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Results: 1-25 | 26-35
Results: 1-25/35
The influence of inert oxide fillers on poly(ethylene oxide) and amorphouspoly(ethylene oxide) based polymer electrolytes
Authors: Johansson, P Ratner, MA Shriver, DF
Citation: P. Johansson et al., The influence of inert oxide fillers on poly(ethylene oxide) and amorphouspoly(ethylene oxide) based polymer electrolytes, J PHYS CH B, 105(37), 2001, pp. 9016-9021
Influence of the anion on the formation of amorphous ionically conducting lithium salt complexes with 18-C-6 and 2.2.2-cryptand macrocycles
Authors: Dillon, REA Stern, CL Shriver, DF
Citation: Rea. Dillon et al., Influence of the anion on the formation of amorphous ionically conducting lithium salt complexes with 18-C-6 and 2.2.2-cryptand macrocycles, CHEM MATER, 13(8), 2001, pp. 2516-2522
Ion transport and vibrational spectra of branched polymer and dendrimer electrolytes
Authors: Dillon, REA Shriver, DF
Citation: Rea. Dillon et Df. Shriver, Ion transport and vibrational spectra of branched polymer and dendrimer electrolytes, CHEM MATER, 13(4), 2001, pp. 1369-1373
Thermal and complex impedance analysis of amorphous and crystalline lithium salt mixtures
Authors: Dillon, REA Shriver, DF
Citation: Rea. Dillon et Df. Shriver, Thermal and complex impedance analysis of amorphous and crystalline lithium salt mixtures, SOL ST ION, 140(3-4), 2001, pp. 375-380
Ionic conductivity in the poly(ethylene malonate)/lithium triflate system
Authors: Lee, YC Ratner, MA Shriver, DF
Citation: Yc. Lee et al., Ionic conductivity in the poly(ethylene malonate)/lithium triflate system, SOL ST ION, 138(3-4), 2001, pp. 273-276
Lithium transport in a macrocyclic electrolyte - art. no. 214201
Authors: Sigmund, EE Halperin, WP Dillon, REA Shriver, DF
Citation: Ee. Sigmund et al., Lithium transport in a macrocyclic electrolyte - art. no. 214201, PHYS REV B, 6421(21), 2001, pp. 4201
Molten salt electrolytes. I. Experimental and theoretical studies of LiI/AlCl3
Authors: Lee, YC Kolafa, J Curtiss, LA Ratner, MA Shriver, DF
Citation: Yc. Lee et al., Molten salt electrolytes. I. Experimental and theoretical studies of LiI/AlCl3, J CHEM PHYS, 114(22), 2001, pp. 9998-10009
Structure of the ambient temperature alkali metal molten salt AlCl3/LiSCN
Authors: Lee, YC Price, DL Curtiss, LA Ratner, MA Shriver, DF
Citation: Yc. Lee et al., Structure of the ambient temperature alkali metal molten salt AlCl3/LiSCN, J CHEM PHYS, 114(10), 2001, pp. 4591-4594
Extended materials based on the [Mo6Cl8](4+) building block bridged by 4,4'-bipyridine
Authors: Bain, RL Shriver, DF Ellis, DE
Citation: Rl. Bain et al., Extended materials based on the [Mo6Cl8](4+) building block bridged by 4,4'-bipyridine, INORG CHIM, 325(1-2), 2001, pp. 171-174
Preparation and substitution chemistry of [Bu4N](2)[W6Cl8(p-OSO2C6H4CH3)(6)]. A useful precursor for pseudohalide, acetate, and organometallic complexes containing the {W(6)Cl8}(4+) core
Authors: Weinert, CS Prokopuk, N Arendt, SM Stern, CL Shriver, DF
Citation: Cs. Weinert et al., Preparation and substitution chemistry of [Bu4N](2)[W6Cl8(p-OSO2C6H4CH3)(6)]. A useful precursor for pseudohalide, acetate, and organometallic complexes containing the {W(6)Cl8}(4+) core, INORG CHEM, 40(20), 2001, pp. 5162-5168
Optimizing the design of polyelectrolytes using Monte Carlo simulations
Authors: Snyder, JF Ratner, MA Shriver, DF
Citation: Jf. Snyder et al., Optimizing the design of polyelectrolytes using Monte Carlo simulations, J ELCHEM SO, 148(8), 2001, pp. A858-A863
Hydrogen-bonded hexamolybdenum clusters: Formation of inorganic-organic networks
Authors: Prokopuk, N Weinert, CS Siska, DP Stern, CL Shriver, DF
Citation: N. Prokopuk et al., Hydrogen-bonded hexamolybdenum clusters: Formation of inorganic-organic networks, ANGEW CHEM, 39(18), 2000, pp. 3312
