a we ~? - EAN ee od ~ 45%Y~, w.a y © + > +3 Biophysical deaey a 5 wT wt Chemistry y ’ EL= SEviV Ia ER Biophysical Chemistry 64 (1997) 289-290 Author Index to Volume 64 Ackers, G.K. and Bolen, D.W. Fang, J., see Ferrari, M.E. (64) 235 The Gibbs conference on biothermodynamics: Origins and Ferrari, M.E., Fang, J. and Lohman, T.M. evolution (64) 3 A mutation in E. coli SSB protein (W54S) alters intra-tetra- Ackers, G.K., see Doyle, M.L. (64) 271 mer negative cooperativity and inter-tetramer positive coopera- Ackers, G.K., see Huang, Y. (64) 157 tivity for single-stranded DNA binding (64) 235 Allewell, N.M., see LiCata, V.J. (64) 225 Freire, E., see Hilser, V.J. (64) 69 Garcia-Moreno E., B., Dwyer, J.J., Gittis, A.G., Lattman, E.E., Barany, G., see Barbar, E. (64) 45 Spencer, D.S. and Stites, W.E. Barbar, E., LiCata, V.J., Barany, G. and Woodward, C. Experimental measurement of the effective dielectric in the Local fluctuations and global unfolding of partially folded hydrophobic core of a protein (64) 211 BPTI detected by NMR (64) 45 Gittis, A.G., see Garcia-Moreno E., B. (64) 211 Beretta, S., see Gryczynski, Z. (64) 81 Gryczynski, I., see Gryczynski, Z. (64) 81 Bloomfield, V.A., see Rouzina, I. (64) 139 Gryczynski, Z., Beretta, S., Lubkowski, J., Razynska, A., Bolen, D.W., see Ackers, G.K. (64) 3 Gryczynski, I. and Bucci, E. Bucci, E., see Gryczynski, Z. (64) 81 Time-resolved fluorescence of hemoglobin species (64) 81 Bujalowski, W., see Jezewska, M.J. (64) 253 Guinto, E.R. and Di Cera, E. Critical role of W60d in thrombin allosterism (64) 103 Cai, G.-Z., Callaci, T.P., Luther, M.A. and Ching Lee, J. Hall, K.B., see Lu, J. (64) 111 Regulation of rabbit muscle phosphofructokinase by phospho- Hilser, V.J., Townsend, B.D. and Freire, E. rylation (64) 199 Structure-based statistical thermodynamic analysis of T4 Callaci, T.P., see Cai, G.-Z. (64) 199 lysozyme mutants: structural mapping of cooperative interac- Chaiken, I.M., see Myszka, D.G. (64) 127 tions (64) 69 Chaires, J.B. Holt, J.M., see Doyle, M.L. (64) 271 Possible origin of differences between van’t Hoff and calori- Huang, Y., Koestner, M.L. and Ackers, G.K. metric enthalpy estimates (64) 15 Tertiary and quaternary chloride effects of the partially ligated Ching Lee, J., see Cai, G.-Z. (64) 199 (CN-met) hemoglobin intermediates (64) 157 Ionescu, R., see Eftink, M.R. (64) 175 DeKoster, G.T. and Robertson, A.D. Calorimetrically-derived parameters for protein interactions Jezewska, M.J. and Bujalowski, W. with urea and guanidine—HCl are not consistent with denatu- Quantitative analysis of ligand—macromolecule interactions rant m values (64) 59 using differential dynamic quenching of the ligand fluores- Di Cera, E., see Guinto, E.R. (64) 103 cence to monitor the binding (64) 253 Doyle, M.L., Holt, J.M. and Ackers, G.K. Effects of NaCl on the linkages between O, binding and Koestner, M.L., see Huang, Y. (64) 157 subunit assembly in human hemoglobin: titration of the quater- Lattman, E.E., see Garcia-Moreno E., B. (64) 211 nary enhancement effect (64) 271 LiCata, V.J. and Allewell, N.M. Doyle, M.L., see Myszka, D.G. (64) 127 Is substrate inhibition a consequence of allostery in aspartate Dwyer, J.J., see Garcia-Moreno E., B. (64) 211 transcarbamylase? (64) 225 LiCata, V.J., see Barbar, E. (64) 45 Eftink, M.R. and Ionescu, R. Liu, Y. and