Science · 1974 · 991 citations · 11 references
Life SciencesBiochemistryMolecular BiologyMolecular BiophysicsStructural BiochemistryStructural BiologyBase StackingNucleic Acid StructureRna ChemistryRna FoldingRna ModificationRna StructureChemical ModificationHydrogen BondingRibonucleic Acid (Rna) StructureRna Tertiary StructureStackingTertiary Rna StructureTransfer Rna StructureTransfer Rna Tertiary Structure
The 3-angstrom electron density map of crystalline yeast phenylalanine transfer RNA has provided us with a complete three-dimensional model which defines the positions of all of the nucleotide residues in the moleclule. The overall features of the molecule are virtually the same as those seen at a resolution of 4 angstroms except that many additional details of tertiary structure are now visualized. Ten types of hydrogen bonding are identified which define the specificity of tertiary interactions. The molecule is also stabilized by considerable stacking of the planar purines and pyrimidines. This tertiary structure explains, in a simple and direct fashion, chemical modification studies of transfer RNA. Since most of the tertiary interactions involve nucleotides which are common to all transfer RNA 's, it is likely that this three-dimensional structure provides a basic pattern of folding which may help to clarify the three-dimensional structure of all transfer RNA's.
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Detailed Molecular Model for Transfer Ribonucleic Acid
Michael Levitt · Nature · 1969 · 404 citations
Three-dimensional structure of yeast phenylalanine transfer RNA at 3. 0Å resolution
F. L. Suddath, Gary J. Quigley, Alexander McPherson et al. · Nature · 1974 · 155 citations
Uttam L. RajBhandary, Sheng‐Fuh Chang, Judith M. Sneider et al. · Journal of Biological Chemistry · 1968 · 136 citations · Full text