Motivation: Kinetics is key to understand many phenomena involving RNAs, such as co‐transcriptional folding and riboswitches. Exact out‐of‐equilibrium studies induce extreme computational demands, leading state‐of‐the‐art methods to rely on approximated… Click to show full abstract
Motivation: Kinetics is key to understand many phenomena involving RNAs, such as co‐transcriptional folding and riboswitches. Exact out‐of‐equilibrium studies induce extreme computational demands, leading state‐of‐the‐art methods to rely on approximated kinetics landscapes, obtained using sampling strategies that strive to generate the key landmarks of the landscape topology. However, such methods are impeded by a large level of redundancy within sampled sets. Such a redundancy is uninformative, and obfuscates important intermediate states, leading to an incomplete vision of RNA dynamics. Results: We introduce RNANR, a new set of algorithms for the exploration of RNA kinetics landscapes at the secondary structure level. RNANR considers locally optimal structures, a reduced set of RNA conformations, in order to focus its sampling on basins in the kinetic landscape. Along with an exhaustive enumeration, RNANR implements a novel non‐redundant stochastic sampling, and offers a rich array of structural parameters. Our tests on both real and random RNAs reveal that RNANR allows to generate more unique structures in a given time than its competitors, and allows a deeper exploration of kinetics landscapes. Availability and implementation: RNANR is freely available at https://project.inria.fr/rnalands/rnanr. Contact: [email protected]
               
Click one of the above tabs to view related content.