Sturtevant, J.M. Thermodynamics of protein unfolding: questions pertinent to Significant discrepancies between van’t Hoff and calorimetric testing the validity of the two-state model (64) 175 enthalpies. III (64) 121 290 Author Index to Volume 64 Lohman, T.M., see Ferrari, M.E. (64) 235 Rouzina, I. and Bloomfield, V.A. Lopez, M.M., see Makhatadze, G.I. (64) 93 Competitive electrostatic binding of charged ligands to poly- Lu, J. and Hall, K.B. electrolytes: practical approach using the non-linear Poisson— Thermal unfolding of the N-terminal RNA binding domain of Boltzmann equation (64) 139 the human UIA protein studied by differential scanning calorimetry (64) 111 Schellman, J.A. Lubkowski, J., see Gryczynski, Z. (64) 81 Thermodynamics, molecules and the Gibbs conference (64) 7 Luther, M.A., see Cai, G.-Z. (64) 199 Spencer, D.S., see Garcia-Moreno E., B. (64) 211 Stites, W.E., see Garcia-Moreno E., B. (64) 211 Makhatadze, G.I., Lopez, M.M. and Privalov, P.L. Sturtevant, J.M., see Liu, Y. (64) 121 Heat capacities of protein functional groups (64) 93 Morton, T.A., see Myszka, D.G. (64) 127 Timasheff, S.N., see Xie, G. (64) 25 Myszka, D.G., Morton, T.A., Doyle, M.L. and Chaiken, I.M. Townsend, B.D., see Hilser, V.J. (64) 69 Kinetic analysis of a protein antigen—antibody interaction limited by mass transport on an optical biosensor (64) 127 Woodward, C., see Barbar, E. (64) 45 Privalov, P.L., see Makhatadze, G.I. (64) 93 Xie, G. and Timasheff, S.N. Razynska, A., see Gryczynski, Z. (64) 81 The thermodynamic mechanism of protein stabilization by Robertson, A.D., see DeKoster, G.T. (64) 59 trehalose (64) 25 } | Biophysical Chemistry Biophysical Chemistry 64 (1997) 291-294 Subject Index to Volume 64 Allosteric enzymes Chemical denaturation Thrombin; Na*; Site-directed mutagenesis (Guinto, E.R. (64) Ribonuclease A; Protein folding; Denaturant binding; Denaturant 103) m values (DeKoster, G.T. (64) 59) Allosteric regulation Chemical exchange Cooperativity; Hemoglobin intermediate; Subunit assembly Protein folding; Segmental motions; NMR; Equilibrium thermody- (Huang, Y. (64) 157) namics (Barbar, E. (64) 45) Phosphorylation; Self-association; Protein—protein interaction; Competitive electrostatic binding Phosphofructokinase (Cai, G.-Z. (64) 199) Charged ligands; Non-linear Poisson—Boltzmann equation; Poly- electrolytes (Rouzina, I. (64) 139) Avogadro’s hypothesis Gibbs conferences; Molecular mechanisms; Site-directed mutage- Cooperative binding nesis; Thermodynamics (Schellman, J.A. (64) 7) Hemoglobin; Quaternary enhancement; Regulation; Subunit as- sembly (Doyle, M.L. (64) 271) BlAcore Surface plasmon resonance; Biosensor; Mass transport; Kinetics; Cooperative interactions Protein—protein interaction (Myszka, D.G. (64) 127) Structural mapping; Structure-based statistical thermodynamic analysis; T4 lysozyme mutants (Hilser, V.J. (64) 69) Biosensor Surface plasmon resonance; BlAcore; Mass transport; Kinetics; Cooperativity Protein—protein interaction (Myszka, D.G. (64) 127) Allosteric regulation; Hemoglobin intermediate; Subunit assembly (Huang, Y. (64) 157) Biothermodynamics Gibbs conference (Ackers, G.K. (64) 3) Modeling; Nonlinear analysis; Data simulation; Enzyme kinetics; GroEL (LiCata, V.J. (64) 225) Buried ionizable group Dielectric inside a protein; Effective dielectric; Electrostatics; pK, Co-solvents