Using complex roots of unity and the Fast Fourier Transform, we design a new thermodynamics-based algorithm, FFTbor, that computes the Boltzmann probability that secondary structures differ by [Formula: see text] base pairs from an arbitrary initial structure of a given RNA sequence. The algorithm, which runs in quartic time O(n(4)) and quadratic space O(n(2)), is used to determine the correlation between kinetic folding speed and the ruggedness of the energy landscape, and to predict the location of riboswitch expression platform candidates. A web server is available at http://bioinformatics.bc.edu/clotelab/FFTbor/
The ability to fold into well-defined native conformation is a prerequisite for biologically functio...
ABSTRACT: BACKGROUND: Many bioinformatics tools for RNA secondary structure analysis are based on a ...
In molecular biology, the secondary structure of a ribonucleic acid (RNA) molecule is closely relate...
International audienceUsing complex roots of unity and the Fast Fourier Transform, we design a new t...
International audienceWe describe the broad outline of a new thermodynamics-based algorithm, FFTbor,...
Motivation: We describe algorithms implemented in a new software package, RNAbor, to investigate str...
Motivation: RNA secondary structures with pseudoknots are often predicted by minimizing free energy,...
Background: Since RNA molecules regulate genes and control alternative splicing by allostery, it is ...
In this paper I outline a fast method called KFOLD for implementing the Gillepie algorithm to stocha...
Motivation: Abstract shape analysis allows efcient computation of a representative sample of low-ene...
Höchsmann T, Höchsmann M, Giegerich R. Thermodynamic matchers: strengthening the significance of RNA...
Motivation: Abstract shape analysis allows efficient computation of a representative sample of low-e...
It has recently been found that some RNA functions are determined by the actual folding kinetics and...
International audienceBACKGROUND: Since RNA molecules regulate genes and control alternative splicin...
Janssen S, Giegerich R. Faster computation of exact RNA shape probabilities. Bioinformatics. 2010;26...
The ability to fold into well-defined native conformation is a prerequisite for biologically functio...
ABSTRACT: BACKGROUND: Many bioinformatics tools for RNA secondary structure analysis are based on a ...
In molecular biology, the secondary structure of a ribonucleic acid (RNA) molecule is closely relate...
International audienceUsing complex roots of unity and the Fast Fourier Transform, we design a new t...
International audienceWe describe the broad outline of a new thermodynamics-based algorithm, FFTbor,...
Motivation: We describe algorithms implemented in a new software package, RNAbor, to investigate str...
Motivation: RNA secondary structures with pseudoknots are often predicted by minimizing free energy,...
Background: Since RNA molecules regulate genes and control alternative splicing by allostery, it is ...
In this paper I outline a fast method called KFOLD for implementing the Gillepie algorithm to stocha...
Motivation: Abstract shape analysis allows efcient computation of a representative sample of low-ene...
Höchsmann T, Höchsmann M, Giegerich R. Thermodynamic matchers: strengthening the significance of RNA...
Motivation: Abstract shape analysis allows efficient computation of a representative sample of low-e...
It has recently been found that some RNA functions are determined by the actual folding kinetics and...
International audienceBACKGROUND: Since RNA molecules regulate genes and control alternative splicin...
Janssen S, Giegerich R. Faster computation of exact RNA shape probabilities. Bioinformatics. 2010;26...
The ability to fold into well-defined native conformation is a prerequisite for biologically functio...
ABSTRACT: BACKGROUND: Many bioinformatics tools for RNA secondary structure analysis are based on a ...
In molecular biology, the secondary structure of a ribonucleic acid (RNA) molecule is closely relate...