Nucleic Acids Research · 1985 · 433 citations · 28 references
Life SciencesBiochemistryMolecular BiologyNucleic Acid BiochemistryStructural BiochemistryStructural BiologyBase PairingNucleic Acid StructureRibonucleic Acid (Rna) ChemistryRna BiophysicsRna FoldingRna StructureBase Pair MismatchesMismatched Base PairsRna Base PairingRna HelicesRna Secondary StructureRna ThermodynamicsRoom Temperature StabilitySecondary Rna Structure
Thermodynamic parameters for double strand formation have been measured for the sixteen double helices of the sequence dCA3XA3G.dCT3YT3G, with each of the bases A, C, G and T at the positions labelled X and Y. The results are analyzed in terms of nearest-neighbors and are compared with thermodynamic parameters for RNA secondary structure. At room temperature the sequence (Formula: see text) is more stable than (Formula: see text) and is similar in stability to (Formula: see text) and (Formula: see text) are least stable. At higher temperatures the sequences containing a G.C base pair become more stable than those containing only A.T. All molecules containing mismatches are destabilized with respect to those with only Watson-Crick pairing, but there is a wide range of destabilization. At room temperature the most stable mismatches are those containing guanine (G.T, G.G, G.A); the least stable contain cytosine (C.A, C.C). At higher temperatures pyrimidine-pyrimidine mismatches become the least stable.
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Improved Estimation of Secondary Structure in Ribonucleic Acids
Ignacio Tinoco, Philip N. Borer, Barbara Dengler et al. · Nature New Biology · 1973 · 2.3K citations
The locus of sequence-directed and protein-induced DNA bending
Hen‐Ming Wu, Donald M. Crothers · Nature · 1984 · 1.5K citations
Structure of a B-DNA dodecamer
Richard E. Dickerson, Horace R. Drew · Journal of Molecular Biology · 1981 · 893 citations
Stability of ribonucleic acid double-stranded helices
Philip N. Borer, Barbara Dengler, Ignacio Tinoco et al. · Journal of Molecular Biology · 1974 · 766 citations