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Expected distance between terminal nucleotides of RNA secondary structures. (English) Zbl 1304.05073
Summary: A. M. Yoffe et al. [“The ends of a large RNA molecule are necessarily close”, Nucleic Acids Res. 39, No. 1, 292–299 (2011)] used the programs RNAfold [resp. RNAsubopt] from Vienna RNA Package to calculate the distance between \(5^{\prime}\) and \(3^{\prime}\) ends of the minimum free energy secondary structure [resp. thermal equilibrium structures] of viral and random RNA sequences. Here, the \(5^{\prime}\)–\(3^{\prime}\) distance is defined to be the length of the shortest path from \(5^{\prime}\) node to \(3^{\prime}\) node in the undirected graph, whose edge set consists of edges \(\{i, i + 1\}\) corresponding to covalent backbone bonds and of edges \(\{i, j\}\) corresponding to canonical base pairs. From repeated simulations and using a heuristic theoretical argument, Yoffe et al. [loc. cit.] conclude that the \(5^{\prime}\)–\(3^{\prime}\) distance is less than a fixed constant, independent of RNA sequence length.
In this paper, we provide a rigorous, mathematical framework to study the expected distance from \(5^{\prime}\) to \(3^{\prime}\) ends of an RNA sequence. We present recurrence relations that precisely define the expected distance from \(5^{\prime}\) to \(3^{\prime}\) ends of an RNA sequence, both for the Turner nearest neighbor energy model, as well as for a simple homopolymer model first defined by Stein and Waterman. We implement dynamic programming algorithms to compute (rather than approximate by repeated application of Vienna RNA Package) the expected distance between \(5^{\prime}\) and \(3^{\prime}\) ends of a given RNA sequence, with respect to the Turner energy model. Using methods of analytical combinatorics, that depend on complex analysis, we prove that the asymptotic expected \(5^{\prime}\)–\(3^{\prime}\) distance \({\langle d_n \rangle}\) of length \(n\) homopolymers is approximately equal to the constant 5.47211, while the asymptotic distance is 6.771096 if hairpins have a minimum of 3 unpaired bases and the probability that any two positions can form a base pair is 1/4. Finally, we analyze the \(5^{\prime}\)–\(3^{\prime}\) distance for secondary structures from the STRAND database, and conclude that the \(5^{\prime}\)–\(3^{\prime}\) distance is correlated with RNA sequence length.

05C30 Enumeration in graph theory
49L20 Dynamic programming in optimal control and differential games
90C39 Dynamic programming
92C40 Biochemistry, molecular biology
Full Text: DOI
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