Showing 1,261 - 1,280 results of 229,717 for search '(( 2 step decrease ) OR ( 10 ((we decrease) OR (((nn decrease) OR (a decrease)))) ))', query time: 1.08s Refine Results
  1. 1261
  2. 1262

    Image_2_EEG 40 Hz Coherence Decreases in REM Sleep and Ketamine Model of Psychosis.TIF by Santiago Castro-Zaballa (6238823)

    Published 2019
    “…On the contrary, gamma power was relatively high under ketamine, and similar to QW and REM sleep. We conclude that functional interactions between cortical areas in the gamma frequency band decrease in both experimental models of psychosis. …”
  3. 1263

    Image_1_EEG 40 Hz Coherence Decreases in REM Sleep and Ketamine Model of Psychosis.TIF by Santiago Castro-Zaballa (6238823)

    Published 2019
    “…On the contrary, gamma power was relatively high under ketamine, and similar to QW and REM sleep. We conclude that functional interactions between cortical areas in the gamma frequency band decrease in both experimental models of psychosis. …”
  4. 1264
  5. 1265

    Supplementary Material for: Maternal Stress During Pregnancy Is Associated with Decreased Cortisol and Cortisone Levels in Neonatal Hair by vanderVoorn B. (6076475)

    Published 2018
    “…<b><i>Background:</i></b> Hair glucocorticoids (GCs) offer a retrospective view on chronic GC exposure. We assessed whether maternal pre- and postnatal stress was associated with neonatal and maternal hair GCs postpartum (pp). …”
  6. 1266
  7. 1267
  8. 1268
  9. 1269
  10. 1270
  11. 1271

    Hybrid Quantum/Classical Molecular Dynamics Simulations of the Proton Transfer Reactions Catalyzed by Ketosteroid Isomerase: Analysis of Hydrogen Bonding, Conformational Motions, a... by Dhruva K. Chakravorty (1420549)

    Published 2009
    “…The carboxylate group of the Asp38 side chain, which serves as the proton acceptor and donor in the first and second steps, respectively, rotates significantly between the two proton transfer reactions. …”
  12. 1272

    Hybrid Quantum/Classical Molecular Dynamics Simulations of the Proton Transfer Reactions Catalyzed by Ketosteroid Isomerase: Analysis of Hydrogen Bonding, Conformational Motions, a... by Dhruva K. Chakravorty (1420549)

    Published 2009
    “…The carboxylate group of the Asp38 side chain, which serves as the proton acceptor and donor in the first and second steps, respectively, rotates significantly between the two proton transfer reactions. …”
  13. 1273

    Hybrid Quantum/Classical Molecular Dynamics Simulations of the Proton Transfer Reactions Catalyzed by Ketosteroid Isomerase: Analysis of Hydrogen Bonding, Conformational Motions, a... by Dhruva K. Chakravorty (1420549)

    Published 2009
    “…The carboxylate group of the Asp38 side chain, which serves as the proton acceptor and donor in the first and second steps, respectively, rotates significantly between the two proton transfer reactions. …”
  14. 1274

    Hybrid Quantum/Classical Molecular Dynamics Simulations of the Proton Transfer Reactions Catalyzed by Ketosteroid Isomerase: Analysis of Hydrogen Bonding, Conformational Motions, a... by Dhruva K. Chakravorty (1420549)

    Published 2009
    “…The carboxylate group of the Asp38 side chain, which serves as the proton acceptor and donor in the first and second steps, respectively, rotates significantly between the two proton transfer reactions. …”
  15. 1275

    Hybrid Quantum/Classical Molecular Dynamics Simulations of the Proton Transfer Reactions Catalyzed by Ketosteroid Isomerase: Analysis of Hydrogen Bonding, Conformational Motions, a... by Dhruva K. Chakravorty (1420549)

    Published 2009
    “…The carboxylate group of the Asp38 side chain, which serves as the proton acceptor and donor in the first and second steps, respectively, rotates significantly between the two proton transfer reactions. …”
  16. 1276

    Hybrid Quantum/Classical Molecular Dynamics Simulations of the Proton Transfer Reactions Catalyzed by Ketosteroid Isomerase: Analysis of Hydrogen Bonding, Conformational Motions, a... by Dhruva K. Chakravorty (1420549)

    Published 2009
    “…The carboxylate group of the Asp38 side chain, which serves as the proton acceptor and donor in the first and second steps, respectively, rotates significantly between the two proton transfer reactions. …”
  17. 1277

    Hybrid Quantum/Classical Molecular Dynamics Simulations of the Proton Transfer Reactions Catalyzed by Ketosteroid Isomerase: Analysis of Hydrogen Bonding, Conformational Motions, a... by Dhruva K. Chakravorty (1420549)

    Published 2009
    “…The carboxylate group of the Asp38 side chain, which serves as the proton acceptor and donor in the first and second steps, respectively, rotates significantly between the two proton transfer reactions. …”
  18. 1278

    Hybrid Quantum/Classical Molecular Dynamics Simulations of the Proton Transfer Reactions Catalyzed by Ketosteroid Isomerase: Analysis of Hydrogen Bonding, Conformational Motions, a... by Dhruva K. Chakravorty (1420549)

    Published 2009
    “…The carboxylate group of the Asp38 side chain, which serves as the proton acceptor and donor in the first and second steps, respectively, rotates significantly between the two proton transfer reactions. …”
  19. 1279

    Hybrid Quantum/Classical Molecular Dynamics Simulations of the Proton Transfer Reactions Catalyzed by Ketosteroid Isomerase: Analysis of Hydrogen Bonding, Conformational Motions, a... by Dhruva K. Chakravorty (1420549)

    Published 2009
    “…The carboxylate group of the Asp38 side chain, which serves as the proton acceptor and donor in the first and second steps, respectively, rotates significantly between the two proton transfer reactions. …”
  20. 1280

    Hybrid Quantum/Classical Molecular Dynamics Simulations of the Proton Transfer Reactions Catalyzed by Ketosteroid Isomerase: Analysis of Hydrogen Bonding, Conformational Motions, a... by Dhruva K. Chakravorty (1420549)

    Published 2009
    “…The carboxylate group of the Asp38 side chain, which serves as the proton acceptor and donor in the first and second steps, respectively, rotates significantly between the two proton transfer reactions. …”