in hydrophobic environment; Hydration (Garcia-Moreno E., B. Trehalose; Preferential interactions; Transfer free energy; Transfer (64) 211) enthalpy; Transfer entropy; Protein stabilization (Xie, G. (64) 25) Calorimetric enthalpy Data simulation Isothermal titration calorimetry; van’t Hoff enthalpy (Liu, Y. (64) Cooperativity; Modeling; Nonlinear analysis; Enzyme kinetics; 121) GroEL (LiCata, V.J. (64) 225) Calorimetry Denaturant binding Enthalpy; Monte Carlo simulation; Parameter estimation; van't Ribonuclease A; Protein folding; Chemical denaturation; Denatu- Hoff plots (Chaires, J.B. (64) 15) rant m values (DeKoster, G.T. (64) 59) Charged ligands Denaturant m values Competitive electrostatic binding; Non-linear Poisson—Boltzmann Ribonuclease A; Protein folding; Chemical denaturation; Denatu- equation; Polyelectrolytes (Rouzina, I. (64) 139) rant binding (DeKoster, G.T. (64) 59) 292 Subject Index to Volume 64 Dielectric inside a protein Helicases Buried ionizable group; Effective dielectric; Electrostatics; pX, in Model-independent isotherms; Macromolecular binding; Fluores- hydrophobic environment; Hydration (Garcia-Moreno E., B. (64) cence quenching (Jezewska, M.J. (64) 253) 211) Hemoglobin Differential scanning calorimetry Cooperative binding; Quaternary enhancement; Regulation; Sub- Protein unfolding; RNA binding domain; Human UIA (Lu, J. (64) unit assembly (Doyle, M.L. (64) 271) 111) Hemoglobin intermediate Effective dielectric Allosteric regulation; Cooperativity; Subunit assembly (Huang, Y. Buried ionizable group; Dielectric inside a protein; Electrostatics; (64) 157) pX, in hydrophobic environment; Hydration (Garcia-Moreno E., B. (64) 211) Hemoglobin species Fluorescence lifetime; Time-resolved fluorescence (Gryczynski, Electrostatics Z. (64) 81) Buried ionizable group; Dielectric inside a protein; Effective dielectric; pX, in hydrophobic environment; Hydration (Garcia- van’t Hoff enthalpy Moreno E., B. (64) 211) Calorimetric enthalpy; Isothermal titration calorimetry (Liu, Y. (64) 121) Energetics Fluorescence; Thermodynamics; Replication; Recombination; Re- van’t Hoff plots pair (Ferrari, M.E. (64) 235) Enthalpy; Calorimetry; Monte Carlo simulation; Parameter estima- tion (Chaires, J.B. (64) 15) Enthalpy Calorimetry; Monte Carlo simulation; Parameter estimation; van’t Human U1A Hoff plots (Chaires, J.B. (64) 15) Protein unfolding; RNA binding domain; Differential scanning calorimetry (Lu, J. (64) 111) Enzyme kinetics Cooperativity; Modeling; Nonlinear analysis; Data simulation; Hydration GroEL (LiCata, V.J. (64) 225) Buried ionizable group; Dielectric inside a protein; Effective dielectric; Electrostatics; pK, in hydrophobic environment Equilibrium thermodynamics (Garcia-Moreno E., B. (64) 211) Protein folding; Segmental motions; Chemical exchange; NMR (Barbar, E. (64) 45) Isothermal titration calorimetry Calorimetric enthalpy; van’t Hoff enthalpy (Liu, Y. (64) 121) Fluorescence lifetime Hemoglobin species; Time-resolved fluorescence (Gryczynski, Z. Kinetics (64) 81) Surface plasmon resonance; BlAcore; Biosensor; Mass transport; Protein—protein interaction (Myszka, D.G. (64) 127) Fluorescence quenching Model-independent isotherms; Macromolecular binding; Helicases (Jezewska, M.J. (64) 253) pX, in hydrophobic environment Buried ionizable group; Dielectric inside a