PeerJ Physical ChemistryBioinformaticsPeer-reviewed journal article
Toeholder: a software for automated design and in silico validation of toehold riboswitches
Angel F. CisnerosiD, François D. RouleauiD, Carla BautistaiD, Pascale LemieuxiD, Nathan Dumont-LeblondiD
Abstract
Synthetic biology aims to engineer biological circuits, which often involve gene expression. A particularly promising group of regulatory elements are riboswitches because of their versatility with respect to their targets, but early synthetic designs were not as attractive because of a reduced dynamic range with respect to protein regulators. Only recently, the creation of toehold switches helped overcome this obstacle by also providing an unprecedented degree of orthogonality. However, a lack of automated design and optimization tools prevents the widespread and effective use of toehold switches in high throughput experiments. To address this, we developed Toeholder, a comprehensive open-source software for toehold design and in silico comparison. Toeholder takes into consideration sequence constraints from experimentally tested switches, as well as data derived from molecular dynamics simulations of a toehold switch. We describe the software and its in silico validation results, as well as its potential applications and impacts on the management and design of toehold switches.
- Citations
- 3
- FWCI
- 0.18
- Field percentile
- 37th percentile
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