Javascript must be enabled to continue!
A divide-and-conquer approach based on deep learning for long RNA secondary structure prediction: focus on pseudoknots identification
View through CrossRef
AbstractThe accurate prediction of RNA secondary structure, and pseudoknots in particular, is of great importance in understanding the functions of RNAs since they give insights into their folding in three-dimensional space. However, existing approaches often face computational challenges or lack precision when dealing with long RNA sequences and/or pseudoknots. To address this, we propose a divide-and-conquer method based on deep learning, called DivideFold, for predicting the secondary structures including pseudoknots of long RNAs. Our approach is able to scale to long RNAs by recursively partitioning sequences into smaller fragments until they can be managed by an existing model able to predict RNA secondary structure including pseudoknots. We show that our approach exhibits superior performance compared to state-of-the-art methods for pseudoknots prediction and secondary structure prediction including pseudoknots for long RNAs. The source code of DivideFold, along with all the datasets used in this study, is accessible athttps://evryrna.ibisc.univ-evry.fr/evryrna/dividefold/home.
Cold Spring Harbor Laboratory
Title: A divide-and-conquer approach based on deep learning for long RNA secondary structure prediction: focus on pseudoknots identification
Description:
AbstractThe accurate prediction of RNA secondary structure, and pseudoknots in particular, is of great importance in understanding the functions of RNAs since they give insights into their folding in three-dimensional space.
However, existing approaches often face computational challenges or lack precision when dealing with long RNA sequences and/or pseudoknots.
To address this, we propose a divide-and-conquer method based on deep learning, called DivideFold, for predicting the secondary structures including pseudoknots of long RNAs.
Our approach is able to scale to long RNAs by recursively partitioning sequences into smaller fragments until they can be managed by an existing model able to predict RNA secondary structure including pseudoknots.
We show that our approach exhibits superior performance compared to state-of-the-art methods for pseudoknots prediction and secondary structure prediction including pseudoknots for long RNAs.
The source code of DivideFold, along with all the datasets used in this study, is accessible athttps://evryrna.
ibisc.
univ-evry.
fr/evryrna/dividefold/home.
Related Results
Detecting RNA–RNA interactome
Detecting RNA–RNA interactome
AbstractThe last decade has seen a robust increase in various types of novel RNA molecules and their complexity in gene regulation. RNA molecules play a critical role in cellular e...
Effect of RNA preservation methods on RNA quantity and quality of field collected avian whole blood
Effect of RNA preservation methods on RNA quantity and quality of field collected avian whole blood
ABSTRACT
A limitation of comparative transcriptomic studies of wild avian populations continues to be sample acquisition and preservation to achi...
RMalign: an RNA structural alignment tool based on a size independent scoring function
RMalign: an RNA structural alignment tool based on a size independent scoring function
ABSTRACT
RNA-protein 3D complex structure prediction is still challenging. Recently, a template-based approach PRIME is proposed in our team to build RNA-protein co...
Selection of Injectable Drug Product Composition using Machine Learning Models (Preprint)
Selection of Injectable Drug Product Composition using Machine Learning Models (Preprint)
BACKGROUND
As of July 2020, a Web of Science search of “machine learning (ML)” nested within the search of “pharmacokinetics or pharmacodynamics” yielded over 100...
Pseudoknots in RNA Structure Prediction
Pseudoknots in RNA Structure Prediction
AbstractRNA molecules play active roles in the cell and are important for numerous applications in biotechnology and medicine. The function of an RNA molecule stems from its struct...
Biophysical studies of RNA:DNA:DNA triplexes and characterization of riboswitches in cell-free transcription-translation systems
Biophysical studies of RNA:DNA:DNA triplexes and characterization of riboswitches in cell-free transcription-translation systems
RNA research is very important since RNA molecules are involved in various gene regulatory mechanisms as well as pathways of cell physiology and disease development.1 RNAs have evo...
CREATING LEARNING MEDIA IN TEACHING ENGLISH AT SMP MUHAMMADIYAH 2 PAGELARAN ACADEMIC YEAR 2020/2021
CREATING LEARNING MEDIA IN TEACHING ENGLISH AT SMP MUHAMMADIYAH 2 PAGELARAN ACADEMIC YEAR 2020/2021
The pandemic Covid-19 currently demands teachers to be able to use technology in teaching and learning process. But in reality there are still many teachers who have not been able ...
RNA structure prediction using positive and negative evolutionary information
RNA structure prediction using positive and negative evolutionary information
AbstractKnowing the structure of conserved structural RNAs is important to elucidate their function and mechanism of action. However, predicting a conserved RNA structure remains u...