protein; Effective Fluorescence dielectric; Electrostatics; Hydration (Garcia-Moreno E., B. (64) Thermodynamics; Energetics; Replication; Recombination; Repair 211) (Ferrari, M.E. (64) 235) Macromolecular binding Gibbs conference Model-independent isotherms; Helicases; Fluorescence quenching Biothermodynamics (Ackers, G.K. (64) 3) (Jezewska, M.J. (64) 253) Gibbs conferences Mass transport Avogadro’s hypothesis; Molecular mechanisms; Site-directed mu- Surface plasmon resonance; BlAcore; Biosensor; Kinetics; Pro- tagenesis; Thermodynamics (Schellman, J.A. (64) 7) tein—protein interaction (Myszka, D.G. (64) 127) GroEL Model compounds Cooperativity; Modeling; Nonlinear analysis; Data simulation; Scanning calorimetry; Partial heat capacity; Unfolded proteins Enzyme kinetics (LiCata, V.J. (64) 225) (Makhatadze, G.I. (64) 93) Subject Index to Volume 64 293 Model-independent isotherms Protein folding Macromolecular binding; Helicases; Fluorescence quenching Ribonuclease A; Chemical denaturation; Denaturant binding; De- (Jezewska, M.J. (64) 253) naturant m values (DeKoster, G.T. (64) 59) Modeling Segmental motions; Chemical exchange; NMR; Equilibrium ther- Cooperativity; Nonlinear analysis; Data simulation; Enzyme kinet- modynamics (Barbar, E. (64) 45) ics; GroEL (LiCata, V.J. (64) 225) Protein stability Molecular mechanisms Protein unfolding; Thermodynamics; Two-state model (Eftink, Avogadro’s hypothesis; Gibbs conferences; Site-directed mutagen- M.R. (64) 175) esis; Thermodynamics (Schellman, J.A. (64) 7) Protein stabilization Trehalose; Preferential interactions; Transfer free energy; Transfer Monte Carlo simulation enthalpy; Transfer entropy; Co-solvents (Xie, G. (64) 25) Enthalpy; Calorimetry; Parameter estimation; van’t Hoff plots (Chaires, J.B. (64) 15) Protein unfolding Protein stability; Thermodynamics; Two-state model (Eftink, M.R. Na* (64) 175) Thrombin; Allosteric enzymes; Site-directed mutagenesis (Guinto, E.R. (64) 103) RNA binding domain; Human UIA; Differential scanning calorimetry (Lu, J. (64) 111) NMR Protein folding; Segmental motions; Chemical exchange; Equilib- rium thermodynamics (Barbar, E. (64) 45) Protein—protein interaction Phosphorylation; Self-association; Allosteric regulation; Phospho- fructokinase (Cai, G.-Z. (64) 199) Nonlinear analysis Cooperativity; Modeling; Data simulation; Enzyme kinetics; Surface plasmon resonance; BlAcore; Biosensor; Mass transport; GroEL (LiCata, V.J. (64) 225) Kinetics (Myszka, D.G. (64) 127) Non-linear Poisson—Boltzmann equation Quaternary enhancement Charged ligands; Competitive electrostatic binding; Polyelec- Cooperative binding; Hemoglobin; Regulation; Subunit assembly trolytes (Rouzina, I. (64) 139) (Doyle, M.L. (64) 271) Parameter estimation Recombination Enthalpy; Calorimetry; Monte Carlo simulation; van’t Hoff plots Fluorescence; Thermodynamics; Energetics; Replication; Repair (Chaires, J.B. (64) 15) (Ferrari, M.E. (64) 235) Partial heat capacity Regulation Scanning calorimetry; Model compounds; Unfolded proteins Cooperative binding; Hemoglobin; Quaternary enhancement; Sub- (Makhatadze, G.I. (64) 93) unit assembly (Doyle, M.L. (64) 271) Phosphofructokinase Repair Phosphorylation; Self-association; Allosteric regulation; Protein— Fluorescence; Thermodynamics; Energetics; Replication; Recom- protein interaction (Cai, G.