)
         PEDOT/MWCNT-Pt nanocomposite, 519f  Poisson-Boltzmann equation, 143–144
         PEO@PAN/PSU hybrid membranes, 562f  Polarization, 131, 132f
         Percolation, 148–149                 Clausius-Mossotti equation, 138
           in polymer nanocomposites, 148–149, 150t  defined, 137–138
         Perlite composites, 450–451          types, 138, 139f
         Perovskite crystal methylammonium lead  Poly(2-phenyl-1,4-xylylene) (PPPX),
             iodide, 514                        211–212
         Pesticides, 584–585                Poly(3,4-ethylenedioxythiophene)
         PF-POSS nanocomposites, 516–517, 517f  (PEDOT), 381
         Phase-change materials (PCMs)      Poly(methyl methacrylate) (PMMA), 206,
           advantages, 78, 78t                  214, 246, 290–291
           building applications            Poly(vinyl chloride) (PVC), 290–291
             concrete, 86–88, 87–88f        Poly(vinylidene fluoride) (PVDF), 514
             wallboards, 84–86, 85–86f      Polyacetylene (PA), 466
           classification, 76–78, 77f       Polyacrylonitrile-based aligned electrospun
           direct incorporation, 80             nanofibers, 555–556
           disadvantages, 78, 78t           Polyamide matrixes, 4–5, 4f
           encapsulation techniques         Polyaniline (PANI), 191, 212–213, 248–249,
             macro-encapsulation, 81            321–322, 377–379, 378f
             micro-encapsulation, 81          activated porous, 227–229, 228–229f
           form-stable composite, 83–84, 84f  carbon nanocomposites, 231–233, 232f
           immersion, 80–81                   for hydrogen storage, 220–235, 220–221f,
           measurement techniques               230f
             differential scanning calorimetry, 79  in situ chemical polymerization, 384
             differential thermal analysis, 79  metal nanocomposites, 230–231
             thermal stability analysis, 79–80  metal oxide nanocomposites, 233–235,
             T-history method, 79               234f
           nanoclays incorporation in, 91–92  nanoporous, 223–227, 225–226f
           properties, 76, 77t                nickel oxide composites, 12–13
           shape-stabilized, 81–83, 83f       nonporous, 221–222, 223–224f
         Phase-change wallboard (PCW), 86   Polyaniline-based nanocomposites
         Phase-separation method, 473         applications, 607–609
         Phenol, 116                          nanocomposite ion exchangers, 599–600
         Photocatalysis, 588f                 synthetic procedure, 601f
           TiO 2 , 410–411                    wastewater treatment
           ZnO, 411                             adsorbents, 600–603, 604–606t
         Photocatalytic reactions of nanoparticles,  ion-exchanger, 603–607, 608t
             410                              water contamination, 597–599, 598f
         Photoelectro adsorption (PEA), 579–580  Poly(acrylonitrile) (PAN)-based electrolytes,
         Photoelectrodes (PEs), 366–372         290–291
         Photosensitizer (PS), 120–121      Poly(vinylidene fluoride) (PVDF)-based
         Phyllosilicates, 88–89                 polymer electrolytes, 290–291
         Physical blowing agents (PBA), 93  Poly-caprolactone (PCL) nanofibers, 655
         Physisorption, 219–220             Polycaprolactone-titania nanocomposites,
         Pilot test cells, 87–88, 88f           397–398
         Plasma-polymerized aniline (PPAni),  Polydimethylsiloxane (PDMS), 206
             397–398                        Polyelectrolyte matrixes, 8
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