High ionic conductivity in some lithium halide systems
Authors: Wei, XY Shriver, DF
Citation: Xy. Wei et Df. Shriver, High ionic conductivity in some lithium halide systems, CHEM MATER, 12(9), 2000, pp. 2528-2529
Ionic conductivity of new ambient temperature alkali metal glasses AlCl3/NaN(CN)(2)
Authors: Lee, YC Curtiss, LA Ratner, MA Shriver, DF
Citation: Yc. Lee et al., Ionic conductivity of new ambient temperature alkali metal glasses AlCl3/NaN(CN)(2), CHEM MATER, 12(6), 2000, pp. 1634-1637
X-ray structure determinations of Li[CF3SO2N(CH2)(3)OCH3] and the solid electrolyte [Li subset of 12-C-4][CF3SO2N(CH2)(3)OCH3]
Authors: Dillon, REA Stern, CL Shriver, DF
Citation: Rea. Dillon et al., X-ray structure determinations of Li[CF3SO2N(CH2)(3)OCH3] and the solid electrolyte [Li subset of 12-C-4][CF3SO2N(CH2)(3)OCH3], CHEM MATER, 12(4), 2000, pp. 1122-1126
Polymer electrolytes: Ionic transport mechanisms and relaxation coupling
Authors: Ratner, MA Johansson, P Shriver, DF
Citation: Ma. Ratner et al., Polymer electrolytes: Ionic transport mechanisms and relaxation coupling, MRS BULL, 25(3), 2000, pp. 31-37
Lewis acid enhancement of the ionic conductivity of simple salts
Authors: Wei, XY Shriver, DF
Citation: Xy. Wei et Df. Shriver, Lewis acid enhancement of the ionic conductivity of simple salts, SOL ST ION, 133(3-4), 2000, pp. 233-237
The influence of 18-C-6 and its analogs on ion transport and ionic glass formation
Authors: Dillon, REA Shriver, DF
Citation: Rea. Dillon et Df. Shriver, The influence of 18-C-6 and its analogs on ion transport and ionic glass formation, SOL ST ION, 133(3-4), 2000, pp. 239-245
Structural comparisons of fast ion conductors consisting of Li[(CF3SO2)(2)N] complexes with cryptands or crown ether
Authors: Dillon, REA Stern, CL Shriver, DF
Citation: Rea. Dillon et al., Structural comparisons of fast ion conductors consisting of Li[(CF3SO2)(2)N] complexes with cryptands or crown ether, SOL ST ION, 133(3-4), 2000, pp. 247-255
Influence of cation size on ionic glass formation and ionic conductivity
Authors: Dillon, REA Shriver, DF
Citation: Rea. Dillon et Df. Shriver, Influence of cation size on ionic glass formation and ionic conductivity, SOL ST ION, 132(1-2), 2000, pp. 93-99
Polycarbon linked metal cluster compounds
Authors: Norton, DM Shriver, DF
Citation: Dm. Norton et Df. Shriver, Polycarbon linked metal cluster compounds, J ORGMET CH, 614, 2000, pp. 318-321
The reaction of tri-ruthenium clusters with sulfur dioxide
Authors: Eveland, RW Shriver, DF
Citation: Rw. Eveland et Df. Shriver, The reaction of tri-ruthenium clusters with sulfur dioxide, INORG CHIM, 309(1-2), 2000, pp. 10-12
Preparation of [Bu4N](2)[W6Cl8F6] and characterization of the clusters [Bu4N](2)[W6Cl8X6] (X = F, Cl, Br, I, NCO, NCS, NCSe, or OSO2CF3) by W-183 NMRspectroscopy
Authors: Weinert, CS Stern, CL Shriver, DF
Citation: Cs. Weinert et al., Preparation of [Bu4N](2)[W6Cl8F6] and characterization of the clusters [Bu4N](2)[W6Cl8X6] (X = F, Cl, Br, I, NCO, NCS, NCSe, or OSO2CF3) by W-183 NMRspectroscopy, INORG CHIM, 307(1-2), 2000, pp. 139-143
Proton reactivity of butterfly oxo and sulfide clusters and structural characterization of HFe3Mn(CO)(10)(dmpm)(mu(4)-O)
Authors: Schauer, CK Voss, EJ Sabat, M Shriver, DF
Citation: Ck. Schauer et al., Proton reactivity of butterfly oxo and sulfide clusters and structural characterization of HFe3Mn(CO)(10)(dmpm)(mu(4)-O), INORG CHIM, 300, 2000, pp. 7-15
Synthesis and structure of the useful starting material [Bu4N](3)[Nb6Cl12(OSO2CF3)(6)]
Authors: Prokopuk, N Weinert, CS Kennedy, VO Siska, DP Jeon, HJ Stern, CL Shriver, DF
Citation: N. Prokopuk et al., Synthesis and structure of the useful starting material [Bu4N](3)[Nb6Cl12(OSO2CF3)(6)], INORG CHIM, 300, 2000, pp. 951-957
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