-Z. (64) 199) bination (Ferrari, M.E. (64) 235) Phosphorylation Replication Self-association; Allosteric regulation; Protein—protein interaction; Fluorescence; Thermodynamics; Energetics; Recombination; Re- Phosphofructokinase (Cai, G.-Z. (64) 199) pair (Ferrari, M.E. (64) 235) Polyelectrolytes Ribonuclease A Charged ligands; Competitive electrostatic binding; Non-linear Protein folding; Chemical denaturation; Denaturant binding; De- Poisson—Boltzmann equation (Rouzina, I. (64) 139) naturant m values (DeKoster, G.T. (64) 59) Preferential interactions RNA binding domain Trehalose; Transfer free energy; Transfer enthalpy; Transfer en- Protein unfolding; Human U1A; Differential scanning calorimetry tropy; Protein stabilization; Co-solvents (Xie, G. (64) 25) (Lu, J. (64) 111) 294 Subject Index to Volume 64 Scanning calorimetry Thermodynamics Partial heat capacity; Model compounds; Unfolded proteins Avogadro’s hypothesis; Gibbs conferences; Molecular mecha- (Makhatadze, G.I. (64) 93) nisms; Site-directed mutagenesis (Schellman, J.A. (64) 7) Fluorescence; Energetics; Replication; Recombination; Repair Segmental motions (Ferrari, M.E. (64) 235) Protein folding; Chemical exchange; NMR; Equilibrium thermo- dynamics (Barbar, E. (64) 45) Protein stability; Protein unfolding; Two-state model (Eftink, M.R. (64) 175) Self-association Phosphorylation; Allosteric regulation; Protein—protein interac- Thrombin tion; Phosphofructokinase (Cai, G.-Z. (64) 199) Allosteric enzymes; Na”; Site-directed mutagenesis (Guinto, E.R. (64) 103) Site-directed mutagenesis Avogadro’s hypothesis; Gibbs conferences; Molecular mecha- Time-resolved fluorescence nisms; Thermodynamics (Schellman, J.A. (64) 7) Fluorescence lifetime; Hemoglobin species (Gryczynski, Z. (64) 81) Thrombin; Allosteric enzymes; Na* (Guinto, E.R. (64) 103) Transfer enthalpy Trehalose; Preferential interactions; Transfer free energy; Transfer Structural mapping entropy; Protein stabilization; Co-solvents (Xie, G. (64) 25) Cooperative interactions; Structure-based statistical thermody- namic analysis; T4 lysozyme mutants (Hilser, V.J. (64) 69) Transfer entropy Trehalose; Preferential interactions; Transfer free energy; Transfer Structure-based statistical thermodynamic analysis enthalpy; Protein stabilization; Co-solvents (Xie, G. (64) 25) Cooperative interactions; Structural mapping; T4 lysozyme mu- tants (Hilser, V.J. (64) 69) Transfer free energy Trehalose; Preferential interactions; Transfer enthalpy; Transfer Subunit assembly entropy; Protein stabilization; Co-solvents (Xie, G. (64) 25) Allosteric regulation; Cooperativity; Hemoglobin intermediate (Huang, Y. (64) 157) Trehalose Preferential interactions; Transfer free energy; Transfer enthalpy; Transfer entropy; Protein stabilization; Co-solvents (Xie, G. (64) Cooperative binding; Hemoglobin; Quaternary enhancement; Reg- ulation (Doyle, M.L. (64) 271) 25) Two-state model Surface plasmon resonance Protein stability; Protein unfolding; Thermodynamics (Eftink, M.R. BlAcore; Biosensor; Mass transport; Kinetics; Protein—protein (64) 175) interaction (Myszka, D.G. (64) 127) Unfolded proteins T4 lysozyme mutants Scanning calorimetry; Partial heat capacity; Model compounds Cooperative interactions; Structural mapping; Structure-based sta- (Makhatadze, G.I. (64) 93) tistical thermodynamic analysis (Hilser, V.J. (64) 69) |